viernes, 28 de diciembre de 2018

US Defense Budget: ¿Where goes the money endly go?


¿Where does the money of the US taxpayer really go?

Watching the scene from outside US, it results difficult to understand how some countries with much less defense budgets are achieving better results.

Let us think on Avangard Hypersonic Glide Vehicle made by Russia: As reported,  it has been launched from the Dombarovskiy missile base in the southern Ural Mountains, and successfully hit a practice target on the Kura shooting range on Kamchatka, 6000 kilometres (3700 miles) away, reaching speeds close to Mach 25, what means roughly 10 Km/s or 6 miles/s.

¿Truth or lie? If the above is truth, this would mean that no US anti-missile could knock it down. In another words: United States could lay fastly out of combat in case a military conflict against Russia.

So, again: ¿Where has the money of the US taxpayer really gone?

Sergei Ivanov, a former Russian defence minister, has said in televised comments that the Avangard constantly changes its course and altitude while it flies through the atmosphere, chaotically zigzagging on its path to its target, making it impossible to predict the weapon’s location.

¿Truth or lie? If truth, ¿United States has something similar? For the moment, it seems simply that the answer is "no".

So, again: ¿Where has the money of the US taxpayer really gone?

Ivanov has stated also that the Avangard Hypersonic Glide Vehicle has cost hundreds of times less than what the US has spent on its missile defence system.

¿Truth or lie? Well, bearing in mind the russian defence budget, it can not be a lie at all.

And now the the cherry on the cake: Ivanov has revealed that Russia began to develop the Avangard after 2002 when the US withdrew from the 1972 Anti-Ballistic Missile Treaty and began developing defences against ballistic missiles.

¿Truth or lie? Well, this is not the right question. The right question is -or should be- the following :  If a dwarfy budget as the russian defence budget has allowed Russia to get something like the Avangard in just 16 years, ¿Where has the money of the US taxpayer really gone during these 16 years?

jueves, 27 de diciembre de 2018

¿U.S. to sell Patriot missile systems to Turkey?


The Ankara office director of the German Marshall Fund of the United States, Ozgur Unluhisarcikli, told Arab News he believes the decision from the U.S. State Department to dangle the offer of the Patriot system is aimed to make Turkey drop the purchase of the S-400: If Ankara forges ahead with purchasing the Russian alternative, the Patriot offer would allow the U.S. to dismiss Turkey from the F-35 fighter jet program.

The Patriot and S-400 are competing systems, and Washington has firmly opposed to Turkey’s planned acquisition of Russian-made systems that are designed to target American-made military weapons. In words of Nicholas Danforth, a senior policy analyst at the Bipartisan Policy Center’s National Security Project, “The real breakthrough would only be if Turkey abandoned its plans to buy the S-400s. For the Patriot sale to move forward, Turkish officials must have to convince Washington they are not going to buy the S-400s.”

Purchase of Patriot missiles will not affect S-400 deal


Turkey’s possible purchase of US-made Patriot missile systems will not impact its deal to buy Russian S-400 systems, Turkish presidential spokesman Ibrahim Kalin told a news conference on Monday 24th December: “The deal on S-400 is closed. The first systems will be supplied in October 2019. The offer on Patriot will change nothing because we don’t consider them as alternatives to one another. We can have both systems,” he was quoted as saying by Russian news agency TASS

US State Department Backs Patriot Missile Sale


On December 18, the U.S. State Department announced its proposal to Congress for a $3.5 billion Patriot system sale to Turkey.

The DSCA press release reports that Turkey plans to procure 80 Patriot MIM-104E GEM (Guidance Enhanced Missiles) and 60 PAC-3 MSE (Missile Segment Enhancement) missiles.

The package also includes four AN/MPQ-65 Radar Sets, as well as other launching stations and control systems. According to an unnamed State Department spokesperson, the sale will allow “the Turkish military to guard against hostile aggression and shield NATO allies.”

This announcement follows several years of increasing tensions between the United States and Turkey under President Tayyip Erdogan.

Raytheon wins $693 million production contract


Previously announced by the U.S. Department of Defense, the contract calls for Raytheon to build and deliver an undisclosed quantity of Patriot fire units and GEM-T interceptor missiles.

In words of Tom Laliberty, vice president of Integrated Air and Missile Defense at Raytheon's Integrated Defense Systems business, "Sweden's Patriot procurement will provide joint training opportunities for the Swedish and U.S. armed forces, and enhance military interoperability. Patriot is continually modernized, providing Sweden the world's most advanced and capable air and missile defense system."

