Seeking a concrete approach to eliminate greenhouse gas emissions from the world’s hardest-to-decarbonize logistics sectors, DHL Global Forwarding France has entered into a strategic partnership with French shipping company VELA.

Under the agreement, the global freight giant will offer commercial shipping options aboard custom-built, wind-powered cargo trimarans crossing the Atlantic Ocean. Scheduled to launch operations in early 2027, the initiative introduces a clean, maritime alternative that integrates directly into existing supply chains without disrupting standard logistics processes.

Global maritime shipping currently accounts for roughly 3% of worldwide carbon dioxide emissions, largely because the heavy fuel oil burned by traditional container ships produces intensive pollution.

While wind-propelled commercial transit remains a niche concept within the broader cargo industry, the new partnership aims to demonstrate the viability of large-scale commercial sailing. Under the strategic framework, DHL secures a dedicated allocation of cargo space aboard VELA’s specialized vessels, with volume commitments expected to scale up continuously alongside the expansion of the sailing fleet.

Operational routing and transatlantic port logistics

The new maritime service will establish a direct ocean route connecting the secondary ports of Caen-Ouistreham in France and New Haven, Connecticut. By avoiding heavily congested major shipping hubs, the direct point-to-point path significantly limits the need for complex transshipments.

VELA is targeting a reliable port-to-port transit time of approximately 15 days. This timeline allows the clean shipping framework to remain reasonably close to the pacing of conventional diesel-powered cargo ships.

The specialized service is specifically engineered for companies handling less-than-container-load (LCL) freight. Instead of loading large, heavy metal containers, the interior layout of the VELA sailing vessels is explicitly tailored for palletized cargo.

Each trip will accommodate up to 600 European Union pallets, maximizing space efficiency for industries that ship products in smaller batches. DHL will handle the entire onshore logistics ecosystem for each voyage, including pre-carriage transport, local customs clearance, and secure warehousing.

Specialized protection for temperature-sensitive products

To accommodate highly sensitive commercial goods, the vessels integrate a patent-pending refrigeration system called CoolSafe. This technology allows the zero-emission ships to cater specifically to industries with rigid environmental controls, including pharmaceuticals, luxury items, cosmetics, aerospace components, and premium wines or spirits. The cooling network is fully compliant with Good Distribution Practice (GDP), ensuring strict adherence to global pharmaceutical handling standards.

Crucially, the climate-control systems within the cargo hold do not draw energy from fossil fuels. The onboard refrigeration units are powered primarily by decentralized renewable energy sources integrated directly onto the vessel’s hull.

An independent lifecycle analysis conducted by the specialized consulting firm Carbone 4 verified the exceptional environmental performance of this setup. According to their metrics, the VELA system reduces greenhouse gas emissions by up to 99% compared to traditional transport options under specific assumptions.

Scaling sailing fleets for regular weekly departures

While the initial launch will deploy a single vessel, VELA and DHL have mapped out a clear path toward industrial scale-up. The long-term blueprint calls for the construction and deployment of five identical wind-powered ships on the Europe-to-United States route.

Once the full fleet enters active service, the companies will expand their scheduling to offer up to one reliable weekly departure in both directions across the Atlantic.

By proving that wind-powered freight can maintain rigid commercial schedules, the project partners intend to establish a repeatable model for sustainable shipping.

The initiative balances environmental accountability with real-world practicality, giving shippers a functional tool to cut emissions without compromising traceability, cargo security, or supply chain reliability. If the rollout scales as planned, it will mark one of the first regular, predictable wind-powered freight services connecting Europe and North America.

In a major structural shift designed to correct an unsustainable economic imbalance on the modern battlefield, the U.S. Army has formally launched its Low-Cost Interceptor (LCI) program. The defense initiative aims to end the practice of burning multimillion-dollar air defense assets to down inexpensive adversary drones that cost only a few thousand dollars.

Senior service officials announced a highly compressed procurement timeline for the program, establishing a firm target to execute the first live-fire capability demonstrations this autumn.

The launch follows months of strategic framework planning intended to quickly field scalable, affordable anti-drone solutions. Army Secretary Dan Driscoll clarified that these new budget-friendly interceptors are not meant to replace existing, high-end defensive networks.

Describing the service’s current premier air defense systems as “the Ferrari of a product,” Driscoll noted that while their capabilities are incredible, the Army urgently requires a mass-producible, low-cost alternative to supplement the fleet during prolonged, high-rate attrition conflicts.

Overhauling procurement

Rather than relying on traditional acquisition models—where a single prime contractor builds a highly proprietary weapon system from the ground up—the Army is breaking the LCI into independent structural subsegments.

Under this strategy, the service will source components from a wide pool of competing suppliers to reduce unit costs. Through its specialized xTech program, the Army plans to officially release a call for industrial white papers on July 6, 2026.

The upcoming solicitation will seek targeted technological solutions across four critical subsystem categories: rocket motors, advanced seekers, fire control and guidance tools, and an overarching weapons system integrator.

The chosen system integrator will be tasked with designing a flexible, open systems architecture that allows the Army to seamlessly hot-swap subcomponents as underlying commercial technologies mature.

