Proof in Practice
Real-life applications across Acron Technologies.
Each business inside Acron Technologies holds at least one credential or customer relationship that took decades to establish and is hard to replicate. The seven stories below are the evidence: named OEMs, named operators, named contracts, named survivors. Proof of what Acron Technologies delivers when operating at the edge, and the lives protected because of it.
01 Avionics
& Airspace Awareness
Selected as the only 25-hour cockpit voice recorder approved by Airbus.
By 2030, every in-service commercial aircraft has to carry a 25-hour cockpit voice recorder — a twelve-fold increase over the standard set in the 1960s. The FAA mandate is law. EASA and Transport Canada have aligned. For Airbus, the question wasn’t whether to comply. It was who could carry a multi-thousand-aircraft global fleet to the deadline.
In October 2025, Airbus chose one supplier. Acron Aviation’s SRVIVR25™ is the only 25-hour cockpit voice recorder approved and qualified for the Airbus commercial fleet. Sole-source, supported by Airbus service bulletins.
The mandate demanded delivery across the lifecycle simultaneously — engineering, FAA certification, STC development, manufacturing, retrofit support — all moving in parallel ahead of 2030. Most suppliers do one or two pieces and hand the rest off. Acron Aviation carries all of them in-house through ACSS, the joint venture with Thales that holds FAA STC Organization Designation Authorization for Part 23 and Part 25 avionics products. The company describes the posture as tier 1.5 supplier: deeper engineering than a component vendor, faster execution than a prime contractor. The same SRVIVR family serves Boeing and other platforms on a competitive basis — same product, two procurement paths.
That capability is older than the contract. The recorder lineage runs back through L3Harris Commercial Aviation Solutions, L3 Aviation Recorders, and Fairchild — six decades of continuous engineering through three corporate eras. The FA2100, Acron Aviation’s direct replacement for legacy Fairchild A100A, A100S, and A200S recorders, has logged a 50,000-hour mean time between failure in commercial service. The engineering bench that built it built the SRVIVR25. When TJC formed Acron Aviation in 2025, the team came with the IP.
The same engineering bench is already qualifying the next generation — ADS-B In situational awareness, expanded recorder bandwidth, and the certification work for whatever the FAA writes next.
Airbus needed a partner who could move at the pace of the mandate. That’s what tier 1.5 means in practice — we carry engineering, certification, and production under one roof, and the team has done this through three corporate eras. The Airbus selection is what that buys you.
Ron Nye, President, Acron Aviation
Sole-source on a fleet of thousands. Six decades of recorder lineage. The team came with the IP.
02 Connectivity
& Satellite Communications
The distress alerting solution Embraer chose. Two Acron businesses, one regulatory package.
The 2014 disappearance of Malaysia Airlines 370 set the regulatory clock running. The 2009 loss of Air France 447 had already established that commercial aviation needed continuous global flight tracking with automatic distress activation when an aircraft deviated from planned parameters.
ICAO’s Global Aeronautical Distress and Safety System (GADSS) mandate followed. Every aircraft manufacturer would need a compliant distress tracking solution. The industry knew it was coming; the question was who could deliver it.
In October 2021, Embraer selected the SKYTRAC ADT-5000 paired with the ARTEX ELT 5000(DT) as the GADSS solution for its E-Jets E2 family. The architecture combined two Acron businesses into one regulatory package: SKYTRAC delivered the Autonomous Distress Tracking transceiver, ARTEX delivered the Emergency Locator Transmitter with distress-tracking capability, and the integrated system met GADSS compliance across the aircraft. Embraer installs the system as a line-fit, factory-installed solution before delivery to airlines.
What makes the architecture work is the relationship between SKYTRAC and ARTEX. Both businesses sit inside the same parent group. SKYTRAC delivers the Autonomous Distress Tracking transceiver; ARTEX delivers the Emergency Locator Transmitter with distress-tracking capability. Combining both into a single GADSS solution from one supplier is what most competitors can’t easily replicate — they have to assemble distress transmission and emergency location across separate vendor relationships.
Cross-company integration isn’t a marketing claim. It’s how the engineering gets done. SKYTRAC brought decades of satellite communications expertise from the rotorcraft and operator side. ARTEX brought decades of Cospas-Sarsat-certified emergency locator transmitter design. Both businesses hold AS 9100 certification. The GADSS solution moved through NRC-IRAP-backed testing at the Canadian National Research Council on a single-supplier timeline rather than a multi-vendor coordination one.
The selection set the pattern for what cross-brand integration looks like. SKYTRAC connectivity. ARTEX distress beacons. Two businesses, one regulatory package, one OEM relationship. That same model — combined solutions delivered from inside a single parent group — is the structural advantage of operating multiple aerospace companies together.
