This article is based on an official press release from Merlin, Inc.

Merlin, Inc., a developer of autonomous flight technology, has announced an $80 million private investment in public equity (PIPE) financing agreement. The capital raise, backed by an existing institutional shareholder, is designed to accelerate the company’s commercial launch timeline and support upcoming program milestones.

According to the company’s press release, the new funding will increase Merlin’s total cash and cash equivalents from approximately $107 million to an expected $183 million. This strengthened balance sheet is intended to provide the financial flexibility needed to advance core platform development and scale program capacity.

The proceeds will also be directed toward funding regulatory approvals activities and supporting the execution of both existing and new customer contracts, positioning the company for its 2026 and 2027 operational targets.

Transaction Details and Strategic Objectives

Structuring the $80 Million Investment

Under the terms of the securities purchase agreement, Merlin will issue 8 million shares of common stock to generate the $80 million in gross proceeds. In addition to the common stock, the investor will receive warrants to purchase up to 4 million additional shares. These warrants carry a strike price of $6.67 per share and are valid for five years from the date of issuance.

The transaction is expected to close on or about May 1, 2026, subject to customary closing conditions. Cantor Fitzgerald & Co. served as the lead placement agent for the deal, with TD Cowen acting as co-placement agent. Legal counsel was provided by Latham & Watkins, LLP for Merlin, and Jones Day for the placement agents.

Leadership Perspectives on Growth

Company leadership emphasized that the funding will play a critical role in transitioning the firm’s technological progress into tangible revenue streams. In a statement accompanying the press release, Matt George, CEO and Founder of Merlin, highlighted the strategic value of the capital injection.

“This investment reflects the continued conviction of a long-term partner who knows our business well and has seen our progress firsthand. We have a clear program roadmap and a defined path to revenue, and this capital provides additional flexibility to accelerate execution against both, unlocking growth opportunities that were previously out of reach.”

, Matt George, CEO and Founder of Merlin, Inc., via company press release

Market Position and Defense Contracts

Advancing Takeoff-to-Touchdown Autonomy

Merlin focuses on developing aircraft-agnostic, artificial intelligence-powered software designed to enable takeoff-to-touchdown autonomy. The company’s technology is being integrated into both legacy and next-generation airborne systems, targeting applications across military aircraft and civil aviation sectors.

The company has already demonstrated its capabilities through hundreds of autonomous test flights globally. According to the press release, Merlin has secured more than $100 million in awarded contracts from military customers, underscoring the defense sector’s growing interest in safe and reliable autonomous flight solutions.

AirPro News analysis

We note that the decision to raise $80 million via a PIPE transaction highlights the capital-intensive nature of developing and certifying autonomous aviation technology. By securing this funding from an existing institutional investor, Merlin demonstrates sustained backing from its core financial partners. We view the structure of the deal, which includes warrants priced at $6.67 per share, as a strategic move that provides a potential avenue for additional future capital while aligning the investor’s returns with the company’s long-term equity performance. Furthermore, boosting cash reserves to $183 million gives Merlin a substantial runway to navigate the complex regulatory environment required for commercializing autonomous flight systems.

Frequently Asked Questions

What is a PIPE investment?

A private investment in public equity (PIPE) involves the selling of publicly traded common shares or some form of preferred stock or convertible security to private investors. It is often used by companies to raise capital efficiently.

How will Merlin use the $80 million?

According to the company, the funds will be used to accelerate 2026–2027 program milestones, advance core platform development, fund regulatory approvals, and support the execution of customer contracts.

Who is leading the placement of this transaction?

Cantor Fitzgerald & Co. acted as the lead placement agent, with TD Cowen serving as the co-placement agent.

Sources: Merlin, Inc. Press Release via GlobeNewswire

This article is based on an official press release from Britten-Norman.

We are tracking a significant milestone in the development of airborne telecommunications. According to a recent press release, UK-based aircraft manufacturer Britten-Norman has completed the structural and engineering preparations necessary to integrate an advanced 5G antenna system onto its BN2T-4S Islander aircraft. This development marks a critical phase in the company’s ongoing collaboration with World Mobile Stratospheric (WMS) to deliver high-speed internet connectivity directly from the sky.

The aircraft is currently stationed at Britten-Norman’s Maintenance, Repair, and Overhaul (MRO) facility, where the installation of the proprietary phased-array antenna is underway. Flight testing is scheduled to commence in the summer of 2026 near Ipswich, UK. The program aims to validate the use of aircraft-based 5G systems to provide real-time mobile coverage to remote communities and rapidly restore communications in disaster-stricken regions.

While the Islander will serve as the initial testbed, industry research indicates that this phase is a vital stepping stone toward a much larger goal: the deployment of autonomous High-Altitude Platform Stations (HAPS) operating in the stratosphere to provide wide-area, direct-to-smartphone connectivity.

