Skytech: The Drones Transforming Industries : simplebooklet.com

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As technology continues to reshape our world, one innovation stands out for itsrapid evolution and transformative impact—drones. Welcome to the February 2025edition of Industrial Guide NEWS Asia , where we take an in-depth look at how dronetechnology is revolutionizing industries in our feature story, "Sky Tech: The DronesTransforming Industries."What was once seen as a glimpse into the future has now become an everydayreality. Drones have evolved far beyond simple gadgets for hobbyists or militarysurveillance tools. Today, they are revolutionizing supply chains, enhancingsecurity, and even saving lives. In logistics, drones are transforming last-miledelivery, ensuring packages reach even the most remote areas with remarkablespeed. In agriculture, they are driving productivity by monitoring crops, detectingdiseases, and optimizing irrigation through real-time data. The construction andinfrastructure sectors are harnessing drones for site inspections and mapping,minimizing risks for human workers while boosting efficiency. During disasterresponse efforts, drones are proving to be invaluable, aiding in search-and-rescuemissions and delivering emergency relief to areas where human access is restricted.Drones are not just functional; they are also part of the ongoing evolution ofesports.With AI-powered automation and improved aerial capabilities, drones are not justtools; they are catalysts of progress. But as with any technological advancement,challenges remain—regulations, privacy concerns, and integration hurdles continueto shape the conversation around drone adoption. How will industries navigatethese challenges? What does the future hold for drone-powered economies? Thisissue features expert insights, real-world case studies, and predictions fromindustry leaders to address these questions and more.As we look ahead, one thing is clear: the sky is no longer the limit—it’s the newfrontier. We hope this edition inspires you to explore the endless possibilities ofdrone technology and its role in shaping the future of business, innovation, andsociety.Thank you for being part of our journey. Let’s take flight together!Warm Regards,Team Industrial Guide News AsiaPUBLISHER’S NOTE

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Insight Outhttps://iiga.news.comPolicies concerning economic security and environmentalissues are rapidly evolving in the global drone market. In theUnited States, the National Defense Authorization Act(NDAA) bans government purchases of drones from Russiaand China. Furthermore, the U.S. Department of Defenseclassified DJI, a Chinese drone manufacturer, as a "ChinaMilitary Enterprise" starting in October 2022. Given thismarket landscape, ACSL sees the opportunity to create apositioning strategy centered around the themes of"economic security," "enterprise support," and "application-specific" solutions.Page 01ACSL Ltd. (ACSL) is pleased to announce that our U.S. subsidiary,ACSL, Inc., has formed a new partnership with Almo Corporation,doing business as Exertis Almo (Exertis Almo), aimed at enhancingsales and market development in North America.U.S. subsidiary ACSL, Inc. Announces a NewPartnership with Exertis AlmoIn response to the increasing demand for secure, versatile, and high-performance small aerial drones, ACSL launched a U.S. subsidiary,ACSL, Inc., in California in January 2023. By January 2024, ACSL, Inc.had commenced full-scale sales in the United States.Exertis Almo, the largest professional AV distributor in NorthAmerica, is well-known for its extensive distribution network andvalue-added services. In October 2024, ACSL, Inc. formed adistribution agreement with Exertis Almo, resulting in an order for500 SOTEN drones from them. This new partnership aims to utilizeExertis Almo’s expertise to offer comprehensive distribution,support, and training to an expanding UAS dealer network. We areactively addressing the rising interest in SOTEN within the marketand are dedicated to advancing sales and market growth in NorthAmerica.ACSL, Inc. CEO Cynthia Huang’sComments : “ACSL is deeply committedto understanding and meeting theunique needs of the U.S. drone market.We’ve spent considerable time in thefield since our initial launch into the US,learning from our users, andcontinuously improving our systemsbased on their feedback. Ourpartnership with Exertis Almo marks asignificant step forward in bringing ouradvanced UAS solutions to a broaderaudience.”Exertis Almo Business DevelopmentManager for Drone Solutions, EricJameson, shared his thoughts:“Partnering with ACSL to introduce theflagship SOTEN drone to our network ofpartners presents a significantopportunity. ACSL’s NDAA/TAA-compliant drones offer flexibleapplications for inspection, surveying,and surveillance in various sectors,including energy, public safety, andagriculture. As the premier trade-onlydistributor in the drone market, ExertisAlmo is dedicated to assistingintegrators in navigating this expandingindustry. We are excited to present theSOTEN drone this spring at the ExertisAlmo E4 Experience training and AV techexpos in Dallas and New Jersey.”Reason and details of the partnership

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“These new orders further validate the performanceand unique capabilities of the Edge 130 as part ofour Family of Systems and reinforce our position as atrusted provider of drone solutions for governmentand military applications,” said Jeff Thompson, RedCat CEO. “We are expanding our manufacturingcapacity for the Edge 130 to accelerate thismomentum and remain committed to supportingU.S. government agencies with the industry’s besttechnology that enhances their mission capabilitiesand success.”Insight OutRed Cat Secures $518Kin New Orders forEdge 130 Drones fromU.S. GovernmentAgenciesRed Cat Holdings, Inc. ("Red Cat" or the"Company"), a company specializing in dronetechnology that combines robotic hardwareand software for military, government, andcommercial use, has announced today that ithas received new orders for its Edge 130drone from the Army National Guard andanother U.S. Government Agency (OGA),amounting to a total of $518,000.The Edge 130 Blue is a UAS-certified, military-grade tricopterdesigned for long-range mapping, inspection, surveillance, andreconnaissance tasks. Specifically tailored for government andmilitary use, this drone can be assembled and launched by asingle operator in just one minute, capturing high-precisionaerial imagery with medium-range autonomy. Weighing only1200g, the Edge boasts a flight time exceeding 60 minutes inforward mode, setting the standard for endurance among allother Blue UAS-approved drones on the market.Page 02https://iiga.news.comFlightWave, a prominent provider of VTOLdrones, sensor technology, and softwaresolutions, was acquired by Red Cat inSeptember 2024. This acquisitionincorporated FlightWave’s flagship drone, theEdge 130 Blue, into Red Cat’s lineup ofaffordable, portable unmannedreconnaissance and precision strike systems.The lightweight and compact design ofFlightWave’s drone, along with its verticaltakeoff capabilities, makes it particularly well-suited for maritime operations and coastalsettings.The combined orders totaling 12 Edge 130drones demonstrate Red Cat’s ongoingprogress in delivering advanced dronetechnology solutions to essential defense andsecurity clients. The Edge 130 is recognizedfor its impressive features, which includeextended flight endurance, AI-enhancedsurveillance capabilities, and effectiveness invarious mission-critical scenarios.

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Baykar’s move to establish a physical presence inMorocco is part of a larger trend of defense cooperationbetween the two nations. Turkey has cemented itsposition as a leading player in the military droneindustry, securing numerous international clients. At thesame time, Morocco is focused on bolstering its defensecapabilities and modernizing its armed forces. The newmaintenance facility will not only ensure the operationalreadiness of the Bayraktar TB2 fleet but may also servefuture acquisitions such as the Akıncı drones.While the extent of local production remains unclear,Baykar’s investment reflects its ambition to expand intoemerging markets. The company is already constructinga drone factory in Ukraine, with plans to manufacture upto 120 UAVs annually, and has set up an assembly line inSaudi Arabia. Though the Moroccan facility is on asmaller scale, it underscores Baykar’s commitment todeepening its presence in Africa.In parallel with this initiative, Morocco has been workingon developing its own defense industry. The countrypartnered with Israeli company BlueBird Aero Systemsin April 2024 to establish a drone manufacturing facility.However, progress on this project has been hamperedby ongoing conflicts in Gaza.The growing defense and technological collaborationbetween Morocco, Turkey, and Israel highlights abroader strategy to modernize Morocco’s militarycapabilities and reduce dependence on foreignsuppliers. While Baykar’s new Moroccan subsidiary isnot a full-scale production facility, it marks a significantstep toward enhancing strategic ties between Rabat andAnkara and reinforcing Turkey’s role in Africa’s defenseindustry.Insight Outhttps://iiga.news.comMorocco has been a key customer of Baykar, havingprocured Bayraktar TB2 drones. In April 2021, theMoroccan government placed an order for 13 unitsworth approximately $70 million, with the firstdeliveries arriving by September of the same year.The agreement also included four ground controlstations, a configurable simulation system, a digitaltracking infrastructure, and the establishment of adrone operations center at Moroccan militarybases.Turkish drone manufacturer Baykar has taken asignificant step in strengthening its foothold in Africaby establishing a subsidiary in Morocco to supportthe maintenance of its unmanned aerial vehicles(UAVs) already in service with the Moroccan military.As reported by Middle East Eye, the newly formedentity, "Atlas Defence," was officially registered withMorocco’s Trade Registry on December 5, 2024.Details of the establishment were later published inMorocco’s Official Gazette No. 5857 on January 29,2025. The company, headquartered in Rabat, has aninitial capital investment of 2.5 million dirhams($680,000).Page 03In April 2021, Morocco purchased 13 Bayraktar TB2drones for $70 million, with the first batch deliveredin September, accompanied by supportinfrastructure and a drone operations center(Picture source: Baykar).This move aligns with Baykar’s broader strategy toexpand its international operations, particularlywithin the African UAV market. The company aims toprovide improved support services to its regionalclients by setting up a dedicated maintenancefacility. Additionally, the initiative is expected tostrengthen diplomatic and economic relationsbetween Turkey and Morocco, creating employmentopportunities and boosting the local economy. Whiledefense deals are typically conducted throughgovernment-to-government agreements, establishingan industrial presence in partner nations canenhance bilateral cooperation.To ensure the effective operation of the drones,Moroccan military personnel underwent training inTurkey, with the first batch of operators completingtheir program in September 2021. Since then, Moroccohas continued to explore further acquisitions of Turkishdefense technology, including the more advancedBayraktar Akıncı drone, which boasts superior payloadcapacity and mission capabilities.Baykar Establishes DroneMaintenance Facility inMorocco, ExpandingRegional Influence to Africa

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https://iiga.news.comDraganfly Secures FAA Waiver for DroneOperations Over People and Moving VehiclesDraganfly a leader in drone technology andunmanned aerial vehicle (UAV) solutions, anindustry-leading drone solutions andsystems provider, announced today that ithas secured a Federal AviationAdministration (FAA) waiver enabling itssmall unmanned aircraft (sUA) to conductoperations over human beings and movingvehicles. This waiver marks a significantmilestone for Draganfly and highlights itscommitment to advancing the capabilitiesof UAV operations in complex urbanenvironments.The waiver, granted under 14 CFR §§ 107.39—Operations over human beings and107.145—Operations over moving vehicles,allows Draganfly to conduct flights beyondthe standard operational restrictions of FAAPart 107 regulations. The permissions covera prescribed flight route over the city ofBoston, emphasizing safety and reliabilitywhile operating within challenging anddensely populated urban settings.“Securing this FAA waiver underscores thetrust and confidence we have built withregulatory authorities and reflects thesafety and strength of our UAV platforms,”said Cameron Chell, CEO of Draganfly Inc.“This achievement allows us to deploydrones for critical applications in urbanenvironments, including public safety,infrastructure inspection, and specializedmission support.”Insight OutPage 04These regulatory exemptions reinforce Draganfly’s position as aninnovator in the UAV space and showcase its readiness to meet theevolving needs of its defense, government, and commercial partners.“This waiver is not only a regulatory achievement but a significant stepforward in scaling drone operations in the urban landscape,” said CotyVann, UAS Programs Director and lead project manager for the Bostonproject. “We are proud to pioneer UAV missions that make meaningfulcontributions to industries and communities alike.”The FAA waiver reinforces Draganfly’s commitment to ensuringoperational safety while pushing the boundaries of UAV applications.The company’s drone systems are equipped with advanced airspacemanagement capabilities and precision controls, enabling compliancewith the stringent safety standards set forth by the FAA.This milestone positions Draganfly to lead the drone industry into afuture where UAVs are seamlessly integrated into urban environments.As regulations evolve and the demand for UAV solutions continues togrow, Draganfly is poised to deliver innovative, reliable, and scalablesystems that redefine the role of drones across multiple sectors.The waiver permits the following operations:Operations over human beings: Allowing flights overindividuals who are not direct participants in the UAVoperation.Operations over moving vehicles: Enabling UAV operationsover moving traffic, which is critical for urban deploymentscenarios.

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Quotes attributable to Minister for Defence Industry and CapabilityDelivery, Pat Conroy: “This project will create highly skilled jobs forSouth Australia and demonstrates the Albanese Government’scommitment to building Australia’s future through a strengtheningof Australia’s sovereign manufacturing capabilities.”“This project is also about providing the Australian Defence Forcewith the capabilities and equipment it needs to keep Australianssafe.”Insight Outhttps://iiga.news.comPage 06The Albanese Government isbuilding Australia’s future,advancing a cutting-edge radiocommunications production line inSouth Australia through theDEF129 Uncrewed Aerial Systemsproject.In July 2024, the AlbaneseGovernment announced itsintention to invest over $100million to boost the ADF’s arsenalof drones. One of the two dronesselected was the Australian madeSypaq Systems CorvoX.Codan Communications willdeliver the Sentry Mesh 6161 radiointo the Sypaq Systems CorvoXunder a $15 million contract forthe Australian Defence Force(ADF). The South Australia-based CodanCommunications productionfacility will employ up to 18 highlyskilled workers delivering precisionengineering to support production,including video encoding, meshand algorithms equipmentpackaging, and certification.New drone radioproduction linewill boostadvancedDefencemanufacturing inSAThe supporting SUAS communication system provides the ADF withscalable solutions and enhanced communications capabilities.The partnership between Codan Communications and Sypaq Systems todeliver new capabilities to the ADF is an example of the AlbaneseGovernment’s continuing commitment to a future made in Australia,supporting the future growth of the nation’s defence industry, andenhancing Australia’s sovereign defence capabilities through advancedlocal manufacturing and innovation.

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Insight Outhttps://iiga.news.comPage 08ZenaTech, Inc., a technologycompany specializing in AI-drivendrones, Drone-as-a-Service (DaaS),enterprise SaaS, and QuantumComputing solutions, hasannounced the acquisition of KJMLand Surveying LLC. Based inPensacola, Florida, KJM is a well-established land surveyengineering firm with a strongreputation and a loyal customerbase.This marks ZenaTech’s secondacquisition as part of a broaderstrategy to transform the landsurveying industry throughadvanced drone technology,aiming to enhance speed,accuracy, and innovation.Additionally, this acquisition willserve as the foundation forZenaTech’s DaaS operations in theSoutheast U.S., expanding itsnational presence. The company’ssubsidiary, ZenaDrone, will providethe drone solutions that drive thisinitiative.“Securing this second acquisition isa key step in our DaaS strategy,”said CEO Shaun Passley, PhD. “Byestablishing a Southeast hub with askilled team and strong customerrelationships, we’re building uponour Northwest foundation andexecuting a national rollout. Our goal is to disrupt the land surveying industry at scale using dronetechnologies, much like how Uber transformed the taxi sector. Thisacquisition, along with 20 additional targets we have identified, holdsthe potential to generate both short- and long-term revenue growth.”According to Business Research Insights, the U.S. Surveying andMapping Services industry is valued at approximately $10.3 billion andcontinues to grow at a rate of at least three percent per year.The adoption of drones equipped with high-resolution cameras, LiDAR(Light Detection and Ranging), GPS, and other advanced sensors isrevolutionizing the land surveying industry. These technologies enablesurveyors to collect precise aerial data across vast areas in mere hours,compared to the weeks or months required by traditional methods.Accurate land surveys are crucial for urban planning, infrastructureprojects, commercial and residential developments, and legalapplications. ZenaTech strategically targets smaller, well-establishedland survey firms that operate under the supervision of a licensedsurveyor-in-charge—a credential that requires years of experience toobtain. ZenaDrone brings expertise in FAA licensing, drone operation,and integrated hardware and software to enhance these firms'capabilities.Through its DaaS model, ZenaTech offers cost-effective drone solutionsto industries such as government, construction, agriculture, oil and gas,and environmental services. This allows businesses to access drone-based land surveying, crop management, inspections, safety checks,and compliance monitoring without the need to invest in costly dronehardware and software upfront. Instead, they can leverage thetechnology on a pay-as-you-go basis.ZenaTech’s DaaS initiative ensures clients gain access to AI-powereddrone technology, optimizing efficiency, improving accuracy, andreplacing outdated manual processes. These multifunctional AI droneswill be made available nationwide through company-operated locationsas well as partner-operated storefronts, expanding accessibility toinnovative drone solutions.ZenaTechAcquires KJMLand SurveyingLLC to DriveDrone-PoweredLand SurveyInnovation

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"Winning the Design andInnovation Award 2025 is a majormilestone for DJI as we onlyintroduced our first product to thebike industry back in July 2024.This recognition not only highlightsthe advanced technology of theAvinox Drive System, but alsoreinforces DJI's commitment todriving innovation in the e-bikemarket. This award stands as asymbol of our dedication topushing the limits of bikingtechnology," said Ferdinand Wolf,Product Experience Director atDJI.https://iiga.news.comDJI, the world’s leader in civilian drones and creative cameratechnology is honored to receive the highly reputable Design AndInnovation Award 2025 for its revolutionary DJI Avinox DriveSystem, which made its debut during Eurobike 2024.DJI’s Groundbreaking AvinoxDrive System Wins Design AndInnovation Award 2025Ukrainian Defense Tech Firm HulessSecures Over $1 Million for TetheredDrone DevelopmentHuless, a Ukrainian defensetechnology company specializing intethered drone systems, has raisedmore than $1 million through acombination of private investments,loans, and a grant from the UkrainianDefense Tech cluster Brave1.The company’s flagship product, theHighline-T, is a drone capable ofoperating continuously for up to fourhours at altitudes of up to 100 meters,even in the absence of GPS signals.Unlike attack drones designed to strikeenemy positions, the Highline-T isprimarily focused on enhancingcommunication capabilities.This tethered drone remains linked tothe ground via a cable, ensuring astable power supply anduninterrupted data transmission,making it resistant to electronicwarfare disruptions.Insight OutPage 10

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“We are already developing technologies that no othercountry possesses. Investing in Ukrainian defensetechnology not only strengthens Ukraine’s defense butalso contributes to NATO’s security,” stated MykhailoFedorov, Ukraine’s Minister of Digital Transformation,whose ministry leads Brave1, in a post announcing theinvestment.https://iiga.news.comWith the newly acquired funds,Huless intends to further develop itstethered drone technology andexpand its market reach, with aparticular emphasis on advancingmilitary communication solutions.These drones will act as airbornecommunication hubs, extendingoperational range and improvingbattlefield safety.Private investors supporting Hulessinclude angel investors encounteredat Defense Tech Valley, the largestinvestment summit dedicated toUkrainian defense technologyinnovations, hosted by Brave1.According to a LinkedIn post byBrave1, the investment willcontribute to the establishment of amilitary communications ecosystem,with the Highline-T drones playing apivotal role.Insight OutPage 11AgEagle Aerial Systems Completes LandmarkOrder with Delivery of the Final 15 eBee VISIONDrones to French ArmyAgEagle Aerial Systems Inc. , a leading provider of best-in-class unmanned aerial systems (UAS), sensors andsoftware solutions for customers worldwide in thecommercial and government verticals, announces thecompletion of its previously announced historic order ofeBee VISION systems to its reseller for French Armysurveillance operations. Each system consists of an eBeeVISION UAV, ground control systems, comms andantenna package, and a tactical backpack unit. The final 15 units have been delivered pursuant to thispurchase order, with the total order valued at $3.4M,which represents the largest single order since theCompany was founded.Bill Irby, AgEagle President, stated, “As AgEagle embarks onwhat we anticipate being a promising new year in the expandingdrone market, closing out this historic requisition serves as astrong indicator of what we believe will be our most successfulyear to date. In conjunction with our reseller partner we haveconducted multiple training events with the French Army whichprovided invaluable real-time feedback we are leveraging toaccelerate the evolution of our eBee VISION. We believe theseinsights, in addition to our recent significant milestoneachievements, will be essential to the scaling of our high-valueintelligence, surveillance, and reconnaissance product offeringsto military and commercial operations worldwide. We lookforward to driving ongoing sustainable revenue growth andremain committed to building long-term value for all ourstakeholders.”

