Defense & Military
Kraus Hamdani Aerospace Demonstrates Wireless Drone Charging at Shaw AFB
Kraus Hamdani Aerospace and PowerLight Technologies demonstrated laser-based wireless charging for the K1000ULE drone at Shaw Air Force Base in 2026.

This article is based on an official press release from Kraus Hamdani Aerospace.
In April 2026, Kraus Hamdani Aerospace (KHA) and PowerLight Technologies successfully demonstrated in-flight wireless charging of a military-grade, fixed-wing drone using laser power beaming. Conducted at the Poinsett Electronic Combat Range at Shaw Air Force Base in South Carolina, the test marks a critical step toward achieving indefinite flight capabilities for large UAV. According to the official press release, the demonstration successfully delivered sustained, autonomous power to the aircraft at operationally relevant altitudes.
The joint effort was sponsored by U.S. Central Command (CENTCOM) and the Pentagon’s Operational Energy, Innovation Directorate (OECIF). By eliminating the need for drones to return to base for refueling or battery recharging, this technology aims to provide uninterrupted Intelligence, Surveillance, and Reconnaissance (ISR) coverage for the U.S. military.
During the test, the ground-based system successfully acquired and tracked the KHA K1000ULE drone at altitudes up to 5,000 feet. Industry research reports indicate that the system steered and focused an infrared laser beam in real-time, delivering kilowatt-class power that kept the aircraft airborne for hours during the evaluation.
The Technology Behind the Demonstration
The K1000ULE Unmanned Aerial System
The aircraft utilized in the demonstration was the K1000ULE (Ultra Long Endurance), a fully electric, Group-2 fixed-wing UAS manufactured by Kraus Hamdani Aerospace. According to industry specifications, the drone features a 5-meter (16-foot) wingspan and weighs between 15 and 19.3 kilograms (33 to 42 pounds). The K1000ULE is uniquely designed to mimic a sailplane, utilizing onboard artificial intelligence to identify and ride thermal updrafts while using wing-mounted solar panels to recharge its lithium-ion batteries during daylight hours.
Even prior to the integration of laser power beaming, the K1000ULE possessed formidable endurance capabilities. Research data highlights that the platform previously set an industry record for a Group-2 UAS by achieving a continuous flight of nearly 76 hours. Furthermore, the platform’s operational viability was recently cemented by a sole-source $270 million Indefinite Delivery, Indefinite Quantity (IDIQ) contract awarded by the U.S. Air Force Central Command (AFCENT) Battle Lab.
Laser Power Beaming Mechanics
The wireless charging capability is driven by PowerLight Technologies’ laser power beaming system. According to technical briefings, the architecture relies on an autonomous, ground-based high-power transmitter equipped with advanced beam-control software and high-precision optical tracking. This transmitter fires a non-visible, infrared laser beam at the moving aircraft.
To capture this energy, the K1000ULE is fitted with a specialized 6-pound (2.7-kilogram) receiver mounted on its airframe. This receiver utilizes laser power converters to transform the incoming optical energy into electricity, which is then fed directly into the drone’s onboard battery system. In addition to power transfer, the hardware establishes a bi-directional optical data link capable of supporting secure, real-time communications and telemetry.
Strategic Implications for Military Operations
Historically, the endurance of uncrewed aerial vehicles has been strictly limited by onboard fuel or battery capacity. This limitation creates operational gaps, forcing commanders to cycle multiple aircraft to maintain continuous coverage over a target area. The successful demonstration at Shaw Air Force Base suggests that wireless power beaming could theoretically allow drones to remain on-station indefinitely.
This capability is particularly valuable for forward-deployed units and infrastructure-limited environments, such as disaster zones or contested military airspace. By reducing the logistical footprint required for fuel transport and maintenance, military aircraft forces can operate more agilely.
“Integrating PowerLight’s power beaming capability extends that persistence further and reduces the need to land. That expands the K1000ULE’s ability to maintain continuous coverage…”
Company leadership has emphasized the strategic value of this persistence. In contextual remarks from preliminary testing in late 2025, KHA CEO Fatema Hamdani noted that a platform free from refueling requirements is “one that never blinks.” Similarly, PowerLight Technologies CTO Tom Nugent highlighted that the technology represents more than simple point-to-point transfer, envisioning the creation of an “intelligent mesh energy network capability.”
AirPro News analysis
We view the successful demonstration of the PTROL-UAS (Power TRansmitted Over Laser to Uncrewed Aircraft Systems) program as a pivotal shift in military aviation logistics. The Department of Defense’s financial backing, including up to $5 million from the Operational Energy Prototyping Fund and $2 million from the Operational Energy Capability Improvement Fund, demonstrates a serious institutional commitment to decoupling ISR assets from traditional supply chains.
If PowerLight Technologies can successfully scale this technology from point-to-point charging into a dynamic “mesh energy network,” the implications extend far beyond Group-2 drones. The ability to dynamically route power to various aerial, terrestrial, or even space-based assets could fundamentally alter how the U.S. military plans long-duration missions, effectively turning energy into a wirelessly transmittable data packet.