SKYTRAC has demonstrated superior technical expertise and the commitment to quality and execution necessary to meet, well in advance, the January 1, 2023, GADSS requirements. Embraer is pleased to have SKYTRAC and ACR Electronics provide this important capability, as we deliver our market-leading jets to airlines across the world.
— Fernando Antônio Oliveira, Vice President Programs, Embraer Commercial Aviation
Embraer E-Jets E2. Line-fit, factory-installed across the family. AS 9100 certified across both businesses.
03 Data Analysis
& Flight Data Services
Porter Airlines selected APS. So did 85% of Canada’s transport-category fleet.
Airlines that take flight data seriously face the same question. Every commercial flight generates tens of thousands of recorded parameters per second. Run that data through the right analytics, and you catch operational risks before they become incidents.
Skip it, or run it on a legacy in-house system, and the data sits in storage doing nothing. The question is which platform an airline trusts to process its safety-critical data — and which government safety body trusts that same platform to process the country’s.
On October 1, 2025, Porter Airlines selected APS Aerospace’s lumina|fda platform to replace its previous in-house flight data monitoring system. The decision moved Porter from a conventional installation to a fully web-based platform — accessible from any modern browser, with database architecture that allows parametric querying without reprocessing the data. Porter joined an existing APS user community that includes Air Canada and WestJet.
The same platform powers the Canadian Commercial Aviation Safety Team’s National Flight Data Repository. Eighty-five percent of Canada’s 705 transport-category aircraft upload unprocessed flight data into a shared analytics infrastructure powered by lumina|fda — used by C-CAST members to proactively identify safety issues of national interest. APS is the technology engine behind national-scale aviation safety analysis in Canada.
The lineage runs back to 1986. The Recovery, Analysis and Presentation System (RAPS) was developed inside Transport Safety Board of Canada’s flight recorder laboratory and went on to be adopted by the U.S. NTSB, the French BEA, the German BFU, and the Australian ATSB. Over the next four decades — through commercialization as Flightscape (2002), acquisition by CAE (2007), spin-out as Plane Sciences (2013), reunification with the Insight software base (2017), merger of AIRINC and Plane Sciences into APS (2021), and acquisition by ACR Group (January 2025) — the underlying engineering team and IP stayed continuous. Today, approximately 50 accident investigation authorities worldwide run flight data analysis on technology APS engineers developed.
That dual footprint is where APS’s advantage compounds. Most flight data analytics platforms support either accident investigation (post-incident reconstruction for government safety boards) or operational FDM (proactive monitoring for airlines). APS does both, from the same engineering core. The technology that helps a national safety authority reconstruct why a crash happened is the same technology that helps an airline see the precursor signals weeks before. That depth — accident investigation expertise feeding into proactive monitoring tools — is what airlines and national repositories alike are paying for.
Porter Airlines was very impressed with the depth of flight data expertise within the APS team. APS’s software solution, innovative system design, enthusiasm and long history in the flight data analysis community is quite remarkable and perfectly aligns with our commitment to delivering the highest standards of aviation safety.
Captain Marvin Kruis, Manager, Flight Operations Quality Assurance, Porter Airlines
Porter Airlines, Air Canada, and WestJet on the airline side. ~50 accident investigation authorities on the government side. Four decades of unbroken engineering lineage from the Transport Safety Board of Canada.
04 Advanced Image
Processing & Edge Analytics
Camera. Searchlight. Mapping. From the same supplier, on the same airframe.
A public-safety helicopter at 1,000 feet over a search area has three problems to solve at once. It needs gyro-stabilized day and night imaging to find what it’s looking for. A searchlight intense enough to illuminate the scene at altitude. And a moving-map mission system that ties the camera, the searchlight, and the aircraft’s position together so the crew can act on what they see. Most operators source those three capabilities from three vendors, and the integration is their problem.
Trakka Systems builds and integrates all three. The TrakkaCam EO/IR camera, the TrakkaBeam high-intensity searchlight, the TrakkaMaps moving-map mission system — delivered as a Total Mission Solution from one supplier, with one support relationship. A slew-to-cue function ties them together: the operator marks a point on the map, the camera and searchlight track it together. Trakka calls it the world’s first and only integrated solution of its kind.
The customer base spans law enforcement, EMS, fire, and military missions across four continents. Chino Police on the Bell 505 in California. Spokane County Sheriff and Windward Aviation on the BK117 in Hawaii. Dubai Police Air Wing on the AW139. Polish Police across Eastern Europe. Royal Thai Navy on the Cessna T337. Greek Fire Service on the Diamond DA62. Lincs & Notts Air Ambulance on UK night-HEMS missions. Carabineros de Chile across the AW109, EC135, and H125 — and as the first customer in South America to fly TrakkaCam on an unmanned platform, the Schiebel S-100 Camcopter. Different aircraft, different missions, same integrated system.