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https://iiga.news.comThe eBee VISION system is designed for real-timesituational awareness for public safety and militaryintelligence, surveillance, and reconnaissance (ISR)applications. It is carried in a backpack, hand-launched,and is controlled by a single pilot for fast relocation anddeployment in rapidly changing environments. TheeBee VISION is capable of visual and thermal (IR)imaging, even when GPS satellites are unavailable or inGNSS-denied conditions. The two-way comms betweenoperator and UAS are validated as cyber-secure withAES-256 encryption, which the U.S. government hasnamed the encryption standard for government andmilitary applications.Insight OutPage 12Garuda Aerospace Unveils Plans for Drone City to BoostIndia’s Drone IndustryGaruda Aerospace, an Indian drone manufacturer, has announceda significant investment of Rs 100 crore (approximately EUR 1billion) to establish a ‘Drone City’ in Andhra Pradesh’s Kurnooldistrict.This initiative, undertaken in partnership with the Ministry of CivilAviation, aims to enhance the sector by focusing on uncrewedtraffic management (UTM), beyond visual line of sight (BVLOS)operations, and regulatory advancements to spur innovation.The company has already secured six operational approvals fromthe Ministry, reinforcing its commitment to advancing the droneecosystem in India.Minister of Civil Aviation Kinjarapu RamMohan Naidu highlighted that thecountry currently has around 30,000drones in use, with a vision to expand thisto 300,000 by 2047. Speaking at anevent hosted by the Aeronautical Societyof India, he also mentioned that thegovernment is working on loweringimport duties on essential dronecomponents to encourage domesticmanufacturing and growth in theindustry.

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“Air mobility is set to transform how peopletravel, how life-saving medical supplies aredelivered, and how parcels are transportedwith greater speed and efficiency.”https://iiga.news.com47G Utah Aerospace & Defense (47G) has partneredwith BETA Technologies to bring electric aircraft toUtah, US, and develop a network of charging stationsacross the state.This initiative is designed to advance Utah’scapabilities in advanced air mobility (AAM) whilepromoting sustainable transportation solutionsahead of the 2034 Winter Olympic Games.According to company insights, analysts predict thatUtah’s AAM sector will generate 11,000 full-timejobs, contribute $8bn in economic activity, andprovide $1.8bn in tax revenue by 2045.The partnership has received backing from the UtahDepartment of Transportation and the UtahGovernor’s Office of Economic Opportunity.Insight OutPage 1347G and BETA to Introduce Electric Aircraft in UtahAaron Starks, president and CEO of 47G, stated: “This collaboration unites organizations with a shared vision andthe necessary resources to position Utah as a national leader.

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“Our partnership with MatrixSpace is a game-changer for vertiport operations, bringing anadvanced level of detection no one else couldprovide,” said Clifford Cruz, CEO at Skyway.“Integrating their intelligent radar technologywith our vertiport infrastructure will ensuresafer, more reliable, and scalable operations forAAM, addressing critical needs in the aerospaceand urban air mobility industries.”https://iiga.news.comSkyway, a leading California-based vertiport developmentand operations company, and MatrixSpace, a pioneering AI-enabled sensing platform, have announced a strategicpartnership to advance the integration of intelligent air trafficmanagement and uncrewed aircraft detection systems. Thiscollaboration aims to redefine safety, efficiency, andscalability in the rapidly evolving Advanced Air Mobility(AAM) and uncrewed aerial systems (UAS) sectors, setting anew standard for the aerospace navigation industry.Skyway provides essential services to airline operators,eVTOL manufacturers, and commercial developers, includingvertiport airspace and airfield management. By teaming upwith MatrixSpace, Skyway will expand its current integrationand leverage MatrixSpace Radar’s advanced AI-enabledsensing technology to enhance situational awareness inSkyway’s upcoming deployments. MatrixSpace’s radarsystems enable precise detection, classification, andvisualization of airborne and ground-based objects in real-time. This empowers Skyway's command center to respond tocritical issues with greater speed and efficiency.Skyway and Matrix SpacePartner to Elevate AerospaceNavigation with Advanced AirTraffic and Drone DetectionSolutionsAs urban air mobility gains momentum, robustair traffic management solutions are critical.MatrixSpace’s cutting-edge radar systems —offering features like object detection,telemetry capture, and mesh networksynchronization — will empower Skyway tomanage vertiports with unprecedentedprecision. This capability supports BeyondVisual Line of Sight (BVLOS) operations, acornerstone for enabling efficient eVTOLflights and drone deployments for commercial,public safety, and defense applications. Theseadvancements underscore the partnership’srole in shaping the future of AAM, providingscalable solutions that prioritize safety andoperational efficiency.Insight OutPage 14“This partnership is pivotal for acceleratinginnovations in aerospace navigation and ensuringseamless integration across the AAM ecosystem.MatrixSpace’s collaboration with Skyway willbring next generation sensing technology tovertiport operations,” said Lori DeMatteis, ChiefRevenue Officer at MatrixSpace. “Our solutionsare designed to provide unparalleled situationalawareness, ease and flexibility and together,we’re creating a foundation for the safe andscalable future of air mobility.”Skyway’s expertise in vertiport developmentcombined with MatrixSpace’s intelligent radarsystems, the partnership addresses keychallenges in vertiport and corridor operations.Enhanced radar capabilities will improve dronedetection and mitigate unmanned aircraftthreats. Real-time air traffic monitoring willreduce the risk of collisions and ensurecompliance with regulatory frameworks.Seamless coordination between vertiports andairborne assets will optimize flight paths andschedules, making this collaboration acornerstone of the next phase of aerospaceinnovation.

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GrandSKY’s Role in UASDevelopmentSituated near GrandForks Air Force Base,GrandSKY’sinfrastructure providesan ideal testingenvironment foradvanced UASapplications. The facilitysupports research,development, andtraining programs forcommercial and militarystakeholders in the UASindustry.“Data collected by UAS iscritical in bridginginformation gaps in thelow-altitude atmospherewhere most drone flightsoccur,” noted Dr. MarwaMajdi, co-principalinvestigator of the NASAproject at UND AerospaceSciences.Tom Swoyer, President ofGrandSKY, underscoredthe importance of precisemeteorological data fordrone operations.“As the nation’s firstlarge-scale commercialUAS testing hub, ensuringaircrews have access tothe most precise weatherinformation is vital for allstakeholders in the UASsector,” said Swoyer.https://iiga.news.comThe University of North Dakota (UND) hasjoined forces with GrandSKY on a NASA-supported initiative aimed at improvingweather forecasting for Uncrewed AerialSystems (UAS). By utilizing data from the"Meteodrone," this project seeks to create ahighly accurate forecasting system, whichwill significantly enhance flight planning andairspace management, particularly inchallenging weather conditions.University of NorthDakota and GrandSKYPartner on NASA-Supported UASWeather ForecastingInitiativeInsight OutPage 16Enhancing UAS Capabilities for SaferAirspace IntegrationLeveraging Weather Data to ImproveUAS Decision-MakingUND researchers will harness UAS-gathereddata to refine predictive models that bolsterUAS operations. Dr. Mounir Chrit, fromUND’s John D. Odegard School ofAerospace Sciences, highlighted theproject's broader impact.“Our efforts at UND extend beyond merelyoperating drones—we are developingprecise systems that aid decision-makingunder uncertain conditions in mission-critical scenarios,” said Chrit. “This researchwill yield key insights, ultimately improvingthe safety, efficiency, and reliability of UASmissions and serving as a model for thefuture of aviation.”This partnership aligns with NASA’s missionto integrate UAS into the national airspacesystem. By leveraging North Dakota’sexisting UAS infrastructure, the projectteam is working to improve safety andoperational efficiency for both commercialand research-based drone missions.Strengthening North Dakota’s UASIndustryThis initiative reinforces NorthDakota’s leadership in UAStechnology. The state remains a keyplayer in drone innovation,attracting researchers and industrypartners alike.“Our collaboration with GrandSKYfurther solidifies North Dakota’s roleas a global leader in UASdevelopment,” Chrit added. “Withongoing advancements and newinitiatives, we are continuouslyproving that our state is the mostdrone-friendly location in thecountry. The evolution of UAStechnology is happening here, andit’s exciting to be part of thisjourney.”

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https://iiga.news.comStable Flight in Challenging IndoorEnvironmentsTerra Drone Corporation,recognized as the No.1 DroneService Provider in the worldfor 2024, has announced thesimultaneous release of its in-house developed indoorinspection drone, “Terra Xross1”, in both Japan and theUnited States. This is the first(1)indoor inspection dronedeveloped and produced byTerra Drone. Featuringadvanced technology, “TerraXross 1” ensures stable flightperformance, even inchallenging indoorenvironments such as cramped,dark, and dusty indoorconditions. Furthermore, it isoffered at a priceapproximately one-third of thecompetition, making it moreaccessible to a broader rangeof customers.The Reason Behind Producing“Terra Xross 1”Indoor inspections ofteninvolve dangerous workingenvironments in confined orelevated spaces, requiringsignificant preparation andraising costs for operations.While drones can improvesafety and efficiency, existingindoor solutions facechallenges like instability dueto the lack of GPS and highinitial costs, limiting adoption.Five Features of “Terra Xross 1”“Terra Xross 1” is the Japan-Made indoor inspection dronedesigned for visual inspections,ensuring stable flight whilebeing offered at an affordablecost. Terra Drone Launches Japan-Made IndoorInspection Drone “Terra Xross 1” Simultaneouslyin Japan and the USConventional indoordrones have facedlimitations due to shortflight time. “Terra Xross 1”addressed this bysupporting both battery-powered operation andtethered power module,enabling continuous flightwith a constant powersupply. This eliminates therisk of crashes from powerdepletion and allows foruninterrupted, efficientinspections without theneed for batteryreplacements.Insight OutPage 17Product parts explanationAffordable Pricing at Under $25,000USDBy optimizing in-house developmentand production processes, TerraDrone has significantly reducedmanufacturing costs. This allows“Terra Xross 1” to be offered atapproximately one-third the cost ofexisting indoor drones.“Terra Xross 1” integrates visualodometry sensors and Lidar for stableindoor flight. While conventional visualodometry sensors struggle in cramped,dark, and dusty conditions, Lidarestimates its position based ondisplacement, ensuring stability withoutrelying solely on visuals. This enablesseamless operation even in challengingenvironments.Extended Flight Timewith Tethering Module

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https://iiga.news.comInfrastructure Inspection: Inspection of high andconfined spaces in oil and gas plants.Mining Mapping: 3D mapping survey for excavationplanning in underground mines.Disaster Assessment: Investigation of collapsed buildingsin disaster-affected areas.Security Monitoring: Safety checks and surveillanceinside government and public buildings.By offering “Terra Xross 1”, a cost-effective solution, TerraDrone aims to make advanced drone technology moreaccessible to the indoor inspection sector. Since this droneenables stable flight without requiring specialized pilotingskills during operations, it is expected to be utilized in a widerange of applications. Terra Drone continues to becommitted to driving safety and efficiency in indoorinspections worldwide with its Japan-Made drone, “TerraXross 1”.Insight OutPage 18Advanced Imaging with 180° tiltable 4KCamera and LED LightFlight demonstration using the tethered powermoduleEquipped with a 4K camera that can tilt180° vertically, “Terra Xross 1” captureshigh-quality images and videos even inchallenging conditions. The powerful LEDlighting ensures clear visibility in low-light environments.Streamlined Data Management with“Terra Xross Cloud”By uploading the acquired inspectiondata to “Terra Xross Cloud”, users caneasily visualize the captured data in a 3Dspace and seamlessly manage and shareboth point cloud data and recordedvideo footage. This helps rapidinformation sharing among teammembers and facilitates workflowefficiency.Captured image data and acquired point clouddata available for viewing on “Terra XrossCloud”Transforming Indoor Inspection with “Terra Xross 1”“Terra Xross 1” is designed for versatile applicationsacross various industries and operations:

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“Now, the Sentaero is in a position ofregulatory acceptance where operators cantruly capture the value and efficiency ofOTH BVLOS operations,” explained RobKnochenhauer, Director of RegulatoryAffairs. “What our clients and the industryneed is a more capable aircraft to bestcapitalize on this trend. That’s why wedeveloped Sentaero 6.”https://iiga.news.comInsight OutPage 19Censys Technologies continuously works to pushOTH BVLOS in the United States forward throughaircraft design and collaboration with the FAA.For decades, end users have been chained to a one-crewed-aircraft-one-pilot capability for OTH inspections,mapping, and surveying. Along with the human resourceneeds, availability and proximity of airports have beenmajor deployment constraints. The Sentaero 6 shattersthe chains with superior economics and closes thecapabilities gap with a 2-hour endurance, expandedpayload capacity over predecessors, native artificialintelligence integration, and 90-mile C2 range*. Theseupgrades empower operators to take on larger, advancedmissions more frequently, providing them with up-to-dateinformation on the condition of their assets.The Sentaero 6 concept of operations will be expanded inthe months to come to include swarm (one human, manyaircraft) and fully remote operations, driving anunparalleled data collection rate and quality combination. In a continued effort to improve safety and reliability,several single-point failure points have been eliminatedand an ASTM-certified parachute for urban missions wasimplemented.With the increase in capability comes the increase in thequantity of data which is why Sentaero 6 is designed withan onboard computer. This enables the company’sCensWise, an easy-to-use AI/ML software platform, tostart processing data into intelligence while airborne.“At Censys Technologies, we’re working to bring ourcustomers closer to omniscience, and the Sentaero 6 is atestament to our resolve,” said Trevor Perrott, CEO ofCensys Technologies. “With this platform, we’re not justoffering a drone; we’re providing a comprehensivesolution that acquires data, converts it to an intelligencedashboard, and enables users to prevent and solveproblems at an accelerated pace.”Welcome Sentaero 6: A.I.rborne Asset IntelligenceIn the journey to make commercial Over the HorizonBeyond Visual Line of Sight (OTH BVLOS) common,Censys Technologies is proud to announce Sentaero6, a drone system engineered with customerfeedback and regulatory expertise. This effort is atestament to their mission to enrich lives throughasset intelligence and commitment to producepeerless value manufactured in America.Starting in 2021, Censys Technologies has gone from3-mile geo-constrained BVLOS approvals usingvisual observers to nationwide BVLOS approvalswhere the Sentaero 5 can be flown out to 40 miles inone-way operations without using visual observers.

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https://iiga.news.comInsight OutPage 20"The Iron Drone Raider is a high performing,modular platform with AI-driven navigationand operating capabilities tailored to themost demanding defense requirements,"said Eric Brock, Chairman and CEO ofOndas. "Indeed, this versatility is allowingfor expanded applications furtherexpanding the potential market size for ourIron Drone platform. These new use casesmeet an additional need identified by agovernmental customer with the requiredperformance and cost parameters. Securingthis platform expansion highlights theexceptional talent and experience of ourAirobotics team and the confidence ourdefense partners and customers have inOndas."During the third quarter of 2024, OAS secured severalinitial orders in the defense market, totalingapproximately $14.4 million, which included severalpurchase orders totaling $9.0 million from a majorgovernment military customer for the Iron Drone Raidersystem. The Iron Drone Raider systems are being deployed as acore element of a multi-layered homeland securityinfrastructure to protect critical locations, assets andpopulations from the threat of hostile drones.Ondas expects to secure additional orders, including fromnew customers and distribution partners, to support itsdrone systems and infrastructure expansion over the nexttwelve months.Ondas Receives Order from Major Defense Company forIntegration of New Applications to its AI-Driven IronDrone Raider SystemOndas Holdings Inc. ("Ondas" or the "Company"), aleading provider of private industrial wirelessnetworks and commercial drone and automateddata solutions, announced today that its OndasAutonomous Systems Inc. ("OAS") business unit'sAirobotics subsidiary has received a purchaseorder for its Iron Drone Raider from a majordefense company. The order includes theintegration and testing of new features requiredfor defending from additional ground threats.