Engineering the Airborne 5G Platform

The BN2T-4S Islander Testbed

Adapting a traditional aircraft to carry heavy, high-powered telecommunications equipment presents a complex integration challenge. According to the Britten-Norman press release, the company’s Design Office produced over 100 individual engineering drawings to support the structural analysis, power management, and safe mounting of the antenna system.

Industry data highlights why the BN2T-4S Islander was selected for this rigorous testing phase. Acquired by WMS in November 2025, the BN2T-4S is a larger, turbine-powered variant of the iconic Islander, equipped with twin Rolls-Royce M250-B17F turboprop engines. It features a stretched fuselage that provides 30 percent more internal cabin space than its piston-powered predecessor. With a Maximum Take-Off Weight (MTOW) of 8,925 lbs and an endurance of up to eight flying hours, the aircraft offers the ruggedness and payload capacity required for iterative, real-world data gathering.

“The scale of the design effort reflects the complexity of integrating advanced communications systems onto the Islander platform and demonstrates the depth of engineering capability within Britten-Norman,” stated Mark Shipp, Technical Director at Britten-Norman, in the official release.

Advancing High-Altitude Telecommunications

From Low Altitude to the Stratosphere

The core technology driving this initiative is a highly advanced phased-array 5G antenna. Background research reveals that the system utilizes 500 individually steerable beams, allowing operators to direct targeted, high-speed coverage to specific locations on the ground. The system is designed to deliver connection speeds of 150 to 200 Mbps directly to standard consumer smartphones.

During the upcoming summer 2026 test-flights, the Islander will broadcast over an approximate 15-kilometer radius. However, the ultimate vision for WMS extends far beyond traditional aviation altitudes. The technology is intended for High-Altitude Platform Stations (HAPS), aircraft designed to operate in the stratosphere at altitudes of 60,000 to 70,000 feet. At this height, a single stratospheric platform could eventually cover an area of up to 15,000 square kilometers.

Following successful validation on the Islander, WMS plans to transition the technology to an autonomous, liquid-hydrogen-powered aircraft known as the “Stratomast,” which is projected to sustain flights for up to a week at a time. Test flights for the Stratomast are targeted for 2027.

Strategic Partnerships and Real-World Impact

Connecting the Unconnected

The airborne 5G program is the result of extensive corporate collaboration. World Mobile Stratospheric is a joint venture between US-based telecom provider World Mobile and Indonesian digital infrastructure company Protelindo. The technology itself was originally developed by Stratospheric Platforms Ltd (SPL), which has since been subsumed into WMS.

British Telecom (BT) has also been a foundational partner. Since early 2023, BT has been testing the proprietary 5G antenna at its Adastral Park R&D facility in Suffolk, ensuring seamless integration with secure 5G architectures and Open RAN testbeds. The upcoming flight assessments will be conducted by Britten-Norman’s flight operations team in close cooperation with both WMS and BT.

“We are very happy to have reached this important milestone in our joint work with Britten-Norman to deliver connectivity from the sky – both for disaster resilience using the Islander platform and, ultimately, for wider communications coverage,” said Richard Deakin, CEO of World Mobile Stratospheric.

AirPro News analysis

We view the Britten-Norman and WMS collaboration as a highly pragmatic approach to a notoriously difficult engineering challenge. By utilizing the proven, rugged BN2T-4S Islander as a low-altitude testbed, the consortium can iteratively refine beam stabilization and network integration without the immense costs and risks associated with immediate stratospheric drone testing.

Furthermore, the HAPS concept presents a compelling alternative to Low-Earth Orbit (LEO) satellite constellations like Starlink. While LEO satellites provide global coverage, they often require specialized ground receivers and can suffer from latency issues. The WMS phased-array antenna promises 150 to 200 Mbps directly to standard, unmodified smartphones. If successfully scaled to the stratosphere, this technology could bridge the gap between terrestrial cell towers and satellite networks, offering a highly effective solution for rural “white spots” and rapid disaster response.

Frequently Asked Questions

What is the purpose of the Britten-Norman and WMS collaboration?

The partnership aims to integrate and test an advanced airborne 5G antenna system on a BN2T-4S Islander aircraft. The goal is to validate how aircraft-based systems can deliver real-time, high-speed mobile connectivity to remote areas and disaster zones.

How fast is the airborne 5G connection?

The proprietary phased-array antenna is designed to deliver connection speeds of 150 to 200 Mbps directly to standard consumer smartphones.

What is a High-Altitude Platform Station (HAPS)?

HAPS are aircraft or airships designed to operate in the stratosphere (60,000 to 70,000 feet above ground). They fly above commercial air traffic and weather systems to provide wide-area telecommunications coverage. WMS plans to eventually deploy an autonomous HAPS aircraft called the “Stratomast.”

When will the test flights begin?

Flight testing using the BN2T-4S Islander is scheduled to commence in the summer of 2026 near Ipswich, UK.

Sources

• Britten-Norman

This article is based on an official press release from Clean Planet Technologies.