The breadth is enabled by where Trakka can manufacture and service. AS 9100 quality certification. Parts-manufacturer approvals from the FAA (Part 21 Subpart K) and Australia’s CASA (CASR Part 21 Subpart K APMA). Repair-station approvals from the FAA (Part 145), CAA UK (UK-145), and EASA (Production Organisation Approval 21G.0060). Operating facilities in Bradenton, Melbourne, and Arla. CE marking for European deployment. Four-region production-and-maintenance footprint serving customers that need both export compliance and locally accessible support.
The TrakkaCam line is non-ITAR. That distinction matters in a market where most U.S.-made EO/IR camera systems carry export restrictions that limit allied-nation procurement. Trakka can sell into customers that competitors using U.S.-controlled components cannot reach. The breadth of the international customer base is partly a result.
Trakka’s integrated portfolio of aircraft mission equipment complements Acron’s current portfolio and aligns with our vision to become the top-tier partner of choice to customers in the aviation industry.
Alan Crawford, Chief Executive, Acron Aviation (October 2025)
Camera, searchlight, and mission management from one supplier. Named public-safety operators across four continents. Four-region production and maintenance footprint. Non-ITAR exportable.
05 Positioning
Navigation and Timing
A $402 million U.S. Army Program of Record. Now shipping.
By the late 2010s, U.S. Army soldiers needed assured positioning, navigation, and timing in places GPS doesn’t work — urban canyons, underground operations, jamming environments, electronic-warfare contests. The existing Dagger handhelds — hundreds of thousands of them, fielded over two decades — had reached end of life. Their replacement program wasn’t meeting Army requirements. The program office turned to a Quick Reaction Capability competition to find a vendor who could.
TRX Systems won the Quick Reaction Capability and delivered DAPS 1.2 in a few thousand units. Two decades of navigation and tracking algorithm work — originally fielded with police, firefighters, and public safety teams — had compounded into something the primes couldn’t match: a multi-layer sensor-fusion architecture that didn’t depend on any single signal source. That delivery validated TRX as a prime contractor to the Department of War. It earned them what came next.
In March 2023, the U.S. Army awarded TRX a $402 million, seven-year IDIQ contract for DAPS GEN II — the Program of Record successor. Multiple delivery orders have shipped since, and the U.S. Army approved DAPS GEN II for Full-Rate Production in September 2024 — twelve months after delivery of the first systems. The system is operational with soldiers today. Acron Technologies acquired TRX in January 2022 through ACR Electronics — the longest-tenured Acron-side acquisition.
The system delivers four things the Army couldn’t get from a receiver alone. An M-code GPS signal from the latest military constellation. Plug-and-play compatibility with Nett Warrior — the broader soldier system including battery packs, range finders, and comms. Backwards-compatible operation between dismounted and vehicle-mounted use, replacing the legacy Dagger handheld across both modes. And a multi-layer assurance architecture that cross-references inertial sensors, complementary PNT signals, and GPS itself — so when one signal is jammed or spoofed, the others detect the disagreement and hold the position.
Why TRX and not Honeywell, Northrop, or Collins? The primes brought GPS receivers — one signal, one source. TRX brought twenty years of fused sensor algorithms developed for police, fire, and public safety teams long before the Army contract. The Army’s question was straightforward: why select a pure M-code receiver when foreign adversaries can still jam and spoof it? TRX answered it with sensor fusion, not with a better receiver.
DAPS GEN II is what twenty years of navigation work looks like meeting a Program of Record.
Carol Politi, President & CEO, TRX Systems
$402 million IDIQ. Seven years. Program of Record. Shipping today.
06 Rescue
& Distress Alerting
Search less. Rescue more.
On May 25, 2024, Easton Barrett and four friends were roughly forty miles off the Mississippi Gulf Coast when their boat sank. Within minutes the deck was gone, the flares were unreachable, and five men were in 80-degree water with hours of survival time at best. A personal locator beacon a friend had packed at the last minute was the only piece of emergency equipment anyone reached before the boat went down.
The Coast Guard had a satellite-tracked position the moment the beacon activated. All five men were recovered alive after four and a half hours in the water. Easton’s TikTok of the rescue passed nine million views — one of the most-seen consumer demonstrations of a Cospas-Sarsat-registered personal locator beacon in U.S. history.