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Groundbreaking achievement: ipoque’s 5G networkanalysis detects unauthorized droneshttps://iiga.news.comTechnology & ProductsPage 22Ipoque, a Rohde & Schwarz company,streamlines critical infrastructure securitywith a state-of-the-art 5G networkanalytics system, specifically designed toidentify and track threats posed bydrones.“ipoque's advanced softwaresolutions, backed by nearly twodecades of collected data sets andour global framework for generatinghigh-quality training data, will beinstrumental in achieving real-timenetwork analysis and applicationawareness,” added Dr. Ing. MartinMieth, Director Network Analysis foripoque. “This synergy is pivotal forovercoming current data protectionchallenges and paving the way forthe next generation of AI-drivennetwork security solutions.”The Helmut-Schmidt- University of the FederalArmed Forces Hamburg (HSU/UniBw H) hasembarked on a pioneering research collaborationwith ipoque, a Rohde & Schwarz company.This strategic partnership aims to develop cutting-edge technology capable of identifying andmitigating potential threats from unauthorizeddrones (UAS) by analyzing patterns within vast 5Gnetwork data streams.“This collaborationrepresents a crucial steptowards harnessing thepower of 5G networkanalysis for nationalsecurity,” stated Prof. GerdScholl, leading the projectat HSU/UniBw H. “Bydeveloping sophisticatedanomaly detectioncapabilities, we cansignificantly enhance theprotection of sensitiveareas against unauthorizeddrone activities.”Leveraging the university'sstate-of-the-art 5G CampusNetwork, established byDeutsche Telekom GlobalBusiness in conjunction withEricsson as part of the DigitalSensor-2-Cloud CampusPlatform (DS2CCP/dtec.bw)project, the research teamwill focus on anomalydetection in 5G CampusNetworks and dronedetection in mobilenetworks. This innovativeapproach is set to bolster thesecurity of criticalinfrastructure, such asairports and stadiums,against drone-based threats.The Hamburg-basedresearchers, known for theirdevelopment of the FALKEinterceptor drone, are at theforefront of Europeanresearch in this domain.ipoque will contribute itsexpertise in network analysissoftware, renowned forenhancing networkoptimization, management,connectivity, and security.

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FAULHABER expands portfolio withhigh-performance DC-motorshttps://iiga.news.comTechnology & ProductsPage 23Designed for even greater flexibility and a wide range of applications:The new 1218 SXR and 1228 SXR DC motors. These models expandFAULHABER’s proven DC motor portfolio and set new standards inperformance and versatility for miniature drive systems.The new SXR motors offer standard higherperformance and a broader range ofconfiguration options to meet thedemands of modern drive solutions. Theyprovide flexible voltage variants from 3Vto 18V as well as different bearingconfigurations. Additionally, the motorscan be customized – from front and rearshaft modifications to options for vacuumand temperature environments. Theoptimized rotor balancing ensureslongevity and smooth operation.At the core of the new SXR family is theinnovative hexagonal coil with a highcopper filling factor and straight wiring.This technology delivers significantlyenhanced performance and efficiencycompared to traditional pin coils.Additionally, a new magnet gradeimproves magnetic induction amplitudeand temperature stability.Compatible and flexible for variousapplicationsAll components in the SXR series are RoHScompliant, and the electrical connectionsoffer flexible configuration options. Themain markets for this product line includehigh-tech industries that rely on quality,reliability, and an outstanding power-to-volume ratio. These include sectors suchas prosthetics, surgical tools, metrology,semiconductor processing, andautomation solutions.The new SXR models are compatible witha wide range of FAULHABER products,such as the new FAULHABER planetarygearheads 14GPT. They provide varioussolutions: diameter-compliant, high-performing and compact at competitiveprices—ideal for applications requiring thehighest levels of precision and reliability.DC-MicromotorsSeries 1218 ... SXRPrecious Metal CommutationDC-MicromotorsSeries 1228 ... SXRPrecious Metal CommutationHigh performance/volume ratio thanks to new coil technologyPowerful rare-earth magnetHigh efficiency solutionNo cogging torque, highly dynamic performance, precise speed controlFully diameter conform solution availableWide range of voltage versions and optionsAdvantages:Key Features:Nominal voltage: 3 ... 18 VRated torque up to: 2 mNmNo-load speed up to: 11700min⁻¹Stall torque up to: 6.92 mNmDiameter: 12 mmLength: 18.3 mmKey Features:Nominal voltage: 3 ... 18 VRated torque up to: 4 mNmNo-load speed up to: 9030min⁻¹Stall torque up to: 16.2 mNmDiameter: 12 mmLength: 28.3 mm

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Schneider Electric’s SCADAPack™ smart RemoteTerminal Unit enhances the security of operationaltechnology (OT) in critical infrastructurehttps://iiga.news.comTechnology & ProductsPage 24Schneider Electric, the leader in the digitaltransformation of energy management andautomation, today announced new (operationaltechnology) OT cybersecurity functionality forSCADAPack™ 470i and 474i. Critical infrastructurecustomers can now securely manage RTU accessin harsh environments as easily as they canmanage their employees’ email access. Cyber threats to water and oil and gas pipelinescontinue to grow. So, controlling access to RTUs inremote and harsh environments is vital to OTsecurity. Yet, managing this can be dangerous andtime intensive. The SCADAPack 470i and 474iprovides one smart device for all remote controland computer operations. This way, customerscan securely manage RTU access using standardIT tools, such as Active Directory™, in OT security,including water security and pipeline security.The combination of a rugged RTU platform withthe flexibility of Linux ensures a single SCADAPack470i or 474i can host edge services, protocols, andapplications for efficient OT security for all remotecontrol and computer operations.SCADAPack 470i and 474i’s role-based accesscontrol (RBAC) features also aid in edge cyberregulation compliance. The SCADAPack 47xiintegrates with standard IT and OT security toolswith support for IP firewall, NAT, DNP3 secureauthentication, and more. “We can see the growing vulnerability of criticalinfrastructure like water and wastewater systems andenergy pipelines to cyberattacks,” said James Redmond,Schneider Electric’s global offer manager for SCADAPack.“That’s why enhancing OT with standard security featuresfrom the IT world is imperative. For a negligible cost,enabling RBAC on smart RTUs helps protect this criticalinfrastructure by enabling continuous safe and profitableoperations.”SCADAPack 470i and 474i’s new OT cybersecurity functionality providescustomers with a unique offering as the first RTU with RBAC on themarket. Its diverse capabilities within a single easy-to-use platformreduces the costs of design, installation, maintenance, and edge security.Tele2 and foodora launchdrone deliveries outsideStockholmTele2 AB (“Tele2”) and foodora, Sweden's leading q-commerce company, are taking a big step toward the futureof deliveries by launching drone deliveries. After a successfultest phase, the service is now ready for rollout in Värmdö andGustavsberg, just outside Stockholm, throughout 2025. Thefirst delivery, from Bastard Burgers, will take place onFebruary 14. The plan is to gradually expand the deliveryareas.

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At Aviant, we are proud to be part of this collaboration, bringing dronedeliveries into large-scale commercial operations. We have alreadycompleted thousands of flights in Norway and know firsthand thedifference drone transport can make—especially for people in remoteareas. Now, together with foodora, we are taking the next step toshow how technology can provide more people with fast, efficient,and sustainable food delivery, says Lars Erik Fagernæs, CEO andfounder of Aviant.About the collaborationThis technical solution has been made possible through Tele2's reliableand high-performance 5G network, which provides the drones with thestable connection required for safe and efficient deliveries. Aviant'sdrones are designed for both small and medium-sized deliveries,meeting high standards for safety and durability.The new delivery method is another example of foodora'scommitment to being at the forefront of q-commerce, creatinginnovative solutions that meet customers' needs in a rapidly changingworld.Facts:Delivery radius: The primary delivery area for drones coversapproximately 10 km in diameter, but in some regions, the rangecan extend up to 12–15 km.Expansion plans: After a few months of operation, the companiesplan to expand the delivery area further.Weight limit: The drones can carry up to 900 grams.Delivery time: The total delivery time is under 30 minutes, with aflight time of approximately 10 minutes.https://iiga.news.comTechnology & ProductsPage 25The drones used are developed by the Norwegiancompany Aviant, an innovative player in dronetechnology. This collaboration marks an importantstep toward faster and more efficient deliveries whilereducing climate impact through the use of electricdrones.We are proud to launch drone deliveries as anew chapter for foodora. With Aviant'sadvanced drone technology and Tele2'sstrong connectivity solutions, we can offerour customers an entirely new level of speedand accessibility, says Daniel GustafssonRaba, Operations Manager at foodora.The drones will be used for both food and grocerydeliveries, and the service is designed to makeeveryday life easier for customers in areas wherequick and convenient access to goods is a priority. Touse the service, customers need to fill out a form,after which their delivery address will be verified forcompatibility with drone deliveries in the area.Our vision is to continue driving innovation for ourcustomers and improving the customer experienceby implementing the latest technology. Dronedeliveries are a step we believe will change howpeople shop and receive their goods, adds StefanTrampus, Executive Vice President B2B at Tele2.

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https://iiga.news.comL3Harris Showcases Advanced Robotic DroneDetection Capability for U.S. ArmyTechnology & ProductsPage 26L3Harris Technologies has successfullydemonstrated a groundbreaking drone detectionand defeat capability integrated into its T7 roboticsystem at Vanguard 24, an annual capstoneexperiment hosted by the U.S. Army at FortHuachuca, Arizona. This demonstration marks asignificant advancement in autonomous andremote-controlled defense technology, reinforcingL3Harris' position as a leader in providing cutting-edge solutions for modern battlefield challenges.Revolutionizing Battlefield RoboticsThe T7 is a state-of-the-art, large robotic platformdesigned to provide military personnel withprecision control for Explosive Ordnance Disposal(EOD) and other high-risk operations. By equippingthe T7 with a counter-small uncrewed aircraftsystem (C-sUAS), L3Harris has effectively expandedits capabilities to detect, monitor, and neutralizehostile drones, which are increasingly being used inasymmetric warfare and battlefield surveillance.This enhanced functionality is particularly critical inmodern combat scenarios where adversariesdeploy drones for reconnaissance, coordinatedstrikes, or electronic interference. At Vanguard 24, L3Harris engineers integrated the C-sUAStechnology onto the T7 robot to showcase its ability to remotelydetect, track, and counter enemy drones. This capability is crucialfor Army operators who face growing threats from smallunmanned aerial systems (UAS) in combat zones, where dronescan be deployed for reconnaissance, attack missions, or electronicwarfare.Enhanced Multi-Domain OperationsIn addition to the counter-drone capability, the experiment alsotested the effectiveness of L3Harris’ lightweight IndividualCORVUS Node. This advanced system allows operators toremotely sense, monitor, and decode various signals of interest,enabling users to perform a range of electronic warfare and cyberoperations in real time. By leveraging the CORVUS Node, the T7robot can serve as a multi-functional platform, providing Armypersonnel with enhanced situational awareness and decision-making capabilities.With the increasing complexity of modern warfare, multi-domainoperations require seamless integration of robotic and electronicwarfare technologies. The CORVUS Node enhances the T7’s abilityto intercept and analyze electronic signals, detect potential cyberthreats, and assist in intelligence gathering. This modular approachenables flexible adaptation to various mission scenarios, fromcounterterrorism efforts to large-scale military engagements.

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https://iiga.news.comTechnology & ProductsPage 27Global Deployment and Future ApplicationsThe T7 robotic system has already been widely deployedby military forces across the United States, UnitedKingdom, and Australia, supporting critical EOD missionsand other specialized operations. The successfulintegration of drone detection and defeat capabilitiesfurther enhances its versatility, making it anindispensable tool.As drone warfare continues to evolve, the need foradvanced counter-UAS solutions becomes increasinglyvital. L3Harris' latest demonstration underscores theimportance of robotic autonomy in securing militaryinstallations, safeguarding troops, and ensuringdominance in complex combat environments. Movingforward, the company aims to continue refining andexpanding the T7’s capabilities to address emergingthreats and operational requirements.The future of military robotics is expected to includedeeper integration of artificial intelligence, machinelearning, and enhanced sensor technologies. L3Harrisis actively exploring advancements that will allow theT7 to perform even more autonomous tasks, reducingthe burden on human operators and improvingbattlefield efficiency. Potential enhancements includemore sophisticated target recognition, swarm dronecountermeasures, and extended operationalendurance.Additionally, as conflicts increasingly involve hybridwarfare tactics, the ability to deploy adaptable roboticsolutions will be critical. The T7 platform could befurther integrated with next-generationcommunication networks, allowing for more seamlesscoordination with other autonomous systems andmanned-unmanned teaming strategies. By investing inthese innovations, L3Harris continues to position itselfat the forefront of defense technology, deliveringnext-generation solutions that enhance missioneffectiveness and battlefield superiority.With its commitment to innovation, L3Harris remainsdedicated to supporting military and security forcesworldwide, ensuring they have the advanced toolsneeded to address evolving threats and maintainstrategic advantage in an ever-changing globalsecurity landscape.DJI Launches All-in-One VlogCamera Drone withDJI FlipDJI, the global leader in civilian drones andcreative camera technology, todayannounces DJI Flip, a new series of all-in-one vlog camera drones. At less than249g1, this compact drone featuresfoldable full-coverage propeller guards1,ensuring ultra-safe and reliable flying.Photographers can capture impressive48MP photos and 4K videos with thedrone’s 1/1.3-inch CMOS sensor with onetap of a button. Being fully equipped withcomprehensive protection at all times,even beginner pilots can confidentlynavigate the skies with DJI Flip.“Building on the success of our consumer camera drones,we are introducing DJI Flip to combine the simplicity ofthe DJI Neo with the stunning photo capabilities of the DJIMini to make both aerial photography and close-upportraits accessible for everyone,” said Ferdinand Wolf,Product Experience Director at DJI. “DJI Flip combinescreative tools like AI subject tracking1 and intelligentshooting modes1 with safety features like our latestfoldable propeller guards and automatic braking, makingit easier than ever for people to capture stunning aerialfootage no matter their level of photography or droneexpertise.”

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https://iiga.news.comTechnology & ProductsPage 28DJI’s intelligent shooting features easily produce professional-grade work:MasterShots: Allows DJI Flip to automatically perform diverse cameramovements, shooting multiple clips and editing them with music, cuts, andeffects for fast and simplified cinematic footage.Hyperlapse: Select from four options, including Free, Circle, Course Lock,and Waypoint to capture timelapse footage at up to 4K horizontally or 2.7Kvertically.FocusTrack: Find creative ways to follow your subject with FocusTrack. Thesuite includes ActiveTrack 4.0, Spotlight 2.0, and Point of Interest 3.0, threepowerful storytelling tools.Panorama: Supports shooting 180°, Wide Angle, Vertical, and Spherepanoramic photos to capture magnificent landscapes.Ultra Safe and Reliable FlightsDJI Flip makes flying safe and reliablethanks to its foldable, full-coverageguard that wraps the propellers to avoidinjury or damage to the drone. Made oflightweight and strong carbon fiberstring, the guard’s support structure isonly 1/60 the weight of guards madewith traditional polycarbonate materialwhile maintaining the same stiffnessand durability to ensure safe flights.Intelligent One-Tap Aerial PhotographyDJI Flip makes flying simple, requiringno special training in most countries andregions. This palm-sized drone islightweight and compact, making it anideal travel companion for capturingany adventure. Whether hiking throughforests or climbing steep peaks, DJI Flipmakes flying simple. With one tap of themode button, photographers can selectfrom six intelligent shooting modes tocapture impressive footage. AI SubjectTracking1 can also be enabled to keep asubject in the frame. Six intelligentshooting modes include Dronie, Circle,Rocket, Spotlight, Helix, andBoomerang. Strong Camera with Smart Enhancements DJI Flip can capture high-dynamic 48MP photos with more highlight and shadowdetails. The camera is powered by a 1/1.3-inch CMOS sensor featuring DualNative ISO Fusion, f/1.7 aperture, and 2.4μm 4-in-1 pixels. It can also capturephotos with up to 4x zoom. Intricate details can be preserved with next-genSmartPhoto1, which combines HDR imaging, scene recognition, and more forimages that pop. DJI Flip records HDR video at 4K resolution and 60 frames per second, promisingfootage with true-to-life quality. It also supports slow-motion recording at4K/100fps and 10-bit D-Log M color mode. A 4:3-aspect-ratio CMOS sensorprovides enough space for vertical crops while maintaining a 2.7k resolution,optimized for smartphone viewing and social media without any croppingneeded.

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https://iiga.news.comTechnology & ProductsPage 29Other Standout Features 31-minute Max Flight Time1: DJI Flip’s Intelligent Flight Battery delivers up to 31 minutes of flight time, ensuring seamlesscreation without battery concerns.Automatic Braking1: DJI Flip’s 3D Infrared Sensing System support automatic braking for enhanced safety, even at night. Next Level Video Transmission: When paired with the DJI RC-N3 or RC 2 remote controller, DJI O4 video transmissionsupports up to 13 km1of 1080p/60fps video transmission and has excellent anti-interference capabilities, allowing you toexplore vast landscapes with clarity. Fast Charging and Data Transfers1: The DJI Flip Parallel Charging Hub charges two batteries simultaneously1, significantlyreducing charging time. With the DJI Fly app, footage can be transferred at speeds up to 30MB/s.Fly With or Without Remote Controller: The DJI Flip can be operated with the DJI RC-N3 or RC 2 remote controllers. It canalso operate with the DJI Fly app or Voice Control1 for hands-free flying. When connected to your phone, it can captureaudio and intelligently reduce noise, automatically filtering out propeller noise.

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https://iiga.news.comThe WorldGames 2025Great OpportunityPage 31Chengdu,China (People'sRepublic of)07 Aug - 17 Aug 2025The World Games isthe world’s second-largest multi-sportevent, following theOlympic Games. Thisglobal event providesan exceptionalplatform for FAI andits top competitors toshowcase the speed,precision, andexcitement of airsports on aninternational stage,reaching a globalaudience and media.Drone Racing is a test of a pilot’s ability to beatother competitors by racing on a specially builtracing track flying through gates and aroundobstacles to reach the finish line in the fastest timeafter completing three laps. Speedy, exciting, andhighly skilled, it’s one of the fastest growing airsports in the world today.The drones are generally built by the pilotsthemselves and are designed for speed and agility.They are powered with electric motors by electricbatteries giving possibility to fly speeds over 100mph, meaning pilots need very fast reactions to flythem.Air sports will be represented byDrone Racing, where elite pilotswill test their speed and skill in ahigh-intensity competition thatpushes the boundaries oftechnology and human reflexes.Drone Racing event: 13-16August 2025Qualified athletesStay tuned for more updates aswe approach The World Games2025!

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Great Opportunityhttps://iiga.news.comPage 32Aerial DroneCompetitionThe Aerial Drone Competition offersan exciting educational dronesporting event that focuses on hands-on, student-centered learning. Teamslearn about drones, flight principles,programming, documentation andcommunication skills while expandingtheir understanding and buildinginterest for Drone-related workforceand career opportunities.Robolink has partnered with the REC Foundation—thefolks behind some of the largest student-centeredrobotics competitions in the world—for their annualAerial Drone Competition. It's an exciting andeducational drone-sporting event full of pilotingchallenges and autonomous flight. You can build a teamat your school and join a local event to compete for achance to win at a regional championship event.Drone Champions LeagueThe DCL Drone Champions League is theglobal leader in professional droneracing. With a mission to combinecutting-edge technology and stunninglocations, DCL has created a one-of-a-kind racing series that engages millionsof fans around the world.Behold as the Abu Dhabi AutonomousRacing League unveils the autonomousdrone race. At its core, this thrilling eventembodies a singular mission: to defy theboundaries of autonomous aerialmobility.

