Honeywell Aerospace has secured a position on a $1.5 billion multiple-award contract from the U.S. Department of Homeland Security to provide counter-unmanned aircraft systems across federal agencies.

Announced by the company in a press release on October 12, 2026, the indefinite-delivery, indefinite-quantity agreement consolidates procurement for components such as Customs and Border Protection, the Secret Service, and the Coast Guard, enabling rapid acquisition of defensive hardware and software.

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Hardware and software delivery

The Department of Homeland Security (DHS) officially awarded the contract on July 31, 2026, with an effective date of August 1, 2026. The ordering period runs for five years, concluding on July 31, 2031. Throughout this window, approved vendors will compete for specific task orders issued by the agency.

Honeywell will participate through its wholly owned subsidiary, EMS Defense Technologies. The company was selected under Track 1 of the program, which covers the delivery of counter-unmanned aircraft systems (C-UAS) equipment, training, maintenance, and ancillary support services. A separate Track 2 was established for comprehensive service solutions.

Matt Milas, President of Defense and Space at Honeywell Aerospace, stated that the selection reflects the company’s expertise in delivering technologies that safeguard national interests.

“As unmanned aircraft threats continue to evolve, we are proud to support DHS with advanced capabilities that enhance situational awareness, improve operational effectiveness, and strengthen the security of personnel, facilities and critical infrastructure,” Milas said.

Consolidating federal drone defense

The DHS Science and Technology Directorate established the C-UAS indefinite-delivery, indefinite-quantity (IDIQ) vehicle to replace a historically fragmented procurement landscape. Previously, individual DHS components managed separate acquisition efforts for drone defense, leading to a patchwork of systems across the federal government.

The push for unified procurement follows the December 2025 passage of the SAFER SKIES Act as part of the fiscal 2026 National Defense Authorization Act. The legislation expanded the department’s legal authority to detect, track, and mitigate drone threats.

Honeywell joins an initial group of seven vendors on Track 1. The competitive landscape for the contract continues to evolve, with Anduril Industries added to the hardware and software track in September 2026 following a successful protest.

The counter-drone market is expanding rapidly in response to the proliferation of autonomous drone swarms and “dark drones” that operate without broadcasting identification. Honeywell’s C-UAS portfolio includes the Stationary and Mobile UAV Reveal and Intercept (SAMURAI) system, which utilizes artificial intelligence for detection and can deploy both kinetic and non-kinetic effectors. The systems are designed to be platform-agnostic, capable of operating in fixed positions or mounted on vehicles moving at speeds up to 70 mph.

The company has also pursued airborne applications for its defensive systems. In March 2026, Honeywell announced a collaboration with Odys Aviation to integrate the SAMURAI system onto hybrid-electric vertical take-off and landing (eVTOL) aircraft, targeting the aerial defense of critical infrastructure.

AirPro News analysis

The $1.5 billion DHS vehicle represents a maturation point for the domestic counter-drone market. By shifting from ad-hoc, agency-specific purchases to a centralized IDIQ, the federal government is signaling a need for standardized, interoperable C-UAS architectures. For prime contractors like Honeywell, securing a spot on Track 1 guarantees a seat at the table as task orders are issued over the next five years, positioning their proprietary sensors and effectors as baseline standards for federal infrastructure protection.

Bell Textron Inc. has completed the first nacelle structures and initiated gearbox testing for the initial MV-75 Cheyenne test aircraft, advancing the U.S. Army Future Long-Range Assault Aircraft program toward its flight test phase.

In a press release issued on October 14, 2026, the manufacturer detailed progress across multiple Texas facilities, including the maturation of software integration for the tiltrotor. The milestones demonstrate the application of digital engineering and advanced manufacturing techniques as the program transitions from design to physical assembly.

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Advancing the MV-75 test article build

The recent manufacturing and testing milestones are distributed across Bell Textron facilities in Texas. Nacelle structure completion and related manufacturing took place at the Manufacturing Technology Center in Fort Worth and the Amarillo Assembly Center. Gearbox testing is underway at the Drive System Test Lab in Grand Prairie, a facility where Bell broke ground in 2023 specifically to support the MV-75 program. Software integration is maturing at the Weapon System Integration Lab in Arlington.