Raytheon’s Patriot Solutions is a missile defense system consisting of radars, command-and-control technology and multiple types of interceptors, all working together to detect, identify and defeat tactical ballistic missiles, cruise missiles, drones, advanced aircraft and other threats.

Lockheed secures $3.3b deal to deliver PAC-3 to Saudi Arabia


PAC-3 missiles are high-velocity interceptors against incoming threats, including tactical ballistic missiles, cruise missiles and aircrafts.

Thirteen nations –Germany, Japan, KuwaitNetherlands, PolandQatar, Saudi ArabiaSouth Korea, SwedenRomaniaTaiwan, UAE and United States– have chosen PAC-3 and PAC-3 MSE (Missile Segment Enhancement) to provide missile defense capabilities.

The upgraded PAC-3 MSE expands the lethal battlespace with a dual-pulse solid rocket motor, providing increased performance in altitude and range. PAC-3 MSE is a high-velocity interceptor against incoming threats, including tactical ballistic missiles, cruise missiles and aircrafts.

The missile uses Hit-to-Kill technology, which engages threats through kinetic energy via body-to-body contact. In words of Jay Pitman, vice president of PAC-3 programs at Lockheed Martin Missiles and Fire Control"PAC-3 and PAC-3 MSE give our customers unmatched, combat-proven hit-to-kill technology to address growing and evolving threats. PAC-3 and PAC-3 MSE are proven, trusted and reliable interceptors that employ hit-to-kill accuracy, lethality and enhanced safety to address dangers around the world."

Turkey would not allow US to inspect Russian S-400


A senior Turkish official says Ankara would not provide the United States with the opportunity to study the advanced Russian-built S-400 air defense missile system, regardless of strong opposition from Washington and warnings that Turkey should not buy the anti-aircraft platform.

Additive Manufacturing to modernize the US Military


“Innovation” and “force modernization” are the Pentagon buzzwords of the day: Strategies are being developed across the Department of Defense enterprise, with these concepts as the foundational pillars. But oddly enough considering the defense budget of the United States compared to the defense budget of Russia or China, for the first time in decades the United States military apparatus does not possess a clear advantage on the world stage.


¿Causes? The flattening of the technological landscape and emergence of strongly modernized adversaries like Russia and China. Both causes requires that the U.S. innovate to remain dominant not only in technological progress but also in the ability to field systems more rapidly than their peer adversaries.


¿Solutions? Of course, there are not magical solutions, but the undersecretary for research and engineering, Michael Griffin, and other DoD leaders, believe that, in many ways, the Additive Manufacturing could boost the solution. They emphasize this approach in the fiscal 2019 budget request: $90 billion in R&D with increases concentrated in rapid prototyping for testing activities.


For the Pentagon, the Additive Manufacturing can serve as a foundational tool to accelerate new weapons development and provide innovative solutions to win the wars of the XXI Century. Bearing this in mind, industry partners, military operators, and members of the science and technology communities should certainly take notice: DoD leaders are increasingly placing their bets on Additive Manufacturing and they are thinking on using it not only for rapid prototyping in the early stages of development, but also for manufacturing of end-use parts.

miércoles, 12 de diciembre de 2018

Internet of nuclear things: Managing the proliferation risks of 3-D printing technology


Over the next decade, the spread and maturation of Additive Manufacturing could challenge major control mechanisms for inhibiting nuclear proliferation.

At the same time, the cyber-physical nature of this production technology creates the potential for the emergence of an Internet of Nuclear Things, which could be harnessed to increase the information visibility of dual-use activities in civil nuclear programs.

This new capability could offer unique opportunities to mitigate proliferation risks and augment traditional methods of regulating and monitoring sensitive nuclear technologies. But barriers stand in the way of leveraging an Internet of Nuclear Things –notably, political issues related to information access and integrity.

As additive manufacturing technology matures, government and industry stakeholders should adopt a strategic approach toward an evolving Internet of Nuclear Things – an approach that would include principles to encourage transparency within the Internet of Nuclear Things and ensure the integrity of the information it produces.

Read more:

Missile Defense: ¿Why should an army wait a year to get end-use parts that It could be 3D-Printed?


Defense companies are using Additive Manufacturing more often today to build parts for weapons: Aerojet Rocketdyne is using the technology to build rocket engines, Huntington Ingalls is using it to build warships and Boeing is 3D printing parts for its commercial, defense, and space products. “In particular, rapid prototyping, along with the creation of highly specific and technical parts are orders of magnitude faster and cheaper than traditional manufacturing methods,” said a recently released RAND report. 