Easton’s beacon is one of hundreds of thousands ACR Electronics, ARTEX, and Ocean Signal have built. Personal locator beacons. EPIRBs. Emergency locator transmitters. Cospas-Sarsat type approvals across the product family. The dominant rescue beacon position in North America under the ACR brand, the leading position in Europe under Ocean Signal. The only rescue beacon line manufactured in the United States, designed and assembled in Fort Lauderdale from the board level up. On the aviation side, the ARTEX ELT 5000 platform crossed one million flight hours in July 2026 — roughly 7,500 flight hours added every day across Boeing 737, 787, and 777 fleets on every inhabited continent. An ELT 5000-equipped aircraft takes off somewhere in the world every 30 to 40 seconds. In 2024, NOAA-coordinated rescue authorities credited Cospas-Sarsat alerts with 411 lives saved across the United States.
The beacon itself isn’t the hard part — the approvals are. Competitors have spent three years trying to push an AIS personal locator beacon through Cospas-Sarsat approval testing and haven’t cleared the lab. On the aviation side, the same pattern plays out in distress-tracking ELT certification — a multi-year head start that translates directly into a sole-source position at Boeing. Testing and approvals are where the years of work compound.
The lineage runs back to Apollo. ACR-designed penlights were standard equipment on Apollo 7 through 17 — the same flashlights the Apollo 13 crew used to read re-entry procedures by their light alone after the spacecraft lost power. Every astronaut on NASA’s Artemis 2 mission carries the ACR ANGEL personal locator beacon — a purpose-built PLB ACR designed for NASA. The same engineering team builds the ResQLink line that sits on shelves at Bass Pro and West Marine. Seventy years of building to one standard.
It’s a recovery mission at that point. Not a search and rescue.
John Nguyen, CEO, ACR Electronics
Five men. Four and a half hours in the water. One beacon a friend almost didn’t pack.
07 Resilient Connectivity
The government keeps looking for a replacement. There isn’t one.
Ten feet around a soldier is a specific engineering problem. A gun sight streaming night-vision video to a heads-up display. An augmented-reality dock overlaying friendlies in blue and enemies in red. Sensors, docks, laser range finders, chest-worn compute. Every one of those systems has to talk to every other one, in real time, without cables, without jamming, without dropping classified data. Wi-Fi and Bluetooth were not built for this. That’s the problem CERDEC Labs at Aberdeen Proving Ground set out to solve.
They evaluated every wireless option on the market — UWB and non-UWB. Alereon’s ultra-wideband was the technology of choice. Not because it was the only UWB on offer, but because it was the only wireless standard that could deliver 350 Mbps of guaranteed real-time bandwidth inside a 10-foot bubble, survive contested electronic warfare, and clear the NSA and NIST certifications required to carry classified data. The selection made Alereon’s UWB the foundation of what the government now calls the Intra-Soldier Wireless standard.
Ten years later, Alereon and CERDEC co-own the ISW specification. Together with prime integrators, they built out roughly a dozen interoperability protocols — audio, gun-sight video, sensor data, augmented-reality overlays — that any new soldier system now designs to. Twenty-seven government programs currently integrate Alereon’s modules. Roughly a dozen are in full-rate production. Anduril, L3Harris, Leonardo DRS, 26Defense, Codan, Rivet, Theon International, and Vortex Optics all build to the standard. The Programs of Record read like a list of the Army’s highest-priority soldier modernization efforts: IVAS, NGSW-FC, FWS-I, ENVG-B, SBMC.
CERDEC still periodically evaluates whether anything better exists. Ten years in, the answer is the same. NSA and NIST module certification takes years to earn and competitors don’t have it. The built-in jammer sniffer — which detects incoming jamming and moves the link across 29 channels between 3 and 10 GHz in real time without breaking connection — is why the government routinely uses Alereon as the first test target for new jammers it develops. Interoperability with the existing installed base is the third barrier: any new UWB entrant would have to be certified, jammer-resistant, and backward-compatible with the Alereon-defined protocols. That’s a decade of head start to close.
Alereon’s first soldier system was a wireless gun sight that let a warfighter point a weapon around a corner without moving their head. From there, the technology moved into heads-up displays, chest-worn docks, and sensor packages — more than 200,000 modules now deployed with the U.S. Army, Navy, Air Force, SOCOM, and Marines, plus allied forces in the Netherlands, the UAE, and the UK. The next generation, coming through SBMC and Anduril, is a real-time augmented-reality battle picture rendered inside a soldier’s heads-up display. The wireless link that carries all of it — from the first gun sight to the augmented-reality HUD — is Alereon’s.
The government picked our standard for ISW ten years ago and still evaluates whether anything better exists. It doesn’t.
— David Shoemaker, CEO, Alereon
Over 200,000 ISW modules shipped, based on a specification Alereon co-owns with CERDEC.
Seven stories. One pattern.
Each business inside Acron Technologies holds at least one credential or customer relationship that took decades to establish and is hard to replicate. Real-life applications across Acron Technologies.