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https://iiga.news.comGreat OpportunityPage 33While traditional autonomy excels incontrolled environments, the aerial realmpresents a unique challenge. But theautonomous drone is here to change thatnarrative. We challenge teams from all aroundthe world, conducting daring experiments,propelling both autonomous racing and AIresearch forward.Navigating through complex airspaces withunprecedented precision. These AutonomousDrones set the bar higher, constantly pushingthe boundaries.30 June - 3 July 2025 - BMFABuckminster, UKAutonomous Mission Tasks: The aircraft must complete tasks such aswaypoint navigation, humanitarian aid delivery, and efficient return-to-base operations.Final Fly-Off Event: The competition culminates in June/July with liveflight demonstrations, showcasing maneuverability, efficiency, andsustainability.Celebrating a Decade of Excellence: In 2024, the UAS Challengemarks its 10th anniversary, highlighting a decade of advancingaerospace technology and inspiring future engineers.Register Your Interest Now!UAS Challenge 2025UAS Challenge 10th Anniversary: A Decade ofInnovation in Aerial EngineeringGlobal Student Competition: Since 2014,university teams worldwide haveparticipated in the UAS Challenge, aprestigious event fostering professionalengineering skills and innovation.Full Lifecycle Development: EachOctober, teams design, build, and testUnmanned Aerial Systems (UAS) with amaximum takeoff mass of 10kg.Register your team for UAS2025!

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https://iiga.news.comGreat OpportunityPage 344-H UAV/Drone Contest – Register Now!Event Date: March 15, 2025Registration Deadline: March 7, 2025Where to Register: 4-H Online (under "Events") or viathe direct link.4-H UAV/Drone Contest 4-H Drone Competition: Challenge BreakdownChallenge #1: Timed obstacle course with threeattempts. Up to 10 points awarded based onplacement.Challenge #2: FAA-based quiz (10 questions forgrades 5-7, 20 for grades 8-12). Points awardedper correct answer.Challenge #3: Program a drone using "DroneBlocks" to complete 10 tasks. Scoring based onwritten code accuracy.Bonus & Tiebreaker:4 extra points for presenting an FAA"TRUST" certificate at check-in.Ties settled with a timed obstacle flight.Youth compete in two divisions: Junior (Grades 5-7) Senior (Grades 8-12)Find out who has "The Right Stuff" in this exciting dronechallenge!For questions, contact Bill Decker at : wdecker@purdue.edu.

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Inaugural FIDA Drone Soccer World Cup 2025 Set toTake Off! FIDA Drone Soccer World Cup 2025 – CompetitionConditionsOfficial Equipment: House balls provided, butplayers are responsible for their drones’flightworthiness.No Replacements: Absent players cannot bereplaced; teams will compete with remainingmembers.Prize Changes: Organizers reserve the right tosubstitute awards with items of equal or greatervalue.Competition Specs: Matches follow standardClass 20 specifications.Registration Fee: SGD 50 per team, payablebefore the deadline.Online Registration: Only via the ADSS website.Team Grouping: Randomly assigned afterregistration closes.https://iiga.news.comGreat OpportunityPage 35Inaugural FIDA Drone Soccer World Cup2025 Set for Oct-Nov!Global Competition: The first-ever FIDAWorld Cup 2025 will take place betweenOctober and November, featuring 25countries competing at the highest level ofDrone Soccer.#TeamSingapore’s Mission: As the 2nd-ranked team in the world, Singapore aimsto defend its position and solidify its statusas a top-tier contender.National Team Selections: The Associationof Drone Soccer (Singapore) will hold trialsstarting July 2024 to form Class 20 & Class40 teams (7 players each).Fully Sponsored Trip: Selected players willreceive full sponsorship covering airfareand accommodations for the World Cup.

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https://iiga.news.comSUAS 2025: TheUltimateAutonomous AerialChallengeGreat OpportunityPage 36The competition requires students to design, integrate, report on, anddemonstrate a UAS capable of autonomous flight and navigation, remotesensing via onboard payload sensors, and execution of a specific set oftasks. The competition has been held annually since 2002.Mission TasksThe competition has a series of tasks that should be completed by theUAS system built. The competition changes these tasks year-to-year toreflect the forefront of the UAS industry. The tasks are joined to form asimulated real-world mission. Example tasks:Autonomous Flight. The UAS must take off, fly within boundaries,navigate a series of waypoints, and land.Obstacle Avoidance. The UAS must avoid other aircraft sharing theairspace through sense-detect-avoid.Object Detection, Classification, Localization. The UAS takes picturesof a search area, detects objects of interest, classifies itscharacteristics, and provides a GPS position.Air Delivery. The UAS autonomously drops a payload object so that itlands undamaged at a target GPS position.Event Date: June 24-26, 2025Location: St. Mary’s CountyRegional Airport, California, MD Key Details:Teams compete in cutting-edge autonomous aerialchallenges.Task Ideas & Rules available(last updated: Oct 22).Registration Fee: $1500Registration Deadline:February 28, 2025Stay Updated: Join theRoboNation Discord forannouncements & Q&A!

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Awards and HonoursGrand Awards -These are presented to the ISDC'stop three teams, i.e., the Champion, First Runner Up,and Second Runner Up. Mission Awards: These honours will be given toteams for their creative thinking in a specificsubsystem and outstanding performance in any ofthe ISDC Finals missions. This category also includesthe PIMA awards.Depending on the judges' verdict, further types ofawards might possibly be given out. https://iiga.news.comINTERNATIONAL SPACE DRONE CHALLENGE - 2025Great OpportunityPage 38SPROS International Space Drone Challenge (ISDC) is aspace robotics engineering competition. It challengesuniversity students to conceptualise, design, develop andoperate an astronaut-assistive next-generation spacedrone and perform specific missions in Mars simulatedconditions. Space drones provide multiple advantagesover rovers, such as better reach and range. It is easier fordrones to reach places off-limit to the rovers. In addition tosolo exploration, the drones can act as wings to the roverand explore together. The objective of the competition is to provide studentswith a real-world interdisciplinary engineering experience,combining practical engineering skills with soft skills,including business planning and project management. January 31 – February 2, 2025ISDC Venue: BITS Pilani, Goa, IndiaTeam members must be at least 18 years of age. Writtenpermission from the official guardian should be providedfor members below the age of 18 years on the date ofJanuary 1 of the year of the Finals. SIZE, WEIGHT AND DESIGN The drone shall be a stand-alone, off-the-grid, mobileplatform. A single connected platform must leave thedesignated start line. The drone maybe fixed or rotarywings.The weight of the drone should be less than 5 Kg.There are no restrictions on the dimensions of thedrone. The drone must use power systems that may beapplicable on Mars. Battery-powered systems canonly be used for drones. Any potential hazardousmaterial will require proper documentation to besubmitted to the organisers before the competition.

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https://iiga.news.comComparing Airborne LiDAR with Bathymetric Data:How Terra Brasil Uses LP360 for Merging, QA/QC,and DeliverablesSuccess StoryPage 40Since its establishment in 2009, Terra Brasil has set a highstandard of excellence in the fields of topography, bathymetry,and hydrometry in Brazil. Starting with conventional techniqueslike Total Station surveys and traditional bathymetry, thecompany has continually evolved, embracing technologicaladvancements to enhance its service offerings. In 2020, TerraBrasil expanded its portfolio to include aerial photogrammetricapplications and hydrometry using Acoustic Doppler CurrentProfilers (ADCPs). The year 2023 marked another significantmilestone as the company integrated LiDAR technologies andadvanced modeling software into its operations.Leading the way is CEO and civil engineer Thadeu Ribas Lugarini,who has been instrumental in steering Terra Brasil towardsinnovation and technological integration. “We were makingtechnical advancements in the company, and the aerial surveymarket in topography grew significantly with the advent of aerialphotogrammetry,” says Thadeu. “So, we decided to incorporateTrueView aerial LiDAR, from GeoCue, as we already had extensiveexpertise in GNSS systems, drone-based surveys, andcartography.”Adopting GeoCue’s TrueView LiDAR and LP360 SoftwareTerra Brasil’s quest for a reliable and efficient LiDARsolution led them to GeoCue. “We were looking for a LiDARsolution,” recalls Thadeu. “We liked GeoCue for itscustomer service and the LiDAR’s capability to producerealistic and accurate points. Additionally, LP360 providedus with a lot of confidence as it’s software that bothgenerates and processes the point cloud. This allowed usto use a single software for generating and managing theLiDAR point cloud.”The integration of TrueView LiDAR systems with LP360software updated Terra Brasil’s workflow. “The LP360system enabled the generation of the LiDAR point cloudand the Digital Terrain Model in a single package,” explainsThadeu. “But the most satisfying aspect was working with amodel that updates automatically after point classificationhandling. Easy export, import, and point cloud merging—allthese factors contribute to making LP360 acomprehensive software solution.”One of the key features of LP360 that stood out for TerraBrasil was its ability to integrate LiDAR point clouds withbathymetric data seamlessly. “This involves integrating theLiDAR point cloud with a point cloud imported from a TXTtable containing elevation and planimetric data frombathymetry,” says Thadeu. “Once merged, all that remainsis to work with the digital terrain model.”Oblique view of Pedra Reservoir.The Pedra Reservoir.

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https://iiga.news.comTo highlight the impact of LP360 on their operations,Lugarini shared three significant hydroelectricprojects undertaken by Terra Brasil. These projectsdemonstrate how the company integrates airborneLiDAR data with bathymetric measurements fromlakes and dams using LP360. By leveraging thesoftware’s advanced capabilities, Terra Brasilensures rigorous QA/QC processes, producing highlyaccurate models and volume analyses essential forcritical infrastructure management. These venturesnot only underscore Terra Brasil’s technicalexpertise but also showcase the remarkable resultsachievable through cutting-edge geospatialtechnology.Case Study 1: Pedra Reservoir ProjectThe Pedra Reservoir project was a significantundertaking that showcased the capabilities ofLP360, even independently of GeoCue equipment.“In the case of Pedra, we did not conduct DroneLiDAR topography,” notes Thadeu. “So, I used LP360entirely independently of GeoCue equipment,demonstrating that the software can be used forcartographic data generation.”The process involved integrating bathymetric datawith topographic data provided by Eletrobras(Chesf). “First, I received contour lines of the dry areafrom Eletrobras as the data was provided,” explainsThadeu. “I converted the contours into pointsspaced every one meter using GIS software. Then, Iimported the tabulated points as LAS using LP360’simport system. I applied the same method for thebathymetric points.”Conducting bathymetry over a 42 km² areapresented several challenges. “The challenge wasexecuting lines every 30 meters while maintainingthe linearity of the projected line diagonally andfollowing the same standards despite strong wavesand winds in the region,” recalls Thadeu. “All thesefactors complicated navigation and broughtsignificant challenges to our team. But with a lot ofeffort, we managed to complete the bathymetryafter five months in the field to complete the entireservice.”The ability to generate a 3D model and extractvolume and area data was invaluable for Eletrobras’sreservoir operations. “The information regardingvolume and area data from the 3D model allows forthe analysis of volume and area at each elevation ofthe reservoir,” says Thadeu. “This information iscrucial for maintaining the hydrologicalmanagement of the sluice gates and for energygeneration at the hydroelectric plant.”The final deliverable was comprehensive. “The final deliverable is thedigital terrain model in raster format for the entire reservoir of thehydroelectric plant, with elevation information every five meters,which corresponds to the raster pixel, along with the Area-VolumeCurve Table, which indicates the volume and area for each elevationof the reservoir at every 10 centimeters,” explains Thadeu. “Thisincludes information on the reservoir’s volume at the maximumelevation (the highest level the reservoir can reach), the normalmaximum elevation (the maximum level at which the reservoir ismaintained without spilling water), and the normal minimumelevation (the dead volume level).”Case Study 2: Hydroelectric Plants in ParanáIn another significant project, Terra Brasil utilized the TrueView 540LiDAR system and LP360 software for hydroelectric plants in Paraná.“In Paraná, we used the TrueView 540 to map the edges of thereservoirs at the Fundão and Santa Clara power plants, which arepart of Elejor, hydroelectric plants on the Jordão River,” says Thadeu.Similar to the Pedra project, bathymetry was conducted using asingle-beam echosounder. “We conducted bathymetry with pointsspaced every two meters along the survey line and 40-meter spacingbetween lines,” explains Thadeu. “We used LiDAR to map the dry areaof the reservoir, and then the 3D model was generated by integratingLAS files from both the bathymetry and the topographic area of thedry land.”Success StoryPage 41Analyzing the bathymetric data in LP360.Terra Brasil integrated lidar data from the TV540 with bathymetricdata for two hydroelectric plants in the state of Paraná.

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https://iiga.news.comThe data provided to the National Water Agency(ANA) was critical for regulatory compliance andoperational efficiency. “The National Water Agencyregulates the operation of hydroelectric plantsdispatched in Brazil through norms and guidelinesdesigned to ensure the correct functioning andoperational quality of these plants,” said Thadeu.“One of the controls required by the National WaterAgency is the updating of the Area-Volume Curvefor these plants so that they can present their dataon volume, area, and elevation for operations atmaximum maximum elevation, normal maximumelevation, and normal minimum elevation, which arealso related to useful volume.”LP360 facilitated this process seamlessly. “All thisdata is extracted from the 3D model of the reservoirgenerated in LP360,” says Thadeu. “Before usingthis software, I had to work with multiple GISsoftware to arrive at the digital terrain model. Now,it is possible to work with the generation of theLiDAR point cloud, integration of bathymetric andtopographic data, generate the terrain model, andadjust that model all within the same software,LP360.”The final deliverables were comprehensive and metall regulatory requirements. “The data is sharedthrough the delivery of the digital terrain model, thecartographic products that generated the model, aswell as geodetic benchmarks, quality controlthrough control and check points, a local geoidalmodel that adjusted ellipsoidal altitude toorthometric altitude, bathymetric points, andfinally, the spreadsheet with the data for theElevation x Area x Volume curve, which details thearea and volume for each elevation of thereservoir,” explains Thadeu.Case Study 3: Companhia Siderúrgica Nacional (CSN) ProjectThe projects with Companhia Siderúrgica Nacional (CSN) in Rio Grandedo Sul were particularly significant, especially in light of the recentcatastrophic flooding in the region. “The projects with CSN in RioGrande do Sul started before the flooding in the region,” notes Thadeu.“We updated seven reservoirs for CSN in the state, all of which werecompleted before the floods occurred.”After the flooding, Terra Brasil returned to one of the plants foradditional mapping. “After the event, we returned to the Canastraplant as it had dried up due to repairs that will be carried out on theplant because of the damage caused by the flooding,” says Thadeu.“We conducted mapping of the dry plant using TrueView 540, whichwe had previously mapped the dry area with the TrueView 515.”Using both the TV515 and TV540 systems allowed for comprehensivemapping before and after the reservoir dried out. “In both cases, weused LiDAR mounted on the DJI Matrice 300, supported by GNSSfrom Trimble,” explains Thadeu. “The flights were conducted at anaverage altitude of 70 meters, with an average speed of five meters persecond.”The key findings from the topographic comparison are pending, butthey are expected to provide valuable insights. “We have not yetconducted the comparison, but the volume of both models will indeedbe compared, and the accuracy of the bathymetry can be evaluated,as compared to the drone LiDAR,” said Thadeu.Success StoryPage 423D model of the area created with LP360.GeoCue TrueView 515 system on DJI Matric 300 UAV flying overRio Grande do Sul reservoir.

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https://iiga.news.comThe final results included updated reports andcomprehensive data sets. “We created reportsupdating the Area-Volume Curves for the sevenreservoirs, containing cartographic information on thetopography of the dry area, bathymetry, geodeticbenchmarks, control sections for sediment monitoring,and digital terrain models for each hydroelectricproject,” says Thadeu.Technical Insights and ChallengesIntegrating bathymetric data with LiDAR topographypresents several technical challenges. “The biggestchallenges were integrating data with varying pointdensities,” explains Thadeu. “LiDAR providesthousands of points per square meter, whilebathymetry with a single-beam echosounder offerspoints spaced every two meters, with bathymetric linesspaced up to 200 meters apart, resulting in a rich TINmodel in the dry topography area and a triangulatedmodel in the wet area.”LP360 plays a crucial role in performing QualityAssurance/Quality Control (QA/QC) on the acquireddata. “Control points are very useful for analyzing theaccuracy of the survey,” says Thadeu. “We executed asmany control points as possible, while also surveyingcross-sections along the edges of the reservoir using aTotal Station to assess the accuracy of the LiDAR.”He adds, “If possible, it is beneficial for the check pointsto be identifiable on the ground so that any error canbe identified. Quality control is generated from theexport of the report on the check points, measuring allerrors and the average error of the survey.”The accuracies achieved with GeoCue’s TrueView have beenimpressive. “The accuracies achieved so far with the use ofGeoCue’s TrueView have been very good, with all point cloudsexhibiting errors ranging from one to ten centimeters,depending on the flight parameters,” notes Thadeu.Describing the process of TIN interpolation of LiDAR andbathymetry data within LP360, Thadeu says, “The TINinterpolation process is one of, if not the oldest interpolationmethods in surface generation programming. In LP360, I havealways had good experiences with TIN, and the export functionallows for the creation of a lightweight file that is easy to handlein GIS software.”He emphasizes the efficiency of LP360 in manipulating pointclouds. “As mentioned, LP360 greatly benefits from its ability tomanipulate the point cloud through classification andsimultaneous surface updates, where the final loading is onlydone during export,” says Thadeu. “This practice significantlysaves time when generating a terrain model.”Advice and RecommendationsFor professionals looking to integrate bathymetric and LiDARdata, Thadeu offers valuable advice. “My advice is to look forsoftware that is efficient for data integration, like LP360, and toalways use the same planimetric and altimetric reference so thatboth pieces of information can be integrated without causingbreaks in the model,” he says.He also shares best practices developed while working withLP360 and TrueView systems. “My practice is always to work withthe altimetric reference in ellipsoid, as I mentioned, because italigns with the reference of the standard GNSS system, wheremost GNSS devices operate with ellipsoidal data,” explainsThadeu. “Regarding TrueView, I always recommend maximumorganization when working with point clouds, as each flight cyclegenerates a point cloud package. In extensive projects,maintaining organization is crucial to ensure that no flight or cycleis missing from the project.”Success StoryPage 43The point cloud of the reservoir with data collected fromthe TrueView 515, before the collapse.The point cloud of the reservoir with data collected fromthe TrueView 515, after the collapse.

