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Category: sustainability – Page 18

“A good ratio of oxygen to methane is key to combustion,” said Justin Long.

Can methane flare burners be advanced to produce less methane? This is what a recent study published in Industrial & Engineering Chemistry Research hopes to address as a team of researchers from the University of Michigan (U-M) and the Southwest Research Institute (SwRI) developed a methane flare burner with increased combustion stability and efficiency compared to traditional methane flare burners. This study has the potential to develop more environmentally friendly burners to combat human-caused climate change, specifically since methane is a far larger contributor to climate change than carbon dioxide.

For the study, the researchers used a combination of machine learning and novel manufacturing methods to test several designs of a methane flare burner that incorporates crosswinds to simulate real-world environments. The burner design includes splitting the methane flow in three directions while enabling oxygen flow from crosswinds to mix with the methane, enabling a much cleaner combustion. In the end, the researchers found that their design achieves 98 percent combustion efficiency, meaning it produces 98 percent less methane than traditional burners.

“A good ratio of oxygen to methane is key to combustion,” said Justin Long, who is a Senior Research Engineer at SwRI. “The surrounding air needs to be captured and incorporated to mix with the methane, but too much can dilute it. U-M researchers conducted a lot of computational fluid dynamics work to find a design with an optimal air-methane balance, even when subjected to high-crosswind conditions.”

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“The pattern we found is so reproducible that we were able to make an accurate prediction of when each interglacial period of the past million years or so would occur and how long each would last,” said Dr. Stephen Barker.

Earth has experienced several climate cycles throughout its long history, including several ice ages that caused the planet to freeze over. The last ice age occurred approximately 11,700 years ago, but when could the next one occur? This is what a recent study published in Science hopes to address as an international team of researchers investigated specific characteristics that could help predict Earth’s next ice age. This study has the potential to help researchers, climate scientists, and the public better understand Earth’s climate history and how climate change could alter this history.

For the study, the researchers analyzed Earth’s climate history over the last one million years and compared this data to changes in Earth’s axial tilt, the axial tilt’s wobble (also called precession), and changes in Earth’s orbit around the Sun. The goal of the study was to connect these planetary parameters to past ice ages, also called glacial periods, while also attempting to predict future ice ages without human-caused climate change.

In the end, the researchers not only discovered when every ice age occurred over the past 900,000 years, but they predict the Earth will have approximately 10,000 years until the next ice age, noting we are currently in an interglacial period known as the Holocene.

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Renewable energy in Japan will receive a seismic shift via perovskite solar cells, the latest development that would change the way solar energy is viewed. Lightweight, flexible, and adaptable, these solar cells will provide a more viable means to producing energy within a city, responding to shortages of land and sustainable issues. Let’s see how Japan is benefiting from the PSC technology to bring about a green future.

Japan is currently utilizing its competitive advantages to lead the rest of the world into the new renewable energy age. Under its revised energy plan, the Ministry of Industry now prioritizes PSCs on Section 0 of its plan wherein Japan aims to develop PSC sections generating 20 gigawatts of electricity equivalent to 20 nuclear reactors by fiscal 2040.

The strategy was designed to be closely aligned with the country’s commitment to net-zero emissions by 2050. At the center of this strategy is Japan’s position as the second-largest iodine producer in the world, a necessary ingredient in the manufacturing of perovskite solar cells.

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Inland waters consist of multiple concentrations of constituents, and solving the interference problem of chlorophyll-a and colored dissolved organic matter (CDOM) can help to accurately invert total suspended matter concentration (Ctsm). In this study, according to the characteristics of the Multispectral Imager for Inshore (MII) equipped with the first Sustainable Development Goals Science Satellite (SDGSAT-1), an iterative inversion model was established based on the iterative analysis of multiple linear regression to estimate Ctsm. The Hydrolight radiative transfer model was used to simulate the radiative transfer process of Lake Taihu, and it analyzed the effect of three component concentrations on remote sensing reflectance.

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This is automating labor in an entirely new way.

Chinese robotics company UBTech has received over 500 orders for its new industrial humanoid robot, the Walker S1.

The Walker S1, officially launched this week, is already operating in factories, including those of BYD, the world’s largest electric vehicle manufacturer. This robot works alongside unmanned logistic vehicles and smart manufacturing systems, making it one of the first in the world to automate large-scale operations to this extent.

China’s manufacturing sector has faced a growing labor shortage, with a projected gap of 30 million workers by 2025. UBTech aims to reduce human labor in automated factories from 30% to 10% by using robots like the Walker S1, focusing human efforts on high-level tasks such as tool management and collaboration. “The idea is to replace around 20% of the workload with humanoid robots,” said UBTech’s chief brand officer Tan Min, highlighting the need for automation as vocational training programs struggle to meet the demand for skilled workers, while younger graduates increasingly avoid blue-collar jobs.