Someday, the military will 3D-print missiles as needed, the U.S. Air Force’s acquisition chief says. In the shorter term, he just wants to use Additive Manufacturing Technology to get broken planes back in the air. The roadblock is legal, not technical: “I have airplanes right now that are waiting on parts that are taking a year and a half to deliver. A year and a half,” Will Roper, the assistant Air Force secretary for acquisition, technology and logistics, said in an interview.

The Air Force is already 3D-printing niche projects whose original suppliers no longer exist. The problem is with parts whose manufacturers are still around, but which no longer make the specific item in need. Today’s 3D-printers could make short work of those deliveries, but some of those parts’ original manufacturers control the intellectual property —and so far, the service lacks clear policy for dealing with that: “The reason I can’t say we’re going to do it is we’re talking about government contracts and IP, so I have lawyers that are helping me and other contracts folks,” Roper said. “But it’s an area I’m going to stay focused because I see a way for win-win. And that doesn’t happen often in the government.”

Missile building related companies firms up investments in Additive Manufacturing and other technologies



Missile building related companies keep investing in new types of manufacturing. Let us summarize some of those investments:

Aerojet Rocketdyne is using Additive Manufacturing to make rocket engines.

Boeing has invested in Digital Alloys, a company that is developing high-speed, multi-metal Additive Manufacturing systems to produce 3D-printed parts for aerospace and other production applications.

Raytheon has opened a $72 million, 30,000-square-foot (2,787-square-meters) facility that houses automation technology to support complex radar testing and integration.

HorizonX has invested in Morf3D, a company whose technology enables light and strong 3D-printed parts for aerospace applications.

Lockheed Martin is using Additive Manufacturing in its Gateway Center.

Navy Developing Prompt Global Strike Weapon that Could Launch from Sub or Surface Ship


The Navy has stood up a program office within its Strategic Systems Programs (SSP) to address the conventional prompt global strike mission the Pentagon has handed to the sea service, the SSP director said recently. (Read more...)

miércoles, 5 de diciembre de 2018

AMRDEC funds a project focused on Additive Manufacturing of Microdevices


"Additive-Manufacturing of 3D Glass-Ceramics down to Nanoscale Resolution" is available open-access via ResearchGate.


The paper is co-authored by Darius Gailevičius, Viktorija Padolskytė, Lina Mikoliūnaitė, Simas Šakirzanova, Saulius Juodkazis, and Mangirdas Malinauskas.


For this experiment, the researchers used two-photon lithography technology, a method of 3D Fabrication on a photonic scale. The technology employs an ultrafast pulsed femtosecond laser to precisely cure a light-reactive material, strong and potentially fluorescent or superconductive.


The project unlocks new potential in microdevice manufacturing, and has been funded by the AMRDEC (U.S. Army Aviation and Missile Research Development and Engineering Center) which is seeking to uncover applications in efficient sensing.

Application of Additive Manufacturing Technologies in Missile Manufacturing Industry: Strategy of India


Additive Manufacturing (AM), also popularly known as 3D Printing, is revolutionising the missile manufacturing landscape and presents huge challenges for a country’s defence capability and security.




lunes, 3 de diciembre de 2018

DEFCON 5


There are currently no imminent nuclear threats against the United States at this time, but let us go summarize the today-and-now status quo regarding the main actors on the main stages of a possible WW3

UNITED STATES vs RUSSIA
As the United States continues to consider withdrawing from the intermediate range nuclear weapon treaty, Russia has warned of an “efficient response” if the United States deploys intermediate-range missiles in Europe, implicity threatening any country that hosts U.S. nuclear weapons.

INDIA vs PAKISTAN and CHINA
  • India’s first domestically built nuclear-powered submarine has completed its first patrol in a signal to both Pakistan and China and now says its nuclear triad is complete.
  • China has begun construction on third aircraft carrier
IRAN
Iran has test-fired a medium range ballistic missile capable of carrying multiple warheads.

NORTH KOREA vs UNITED STATES and SOUTH KOREA
  • North Korea has threatens to restart nuclear weapons programme if U.S. does not provide sanctions relief.
  • It must be noted that North Korea has continued to expand operations at its main nuclear site and that South Korea spy agency have reported that North Korea is continuing to miniaturize nuclear warheads.
  • United States say it may resume large-scale joint military exercises with South Korea if there continues to be no tangible progress on the denuclearization of North Korea.