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Japan Airlines Co., Ltd. (hereinafter "JAL"), Amami Island Drone Co., Ltd. (hereinafter "AID"), and JDRONE Co., Ltd.(hereinafter "JDRONE"), in cooperation with Yamaha Motor Co., Ltd. (hereinafter "Yamaha Motor"), participated in theFY2024 Kumamoto Prefecture Comprehensive Disaster Drill (hereinafter "the Drill") on December 18-19, 2024. Rescueoperations using large drones for initial disaster response were conducted.The drill assumed that land routes to the Amakusa region were severed due to a large-scale earthquake. While large-scalesupport from sea and air was planned, drones were used for reconnaissance flights to relay real-time disaster informationto headquarters and to transport relief supplies landed by the Self-Defense Forces to isolated islands.Participation in the planning of the Drill from the beginning was undertaken, proposing roles that leverage theperformance and operational capabilities of large drones. An operation that seamlessly integrates " disaster situationconfirmation by drones, formulation and implementation of initial response measures by the Self-Defense Forces andothers, and last-mile transportation by drones" was demonstrated.Efforts will continue to strengthen regional disaster prevention capabilities using drones in collaboration with both publicand private sectors.https://iiga.news.comMajor Earthquake Drill in Kumamoto: Large DroneRescue OperationsUsing the Right TechnologyGeoCue’s TrueView technology has allowed Terra Brasil to undertake larger and more challenging projects. “GeoCue hasenabled us to undertake significant projects with LiDAR, and I would like to thank the team for their partnership andsupport.” he says. “We are now considering purchasing the TrueView Go, which would be our third acquisition from GeoCue,and it will undoubtedly allow us to execute many more great projects.”By using GeoCue’s TrueView LiDAR systems and LP360 software, Terra Brasil has boosted their abilities, delivering preciseand detailed data for important infrastructure projects. Their story inspires others to embrace LiDAR technology to improveefficiency, accuracy, and impact in their own work.Page 44Role of the Drone in the DrillIn past earthquakes such as the "2016 Kumamoto Earthquake" and the "2024 Noto Peninsula Earthquake," there has been arecognized need to strengthen the ability to secure rescue access from the coast, understand the overall disaster situationimmediately after the event, and provide last-mile delivery to isolated areas cut off by land routes. Additionally, for a largedrone capable of long-distance flight and heavy cargo transport, it is necessary to establish an operational system, includingremote control, during normal times (phase-free). Unplanned emergency deployments remain challenging, highlightingongoing issues in the effective use and role of drones in disaster response.Given these challenges, the Drill aimed to have a private large drone conduct extensive reconnaissance flights immediatelyafter the disaster, allowing the command center to understand the disaster situation in real-time and formulate initialresponse measures. Success Story

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Drone Operation: Amami Island DroneEquipment Used: FAZER R G2 by YamahaMotorOperation Mode: Remote Operation, Level3.5 Utilizing LTE and SatelliteCommunicationRemote Station: Shinagawa, Tokyo (JALOffice)The scenario included low-altitude aerial photography of theAmakusa Islands coastline (approximately 200 km incircumference) to identify accessible coastal areas for theMaritime Self-Defense Force's landing plans. Relief supplieswere relay-transported from the Maritime Self-DefenseForce to the Ground Self-Defense Force and then to theprivate drone, with the large drone handling the last-miledelivery to isolated islands.https://iiga.news.comPage 45Drone Operational System in the DrillUnder the comprehensive coordination of JAL, AIDprovided the drone equipment and the remote operators,while Yamaha Motor and JDRONE supported theoperations.In November 2023, AID, a drone operation company jointlyestablished by Setouchi Town in Amami and JAL, beganoperations. Currently, AID uses the large drone "FAZER R G2"manufactured by Yamaha Motor (hereinafter "FAZER R G2")as its main aircraft. During normal times, AID conductsregular transportation of daily necessities, and duringdisasters, it engages in reconnaissance and transport ofrelief supplies, operating a "phase-free" drone business. Theremote control base station for this drill was set in Tokyo(the base station for AID's regular operations) to ensure itwas in a non-affected area.JDRONE leveraged its experience and knowledge from itssolution business in crisis management and disaster fields,including radioactive material monitoring at the FukushimaDaiichi Nuclear Power Plant accident using the FAZER R G2.In this drill, JDRONE provided on-site operational support.Yamaha Motor utilized its technical information andexperience gained from its activities in manufacturingunmanned aerial vehicles and long-distance flightoperations. For this drill, Yamaha Motor conducted pre-flight plan verification and provided on-site operationalsupport.Reconnaissance Flights for Disaster Assessment(Dec 18, 2024: Kami-Amakusa City, Amakusa City, ReihokuTown)・Conducted low-altitude reconnaissance flights over the coastal areas of theAmakusa Islands, assuming disaster scenarios.・The Prefectural Disaster Response Headquarters monitored aerial footage inreal-time.Last-Mile Delivery of Relief Supplies to Isolated Islands(Dec 19, 2024: Kami-Amakusa City)・Relief supplies landed by the Japan Maritime Self-Defense Force's air-cushion vehicle are transported by land to the drone departure point (HiaiFishing Port).・The supplies are received from the Japan Ground Self-Defense Force,loaded onto the drone, and delivered to the isolated island of Hinoshima.Success Story

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Drones have become an invaluable tool in disasterresponse and recovery operations across theglobe, revolutionizing the way humanitarian aid isdelivered in times of crisis. Whether assessingextensive damage caused by natural disasterssuch as hurricanes and earthquakes, locatingsurvivors in hard-to-reach areas, or deliveringcrucial supplies to communities ravaged bywildfires, drones provide critical real-time dataand support that can save lives. By offeringunparalleled aerial perspectives, drones help toimprove situational awareness, reduce risks to firstresponders, and expedite decision-makingprocesses.Their versatility and efficiency have enableddrones to transform disaster response efforts,allowing humanitarian organizations to operatemore effectively under pressure. In particular,drones provide the ability to rapidly survey large,inaccessible areas that would otherwise requiresignificant time and manpower to assess. Thiscapability not only ensures faster and moreaccurate assessments of damage but alsofacilitates the swift allocation of resources, makingit possible to deploy assistance to the mostaffected regions with greater precision. In the faceof increasingly frequent and severe naturaldisasters, drones continue to prove essential inimproving the speed, safety, and overalleffectiveness of disaster recovery operations.https://iiga.news.comFeature StoryPage 47Drones in Disaster Response: Life-saving InnovationThe Growing Role of Drones in Disaster Responseand Recovery: Ethics and ImpactIn the aftermath of natural disasters, swift, effective, and well-coordinated efforts are crucial. To address these challenges, droneshave emerged as a pivotal tool, enhancing the efficiency of firstresponders and aid organizations. Equipped with advancedtechnology, drones offer capabilities far beyond traditional methodsof disaster management, enabling real-time data collection, precisemapping, and even the delivery of life-saving supplies.Advanced Drone Technology for Enhanced Disaster ResponseOne of the primary advantages of drones in disaster response is theirability to provide aerial footage of affected areas. This capability isparticularly valuable in regions where infrastructure is damaged orinaccessible due to landslides, floods, or collapsed buildings.Advanced drone systems equipped with high-resolution cameras,thermal imaging, and LiDAR (Light Detection and Ranging) sensors areable to offer detailed, real-time imagery, allowing responders toassess the scope of the disaster quickly and accurately.

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https://iiga.news.comFor example, drones equipped with thermal imaging sensors are able todetect body heat, which is crucial in locating survivors in the aftermath ofearthquakes, building collapses, or wildfires. Thermal imaging allowsdrones to quickly scan large areas, pinpointing potential survivors even inchallenging environments such as dense smoke, debris, or under rubble.Drones with LiDAR technology further enhance these capabilities byproviding high-precision topographic maps of disaster-stricken zones,which can be used to assess structural damage, identify hazards, and evenfind hidden survivors.In environments that require special considerations, drones areincreasingly being designed with explosive atmospheres and harshenvironmental conditions in mind. For instance, drones built with ATEX(Atmosphères Explosibles)-certified components are engineered tooperate safely in hazardous environments, such as those whereflammable gases or dust are present following industrial disasters orchemical spills. These drones ensure that safety is maintained whileconducting operations in potentially explosive conditions, providingcritical support to response teams without endangering the personnelinvolved.Specialized Materials and Design for Harsh ConditionsDrones deployed in disaster zones face a variety of environmentalchallenges that require them to be resilient and adaptable. To meet thesechallenges, drone manufacturers have developed specialized dronesusing advanced materials designed to withstand extreme conditions, suchas high winds, heavy rain, and temperatures that range from freezing coldto extreme heat.For instance, some drones are constructed using carbon fiber-reinforcedpolymers (CFRPs), which offer a lightweight yet extremely durable design.This material is crucial for reducing the drone’s overall weight, increasingits flight time and payload capacity, while maintaining the structuralintegrity necessary to withstand harsh environments. The use ofaerospace-grade aluminum in key structural components enhances thedrone's resistance to corrosion, making it suitable for operations in regionswith high humidity or salty air, such as coastal areas impacted byhurricanes.Additionally, drones used for disaster response are increasingly integratedwith advanced battery technology to support longer flight times andfaster deployments. Lithium-sulfur and solid-state batteries, for example,offer increased energy density and efficiency, which is essential whendrones are tasked with covering large, hard-to-reach areas. Some systemsare also equipped with solar panels that can recharge the drone duringflight, extending operational endurance and reducing the need forfrequent returns to base.Feature StoryPage 48The Future of Drones in Disaster ResponseLooking ahead, drones are expected to play an evenmore prominent role in disaster response,particularly as technology continues to advance.The integration of artificial intelligence (AI) andmachine learning algorithms will further enhancedrones' capabilities in identifying patterns andanomalies in disaster zones, allowing for even moreefficient and effective decision-making.Additionally, autonomous drones that can operatewithout human intervention, equipped withcollision avoidance systems and long-rangecommunication links, are likely to become standard,enabling them to complete more complex missionswith greater safety and reliability.As drones become increasingly specialized fordisaster response, the continued development ofmulti-spectral sensors, AI-powered data analytics,and 5G communication networks will allow theseaerial assets to provide real-time data to groundteams, significantly improving coordination anddecision-making. Moreover, the development ofhydrogen-powered drones could provide theextended flight times and payload capacitiesrequired for longer missions, especially in regionswhere infrastructure has been completelydestroyed.In conclusion, drones are revolutionizing the waydisaster response is conducted, offering life-savingbenefits through cutting-edge technology,specialized materials, and rapid deployment. Asthese technologies evolve, drones will continue toserve as an indispensable tool in the global effort tomitigate the effects of natural disasters andimprove emergency response capabilities.

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https://iiga.news.comThe Ethics of Drone Use:Privacy, Security, andRegulationFeature StoryPage 49While drones have proveninvaluable in disaster response,their increasing usage has raisedethical concerns surroundingprivacy, security, and regulation.As drone technology becomesmore accessible, especially withthe rise of drones for commercialuse and surveillance, questionsabout how and when dronesshould be used have becomeincreasingly complex.Privacy: Balancing Surveillanceand Individual RightsDrones are equipped with high-resolution cameras, thermalimaging, and real-time videotransmission, allowing respondersto assess damage, locatesurvivors, and coordinate reliefefforts. However, this level ofsurveillance raises concerns overpersonal privacy, especially whendrones capture footage in privateproperties, refugee camps, ormedical facilities whereindividuals expect confidentiality.In disaster-stricken areas, dronescan inadvertently capturesensitive moments, such asinjured individuals receivingmedical attention, grievingfamilies, or survivors in vulnerablesituations. This creates ethicaldilemmas about who controls thisfootage, how it is stored, andwhether it could be misused.Additionally, in conflict zones orareas of civil unrest, drones canbe weaponized for statesurveillance, intelligencegathering, or law enforcementpurposes, leading to fears of masssurveillance and potential civilliberties violations. For example,drone-based facial recognitiontechnology is being tested insome countries, raising alarmsabout warrantless tracking ofindividuals.Governments and humanitarianorganizations must establishclear guidelines on:Who has access to drone footageand how long it is retainedWhether consent fromindividuals is required beforefilming in certain areasThe use of encryption andanonymization to protectidentities in sensitive footageSecurity: Preventing Drone MisuseWhile drones offer life-savingapplications, their potential misuseposes serious security challenges.Malicious actors can exploit dronesfor:Espionage and data breaches –Hackers can intercept dronecommunication, gainingunauthorized access tosurveillance footage or control ofthe device itself.Weaponization – Drones havebeen modified to deliverexplosives, conduct targetedattacks, or disrupt criticalinfrastructure.Interference with aviation –Unauthorized drones nearairports or emergencyhelicopters have already causedflight disruptions and accidents.Efforts to regulate drone use are ongoing.Many countries have introduced frameworksto govern the use of drones in variouscontexts, including humanitarian efforts.However, finding a balance betweeninnovation and public safety remains anongoing challenge. For instance, in the U.S.,the Federal Aviation Administration (FAA) hasintroduced regulations for commercial droneuse, but the ethical and security concernsaround drones in sensitive situations continueto evolve.Example Stories of Drone Use in DisasterResponse1.The 2015 Nepal Earthquake ResponseFollowing the catastrophic earthquake thatstruck Nepal in 2015, drones played anintegral role in the immediate response andrecovery efforts. The magnitude of thedisaster left entire villages isolated andtraditional access routes blocked, making itextremely challenging for rescue teams toeffectively assess the damage and locatesurvivors.

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https://iiga.news.comFeature StoryPage 50In such conditions, drones provided aninvaluable aerial view of the affected areas,enabling authorities to quickly understandthe scale of destruction.Equipped with high-resolution cameras, thedrones captured detailed imagery ofcollapsed buildings, damaged infrastructure,and areas that were otherwise inaccessibledue to debris or rough terrain. This real-timedata allowed rescue teams to prioritize theirefforts, identifying the locations wheresurvivors were most likely to be found, aswell as the safest routes to reach theseareas. By offering insights into the mostseverely affected regions, drones guidedground teams toward critical zones thatrequired immediate attention, ultimatelysaving precious time in the search andrescue process.This rapid, data-driven assessmentsignificantly enhanced the overall efficiencyof the recovery operations, allowingresponders to act more decisively and withgreater accuracy. The use of drones in Nepaldemonstrated the power of technology toexpedite disaster relief and ultimately playeda pivotal role in the survival and recovery ofcountless individuals in the aftermath of theearthquake.Drones equipped with high-resolution cameras and sensors were deployed tosurvey roads, bridges, power lines, and other critical infrastructure, capturingreal-time imagery of the damage. This aerial data allowed authorities to gain acomprehensive overview of the situation much faster than traditional groundsurveys. With real-time insights into which areas were most affected and whichcritical infrastructure was impassable, drones enabled rescue teams andemergency response units to focus their efforts on the most urgent locations.The real-time data provided by the drones also allowed FEMA (FederalEmergency Management Agency) and other humanitarian organizations toprioritize resources and allocate aid more effectively. By mapping out thedamaged areas and identifying the best routes for delivering supplies, droneshelped to streamline the logistics of distributing food, water, and medical aid tothe regions in greatest need. In the case of power restoration, drones were alsoused to inspect power lines and transmission towers, helping utility companiespinpoint the most critical areas for repair.ConclusionDrones have revolutionized disaster response and recovery efforts, allowingfirst responders and aid organizations to act faster and more effectively.However, as their use becomes more widespread, especially in commercial andsurveillance applications, the ethical implications regarding privacy, security,and regulation must continue to be addressed. By striking a balance betweentechnological innovation and ethical responsibility, drones can be harnessedfor even greater humanitarian efforts in the future.2. Hurricane Maria in Puerto Rico (2017)In the aftermath of Hurricane Maria, whichseverely impacted Puerto Rico in 2017,drones became a crucial tool for assessingthe extensive damage across the island. Thehurricane caused widespread destruction,leaving many areas isolated andcommunication networks disrupted.Traditional methods of damage assessmentwere slow and inefficient due to the severityof the storm and the loss of infrastructure,making the deployment of drones a game-changer in the recovery process.

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22Minuteshttps://iiga.news.comPage 52Ian Lim Yeong Kiat is a distinguished aviation andsecurity expert with over three decades of leadershipexperience in the Republic of Singapore Air Force(RSAF). A former fighter pilot and retired Chief of Staff –Air Staff, he possesses deep expertise in militarystrategy, security affairs, operations management, andlarge-scale project execution. His exemplary serviceearned him the Public Administration Medal – Silver(Military) and the SAF Long Service and Good ConductMedal.Beyond the military, Ian remains deeply engaged in theaviation and UAV industry, leveraging his vastexperience to bridge military and commercial sectors.He has successfully facilitated aerospace technologysales, managed startups in UAVs and carbon fiberaircraft component fabrication, and provided strategicconsultancy for aviation businesses.As the President of the Singapore Chapter of the WorldUAV Federation, Ian is committed to advancing UAVtechnology and fostering industry collaboration. He isalso the Founder and Director of Primus Aviation Pte.Ltd., a Director at Airtitude Consultancy, and SeniorAdvisor at Imrex Pte. Ltd., where he continues to shapethe future of aviation and unmanned systems.1. Would you mind provide the insights into thecurrent state and future prospects of UAStechnology from both a global and SoutheastAsian perspective?As a preamble, I'm pleased to provide insights into thecurrent state and future prospects of UAS technologyfrom both a global and Southeast Asian perspective.The unmanned aerial systems (UAS) industry hasexperienced significant growth, driven byadvancements in several areas. UAS are now equippedwith sophisticated AI systems, enabling autonomousflight, obstacle avoidance, and mission planningwithout human intervention. This enhances theircapabilities for a wider range of applications.Improvements in battery and propulsion technologieshave extended flight times and payload capacities,making long-range and heavy-lift missions morefeasible. Additionally, advanced sensors and imagingsystems have improved data collection forapplications like environmental monitoring andinfrastructure inspection.Mr. Ian Lim President of World UAVFederation Singapore2. How can unmanned aerial vehicles (UAVs) benefit fromadvancements in alternative energy storage and generation?Advancements in alternative energy storage and generationtechnologies are greatly benefiting UAVs (Unmanned AerialVehicles) by addressing challenges like flight time and overallperformance. One promising solution is hydrogen fuel cells, whichoffer extended flight times of up to 10 hours and distances of 500km. They also provide high energy efficiency, rapid refueling (withinone minute), and produce no direct pollution, with only water andheat as byproducts. Companies like Honeywell Aerospace arecollaborating on hydrogen fuel storage systems to further enhancethis technology.Solar power is also advancing to make solar-powered drones moreviable. These drones can stay airborne for days or even weeks,making them suitable for long-duration missions. Solar drones arecost-effective, reducing the need for battery replacements, and areenvironmentally sustainable by lowering the carbon footprint ofoperations. Companies like XSun have developed solar-powereddrones with impressive payload capacity and endurance.Hybrid energy systems are being explored to optimize UAVperformance. These include solar-RF hybrid systems, whichcombine solar and radio frequency energy harvesting, and battery-solar hybrids that use advanced batteries for power during low-lightconditions and enable quick energy replenishment.