Frequently Asked Questions (FAQ)
- What is wireless power beaming?
Wireless power beaming is the transmission of electrical energy without wires. In this demonstration, it was achieved by firing a high-power, non-visible infrared laser from a ground transmitter to a specialized receiver on the drone, which converted the laser light back into electricity. - How high can the drone be charged?
During the April 2026 demonstration at Shaw Air Force Base, the system successfully tracked and delivered power to the K1000ULE drone at altitudes up to 5,000 feet. - Who funded the development of this technology?
The development was heavily supported by the U.S. Department of Defense through the PTROL-UAS program, with millions in funding provided by the Operational Energy Prototyping Fund and the Operational Energy Capability Improvement Fund.
Sources
Photo Credit: Kraus Hamdani Aerospace
Defense & Military
AFRL Awards $6M Contract for Long-Range Grasshopper System
AFRL awards DZYNE Technologies $6M+ to advance the Long-Range Grasshopper autonomous aerial delivery system for USAF ACE operations.

On August 6, 2026, the Air Force Research Laboratory (AFRL) awarded a contract valued at more than $6 million to DZYNE Technologies to advance the Long-Range Grasshopper autonomous aerial delivery system. The agreement accelerates the development of low-cost logistics capabilities designed to support the United States Air Force (USAF) Agile Combat Employment (ACE) concepts in contested environments.
According to a press release issued by Ondas Inc., the parent company of DZYNE Technologies, the contract marks a key integration milestone for its newly formed Ondas Sentinel defense division. Ondas acquired DZYNE on July 6, 2026, to build an autonomous defense platform focused on persistent intelligence and aerial security.
Advancing autonomous logistics for contested environments
The mature Grasshopper glider architecture has successfully delivered payloads of up to 500 pounds during operational use. The system is designed to provide scalable resupply options where traditional logistics chains may be compromised or unavailable.
Between 2024 and 2025, AFRL and DZYNE engineering teams conducted a comprehensive flight test campaign. This testing validated the system’s autonomous deployment, jet-engine air-start, extended-range navigation, and precision payload delivery capabilities.
Ryan Hartman, Chief Executive Officer of Ondas Sentinel, stated that long-range, low-cost autonomous delivery is a mission imperative for future conflicts.
“AFRL’s continued partnership underscores the Long-Range Grasshopper’s transformative potential. With this technology and team now fully integrated into Ondas Sentinel, we are advancing a capability that directly strengthens resilient, distributed sustainment for contested operations,” Hartman said.
Strategic expansion of the Ondas Sentinel portfolio
The AFRL contract follows a series of recent defense acquisitions and contract awards for Ondas Inc. The company established Ondas Sentinel following the July 6 acquisition of DZYNE Technologies, integrating the subsidiary’s engineering personnel and autonomous logistics technology into its broader defense portfolio.
Eric Brock, Chairman and Chief Executive Officer of Ondas Inc., noted the strategic value of the award. He stated the contract validates the company’s strategy to build a defense platform addressing urgent national security challenges.
“By bringing DZYNE’s proven engineering talent and advanced autonomous logistics capabilities into Ondas Sentinel, we are expanding the depth and scale of our defense portfolio while creating new opportunities to support U.S. and allied customers,” Brock said.
The AFRL award adds to a growing backlog of defense orders for the company. On July 20, 2026, Ondas secured a $6.9 million order from the Australian Defence Force for Counter-Unmanned Aircraft Systems (Counter-UAS) solutions. Shortly after, on August 5, 2026, the company announced a U.S. Army order for lethal unmanned systems valued at over $50 million.
AirPro News analysis
The $6 million AFRL contract for the Long-Range Grasshopper highlights a growing USAF requirement for distributed logistics. As the military shifts toward ACE doctrines, the ability to resupply dispersed forces without risking crewed aircraft or relying on vulnerable traditional supply lines becomes critical. We view Ondas Inc.’s rapid succession of contract announcements in July and August 2026 as a clear indicator of the defense sector’s appetite for scalable, autonomous systems. By integrating DZYNE Technologies into Ondas Sentinel, the company is positioning itself to capture a larger share of the autonomous logistics and uncrewed aerial systems market.
Sources: Ondas Inc. / DZYNE Technologies
Photo Credit: DZYNE Technologies
Defense & Military
Lockheed Martin Completes NGI Second-Stage Motor Burst Test
Lockheed Martin passed a burst test for the NGI second-stage motor case, keeping the program on track for a 2030 fielding date.

Lockheed Martin successfully completed a critical burst test of the second-stage motor case for the Next Generation Interceptor (NGI) in Huntsville, Alabama, on August 4, 2026, keeping the missile defense program on schedule for a late 2026 design review.
The test validates the composite structure’s strength-to-weight ratio and its ability to withstand extreme launch environments. According to a press release issued by Lockheed Martin, the milestone advances the NGI program toward its Critical Design Review (CDR) and maintains the target fielding date of 2030.