S partnerships with industry giants like BYD, FAW-Volkswagen, and Foxconn highlight the robot’s broad applications in manufacturing, logistics, and electronics. As labor shortages and safety concerns grow, UBTech’s innovative humanoid robots offer a glimpse into the future of automated factories, promising to transform not only automotive production but also other sectors through large-scale automation. ” + learn more https://www.ubtrobot.com/en/humanoid/products/WalkerS1

Image: UBTech

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A Shenzhen-based humanoid robot maker said it has deployed “dozens of robots” in an electric vehicle (EV) factory where they work together on complicated tasks, offering a peek into the future of Made-in-China tech as artificial intelligence (AI) and robotics technologies are applied to empower manufacturing.

Hong Kong-listed UBTech Robotics said on Monday that it has completed a test to deploy dozens of its Walker S1 robots in the Zeekr EV factory in the Chinese port city of Ningbo for “multitask” and “multi site” operations.

According to photos and videos provided by UBTech, the human-shaped robots work as a team to complete tasks such as lifting heavy boxes and handling soft materials.

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In a bold move towards a sustainable future, Helsinki, Finland’s capital, has installed the world’s largest heat pump, a groundbreaking piece of technology that has the capacity to power 30,000 homes. This ambitious project is a significant step in the fight against climate change, utilizing renewable energy sources to provide a reliable and efficient heating system even in the coldest of winters. In this article, we’ll explore how this technological marvel works, its environmental impact, and the potential it has to change energy production on a global scale.

Helsinki’s heat pump represents a major breakthrough in energy technology. The system works by transferring heat from a colder environment to a warmer one, ensuring maximum energy efficiency. One of the most impressive features of this heat pump is its use of carbon dioxide as a refrigerant, which allows the pump to generate heat at temperatures of up to 90°C.

A standout innovation is the oil-free compressor, a key component that ensures the system operates efficiently while minimizing its environmental footprint. This marks the first time such a system has been implemented on this scale, reinforcing Finland’s commitment to adopting sustainable solutions for energy production. By using renewable energy sources like wind and solar power, this heat pump reduces the need for fossil fuels and helps Finland move towards a more sustainable energy future.

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Aramid fibers like Kevlar and Twaron are incredibly strong but notoriously difficult to recycle — until now.

Researchers have pioneered a microwave-assisted chemical process that efficiently breaks down aramid polymers without the need for harsh solvents. Unlike traditional methods that are slow and require extreme conditions, this technique achieves a 96% conversion in just 15 minutes.

Revolutionizing Aramid Recycling

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Welcome to the age of wireless electricity.

Nikola Tesla once envisioned a world where electricity could be transmitted wirelessly, eliminating the need for wires and revolutionizing energy distribution.

Over a century later, that dream is on the brink of becoming reality.

Companies worldwide, from America’s Wave Inc. to Japan’s Space Power Technologies and New Zealand’s Emrod, are pioneering wireless power transmission technologies. These innovations range from microwave and laser-based energy transfer to solar satellites that beam electricity from space. New Zealand is already testing Emrod’s wireless energy infrastructure, which could provide clean, sustainable power across difficult terrains. Meanwhile, advancements like wireless EV charging roads and underground charging systems are making the technology more practical than ever.

As promising as wireless electricity sounds, challenges remain—chief among them, public skepticism and efficiency concerns.

Despite this, major institutions like Caltech and Purdue University are pushing forward, with projects aimed at developing large-scale wireless power solutions. Whether through inductive charging for electric vehicles, space-based solar power, or rectenna-driven energy grids, the world is inching closer to Tesla’s vision. If successful, wireless electricity could revolutionize industries, eliminate the limitations of traditional power grids, and usher in a new era of energy sustainability.

The future of power might just be as simple as turning on a switch—without plugging in.

Continue reading “Center for Energy Systems Research” | >

Researchers have developed a battery capable of converting nuclear energy into electricity through light emission, according to a new study.

Nuclear power plants generate about 20% of the electricity in the United States and produce minimal greenhouse gas emissions. However, they also generate radioactive waste, which poses risks to human health and the environment, making safe disposal a significant challenge.

To address this, a team led by researchers from The Ohio State University designed a system that harnesses ambient gamma radiation to generate electricity. By combining scintillator crystals—high-density materials that emit light when exposed to radiation—with solar cells, they successfully converted nuclear energy into an electric output powerful enough to run microelectronics, such as microchips.

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