These developments follow the completion of the first two wing structures for the MV-75 Cheyenne, which Bell announced on June 11, 2026. The company reported significant efficiency gains during the wing manufacturing process, citing a 90 percent reduction in labor hours for the first MV-75 wing build compared to the initial wing build for the legacy V-22 Osprey tiltrotor. The second MV-75 wing build achieved an additional 40 percent reduction in labor hours compared to the first.

Fuselage manufacturing operations have been underway since October 2025 at the Wichita Assembly Center, which celebrated its grand opening on April 27, 2026.

Funding adjustments and systems integration

As physical assembly accelerates, the program has required financial maneuvering to maintain its schedule. According to reporting by RealClearDefense on October 14, 2026, the Pentagon applied $200 million in reprogramming funding for the MV-75 program just before the end of the fiscal year. The outlet reported that Textron Inc. had previously been forced to spend internal funds to keep the U.S. Army tiltrotor program on track.

Simultaneously, Bell is finalizing the supplier network for the aircraft subsystems. In July 2026, the manufacturer selected Collins Aerospace, an RTX business, to provide existing or modified commercial systems for the MV-75. The Collins Aerospace components include main power generators, drive shafts, couplings, smart air data sensors, aircrew seating, and ice detection and protection units.

From technology demonstrator to Cheyenne II

The MV-75 Cheyenne II is being developed for the U.S. Army Future Long-Range Assault Aircraft (FLRAA) program to replace the Sikorsky UH-60 Black Hawk. The production aircraft originated from the Bell V-280 Valor technology demonstrator, which completed its first flight on December 18, 2017. The U.S. Army selected the V-280 design as the winner of the FLRAA competition in 2022.

On April 15, 2026, the U.S. Army officially designated the aircraft as the MV-75 Cheyenne II. The name honors the Northern Cheyenne Tribe in Montana and the Cheyenne & Arapaho Tribes in Oklahoma. The “MV” prefix designates a multi-mission vertical takeoff aircraft, while the “75” commemorates 1775, the founding year of the U.S. Army. The program operates under Contract No. W58RGZ-23-C-0001, supported by the Army Contracting Command at Redstone Arsenal.

The aircraft is designed using a Modular Open Systems Approach (MOSA) to facilitate rapid technology upgrades. According to the U.S. Army, the MV-75 is expected to fly twice as far and twice as fast as the current UH-60 Black Hawk fleet, providing commanders with the ability to mass combat power rapidly while reducing exposure in contested environments.

Path to production and deployment

Following the completion of the initial test aircraft build and subsequent flight testing, the program faces several critical regulatory and operational deadlines. A production decision, known as Milestone C, is scheduled for 2028.

If the production decision is approved, the U.S. Army is scheduled to begin equipping the first operational unit with the MV-75 in 2030. The first unit equipped is targeted for completion in 2031.

AirPro News analysis

The $200 million in reprogramming funding highlights the financial friction inherent in transitioning a major clean-sheet rotorcraft from development to production. Textron bridging the gap with internal funds indicates strong corporate commitment, but the Pentagon’s end-of-year backfill was necessary to prevent schedule slippage ahead of the critical 2028 Milestone C decision.

Bell’s emphasis on digital engineering and labor hour reductions is critical to proving the MV-75 can avoid the protracted manufacturing challenges that characterized the early days of the V-22 Osprey program. We view the concurrent progress across four separate Texas facilities, alongside the fuselage work in Kansas, as a deliberate stress test of Bell’s distributed manufacturing strategy. Proving that nacelles, gearboxes, and software can be developed in parallel and integrated seamlessly will be the primary metric of success for this initial test article build.

Honeywell Aerospace and Shield AI have successfully completed two autonomous flight demonstrations, culminating in a coordinated intelligence, surveillance, and reconnaissance (ISR) mission on October 8, 2026, near Phoenix, Arizona.