RUSSIA vs UKRAINE
  • Russia has attacked and captured Ukraine vessels in the Sea of Azov.
  • While Ukraine makes noises of war, no other country seems to be moving in that direction.
  • The United States has stated that the current crises is an European problem, indicating that the U.S. will not get involved.
  • Additionally, Germany has refused a request to get involved.
  • This does not mean that escalation is not possible.
  • This is highly dependent on what Russia will do and how NATO will respond


miércoles, 28 de noviembre de 2018

Large Format Additive Manufacturing to make end use parts for the USAF


A former grocery store in middle Georgia is now serving as Air Force Advanced Technology and Training Center.


The center employs now about 30 people and may eventually employ about 100. This lab is the second one like it in the Air Force. The first one is connected with Wright-Patterson Air Force Base in Dayton, Ohio.


The facility is a satellite operation of Robins Air Force Base. It officially opened Oct. 24, and involves 3D Printing, also called Additive Manufacturing, as a key technology. Previously, 3D Printing had been thought of primarily as something to make prototypes, but now the Air Force is looking at using it to make end use parts.


The inside of the brick building —a former Publix store in Warner Robins— is full of gleaming new futuristic machinery, with large and very large format 3D Printers and 3D Scanners as starrings: In words of Maj. Ben Steffens, “Much of the work that has been done on the base has been done in the same method for years and years. This equipment, this technology, this material that we are dealing with here is cutting edge and will bring us to the next level as far as keeping our schedule down, keeping our cost low.”

Northrop Grumman: Additive Manufacturing for its new LEO Warhead for Hypersonic Missiles


In late March this year at the EMPI Test Facility in Burnet, Texas, Northrop Grumman, using Internal Research and Development (IRAD) funding, demonstrated its new LEO warhead for the first time to customers competing for the DoD hypersonic weapons contracts. This new warhead development marked the first time that the company had made some of its specific warhead components -including the fragmenting inner body- using Additive Manufacturing (AM).


This 50 lb-class warhead has been designed to equip future US air-to-surface and surface-to-surface hypersonic weapons to defeat a broader range of target sets, from ground forces to light/medium vehicles and aircraft.  The new warhead leverages the company's Lethality Enhanced Ordnance (LEO) technology: a scalable fragmentation/penetration warhead solution developed by Northrop Grumman in response to a US Department of Defense (DoD) requirement that by 2019 cluster munitions containing submunitions do not result in more than 1% Unexploded Ordnance (UXO) after arming. Unlike submunitions, LEO technology uses a thinned out shell casing supplemented with an inner fragmentation layer that can be scaled according to the required target set. Northrop Grumman said that in a series of warhead tests with LEO technology achieved the army's stated requirements for area effectiveness, and left behind no UXO.

viernes, 16 de noviembre de 2018

HQ-9 vs S-300


The HQ-9 is China’s primary long-range domestic surface-to-air missile.

Outwardly, it seems similar to the S-300, using large flat face radars and a large missile that vertically launches out of a canister.

But since the Sino-Soviet split in the 1950s, China didn’t receive that much assistance in surface-to-air missile development from the Soviet Union. Is the HQ-9 just an evolution?

Naval S-300 vs Naval SM


Air defense is one of the most critical features of a modern warship: Planes represent some of the most lethal threats to a ship with modern anti-ship missiles and other guided munitions.

However, ships are some of the most ideal platforms to mount anti-aircraft missiles on, having a lot of power readily available and not being restricted by the same weight and mobility restrictions ground systems have.

The U.S. Navy has the capability to engage aircrafts with the SM-2 Block IV, which has a listed range of 240 km. This missile entered service in 2004, following a lengthy development process for the Mk 72 thrust vectoring booster that gave it a massive boost in range.

Russian ships only reached parity with this capability in 2015, when a version of the 48N6DM missile (adapted from the S-400) was integrated onto the Admiral Nakhimov, which could reach out to 250 km.

S-300 vs B-21



A new generation of stealth technology is being pursued with a sense of urgency, in light of rapid global modernization of new Russian and Chinese-built air defense technologies; advances in computer processing, digital networking technology and targeting systems now enable air defenses to detect even stealth aircraft with much greater effectiveness.

viernes, 8 de junio de 2018

Additive Manufacturing for Hypersonic Missile Warheads


Designing a warhead for high velocities is dramatically different than designing a normal warhead, as it needs to be shaped differently to ensure the fragmentation occurs as intended against the target.