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22Minuteshttps://iiga.news.comPage 53Another innovation is airborne wind energy(AWE), where tethered drones harness high-altitude winds for power generation, potentiallyoffering more energy than ground-levelturbines at a lower cost.Finally, machine learning and artificialintelligence (AI) are enhancing energymanagement in UAVs. AI can optimize flighttrajectories and intelligently control batteryusage, while power cognition, a method usingreinforcement learning, optimizes energyharvesting and flight efficiency. Theseinnovations are set to revolutionize UAVcapabilities, enabling longer flights, reducedcosts, and increased sustainability.3. How do you foresee advancements inenergy storage (e.g., batteries, fuel cells)affecting the design and capabilities offuture drones?Advancements in energy storage technologiesare set to transform the drone industry, offeringsignificant improvements in performance,efficiency, and versatility. These innovations willenable drones to operate in a broader range ofapplications across various sectors.One of the key impacts of improved energystorage is increased flight times and operationalrange. New battery technologies, such as thosedeveloped by BEI, offer energy densities of upto 410 Wh/kg, allowing drones to fly twice aslong and cover 70% more distance thanconventional lithium-ion batteries. Additionally,hydrogen fuel cells can enable flight times of upto 10 hours and distances of 500 km, whilesolar-powered drones, in combination withhigh-capacity batteries, can stay airborne fordays or weeks.Energy storage improvements will also enhance drone performance inextreme conditions. Advanced batteries allow drones to operate intemperatures as low as -20°C for up to 40 minutes, compared toconventional batteries that fail within seconds. Drones will also be betterequipped for all-weather operations, enabling them to function in highwinds and adverse weather.Higher energy density will also increase payload capacity, allowing dronesto carry heavier and more sophisticated equipment. This includesadvanced sensors, communication devices, and even weaponry fordefense purposes. The ability to carry more payloads will open up newapplications in aerial photography, mapping, inspection, and deliveryservices.Design innovations will be driven by these energy advancements. Droneswill feature modular payloads for adaptability, aerodynamic designs tomaximize range and endurance, and integrated solar panels tocomplement battery systems for longer operations. Improved energystorage will also enable more sophisticated onboard systems, such asreal-time data processing and advanced autonomous operations,including self-charging and adaptive mission planning.These advancements will have wide-reaching impacts across variousindustries. In defense and security, drones will enhance surveillance andreconnaissance. In environmental monitoring, they will allow forcontinuous data collection. In infrastructure inspection, drones willconduct more thorough evaluations, and in agriculture, drones will coverlarger areas for precision farming applications.In conclusion, energy storage advancements will significantly boost dronecapabilities, enabling longer flights, greater payloads, and betterperformance in challenging conditions, driving innovation across manysectors.4. What are the most common uses of drones in the aviationindustry today?Drones have become essential in various areas of the aviation industry,offering significant improvements in safety, efficiency, and operationalcapabilities.In maintenance and inspection, drones are used for detailed aircraftinspections with high-resolution cameras, thermal imaging, LiDAR, andgas sensors to identify potential issues. They also inspect airportinfrastructure, runways, and ground equipment, enhancing operationalsafety.

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22MinutesFor security and surveillance, drones patrolairport perimeters 24/7, detectingunauthorized intrusions and potential threats.They also monitor wildlife near runways toreduce the risk of bird strikes and otheranimal-related incidents.In logistics and delivery, drones efficientlytransport aircraft parts and emergencysupplies within airports, improving operationalefficiency. They can quickly deliver medicalsupplies or essential equipment during criticalsituations.Drones also play a crucial role in datacollection and analysis. They gatherenvironmental data for impact assessmentsaround airports and create detailed aerialmaps of airport facilities and surroundingareas.For operational efficiency, drones assist withde-icing aircraft wings, reducing timecompared to traditional methods, andstreamline cargo inspection for potentialsecurity threats before reaching the tarmac.In emergency response, drones with thermalimaging can aid search and rescue efforts,locating survivors or assessing damage inhard-to-reach areas.Overall, drone integration in aviation has led toenhanced safety and efficiency, and astechnology advances, we can expect evenmore innovative applications in the future.5. What role do you see drones playing inadvancing the logistics and deliverysectors, particularly in regions withlimited infrastructure?Drones are set to revolutionize logistics anddelivery, especially in regions with limitedinfrastructure, by improving efficiency,accessibility, and sustainability.In last-mile delivery, drones offer significantadvantages by bypassing traffic, reducingdelivery times, and cutting operational costsby 30-50%. They also provide access toremote areas with poor road infrastructure,such as islands and mountainous regions.https://iiga.news.comPage 54In healthcare, drones are enhancing medical supply distribution bydelivering critical items like vaccines and diagnostic samples to remotelocations. They can also transport time-sensitive medical supplies,reducing delivery times significantly—like in Tanzania, where dronedeliveries cut down medical supply delivery from 6 hours to just 40minutes.Drones also offer environmental benefits. Their electric-poweredsystems reduce emissions and can lower energy use by up to 94%compared to traditional delivery vehicles.Drones are overcoming infrastructure challenges by navigatinggeographical barriers such as mountains and forests, improving ruralconnectivity and enabling delivery to areas otherwise difficult to access.The economic impact of drone logistics is also significant. China's low-altitude drone economy is expected to grow to 120-150 billion RMB($16.8-21 billion) by 2025, and drone logistics is creating new jobs inoperations and maintenance, even as it reduces some traditional roles.Despite their potential, drone deliveries face challenges such asregulatory hurdles, technical limitations (like battery life), and weathersensitivity. Solutions are being developed, including extended range viaquick-charge waypoints, advanced weather prediction, and wildlifedetection systems to mitigate interference.In conclusion, drones are transforming logistics and healthcare delivery,particularly in regions with poor infrastructure. By overcoming barriers,reducing costs, and improving efficiency, drones are reshaping thefuture of delivery services and healthcare logistics in challengingenvironments.6. What is the level of interests in Drone E-Sports globally and inSouth-East Asia?Drone e-sports is rapidly gaining popularity both globally and inSoutheast Asia, signaling a bright future for the sport.Globally, drone racing has garnered millions of fans, with events like theDrone Racing League (DRL) being broadcast on major sports networks.The sport will also feature at The World Games 2025 in Chengdu, China,and the International Air Sports Federation (FAI) launched the E-DroneRacing World Cup series in 2024 to attract newcomers and gamers.

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22MinutesIn Southeast Asia, the enthusiasm for drone e-sports is growing,with Singapore hosting its first professional race in 2019.Malaysia has allocated RM5 million to develop a Drone SportsCentre of Excellence, and Thailand will host DronTech Asia 2025,a major exhibition and conference on drone technology.The FPV (First Person View) Racing Drone market is alsoexpanding, with a projected growth from USD 35 million in 2020to higher values by 2025, particularly in the Asia-Pacific region,which benefits from a strong drone racing tradition and majormanufacturers.Several factors are driving interest in drone e-sports, includingadvancements in drone technology, more affordable drones,and the integration of AI and 5G connectivity to enhance boththe pilot experience and spectator enjoyment.While challenges remain, such as evolving regulatoryframeworks and the need for standardized rules, these alsopresent opportunities for growth and innovation in the sector.In conclusion, the rise of drone e-sports, driven by significantinvestments, technological advancements, and growing marketpotential, positions it to become a prominent player in theglobal e-sports scene in the near future.7. What is the profile of Drone E-Sports participantsand which E-Sport is most popular?Drone e-sports is attracting a growing demographic, primarilyyoung, tech-savvy individuals aged 16-34, referred to as "TechSetters." This audience is expected to increase from 820 millionto 1 billion by 2030, driven by rising interest in STEM and digitaltechnologies. However, the gender gap is significant, with 96%of drone owners in the U.S. being male and only 4% female.Several drone sports have gained popularity, includingtraditional drone racing, which involves pilots navigating high-speed quadcopters through obstacle courses. This is typicallydone using First Person View (FPV) goggles, with up to eightpilots competing at once in indoor or outdoor courses. E-Droneracing, a virtual version using advanced simulators, has alsogrown, with the FAI launching its E-Drone Racing World Cup in2024. Other forms include freestyle tricks, where pilotsshowcase maneuvers, and drone soccer, a team-based sportthat gained official recognition in 2019, with its first internationaltournament held in 2023.https://iiga.news.comPage 55Although drone racing, particularly through leagues like the DroneRacing League (DRL), is growing in popularity, it hasn't reached themainstream success of top e-sports. Nevertheless, the DRL has successfully engaged the "TechSetters," indicating potential for significant future growth in thesector.Drone racing can be organized in different formats, includingindividual time trials, team time trials, and multi-drone races,catering to a variety of skills and interests within the dronecommunity.8. What is Drone Basketball and what are your plans togenerate interests in South East Asia?Drone basketball is an innovative sport that blends dronetechnology with traditional basketball elements. Players usecustom quadcopter drones, housed in protective spheres, toscore points by navigating through hoops or goal posts whileavoiding aerial obstacles. The objective is to score as many pointsas possible within a set time frame. Matches typically last 3minutes, and teams consist of strikers and defenders. A key ruleinvolves an offside system, requiring players to return behind thecenter line after scoring. Scoring is valid only when the drone fullypasses through the goal post or hoop. Pilots wear First PersonView (FPV) goggles to navigate from the drone’s perspective.Drone basketball represents an exciting intersection of sports andtechnology, offering a new form of competition that challengesboth technical skills and athletic abilities. The sport is gainingpopularity, particularly in Southeast Asia. Singapore recentlyhosted its inaugural Drone Basketball Championship fromJanuary 9-11, 2025, at Temasek Polytechnic, marking a significantmilestone for the sport in the region.

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22MinutesTo promote Drone Basketball, a comprehensive marketing strategycan be implemented. This includes creating captivating visual contentlike exciting match videos and social media clips, leveraginginfluencers and social media for wider engagement, and organizing livedemonstrations at tech and sports events. Interactive sessions andeducational programs in schools and universities could also generateinterest. Partnerships with drone companies, sponsorships, andesports organizations will help reach a broader audience. Additionally,hosting competitive leagues and international tournaments canfurther elevate the sport’s visibility. Traditional media coverage willalso be crucial in spreading the word. Through these efforts, DroneBasketball can attract both tech enthusiasts and sports fans, buildinga strong, engaged community. We hope to create a buzz around DroneBasketball, attracting both tech enthusiasts and sports fans to thisinnovative and exciting new sport.https://iiga.news.comPage 56

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22Minuteshttps://iiga.news.comPage 571. How has your role as Chairman of NACSI changed yourperspective on drone technology? As Chairman of NACSI (National Association of CognitiveScience Industry), my perspective on drone technologyhas evolved in many ways. I’ve come to see it not just as atool for imaging or logistics but as a rapidly advancing fieldwith regulatory challenges, ethical concerns, andgroundbreaking potential across industries like agriculture,surveillance, and transportation.This role has deepened my understanding of how dronesimprove data collection and operational efficiency, whilealso raising important discussions about privacy andresponsible use. I’ve seen firsthand how collaborationbetween government and industry is crucial for safelyintegrating drones into our airspace. Engaging withdifferent stakeholders has also exposed me to innovativeapplications that I hadn’t previously considered, furtherreinforcing the need for policies that support responsiblegrowth in this sector.My view of drones has changed significantly as I’veexplored the intersection of cognitive science andtechnology. One of the most fascinating aspects is howcognitive science principles can improve human-droneinteraction, making drones more intuitive to operate.Dr. Kwon Alex Heechoon, Chairman of NationalAssociation of Cognitive Science IndustryEthical considerations have become an even greater focus forme, particularly around privacy and data collection. As dronesbecome more advanced, ensuring they are used responsibly iscritical. At the same time, AI and machine learning are drivinghuge advancements in drone capabilities, from smarternavigation to autonomous decision-making. Understandingcognitive processes can play a big role in refining these AIsystems. One of the most valuable aspects of my work atNACSI has been fostering collaboration between cognitivescientists and drone engineers. This kind of interdisciplinarypartnership has the potential to lead to truly innovativeapplications, where technology is not just advanced but alsothoughtfully designed with human factors in mind.Of course, developing AI-powered autonomous drones comeswith significant challenges. One of the biggest is perceptionand navigation—drones rely on sophisticated sensor systemslike LIDAR and cameras but ensuring they can detectobstacles and navigate reliably in complex environments,such as cities or bad weather, is still a major hurdle. Processingmassive amounts of data in real time is another challenge. AI-driven drones need to make split-second decisions anddeveloping efficient algorithms that can handle this withoutdelays is no small task. Safety and reliability are also topconcerns, especially when operating in populated areas.Drones need strong fail-safe mechanisms and robustcommunication systems to prevent accidents.

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22Minuteshttps://iiga.news.comPage 58Regulatory compliance is another ongoing struggle. As laws andairspace regulations continue to evolve, ensuring drones meetsafety standards and obtain the necessary certifications is acomplex process. Ethical and privacy concerns also remain a hottopic like public acceptance of drone technology depends on howwell we address these issues. Battery life and efficiency arelimitations that can’t be ignored either. The need for longer flighttimes and greater energy efficiency drives constant innovation, butthere’s still a long way to go. Additionally, integrating autonomousdrones into existing air traffic management systems is a majorundertaking, requiring cooperation across multiple industries.Beyond the technical and regulatory hurdles, there’s also the issueof public trust. People need to feel confident that drones are safe,reliable, and not infringing on their privacy. Building that trustrequires transparent communication and education about how thetechnology works and how it’s being used responsibly. Finally,adaptability remains one of the biggest challenges. AI-drivendrones need to continuously learn and adjust to new environmentsand conditions, which means their AI models must be regularlyupdated and refined. Despite these challenges, I see enormouspotential for AI-powered drones to transform industries andimprove lives. With the right approach, balancing innovation withethical.2. How has AI revolutionized modern drone capabilities?AI has completely revolutionized modern drone capabilities,making them smarter, more autonomous, and highly efficient.From navigation to data analysis, AI is driving innovation acrossvarious industries, unlocking new possibilities for droneapplications.One of the most impactful advancements is in autonomousnavigation. AI-powered obstacle avoidance systems allow dronesto detect and maneuver around obstacles in real-time, makingflights safer and more reliable. AI also enhances path planning,helping drones determine the most efficient routes based onweather conditions, terrain, and specific mission goals.Another game-changer is computer vision, whichenables drones to recognize and classify objectswith high precision. This is particularly valuable inareas like surveillance, agriculture, and search-and-rescue missions. AI-powered tracking systems alsoallow drones to follow moving objects accurately,making them useful for applications such as wildlifemonitoring, security, and sports filming. AIsignificantly improves data processing and analysis,allowing drones to generate real-time insightsduring operations. Whether it's assessing disaster-stricken areas or inspecting infrastructure, AI-drivenanalytics provide critical information on the spot.Additionally, AI can integrate and analyze vastamounts of data collected over time, helpingindustries make more informed decisions.Communication between drones has also advancedthrough swarm intelligence, where multiple droneswork together efficiently on large-scale tasks likeagricultural monitoring or disaster relief. AIoptimizes connectivity, ensuring stable and reliablecommunication between drones and controlcenters. When it comes to maintenance andperformance, AI plays a crucial role in predictivemaintenance. Drones can monitor their own health,anticipate potential failures, and schedulemaintenance before issues arise, reducingdowntime and extending their lifespan. AI alsooptimizes performance parameters to ensuredrones operate at peak efficiency.