The milestone, announced in a press release on October 13, 2026, highlights the rapid integration of advanced autonomy using open architecture technologies, with Honeywell engineers achieving their first autonomous flight after just six weeks of training on Shield AI’s Hivemind Enterprise platform.

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Rapid autonomy integration and flight milestones

The autonomy development effort began in late April 2026 when Honeywell Aerospace’s team started training on the Hivemind Enterprise platform. By mid-June 2026, the team flew a BFD-SE8 multirotor aircraft autonomously for the first time. This development process was originally estimated to take 54 weeks before the integration of the Hivemind system.

The first official autonomous flight demonstration took place on July 8, 2026, in Plymouth, Minnesota. During this event, the aircraft autonomously executed a planned mission that included dynamic rerouting around a designated no-fly zone.

The program advanced to a multi-aircraft operation on October 8, 2026. Two aircraft running the Hivemind software completed a coordinated ISR mission near Phoenix, Arizona. The aircraft autonomously shared target information and divided mission responsibilities without human intervention.

Tom Schaefer, Vice President of Hivemind Enterprise at Shield AI, highlighted the efficiency of the integration process:

“Honeywell Aerospace engineers flew their first autonomous aircraft within weeks, work their engineering leads estimated would normally take a year. Hivemind Enterprise handled the autonomy basics, so the team could spend its time on its own detection and tracking model. We built Hivemind so partners can work this way.”

The Hivemind platform and open architecture

The Hivemind Enterprise platform packages Shield AI’s development environment with its onboard autonomy software. It provides core functions such as route planning, mission management, and aircraft-to-aircraft communication. The system is designed to enable swarms of drones and aircraft to operate autonomously without GPS, communications, or a human pilot.

The autonomous flights integrated Honeywell Aerospace’s o480 inertial navigation system and Anthem avionics portfolio with the Shield AI software stack.

Todd Giles, Senior Vice President of Engineering and Chief Technology Officer at Honeywell Aerospace, emphasized the broader implications for the industry:

“Open architectures are changing the pace of innovation in aerospace, and this milestone demonstrates how Honeywell Aerospace can rapidly translate advanced autonomy into real-world capability. By combining our expertise in avionics, navigation, sensing and autonomy, we are helping create a scalable foundation for the next generation of autonomous aircraft and mission systems.”

Honeywell Aerospace’s independent trajectory and Shield AI partnership

The collaboration between the two companies was formalized on July 22, 2026, with a Memorandum of Understanding signed at the Farnborough International Airshow. The agreement focuses on developing a trusted autonomy software stack on Shield AI’s Hivemind Software Development Kit.

The autonomous flight milestones follow a major corporate transition for Honeywell Aerospace. On June 29, 2026, the company completed its spin-off from parent company Honeywell International. It now operates as an independent, publicly traded company on the Nasdaq under the ticker symbol HONA. Headquartered in Phoenix, Arizona, the tier-1 aerospace and defense supplier employs over 36,000 people and serves more than 10,000 global customers.

Shield AI, a venture-backed defense technology company based in San Diego, California, has seen increasing adoption of its AI pilots. The Hivemind system has piloted more than 40 different platforms to date, including F-16 fighter jets, Helicopters, and ground vehicles. On October 7, 2026, Shield AI and Kraken Technology Group demonstrated autonomous maritime teaming by integrating Hivemind onto uncrewed surface vessels in Portsmouth, United Kingdom.

AirPro News analysis

The reduction of an autonomy development cycle from an estimated 54 weeks to just six weeks is a material shift in how aerospace primes integrate third-party artificial intelligence. As defense sectors globally push for the rapid deployment of autonomous systems in contested environments, the bottleneck has often been the bespoke integration of flight control and mission management software. By utilizing an open architecture platform that handles baseline autonomy, tier-1 suppliers like Honeywell Aerospace can focus engineering resources on proprietary sensor integration and specific mission capabilities. We view this successful multi-aircraft demonstration as a validation of the open-systems approach, likely accelerating the timeline for fielding collaborative combat aircraft and autonomous ISR swarms.