Using decades of experience in developing and fielding advanced warheads, Orbital ATK has designed, built and validated a new missile warhead for hypersonic speeds in less than 60 days.


In words of Pat Nolan -Vice President and General Manager of Missile Products at Orbital ATK- “Successfully completing an R&D program in less than 60 days does not happen by accident. There are very few companies that can offer a similar combination of technical expertise and schedule responsiveness, and our deep heritage in high speed systems as well as warheads, fuzes and rocket motors, enables our team to develop innovative technologies that will ultimately help the warfighter be ready for challenges on the battlefield and able to execute their missions reliably, precisely and safely.”


Orbital ATK is a global leader in aerospace and defense technologies. The company designs, builds and delivers space, defense and aviation systems for customers around the world, both as a prime contractor and merchant supplier.

Its main products include:
  • Advanced aerospace structures
  • Launch vehicles and related propulsion systems
  • Missile products, subsystems and defense electronics
  • Precision weapons, armament systems and ammunition
  • Satellites and associated space components and services

Headquartered in Dulles, Virginia, Orbital ATK employs approximately 14,000 people across the U.S. and in several international locations. 


jueves, 7 de junio de 2018

Masten Space Systems Selected for NASA SBIR Phase 1 Award


Masten Space Systems of Mojave will pursue a project designed to better use Additive Manufacturing (AM) in the production of rocket engines with the help of NASA funding.

Additive Manufacturing: ¿A Disruptive Threat?



Nowadays, policymakers on arms control are very worried that a technology used to make jewelry could also be used to make parts for a rocket engine, or any other stuff that goes into missiles.


Such capabilities might be attractive to terrorists, helping nonstate actors develop small missiles previously exclusive of advanced states.

Additive Manufacturing with SiOC, key for hypersonic missiles


Scientists at the Aerospace Systems Directorate (ASD) searching for new thermocouple radiation shields, are very interested in the Silicon OxyCarbide (SiOC) because of its potential for building missiles capable to flight at continuous hypersonic speed.


Specifically, the refractory qualities of the SiOC, its ability to maintain strength and form at high temperatures, and the geometric complexity offered by Additive Manufacturing have a wide range of Air Force applications. This is the reason why nowadays, the ASD is researching into applications for the 3D printed SiOC under a Collaborative Research and DevelopmentMaterial Transfer Agreement (CRADA-MTA) between the U.S. Air Force Research Laboratory (AFRL) Aerospace Systems Directorate and HRL Laboratories, a research center owned by Boeing and  General Motors Corporation.

AM-fueled missile proliferation: ¿How to address this threat?


Current exports-control regulations are not prepared to stop Additive Manufacturing (AM) from fueling arms proliferation in the near future: Their spectrum only captures a fraction of the critical equipment and digital data needed to manufacture arms with an AM console, because dual use goods, which they are, generally escape stricter export-controls. 


AM allows creating complex single-pieced shapes that cannot be achieved with subtractive methods, thus limiting the number of needed fixations and with it, the risk of failure. But their most critical feature in this case is that most AM technologies require only a digital model of the desired object, a “build-file” in the form of electronic data, in order to manufacture it almost instantly.


This means that, in theory, the owner of an AM console can manufacture virtually any object, including weapons and other “products that are subject to dual-use and arms exports control”, provided he owns the necessary build-files. And the problem is these build-files are of course extremely easy to transfer by electronic means, like e-mail or FTP for example. This is why AM poses such a challenge to existing exports-control regimes, because it has the potential to enable export control circumvention and contribute to illicit weapon programs.


Initiatives are definitely building up and SIPRI (Stockholm International Peace Research Institute) researchers strongly suggest to start by amending export control regimes so that they can include AM consoles and the equipment they require, especially laser beams and feedstock materials. Pointing out some obvious flaws in existing exports-control regimes, the SIPRI researchers find that when it comes to controlling transfers of missile production equipment, for example, the international Missile Technology Control Regime (MTCR) only limits sales of equipment whose exclusive function is to produce missile systems. Dual-use equipment, such as AM consoles, do not fall under this regulation. Identical issues also affect the transfer of the raw-materials used by the machines. However, the researchers also notice that the overall literature surrounding export controls is progressively opening to the inclusion of dual-use goods in their spectrum to address AM-fueled missile proliferation.

sábado, 26 de mayo de 2018

Orbital ATK, ready to provide the GBSD program


As designs for the next generation ICBM are being matured, Orbital ATK’s experience has resulted in smart commonality, commercial practices, and shared facilities and workforce.