Validating the NGI motor architecture
During the burst test, engineers filled the motor case with a carbon-fiber reinforced water vessel and inflated it beyond expected launch pressures. The structure successfully withstood the required induced loads before failure, confirming the design parameters.
The successful destruction test provides physical validation of the digital models used to design the second-stage motor case, ensuring the component can survive the aerodynamic and internal pressure stresses of an interceptor launch.
“This successful burst test is a significant milestone on the path to CDR and brings us closer to fielding NGI by 2030,” said Christopher Jewell, Vice President of Lockheed Martin NGI. “It proves our advanced motor architecture can withstand the harsh conditions of flight and still perform with the precision required to help protect the nation.”
Production infrastructure and program timeline
The NGI is a critical component of the Ground-Based Midcourse Defense (GMD) architecture, designed to protect the United States against long-range ballistic missile threats. The U.S. Missile Defense Agency (MDA) selected Lockheed Martin as the prime contractor for the NGI in April 2024, transitioning the program from technology development to product development.
To support the manufacturing phase, Lockheed Martin opened a dedicated NGI assembly facility in Courtland, Alabama, in June 2026. The facility utilizes a digital-centric foundation to accelerate fabrication and validation processes, which the company credits with keeping the testing schedule on track.
AirPro News Market-Analysis
We view the successful burst test as a strong indicator of program stability ahead of the upcoming CDR. Transitioning from digital models to physical destructive Test-Flights often reveals structural vulnerabilities, but clearing this hurdle suggests the digital engineering tools utilized at the Courtland facility are yielding accurate real-world predictions. Meeting the 2030 fielding deadline remains an ambitious target for the MDA, making strict adherence to the 2026 testing schedule critical for Lockheed Martin.
Sources: Lockheed Martin
Photo Credit: Lockheed Martin
Defense & Military
Lockheed Martin Integrated Missile Defense Architecture 2026
Lockheed Martin details its multi-domain missile defense framework backed by a $35B THAAD contract and new Alabama assembly facility.

Lockheed Martin is restructuring its integrated missile defense architecture to prioritize “speed-to-decision,” focusing on interoperable systems that consolidate multi-domain data into a single operational picture. In a strategic feature published on August 7, 2026, the defense contractor outlined its approach to connecting sensors, command and control networks, and interceptors at scale to counter evolving global threats.
“The mission is no longer connecting platforms. It is accelerating decisions,” the company stated in the release. “Lockheed Martin is engineering the infrastructure that enables both.”
Consolidating the intercept chain
The company’s updated framework relies on eliminating fragmented systems and delayed coordination, which it identifies as critical vulnerabilities in modern warfare. By integrating disparate assets, Lockheed Martin aims to provide military operators with instant threat identification and faster intercept capabilities.
The architecture spans space, air, and ground domains. According to the company, the intercept chain begins when overhead persistent infrared (OPIR) satellites detect a missile launch. This data is rapidly transmitted across the network, while F-35 Lightning II Military-Aircraft contribute tracking and targeting information. The Command and Control, Battle Management, and Communications (C2BMC) system then distributes a unified operational picture to ground-based effectors, specifically the Terminal High Altitude Area Defense (THAAD) system and the Next-Generation Interceptor (NGI), to complete the engagement.
“Our approach is interoperable by design, consolidating data from all domains into one unified operational picture, from threat detection through intercept,” the company noted.
Operationalizing systems at scale
Lockheed Martin emphasized that the current defense challenge is no longer inventing conceptual frameworks but rather operationalizing these systems at scale. This strategic messaging aligns with recent major Investments in the company’s production capacity and infrastructure.
On June 24, 2026, the U.S. Department of Defense awarded Lockheed Martin a $35 billion undefinitized Contracts action. The seven-year agreement is designed to quadruple the production rate of THAAD interceptors.
Earlier in June 2026, the Manufacturers expanded its physical footprint to support the NGI program. The company opened a new 88,000-square-foot Missile Assembly Building, designated MAB-5, at its facility in Courtland, Alabama. These industrial expansions are intended to support the high-volume Manufacturing required by the integrated defense architecture.
AirPro News analysis
We view Lockheed Martin’s messaging as a direct reflection of the U.S. Department of Defense’s broader push toward Joint All-Domain Command and Control (JADC2). The defense industry has spent the last decade developing individual sensors and interceptors. The current phase requires fusing these disparate platforms into a cohesive, data-centric network that operates faster than adversary capabilities.
The emphasis on “speed-to-decision” highlights a shift in procurement priorities. Hardware performance remains critical, but the Software and communication links that bind OPIR satellites, F-35s, and THAAD batteries are now the primary focus of prime contractors. The $35 billion THAAD contract and the new Courtland assembly facility demonstrate that the U.S. government is actively funding the industrial base required to move these integrated concepts from testing environments to scaled, operational deployment.
Sources: Lockheed Martin
Photo Credit: Lockheed Martin
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