From the article

>As NASA takes its first steps toward establishing a long-term presence on the Moon’s surface, a team of propulsion development engineers at NASA have developed and tested NASA’s first full-scale rotating detonation rocket engine, or RDRE, an advanced rocket engine design that could significantly change how future propulsion systems are built.

Also from the article

>The RDRE achieved its primary test objective by demonstrating that its hardware – made from novel additive manufacturing, or 3D printing, designs and processes – could operate for long durations while withstanding the extreme heat and pressure environments generated by detonations. While operating at full throttle, the RDRE produced over 4,000 pounds of thrust for nearly a minute at an average chamber pressure of 622 pounds per square inch, the highest pressure rating for this design on record.

From the article

>NASA and the Defense Advanced Research Projects Agency (DARPA) announced Tuesday a collaboration to demonstrate a nuclear thermal rocket engine in space, an enabling capability for NASA crewed missions to Mars.
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>NASA and DARPA will partner on the Demonstration Rocket for Agile Cislunar Operations, or DRACO, program. The non-reimbursable agreement designed to benefit both agencies, outlines roles, responsibilities, and processes aimed at speeding up development efforts.
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>“NASA will work with our long-term partner, DARPA, to develop and demonstrate advanced nuclear thermal propulsion technology as soon as 2027. With the help of this new technology, astronauts could journey to and from deep space faster than ever – a major capability to prepare for crewed missions to Mars,” said NASA Administrator Bill Nelson. “Congratulations to both NASA and DARPA on this exciting investment, as we ignite the future, together.”
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>Using a nuclear thermal rocket allows for faster transit time, reducing risk for astronauts. Reducing transit time is a key component for human missions to Mars, as longer trips require more supplies and more robust systems. Maturing faster, more efficient transportation technology will help NASA meet its Moon to Mars Objectives.

From the Article

>The European Space Agency (Esa) project team behind Juice held a major review this week and concluded the mission was "go for launch".
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>Aerospace company Airbus has spearheaded the construction of the €1.6bn (£1.4bn; $1.7bn) JUpiter ICy moons Explorer.
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>The manufacturer has pulled in expertise and components from all across the continent.

From the Article

>While commercial quantum computers are still some years away, public and private entities around the world are already investing heavily in the race for a quantum advantage. ​​As of January 2021, 17 countries have a national initiative or strategy to support quantum technology research and development; 3 have strategies under development while 12 other countries have significant government-funded or -endorsed initiatives. But more than 150 countries do not yet have a quantum strategy.

Also from the article

>Disparities in access to existing technologies have already created a digital divide: 2.9 billion people are still offline and do not benefit from the digital economy. Unequal access to quantum technology has negative geopolitical implications, putting those countries whose quantum programs are less developed in danger of falling further behind.

From the article

>Boston Dynamics never disappoints when it releases a video showing new capabilities for its robots. And it just released a video, “Atlas Gets a Grip,” in which the humanoid performs a slew of new moves at a simulated construction site.
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>A “construction worker” atop a scaffold conveniently forgot some tools down on the ground. Instead of hopping down to get the tools himself, Atlas brings the tools to him. And this is where the magic happens.
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>Atlas, using a claw gripper, picks up and manipulates a wooden plank to create a bridge for itself onto the scaffold. It then picks up a toolbag, runs onto the scaffold, spins around and throws the toolbag up to the construction worker. Atlas then pushes a wooden box off the scaffold and flips and twists its way to the ground.

>From the paper
>
>While it is fairly widely known that information about
>
>quantum states can be transported to remote locations [1–4], it is less well known that quantum state energy can be similarly transmitted, despite its impact
>
>and potential for future applications. Quantum information transferred by quantum teleportation is not a physical quantity, but energy is a distinct physical quantity. Transferring physical quantities to remote locations is an
>
>unexplored area of technology. Quantum Energy Teleportation (QET) was proposed by Hotta about 15 years ago and has been studied theoretically for spin chains [5– 7], an ion trap system [8], a quantum Hall system [9], and
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>other various theoretical systems [10, 11]. It is surprising
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>that (to the best of knowledge of the author) QET has
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>never been confirmed by any experiment on any system
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>before, even though it can be achieved with a very simple
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>quantum system. The purpose of this paper is to make
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>the first experimental realization of QET in actual quantum hardware and to establish the quantum circuits that
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>make it possible. We achieved the realization of QET using some IBM quantum computers by applying quantum
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>error mitigation [12–14]. The methods we have established can be applied to any system capable of QET.
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>In what follows, we explain that QET is a universal
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>means of quantum energy transfer, just as quantum teleportation is a universal means of quantum information
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>transfer.

That statement right there u/LiCHtsLiCH is the linchpin. in which they're not talking about the transfer of quantum information as you stated is common but of quantum energy based on the first two paragraphs on the paper is a physical element.

Here's the paper that u/vwb2022 is referring to

From the article

>The first experimental demonstration of quantum energy teleportation on real quantum hardware has been observed, according to new research that also cites observations of negative energy.
>
>Kazuki Ikeda, a researcher with the Department of Physics and Astronomy at Stony Brook University, New York, says that the breakthrough was achieved with the help of a series of IBM superconducting quantum computers.

Also in the article

>“The methods we have established can be applied to any system capable of [quantum energy transfer]”, Ikeda writes, adding that such methods of energy teleportation can be applied universally, “just as quantum teleportation is a universal means of quantum information transfer.”
>
>In addition to the successful transfer of energy observed in real quantum hardware, Ikeda also reports the observation of negative energy, which he calls the “most significant achievement in this study”, given its potential applications in the study of gravitational field and quantum field phenomena.

From the Article

>The energy world is at the dawn of a new industrial age – the age of clean energy technology manufacturing – that is creating major new markets and millions of jobs but also raising new risks, prompting countries across the globe to devise industrial strategies to secure their place in the new global energy economy, according to a major new IEA report.
>
>Energy Technology Perspectives 2023, the latest instalment in one of the IEA’s flagship series, serves as the world’s first global guidebook for the clean technology industries of the future. It provides a comprehensive analysis of global manufacturing of clean energy technologies today – such as solar panels, wind turbines, EV batteries, electrolysers for hydrogen and heat pumps – and their supply chains around the world, as well as mapping out how they are likely to evolve as the clean energy transition advances in the years ahead.