A major breakthrough in tackling both waste plastic and aviation emissions has been marked with the opening of the world’s first waste plastics to SAF (SAF) pilot facility. Operated by Clean Planet Technologies, the new Sustainability Innovation Centre is located at Discovery Park in Sandwich, Kent. The facility is dedicated to researching and developing new technologies to process non-recyclable plastic waste, beginning with its conversion into jet fuel.

The pilot facility addresses the growing problem of hard-to-recycle waste plastics and the environmental impact of the aviation industry. According to the company’s press release, the UK alone creates 5 million tonnes of waste plastics each year, 80% of which cannot be recycled and is treated as waste. Meanwhile, the world’s commercial aircraft consume 7 to 8 million barrels of jet fuel a day, with less than 1% currently produced from sustainable sources.

Transforming Waste into Sustainable Aviation Fuel

The new pilot facility integrates several stages into a single, controlled system optimized to transform hard-to-recycle plastics into SAF. The process begins with shredding the waste plastics to a uniform size, followed by pyrolysis, where the material is thermocatalytically converted into a synthetic crude oil in an oxygen-free environment. This melts the plastic rather than burning it.

After purification to remove impurities and contaminants, the pyrolysis oil undergoes distillation to separate it into relevant fractions. These fractions are then processed through Clean Planet Technologies’ patented hydroprocessing system, which uses hydrogen to further remove impurities and transform the properties of the product to meet stringent SAF specifications. The resulting ultra-clean, ultra-low sulfur fuel is sent for testing, blending, and evaluation as part of the American Society for Testing and Materials (ASTM) qualification pathway.

Reducing the Aviation Industry’s Carbon Footprint

The environmental impact of this technology are significant. According to Clean Planet Technologies, the process cuts lifecycle greenhouse gas emissions by more than 70% compared to traditional fossil jet fuel.

“Our process first heats the waste plastic with a chemical reaction to turn it into a liquid, rather than burning it. This is then treated with our patented process to remove impurities and create SAF that meets stringent commercial aviation specifications,” said Dr. Andrew Odjo, Chief Executive Officer at Clean Planet Technologies.

Dr. Odjo also highlighted the scale of the opportunity, noting that 100,000 commercial flights operate globally every day, while 600,000 tonnes of non-recyclable waste plastics enter the environment. The pilot facility aims to demonstrate that this waste can be turned into a premium product with quantifiable commercial demand.

Supporting UK and Global Sustainability Goals

The Sustainability Innovation Centre plays a critical role in bridging the gap between innovation and commercial development. It has been designed to support fuel and feedstock testing, validation, and progression through the ASTM qualification process. The facility has already secured financial support from the Department for Transport-funded UK SAF Clearing House.

We note that the fundamentals of the process,pyrolysis, purification, distillation, and hydroprocessing,are all technologies currently used independently at a commercial scale, which suggests that scaling up the integrated process will not present a significant challenge for the company.

Meeting the UK’s SAF Mandate

The opening of the pilot facility is an important step toward the UK’s ambition to support sustainable aviation and meet its SAF mandate.

“The Sustainability Innovation Centre is set up to demonstrate our patented waste-plastics-to-SAF process at pilot scale, supporting fuel testing, validation and progression. The important thing is that our pilot facility will support the growth of others, helping the UK to meet its SAF mandate,” added Dr. Katerina Garyfalou, Chief Operating Officer at Clean Planet Technologies.

UK government policy to decarbonize aviation fuel states that 2% of UK jet fuel demand must be SAF, increasing to 10% in 2030 and 22% in 2040.

Addressing Dual Strategic Challenges

Clean Planet Group, founded in 2018, views the new facility as a solution to two pressing global issues. By converting non-recyclable plastics,materials that would otherwise go to landfill or be incinerated,into low-carbon aviation fuel, the facility supports circular economy objectives.

“Our pilot facility addresses two strategic challenges simultaneously: plastic waste management and aviation decarbonisation,” said Clean Planet Group CEO Bertie Stephens.

Stephens noted that the pilot opens up new ways to make sustainable aviation fuel at a time when existing feedstocks, such as energy crops, are becoming harder to secure. It also positions the UK as a leader in turning waste plastics into SAF, supporting UK and European targets, and helping clear the path to commercial-scale plants later this decade.

Frequently Asked Questions

What is Sustainable Aviation Fuel (SAF)?

SAF is defined as any renewable or waste-derived aviation fuel that meets specific sustainability criteria. It is considered to have the greatest potential to reduce carbon emissions from international air travel.

How much of the UK’s plastic waste is currently recycled?

According to Clean Planet Technologies, the UK creates 5 million tonnes of waste plastics each year, and 80% of this cannot be recycled and is treated as waste.

How much does the new process reduce greenhouse gas emissions?

Clean Planet Technologies states that their process cuts lifecycle greenhouse gas emissions by more than 70% compared to traditional fossil jet fuel.

Sources

• Clean Planet Technologies