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22MinutesThe applications of AI-powered dronescontinue to expand. In precision agriculture,drones can monitor crop health, optimizeirrigation, and manage pests with remarkableaccuracy. In logistics, companies like Amazonand UPS are developing AI-driven deliverydrones that can navigate complex urbanlandscapes. AI also enables drones to monitorenvironmental changes, track wildlife, andassess the impact of natural disasters. Securityand surveillance have also benefited from AI-driven drones. They can detect anomalies inreal-time, identifying unusual activities orobjects in surveillance footage. AI also enablesdrones to perform automated patrols,providing continuous monitoring over largeareas without human intervention.AI is even making a difference in humanitarianaid. Drones equipped with AI can assessdisaster zones, locate survivors, and deliveremergency supplies quickly. In remote orinaccessible regions, they play a critical role inmedical supply delivery, ensuring vitalresources reach those in need. Ultimately, AIhas not only enhanced how drones operate buthas also expanded their potential acrossnumerous industries. With AI-drivenadvancements, drones are becoming moreversatile, reliable, and efficient, paving the wayfor a future where they play an even bigger rolein our daily lives.3. How are drones transforming industries like agriculture, logistics,and infrastructure monitoring?Drones are transforming industries by making operations more efficient,cost-effective, and data-driven. In agriculture, AI-powered drones arerevolutionizing precision farming by using multispectral imaging to monitorcrop health, detect diseases early, and optimize irrigation. Automatedspraying reduces chemical use while increasing yields, helping farmers cutcosts and improve sustainability. The ability to gather real-time dataenables smarter decision-making, leading to higher productivity and betterresource management.In logistics, drones are reshaping last-mile delivery by bypassing traffic andreaching remote areas quickly. Companies like Amazon, UPS, and Ziplineare already testing drone deliveries for medical supplies and e-commerce,significantly reducing delivery times. Drones are also improving warehousemanagement by conducting automated inventory checks, reducing laborcosts, and increasing efficiency. However, regulatory challenges andairspace restrictions remain hurdles to widespread adoption.For infrastructure monitoring, drones provide safer and more efficientinspections of hard-to-reach areas like bridges, wind turbines, and powerlines. AI-powered image analysis detects cracks and structural weaknessesearly, preventing costly failures and improving maintenance planning. Byeliminating the need for workers to operate in hazardous conditions,drones enhance safety while reducing costs. As technology advances,integration with IoT and digital twin systems will further improve real-timemonitoring and predictive maintenance.https://iiga.news.comPage 59

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22Minuteshttps://iiga.news.comPage 60vWith AI and automation driving innovation, drones are setto play an even bigger role in these industries, makingoperations smarter, safer, and more sustainable.4. What are the key challenges in developing AI-driven autonomous drones?Drone technology is evolving rapidly, and the next decadewill bring major advancements that reshape industries andexpand their applications. Here’s a look at some key trendsthat will define the future of drones: One of the biggestshifts will be increased autonomy. With more sophisticatedAI and machine learning algorithms, drones will navigate,avoid obstacles, and make real-time decisions with minimalhuman input. This will enable them to operate in complexenvironments, from busy cities to remote disaster zones.Swarm technology is another exciting development.Instead of single drones operating alone, multiple droneswill collaborate on tasks, increasing efficiency in fields likeagriculture, search and rescue, and surveillance. Thiscollective intelligence will open up new possibilities forautomation and large-scale operations. As AI continues toimprove, enhanced machine learning capabilities will makedrones smarter than ever. Better image recognition,predictive analytics, and real-time data processing willallow drones to analyze their surroundings, adapt tochanges, and perform more complex tasks without directcontrol.Drones will also become more connected through IoTintegration, allowing them to communicate with othersmart devices and infrastructure. This will enhanceautomation in areas like industrial inspections, smart cities,and logistics, creating seamless data-sharing ecosystems.One of the most futuristic trends is Urban Air Mobility(UAM)—the rise of passenger drones and air taxis.Companies are investing heavily in safe and efficient airtransportation systems that could one day reduce trafficcongestion and revolutionize city commuting.With these advancements, regulatory frameworks will needto evolve. Governments and aviation authorities will likelyintroduce more comprehensive policies to address safety,privacy, and airspace management, paving the way forwider commercial drone use. Battery technology is also setto improve, with developments in solid-state batteries andalternative energy sources extending flight times andmaking drones more energy-efficient. This will be crucial forlong-duration missions like environmental monitoring,search and rescue, and delivery services.Speaking of deliveries, drones in logistics will continue togrow. E-commerce giants and logistics companies areexploring last-mile drone deliveries to enhance speed andreduce costs, particularly in remote or high-traffic areas. Inagriculture, precision farming with drones will become evenmore advanced. Farmers will rely on drones to monitorcrop health, assess soil conditions, and optimize irrigation,leading to increased yields and more efficient farmingpractices.Beyond agriculture, drones will also play a key role inenvironmental monitoring and conservation. They’ll beused to track wildlife populations, detect deforestation,and assess the impact of climate change—all while coveringvast areas quickly and efficiently. Security will remain amajor application, with drones being used for surveillanceand public safety. Enhanced imaging and sensingtechnologies will make them even more effective in lawenforcement, border control, and private security.

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22Minuteshttps://iiga.news.comPage 61Finally, we can expect a move toward customization andmodularity. Instead of one-size-fits-all drones,manufacturers will offer modular designs where users canswap out components or add new features based onspecific needs. As these trends unfold, drones will becomemore than just tools—they’ll be essential assets acrossindustries, improving efficiency, safety, and decision-making in ways we’re only beginning to imagine.5. How do you see drones contributing to disastermanagement and emergency response?Drones are becoming an essential tool in disastermanagement, offering speed, efficiency, and versatility inemergency response efforts. Their ability to quickly gatherreal-time data, navigate difficult terrain, and assist in life-saving operations makes them invaluable in crisissituations. One of the most critical applications of drones issurveillance and damage assessment. In the aftermath of adisaster, drones can rapidly survey affected areas,capturing aerial imagery and providing real-time data. Thishelps emergency teams assess the extent of destruction,identify hazards, and determine where resources areneeded most.Drones are also transforming search and rescueoperations. Equipped with thermal imaging cameras, theycan detect body heat, making it easier to locate missingpersons in collapsed buildings, dense forests, or floodzones—especially in conditions where traditional searchmethods are too dangerous or slow. When access todisaster-stricken areas is limited due to damagedinfrastructure, drones can deliver essential supplies such asfood, water, medical aid, and communication devices. Theirability to reach remote or hazardous locations ensures thatcritical resources get to those in need without delay.Beyond immediate response, drones play a key role inmapping and modeling disaster areas. They can generatedetailed 3D maps that help responders understand terrainchanges, structural damage, and potential risks, improvingplanning and coordination efforts. In situations wherecommunication networks have been disrupted, drones canact as temporary communication relays, restoringconnectivity for emergency teams and affectedcommunities. This is particularly crucial in large-scaledisasters where swift coordination can save lives.Drones are also used to monitor environmental changes,tracking the progression of floods, wildfires, and otherevolving threats. By providing continuous updates, theyhelp authorities make informed decisions and anticipatefurther risks. Additionally, drones assist in data collection,gathering information on air quality, radiation levels, andother environmental factors. This data is crucial forassessing the long-term impact of disasters and guidingrecovery efforts.Even before disasters strike, drones contribute topreparedness through training and simulation. Emergencyresponders use them to simulate disaster scenarios, refiningstrategies and improving response effectiveness. Byintegrating drones into disaster management, emergencyteams can respond faster, operate more safely, and ultimatelysave more lives. As technology continues to advance, droneswill play an even greater role in disaster preparedness,response, and recovery.

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22Minuteshttps://iiga.news.comPage 631. How can flying schools push for aviationsustainability in the aviation sector?One of the key steps is updating curricula to makesustainability a core focus. Fuel management, for example,should go beyond traditional efficiency techniques andemphasize fuel conservation strategies like optimized flightpaths, continuous descent approaches, and the use ofsustainable aviation fuel (SAF). Training programs should alsoincorporate eco-flying practices, teaching pilots how tominimize fuel consumption through efficient flight planningand reduced taxiing time.Beyond conventional fuel-saving techniques, flying schoolsneed to introduce students to alternative propulsionsystems, such as electric and hybrid aircraft. Familiarizingfuture pilots with these technologies ensures they areprepared for the shift toward more sustainable aviation. Aglobal perspective is also essential—students shouldunderstand international environmental policies like CORSIAand the role pilots play in sustainability efforts. Case studiesof airlines successfully implementing green initiatives canprovide valuable real-world insights.Preetwant Singh, Vice-President of World UAVFederation SingaporePractical application is just as important as theoreticalknowledge. Training flights should incorporate eco-friendlyflying techniques, allowing students to experience the directimpact of their choices on fuel efficiency and emissions.Advanced flight simulators can be used to create realisticscenarios that reinforce sustainable practices. Additionally,introducing electric aircraft into training programs couldprovide hands-on experience with emerging sustainableaviation technologies. By embedding sustainability into boththeoretical and practical training, flight schools can helpshape a new generation of pilots who are not only skilled inaviation but also conscious of their environmental impact2. What are the most significant technical challengesin transitioning from traditional fuel to renewableenergy in aviation?The transition from traditional aviation fuel to renewableenergy sources presents a multitude of technical challenges,which are crucial to overcome for a truly sustainable futureof flight. Here are some of the most significant:With 30 years of experience in the aviation industry,Preetwant Singh is a seasoned commercial pilot and flighttraining expert who has made a significant impact on globalaviation education. A key figure in flying schools worldwide,he has played a pivotal role in developing cutting-edge pilottraining programs and shaping the next generation ofaviation professionals.Beyond the cockpit, Preetwant is a renowned aviationeducator and mentor, leading specialized training programsacross various institutions. His unique blend of engineeringexpertise and aviation knowledge allows him to bridgetechnical innovation with practical flight training, ensuringaspiring pilots receive world-class instruction.Committed to advancing aviation training and safetystandards, Preetwant continues to drive excellence in piloteducation, solidifying his reputation as a trusted leader in theaviation industry.

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22Minuteshttps://iiga.news.comPage 641. Energy Density and Range:• Battery Limitations: Current battery technologystruggles to match the energy density oftraditional jet fuel, significantly limiting the rangeof electric aircraft. This makes them suitable forshorter flights, but not for long-haul journeys.• Hydrogen Storage and Weight: Storing andtransporting hydrogen fuel efficiently and safelyposes a significant challenge. Hydrogen is alsovery light, requiring larger tanks and potentiallyimpacting aircraft weight and payload.• SAF Production and Scalability: WhileSustainable Aviation Fuel (SAF) offers a promisingalternative, its production is currently limited andexpensive. Scaling up SAF production to meet thedemands of the aviation industry requiressignificant investment and technologicaladvancements2. Infrastructure and Logistics:• Fuel Distribution and Storage: Existing fuelinfrastructure is designed for traditional jet fuel.Adapting it to handle SAF, hydrogen, or electriccharging requires significant investment andlogistical changes. This includes building newrefueling stations, developing storage andtransportation systems, and modifying existinginfrastructure• Aircraft Design and Certification: Transitioning tonew propulsion systems necessitates significantchanges in aircraft design. This includesintegrating new engines, batteries, or hydrogentanks, which requires extensive testing andcertification processes to ensure safety andreliability3. Feedstock Availability and Sustainability:• SAF Feedstock Sourcing: Sourcing sustainable feedstocks for SAFproduction is crucial to avoid unintended consequences, such asdeforestation or competition with food production. Ensuring asustainable supply chain for SAF is essential.• Hydrogen Production and Distribution: Producing hydrogen on a largescale requires significant energy input, which must be sourced fromrenewable energy sources to avoid carbon emissions. Efficientlytransporting and distributing hydrogen fuel is another challenge.4. Regulatory and Policy Challenges:• Certification and Standards: Establishing clear regulations andstandards for new propulsion systems and fuels is crucial to ensuresafety, interoperability, and environmental compliance. This requirescollaboration between governments, aviation authorities, and industrystakeholders.• Incentives and Support: Governments and industry need to provideincentives and financial support to encourage research, development,and deployment of renewable aviation technologies. This could includetax breaks, subsidies, and investment in research and infrastructure4.

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22Minuteshttps://iiga.news.comPage 65Overcoming these technical challenges requires a concerted effortfrom governments, industry, and research institutions. Continuousinnovation, investment, and collaboration are essential to unlock thepotential of renewable energy in aviation and create a moresustainable future for air travel.3. What is the limitations of payload and range in electric-powered aircraft are primarily due to the weight and energydensity of batteries?When it comes to addressing payload limitations, several keyadvancements are shaping the future of electric aircraft.First, improving battery energy density is crucial. Research in batterychemistry, materials, and design is allowing us to store more energy insmaller, lighter packages, directly enhancing payload capacity.4. What is the integrating drones intotraditional flying airspace presents severalregulatory challenges?There are several key regulatory challenges thatmust be addressed to ensure the safe andefficient integration of drones into modernairspace. First, air traffic management is a majorconcern. Traditional air traffic control systemsare designed for larger, manned aircraftoperating at higher altitudes with predictableflight paths. Drones, however, operate at loweraltitudes and have more dynamic flight patterns.This requires new systems and protocols,including real-time drone detection,identification, and tracking technologies, as wellas improved communication between droneoperators and air traffic controllers.Second, safety and security remain critical.Drones pose potential risks to manned aircraft,especially in busy airspace. Regulations mustestablish clear guidelines for safe droneoperation, covering aspects such as minimumoperating altitudes, flight restrictions nearairports, and proper pilot training. Additionally,the potential for malicious drone use—such assmuggling contraband or carrying unauthorizedpayloads—necessitates stringent securitymeasures.Second, optimizing aircraft design plays a significant role. Byincorporating composite materials and advanced manufacturingtechniques, we can significantly reduce overall weight, freeing upcapacity for additional payload. Third, propulsion efficiency is anothercritical factor. More efficient electric motors and propellers helpreduce energy consumption, enabling aircraft to carry more payloadwithin a given battery capacity. Now, when we look at rangelimitations, hybrid electric propulsion offers a practical solution. Byintegrating electric motors with a combustion engine, aircraft canextend their range—electric motors handle efficient cruising, whilecombustion engines support demanding phases like takeoff andclimb.Additionally, fuel cell technology presents an exciting opportunity.Hydrogen-powered fuel cells offer higher energy density compared tobatteries, which could revolutionize long-range electric flight, thoughthis technology is still in development. Aerodynamic improvementsalso contribute to extended range. Streamlined aircraft designs andoptimized wing shapes help reduce drag, enhancing overall efficiency.Finally, operational strategies such as optimizing cruising altitudes andspeeds can maximize energy efficiency, ensuring the aircraft coversgreater distances on the same energy reserves. By integrating theseadvancements, we are continuously pushing the boundaries ofelectric aviation, making it more viable for commercial and industrialapplications

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22Minuteshttps://iiga.news.comPage 665. Challenges in Drone Pilot TrainingThere are several key regulatory challenges that needto be addressed as drones become more integratedinto our airspace. First, air traffic managementremains a significant hurdle. Traditional air trafficcontrol systems are designed for larger, mannedaircraft that operate at higher altitudes withpredictable flight paths. Drones, on the other hand,often fly at lower altitudes and have more variableflight patterns. To manage this effectively, we neednew systems and protocols, including real-time dronedetection, identification, and tracking technologies, aswell as clear communication procedures betweendrone operators and air traffic controllers. Second,safety and security concerns are critical. Drones posepotential risks to manned aircraft, particularly incrowded airspace. Regulations must establish safeoperating altitudes, flight restrictions near airports,and standardized training for drone operators.Additionally, there’s the issue of malicious drone use—such as smuggling contraband or unauthorizedsurveillance—which must be mitigated through strictsecurity measures.Third, privacy and data security challenges must becarefully managed. Drones equipped with camerasand sensors can collect data without consent, raisinglegitimate privacy concerns. Regulatory frameworksneed to balance the advantages of drone technologywith privacy protection by defining clear guidelinesfor data collection and use while also implementingstrong cybersecurity measures to preventunauthorized access. Another major factor is publicacceptance. Concerns around noise pollution, privacyinvasion, and the potential misuse of drones canhinder their widespread adoption. Public educationand transparent communication about the benefitsand safeguards of drone technology will be key tobuilding trust.Finally, our legal and regulatory frameworks need to evolve. Mostexisting aviation laws were designed for manned aircraft and don’talways apply to drones. Establishing clear and consistentregulations around licensing, certification, and airspace access isessential to ensure the safe and responsible use of drones. Overall,addressing these challenges requires a collaborative approachbetween regulators, industry leaders, and the public to create aframework that supports innovation while maintaining safety andsecurity Drones can significantly enhance security and crowdmanagement at major basketball events.6. Integrating drones into stadium security and crowdmanagement has the potential to significantly enhanceevent safety and efficiency.For security, drones play a crucial role in perimeter surveillance.Equipped with high-resolution cameras, they can monitor thestadium’s surroundings, detecting unauthorized access andidentifying potential threats in real time. Additionally, dronesprovide an aerial perspective for crowd monitoring, helpingsecurity teams assess crowd density and movement patterns toprevent overcrowding or disturbances.

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https://iiga.news.comPage 67Drones also prove invaluable in emergency response situations. They can quickly survey affected areas and relay real-timeinformation to first responders, aiding in faster and more efficient rescue operations. Thermal imaging capabilities furtherenhance security by detecting heat signatures—helpful in locating lost children, identifying individuals in distress, or evenspotting fire hazards before they escalate. Beyond security, drones improve overall crowd management. They assist intraffic monitoring by identifying congestion points and providing live updates to traffic management teams. Moreover,drones can be used for crowd guidance—broadcasting messages through loudspeakers or using lights to direct attendeestoward exits, medical stations, or designated areas, which is particularly useful during large-scale events.Finally, drones contribute to data-driven decision-making. By analyzing real-time data on crowd movement andenvironmental conditions, they can detect anomalies such as temperature spikes, which could indicate a medicalemergency or a fire risk. By incorporating drones into existing security frameworks, basketball events can ensure a saferand more seamless experience for all attendees."22Minutes

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22Minuteshttps://iiga.news.comPage 68Woo Hyun Ho is a visionary leader in the drone industry,serving as the CEO of DroneDivision Co., Ltd. With a passionfor innovation, he is driving the advancement of dronetechnology and its real-world applications—ranging from airpollution measurement and safety management to disasterresponse and military operations.Under his leadership, DroneDivision has developed cutting-edge drone image analysis solutions that enhance eventsecurity, emergency response, and law enforcementoperations, working closely with police, fire departments, andgovernment agencies.Beyond technology, Woo Hyun Ho is a pioneer in dronesports, playing a key role in introducing drone basketball andexpanding competitive drone events across Singapore,Vietnam, Indonesia, and China. His efforts aim not only torevolutionize the industry but also to inspire the nextgeneration, foster youth engagement, and create jobopportunities by training skilled drone instructors and judges.With a commitment to both technological excellence andcommunity impact, he is shaping the future of drones as aforce for innovation, safety, and entertainment on a globalscale.Mr. Woo Hyun Ho, CEO of DroneDivision Co., Ltd1.What is your role as the head of the Daejeon branchof the Korea Unmanned Safety Association inestablishing a national drone safety policy?I'm currently the CEO of DroneDivision Co., Ltd., and I'mfocused on advancing drone technology and itsapplications. We use drones to measure air pollution,providing valuable data for Daejeon Metropolitan City's airmanagement policies. Our drone image analysis supportssafety management at festival sites, disaster zones, andmilitary operations, and we’ve developed a safetymanagement platform for these areas, offering services topolice, fire, and government agencies. Additionally, I’vehelped introduce drone basketball to the world of dronesports and organized national competitions in South Korea.We're expanding drone sports to countries like Singapore,Vietnam, Indonesia, and China, with plans to develop moreevents that will grow the drone industry, promote youthculture, and create new job opportunities by training dronesports instructors and judges.