The company has honed numerous capabilities that can reduce risk and shorten development timelines for GBSD. As an experienced flight system/launch vehicle provider, the company has integrated and launched flight systems at sites around the world, and advanced, common avionics have flown on more than 100 missions with 100 percent success.


Including strategic missile targets and interceptors, Orbital ATK has developed, on average, two new flight systems each year for the past 20 years. In addition, Orbital ATK has significant experience building flight-proven composite structures like shrouds, interstages and motor cases. The company has also developed nuclear hardness and survivability protection for its structures, which will help ensure the success of GBSD.


Orbital ATK has modern, automated facilities ready to support GBSD development and production. The company currently utilizes Additive Manufacturing, virtual reality and model-based systems engineering to design and build state-of-the-art rocket motors. In 2017, Orbital ATK’s solid rocket motors achieved 100-percent success on 16 flights and 11 static fires for a total of 64 motors fired.


Orbital ATK has played a key role on every Intercontinental Ballistic Missile (ICBM) program for more than five decades. Since the Minuteman I was first fielded in 1962, Orbital ATK, along with its legacy companies, has provided motor stages and refurbishment services for the program. Today, Minuteman III continues to play an integral role in our nation’s defense, but is preparing to be replaced by the next generation ICBM program: Ground Based Strategic Deterrent (GBSD).


The Minuteman III weapon system is projected to be in service through 2030, and sustainment activities like those Orbital ATK is now performing on a Propulsion Subsystem Support Contract for the U.S. Air Force Nuclear Weapons Center, Intercontinental Ballistic Missile Systems Directorate at Hill Air Force Base, will ensure operational readiness through that time. Once Minuteman III is retired, the Air Force’s GBSD program will take over: “The Orbital ATK team is dedicated to helping the Air Force with a smooth transition to the GBSD system,” said Charlie Precourt, Vice President and General Manager of Orbital ATK’s Propulsion Systems Division. “Minuteman III sustainment is a vital element of our nation’s defense and the Air Force is partnered with Orbital ATK to ensure that Minuteman remains safe, capable, reliable and responsive while beginning development of GBSD."


With a long history of ICBM experience, proven expertise in flight systems and components, and the ability to share facilities and experienced workforce across programs to keep costs down, Orbital ATK is ready to provide the GBSD program with outstanding solutions throughout its lifecycle.

Nuclear Posture Review against Russia: US faces tough decisions


This year, as part of a strong and confrontational Nuclear Posture Review against Russia and others, President Donald Trump requested new low-yield nuclear weapons—variants of the W76 nuclear warhead on Trident II missiles aboard America’s nuclear submarines and new sea-launched nuclear cruise missiles.

Low-yield nuclear weapons are relatively small to today’s standard, but are about the size of the bombs dropped on Hiroshima and Nagasaki, which killed about 120,000 people.

viernes, 11 de mayo de 2018

Misiles en ADDIT3D


El próximo 29 de Mayo tendrá lugar una conferencia sobre "Fabricación Aditiva para el Desarrollo de Misiles" en la feria ADDIT3D.

La conferencia será pronunciada por David del Fresno, de la empresa Integral 3D Printing Iberia (Pabellón 4, Stand 4B45)

Más información:

jueves, 19 de abril de 2018

Boeing and Rolls-Royce invest $37,6 in Reaction Engines Limited


Boeing and Rolls-Royce have invested £26.5 million (approx. $37.6 million) in Reaction Engines Limited, a UK-based aerospace company working on the 3D printing enabled SABRE engine, capable of Mach 25.

Reaction Engines Chief Executive Mark Thomas comments, “In addition to providing our largest round of private investment, these new partners bring invaluable expertise in both hypersonics and engine technologies with significant access to target markets,”

Reaction Engines was formed in 1989 “to design and develop the technologies needed for a new class of innovative hypersonic propulsion system,” i.e. the SABRE.  Steve Nordlund, Vice President of Boeing investment arm HorizonX comments, “We continue to connect capabilities around the globe with our investment in Reaction Engines, which is our first in a UK-based company. We expect to leverage their revolutionary technology to support Boeing's pursuit of hypersonic flight.”

The SABRE is a hybrid engine capable of flying at both low and high altitudes, using hydrogen/oxygen mixing (low altitude), or stored Liquid OXygen (LOX) when launched into space. With the latest fund from Boeing and Rolls-Royce, Reaction Engines has raised over £100 million ($142 million) in the past three years.