Service officials indicated that if the submitted technologies show sufficient technical maturity, the xTech team may bypass lengthy prototyping phases and move selected vendors straight into full-rate production.

Resetting cost targets to combat inexpensive threat vectors

The fiscal parameters of the LCI program are explicitly shaped by the realities of modern asymmetric aerial threats, such as jet-engine-powered Shahed attack drones.

Military leaders have long warned that relying on premium, low-stock missiles to neutralize waves of mass-produced loitering munitions is financially unviable over extended campaigns. While the Army has declined to lock in a rigid price ceiling, leadership has established aggressive baseline cost targets.

Ideally, the service wants the final, all-up rounds to cost less than $1 million each. Furthermore, Driscoll previously indicated that the service’s ultimate target price point sits below $250,000 per individual interceptor.

Army leadership emphasizes that while the military will always expend whatever resources are necessary to defend American lives in an immediate combat theater, achieving a sub-million-dollar price point is absolutely vital to absorbing and repelling sustained drone swarms at a true theater-wide scale.

Securing intellectual property and empowering global allies

A foundational element of the LCI acquisition strategy is a strict emphasis on data and intellectual property (IP) sharing among participating contractors. Because the Army is assembling the final interceptor from separate components built by different firms, the service must secure the underlying IP rights.

Retaining these rights will allow the military to independently perform field repairs, reverse-engineer parts, and utilize 3D printing to accelerate maintenance in forward-deployed zones.

Furthermore, establishing clean IP boundaries will enable the Army to add the finished low-cost interceptors directly into its digital marketplace interface. The Pentagon already utilizes this marketplace framework to sell validated drones and counter-UAS platforms to allied nations.

By distributing these compatible, budget-friendly interceptors globally, the Army intends to build a unified defensive network in which international partners can seamlessly deploy identical, affordable munitions, even in austere theaters where standard American logistics are unavailable.

SpaceX has a new spacecraft, and it might already be in orbit. The company launched its secretive Starfall return capsule for the first time on June 23, lifting off aboard a Falcon 9 from Space Launch Complex 40 at Cape Canaveral Space Force Station at 6:52 a.m. EDT.

The mission caught many space watchers by surprise — SpaceX had revealed almost nothing about Starfall before launch, and the company cut its webcast roughly 10 minutes after liftoff, a practice typically associated with national security missions.

What SpaceX did say, via a post on X, was brief: Starfall “will enable affordable, routine access to the microgravity environment for scientific research and in-space manufacturing.”

The company added that the vehicle will “enable point-to-point delivery of critical cargo through space on rapid timelines” and create “a self-sustaining commercial in-space manufacturing market by offering access to microgravity and vacuum, loiter on orbit, and safe return from orbit as a service at scale.”

What Starfall actually is

Most of what is publicly known about Starfall comes from an environmental assessment published by the Federal Aviation Administration last month. According to the FAA document, Starfall is a disk-shaped spacecraft that stands about 2.5 feet (0.75 meters) tall and has a diameter of 10.2 feet (3.1 meters). It weighs roughly 4,600 pounds (2,100 kilograms) and can carry about 2,200 pounds (1,000 kg) of payload.

Starfall consists of two parts: an aluminum “top plate” that weighs about 3,090 pounds (1,400 kg) and a detachable carbon-fiber heat shield. The heat shield contains compressed nitrogen gas that powers the capsule’s attitude control thrusters, mechanically jettisons the shield before splashdown, and deploys the parachutes — all without liquid propellants or hazardous substances aboard.

The capsule carries no propulsion system and cannot deorbit itself. It is entirely uncrewed and not designed to carry passengers. The vehicle can launch on both the workhorse Falcon 9 and Starship, the megarocket SpaceX is developing to help humanity settle the moon and Mars.

SpaceX has not yet specified how long the test vehicle will remain in orbit before reentry. When the Starfall payload returns, SpaceX is targeting an area in the Pacific Ocean for splashdown, about 700 nautical miles (1,300 km) off the United States West Coast.

How many were launched?

It is unclear how many Starfall vehicles the Falcon 9 lofted on this initial flight. The FAA environmental assessment covered two demonstration reentries, and one or both may have been initiated by Tuesday’s launch.

SpaceX is not first — but may come to dominate

SpaceX isn’t alone in pursuing these opportunities. Varda Space has already launched and landed five of its 650-pound (300 kg) “W-series” spacecraft, which are designed to be both orbital mini-factories and return capsules. And another California outfit, Outpost Space, is developing a line of “CarryAll” return vehicles that can deliver very large payloads — up to 22,000 pounds (10,000 kg) — down from space with pinpoint accuracy, within 80 feet (25 m) of a target anywhere on Earth.

So SpaceX is not breaking new ground with Starfall. But the company is poised to play a leading role in the nascent Earth-return field, thanks to its launch dominance and vertical integration.

The Falcon 9 flew a whopping 165 times in 2025, and SpaceX envisions launching Starship thousands of times per year when that massive rocket comes fully online.

That launch economics advantage is decisive. Every orbital manufacturing company currently operating — including Varda Space Industries — uses SpaceX Falcon 9 rideshares to reach orbit. With Starfall, SpaceX is entering a market it has until now served only as a launch provider, potentially competing with its own customers for the same orbital manufacturing return payloads.