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22Minutes2. What are the biggest challenges in leading a dronecompany in Korea today?Currently, China holds a leading position in the droneindustry, demonstrating remarkable strength andinnovation. While many Korean drone companies possessexcellent technology, they are also focused on securing thedrone market and developing cutting-edge applications. Tosupport this, the Korean government has implementedvarious policies aimed at fostering the growth of the droneindustry.At Drone Division Co., Ltd., we leverage drone and AItechnologies to develop safety management platforms anddrive the expansion of the drone sports industry. Ourongoing efforts are focused on enhancing technologies forcitizen safety and disaster prevention, contributing to a saferand more sustainable future.3. What are the most interesting technologicaladvances in drone development today?AI technology has greatly enhanced drone capabilities. Whiledrones initially struggled with flight stability, they nowoutperform cars in terms of autonomous flight. Byincorporating AI, we’ve made significant strides inautonomous flight and object recognition technologies. Thisrapid progress is opening up new possibilities for dronesacross various industries.At Drone Division Co., Ltd., we’ve applied AI to safetymanagement platforms for festivals, concert halls, andstadiums, utilizing drone image analysis to improve security.We are also advancing a platform to differentiate betweenallies and enemies in military applications, positioningourselves to play an active role in the defense sector. Movingforward, we foresee AI not only enhancing flight capabilitiesbut also expanding into other applications across multipleindustries.https://iiga.news.comPage 69Venue SafetyManagement Platform (RODAS)MilitaryFriendship, Enemy Automatic Identification (MODAS)4. How does AI and automation affect theperformance and performance of drones?Currently, drones are typically controlled 1:1 by a singlepilot. However, advancements in AI and autonomousflight technologies promise to greatly enhanceconvenience in our daily lives. Before being applied todrones, AI was primarily used in CCTV systems, but theserequired costly installation and maintenance. Withdrones, AI integration will revolutionize multiple sectors,offering benefits such as significant cost reductionscompared to traditional systems. We can expect to seeadvancements in areas like drone delivery, automatedsecurity systems, and autonomous building and facilitymanagement, all powered by AI-driven dronetechnologies.5. How does Korea's drone industry compare tomajor global companies like the U.S. and China,and what are some strategies to strengthen itscompetitiveness?Drones face fewer obstacles compared to groundvehicles, but they still encounter several challenges suchas varying weather conditions (e.g., sudden winds, rain,snow), collisions with tidal currents, and unidentifiablecity electric lines. Another significant challenge is batteryperformance and its effect on flight distance. Forexample, if the battery is at 40% while flying in a patrolarea, the drone might need to return to the take-offpoint, but if wind increases the resistance and extendsflight time, there’s a risk of crashing before it can return.Additionally, when a 1 to 2 kg drone crashes from aheight of 150 meters, it hits the ground with a speed of54.25 m/s and an impact force of 81.37 Ns. This impact isequivalent to that of an 8.3 kg object hitting the ground. Ifit collides with a car moving at 100 km/h, the impactforce is about 91.42 Ns. This level of impact is whydrones are not permitted to fly around airports.

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22Minutes6. Given the rapid pace of technological advancement,how can you balance innovation with regulatorycompliance?It’s quite challenging, as technology is advancing rapidly, butthe laws in many countries are not keeping pace. Meeting legalstandards in real time to apply new technologies—such asensuring safety, adhering to legal applications, setting cleartargets, and following communication regulations—can bedifficult.To bridge this gap, we’re implementing what’s known as ademonstration project in Korea. In these projects, wedesignate specific areas to conduct tests before dronedelivery services can be officially authorized by thegovernment. This process involves collaboration betweencompanies, local governments, and the government itself,with the aim of developing laws and regulations toaccommodate the evolving technology. This approach helpsalign the speed of technological advancements with legalrequirements.7. How can the defense and commercial drone sectorswork together to develop dual-use technologies?Two years ago, a tragic accident occurred in Itaewon onHalloween Day, resulting in the loss of 159 lives. Despite thepreparation of safety measures by the police, CCTV, andadministrative agencies, the crowd unexpectedly becameuncontrollable, leading to the tragedy.To address this issue, we developed the RODAS platform, asafety management system that uses drone image analysisand AI technology, with support from Daejeon City. Thisplatform helps safety managers by providing real-time videofeeds and generating heat maps to show crowd density atfestival sites and concerts, identifying areas that may behazardous.Additionally, South Korea has created a military version of thistechnology, which automatically distinguishes between SouthKorean and North Korean military equipment through videoanalysis. We're continuously upgrading this technology toimprove its capabilities.https://iiga.news.comPage 708. How would you organize the next generation ofdrone experts as an adjunct professor at DaedeokUniversity?The drone may appear simple in structure, but it's akin toan electric vehicle, integrating both hardware andsoftware. While China, with companies like DJI, hashistorically excelled in drone hardware, many companiesare now advancing in both hardware and software,beyond just DJI.Korea is currently focused on integrating both hardwareand software within a single company in the droneindustry. Achieving this requires expertise in both fields.For software, we need skilled professionals in controltechnology, communication, sensor processing, and datamanagement to efficiently control drones. On thehardware side, expertise is needed in areas like design,materials engineering, electronics, and batteries.However, since drones span multiple technical fields,securing the necessary expertise, technology, capital, andworkforce is challenging, especially for a startup. Toaddress this, Drone Division Co., Ltd. is focusing ondeveloping software that processes data collected fromdrones. Moving forward, we will continue to expand ourteam in the software field.

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E V E N T C A L E N D A RMarchFebruaryE N G I E X P O S U R A T 2 0 2 5V A N I T A V I S H R A M G R O U N D ,S U R A T , I N D I A0 1 - 0 3 F E B R U A R Y 2 0 2 5I N D I A I N D U S T R I A L F A I R2 0 2 5N S I C , R A J K O T , I N D I A0 2 - 0 5 F E B R U A R Y 2 0 2 5I N T E R L A B E X P OI N D O N E S I A 2 0 2 5J I E X P O C O N V E N T I O NC E N T R E A N D T H E A T R E ,J A K A R T A U T A R A ,I N D O N E S I A P U N E , I N D I A2 0 - 2 2 F E B R U A R Y 2 0 2 5S P E H Y D R A U L I CF R A C T U R I N G T E C H N O L O G YC O N F E R E N C E A N DE X H I B I T I O N 2 0 2 5T H E W O O D L A N D SW A T E R W A Y M A R R I O T TH O T E L & C O N V E N T I O NC E N T E R , T H E W O O D L A N D S ,U S A0 4 - 0 6 F E B R U A R Y 2 0 2 5I N T E R N A T I O N A LE X H I B I T I O N O NF O U N D R Y T E C H N O L O G YE Q U I P M E N T S U P P L I E SA N D S E R V I C E S 2 0 2 5B I S W A B A N G L A M E L AP R A N G A N , K O L K A T A ,I N D I A0 9 - 1 1 F E B R U A R Y 2 0 2 5E X P O M A N U F A C T U R A 2 0 2 5C I N T E R M E X , M O N T E R R E Y ,M E X I C O1 1 - 1 3 F E B R U A R Y 2 0 2 5T H A I L A N D I N D U S T R I A LF A I R 2 0 2 5B I T E C | B A N G K O KI N T E R N A T I O N A L T R A D E &E X H I B I T I O N C E N T R E ,B A N G K O K , T H A I L A N D1 1 - 1 3 F E B R U A R Y 2 0 2 5I N T E R N A T I O N A L M E E T &E X P O O N C H E M I C A LE N G I N E E R I N G A N DC A T A L Y S I S 2 0 2 5D U B A I , U A E1 3 - 1 5 F E B R U A R Y 2 0 2 5I R A N I N T E R N A T I O N A LE X H I B I T I O N O F M O L DA N D R E L A T E DI N D U S T R I E S 2 0 2 5I M A M K H O M E Y N IM U S A L L A , T E H R A N , I R A N1 6 - 1 8 F E B R U A R Y 2 0 2 5B A T T E R Y & P O W E R W O R L D2 0 2 5S C I E N C E C O N G R E S SC E N T E R M U N I C H ,G A R C H I N G , G E R M A N Y2 5 - 2 6 F E B R U A R Y 2 0 2 5I N T E R N A T I O N A LE Q U I P M E N TM A N U F A C T U R I N GI N D U S T R Y E X P O S I T I O N2 0 2 5J I N A N S H U N G E N GI N T E R N A T I O N A LC O N V E N T I O N &E X H I B I T I O N C E N T E R ,J I N A N , C H I N A2 7 F E B R U A R Y - 0 2 M A R C H2 0 2 5S H E N Z H E N I N T E R N A T I O N A LR V A N D M O T O R H O M EE C O L O G Y E X H I B I T I O N2 0 2 5S H E N Z H E N C O N V E N T I O N &E X H I B I T I O N C E N T E R ,S H E N Z H E N , C H I N A2 8 F E B R U A R Y - 0 3 M A R C H2 0 2 5N I G E R I A M A N U F A C T U R I N G& E Q U I P M E N T E X P O 2 0 2 5L A N D M A R K C E N T R E ,L A G O S , N I G E R I A0 4 - 0 6 M A R C H 2 0 2 5I N T E R N A T I O N A LC O O P E R A T I V E T R A D E F A I RF O R T O O L S A N DP R O C E S S I N G I N D U S T R Y2 0 2 5B Y D G O S K I E C E N T R U MT A R G O W O -W Y S T A W I E N N I C Z E ,B Y D G O S Z C Z , P O L A N D0 4 - 0 6 M A R C H 2 0 2 5M A N U F A C T U R I N GD I G I T A L I Z A T I O N E X P O2 0 2 5S H A N G H A I N E WI N T E R N A T I O N A L E X P OC E N T R E ( S N I E C ) ,S H A N G H A I , C H I N A0 5 - 0 7 M A R C H 2 0 2 5A S E A N B A N G K O K H V A C &C L E A N R O O M I N D U S T R YE X P O 2 0 2 5I M P A C T E X H I B I T I O NC E N T E R , P A K K R E T ,T H A I L A N D0 5 - 0 7 M A R C H 2 0 2 5D E M O L I T I O N N E W O R L E A N SA N N U A L C O N V E N T I O N &E X P O 2 0 2 5N E W O R L E A N S , U S A0 5 - 0 8 M A R C H 2 0 2 5T H A I L A N D E L E C T R O N I CS M A R T M A N U F A C T U R I N GS E R I E S E X H I B I T I O N 2 0 2 5I M P A C T E X H I B I T I O NC E N T E R , P A K K R E T ,T H A I L A N D0 6 - 0 8 M A R C H 2 0 2 5T I R E T E C H N O L O G Y E X P O2 0 2 5D E U T S C H E M E S S E A G ,H A N O V E R , G E R M A N Y0 4 - 0 6 M A R C H 2 0 2 5T I R E T E C H N O L O G Y E X P O2 0 2 5D E U T S C H E M E S S E A G ,H A N O V E R , G E R M A N Y0 4 - 0 6 M A R C H 2 0 2 5C H I N A I N T E R N A T I O N A LP O W D E R M E T A L L U R G Y A N DC E M E N T E D C A R B I D EE X H I B I T I O N 2 0 2 5S H A N G H A I W O R L D E X P OE X H I B I T I O N A N DC O N V E N T I O N C E N T E R ,S H A N G H A I , C H I N A1 0 - 1 2 M A R C H 2 0 2 5C H E M I C A L R E C Y C L I N G I NN O R T H A M E R I C A 2 0 2 5T H E W E S T I N G A L L E R I AD A L L A S , D A L L A S , U S A1 1 - 1 2 M A R C H 2 0 2 5I N T E R N A T I O N A LE X H I B I T I O N F O R T H EC O R R U G A T E D A N DF O L D I N G C A R T O NI N D U S T R Y 2 0 2 5M E S S E M Ü N C H E N G M B H ,M U N I C H , G E R M A N Y1 1 - 1 3 M A R C H 2 0 2 5K O R E A I N T E R N A T I O N A LP L A S T I C S A N D R U B B E RS H O W 2 0 2 5K I N T E X , G O Y A N G - S I ,S O U T H K O R E A1 1 - 1 4 M A R C H 2 0 2 5

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E V E N T C A L E N D A RMayS H E N Z H E N I N T E R N A T I O N A LC L E A N T E C H N O L O G Y A N DA N T I S T A T I C P R O D U C T SE X H I B I T I O N 2 0 2 5S H E N Z H E N C O N V E N T I O N &E X H I B I T I O N C E N T E R ,S H E N Z H E N , C H I N A0 9 - 1 1 A P R I L 2 0 2 5H A N N O V E R M E S S E 2 0 2 5H A N N O V E R F A I R G R O U N D ,G E R M A N Y3 1 M A R C H - 0 4 A P R I L 2 0 2 5I D E A - I N T E R N A T I O N A LE N G I N E E R E D F A B R I C SC O N F E R E N C E & E X P O 2 0 2 5M I A M I B E A C H C O N V E N T I O NC E N T E R , M I A M I B E A C H ,U S A2 9 A P R I L - 0 1 M A Y 2 0 2 5AprilI N T E R N A T I O N A L S T A I N L E S SS T E E L F A I R 2 0 2 5B R N O E X H I B I T I O N C E N T R E ,B R N O , C Z E C H R E P U B L I C0 2 - 0 3 A P R I L 2 0 2 5N A T I O N A L F A C I L I T YM A N A G E M E N T A N DM A I N T E N A N C E S H O W 2 0 2 5S P O R T I R E L A N D C A M P U S ,D U B L I N , I R E L A N D0 2 - 0 3 A P R I L 2 0 2 5A D D I T I V E M A N U F A C T U R I N GI N P L A S T I C 2 0 2 5R I C O H A R E N A , C O V E N T R Y ,U K0 2 - 0 3 A P R I L 2 0 2 5D A E G U I N T E R N A T I O N A LG L A S S E S E X H I B I T I O N 2 0 2 5E X C O , D A E G U , S O U T HK O R E A0 2 - 0 4 A P R I L 2 0 2 5A N E G L O B A L M E E T A N DE X P O O N I N D U S T R I A L A N DM E C H A N I C A L E N G I N E E R I N G2 0 2 5L O N D O N , U K0 7 - 0 9 A P R I L 2 0 2 5R E M A T E C A M S T E R D A M2 0 2 5R A I A M S T E R D A M ,A M S T E R D A M ,N E T H E R L A N D S0 8 - 1 0 A P R I L 2 0 2 5O F F S H O R EM E D I T E R R A N E A NC O N F E R E N C E & E X H I B I T I O N2 0 2 5P A L A D E A N D R E , R A V E N N A ,I T A L Y0 8 - 1 0 A P R I L 2 0 2 5A D V A N C E D M A C H I N E T O O L S2 0 2 5C A T A L O N I A G R A N V I A ,M A D R I D , S P A I N0 8 - 1 0 A P R I L 2 0 2 5H A R D W A R E E U R A S I A F A I R2 0 2 5T Ü Y A P F U A R V E K O N G R EM E R K E Z , B Ü Y Ü K Ç E K M E C E ,T U R K E Y0 9 - 1 2 A P R I L 2 0 2 5W E L D I N G & S H E E T M E T A LK O R E A 2 0 2 5S O N G D O C O N V E N S I A( S O N G D O C O N V E N S I A ) ,I N C H E O N , S O U T H K O R E A1 6 - 1 8 A P R I L 2 0 2 5A N A T O L I A N W O O D A N DM E T A L P R O C E S S I N GM A C H I N E R Y A N DT E C H N O L O G I E S F A I R 2 0 2 5K A Y S E R I O S B - T Ü Y A PU L U S L A R A R A S I F U A R V EK O N G R E M E R K E Z I ,K A Y S E R I O R G A N I Z ES A N A Y I B Ö L G E S I , T U R K E Y1 6 - 1 9 A P R I L 2 0 2 5A N N U A L C O M P O N E N T S F O RM I L I T A R Y & S P A C EE L E C T R O N I C S C O N F E R E N C E& E X H I B I T I O N 2 0 2 5F O U R P O I N T S B YS H E R A T O N L O S A N G E L E SI N T E R N A T I O N A L A I R P O R T ,L O S A N G E L E S , U S A2 9 A P R I L - 0 1 M A Y 2 0 2 5E C A E X P O ( E X P O F O RE X T R A C U R R I C U L A RA C T I V I T I E S T E A C H I N GM A T E R I A L S A N D S U P P L I E S )2 0 2 5H O N G K O N G C O N V E N T I O NA N D E X H I B I T I O N C E N T R E ,H O N G K O N G2 3 - 0 5 M A Y 2 0 2 5I N T E R N A T I O N A L M A R I T I M ED E F E N C E E X H I B I T I O N 2 0 2 5C H A N G I E X H I B I T I O NC E N T R E , S I N G A P O R E2 6 - 0 8 M A Y 2 0 2 5S H A N G H A I I N T E R N A T I O N A LE N E R G Y S T O R A G EI N D U S T R Y E X H I B I T I O N2 0 2 5S H A N G H A I N E WI N T E R N A T I O N A L E X P OC E N T R E ( S N I E C ) ,S H A N G H A I , C H I N A2 6 - 0 8 M A Y 2 0 2 5C O N T R O L -I N T E R N A T I O N A L T R A D EF A I R F O R Q U A L I T YA S S U R A N C E 2 0 2 5M E S S E S T U T T G A R T ,S T U T T G A R T , G E R M A N Y2 6 - 0 9 M A Y 2 0 2 5I N T E R N A T I O N A L S C H O O LO F H Y D R O C A R B O NM E A S U R E M E N TC O N F E R E N C E & E X P O 2 0 2 5O K L A H O M A , U S A1 3 - 1 5 M A Y 2 0 2 5G U A N G Z H O UI N T E R N A T I O N A L S H O E SM A C H I N E R Y M A T E R I A LL E A T H E R I N D U S T R Y F A I R2 0 2 5N A N F U N G I N T E R N A T I O N A LC O N V E N T I O N &E X H I B I T I O N C E N T E R ,G U A N G Z H O U , C H I N A1 4 - 1 6 M A Y 2 0 2 5I N T E R N A T I O N A LE X H I B I T I O N O NM E T A L W O R K I N G &W E L D I N G T E C H N O L O G Y2 0 2 5V I E T X O F R I E N D S H I PL A B O U R C U L T U R A LP A L A C E , H A N O I , V I E T N A M1 4 - 1 6 M A Y 2 0 2 5M E T A L T E C H M A L A Y S I A2 0 2 5M A L A Y S I A I N T E R N A T I O N A LT R A D E A N D E X H I B I T I O NC E N T R E , K U A L A L U M P U R ,M A L A Y S I A1 4 - 1 7 M A Y 2 0 2 5P R O F E S S I O N A L C A S T I N G ,M O L D M A K I N G & P A R T SM A N U F A C T U R I N G ,M A C H I N E R Y P E R I P H E R A LE Q U I P M E N T ' S E X H I B I T I O N2 0 2 5S H A H R A F T A BI N T E R N A T I O N A LE X H I B I T I O N C E N T E R ,E S L A M S H A H R , I R A N 1 4 - 1 7M A Y 2 0 2 5