#carbon composites

[like-the-cut-of-your-jib]

I’ve been following this trend for A VERY LONG TIME…

I know EXACTLY in the world where I would fly one of these. 🤞

[rockmanac]

Unlocking The Power of Carbon Composite: Better Products and More Facility To End-Users

Unlocking the power of carbon composites

Design flexibility, lightweight, high strength-to-weight ratio, stiffness, and several such features make carbon composites a boon to modern manufacturing.

Application in aerospace

The lightweight and design flexibility of carbon composites make aircraft and space shuttle more fuel-efficient and more enduring to extremely high air friction. Advanced composites have several applications from the cockpit to the tail of an aircraft.

Applications in automotive

Strong and durable advanced composites enhance vehicle safety, make the vehicles more stylish, and offer better fuel economy. Advanced composites are used in making several components and parts for EVs.

Medical devices

Carbon composites offer lightweight and biocompatible solutions for prosthetics and different types of biomedical devices.

Maritime applications

Advanced composites make boats and yachts lightweight and smooth sailing. Design flexibility enables advanced aerodynamical structures.

Other applications

There is no end to the applications of carbon composites. Ships building, submarine building, railway, renewable energy sectors, and sports equipment sectors use carbon composites for better quality products.

For more information visit: https://rockman.com

[materialsscienceandengineering]

New method successfully recycles carbon fiber composite into reusable materials

USC researchers have developed a new process to upcycle the composite materials appearing in automobile panels and light rail vehicles, addressing a current environmental challenge in the transportation and energy sectors. The study recently appeared in the Journal of the American Chemical Society. "I wasn't sure if it was possible to fully recycle composite materials," said Travis Williams, professor of chemistry at the USC Dornsife College of Letters, Arts and Sciences. "As wonderful as these materials are for making energy-efficient vehicles, the problem with composites is we don't have a practical route to recycle them, so the materials end up in landfills." The chemistry demonstrated in the study, a partnership among Williams and professors Steven Nutt of the M.C. Gill Composites Center at the USC Viterbi School of Engineering, Clay C.C. Wang of the USC Alfred E. Mann School of Pharmacy and Pharmaceutical Sciences and Berl Oakley of the University of Kansas, is a new approach that shows that composite materials can be recovered and recycled in a manner that preserves the integrity of the materials.

Read more.

[sudden-stops-kill]

f-150

[pudgy-planets]

Genius idea-

So I’ve always envisioned Pearl potentially having an incident where she’s split into the two major halves of her personality.

The more reserved, albeit competitive gymnast side and her upfront, temperamental side that stems from her tenacity.

Carbonara.

Calcshey

[rhysintherain]

Well, in the absence of anything specific that I can throw together in one day for Halloween, I might just wear all my most fantasy-adventurer wardrobe items tomorrow, braid my hair, and be the most generic DnD ranger ever.

Which, if I'm being entirely honest, is not that far off from my usual look. But on the bright side, I have a handy animal companion ready to go, so that's something.

[mescalinartofnoiseblog]

The strange beauty of water

“Water is the main constituent of the human body. The average amount of water contained in an adult organism is 65%, which corresponds to approximately 45 liters of water for a person weighing 70 kilograms“

We are some water (blood and other fluids), carbon, zinc, steel, gas, atoms, electricity, calcium for the plant branch of our skeleton, and, maybe, a soul.

Fuji XT20

[jcmarchi]

Mars’ missing atmosphere could be hiding in plain sight

New Post has been published on https://thedigitalinsider.com/mars-missing-atmosphere-could-be-hiding-in-plain-sight/

Mars’ missing atmosphere could be hiding in plain sight

Mars wasn’t always the cold desert we see today. There’s increasing evidence that water once flowed on the Red Planet’s surface, billions of years ago. And if there was water, there must also have been a thick atmosphere to keep that water from freezing. But sometime around 3.5 billion years ago, the water dried up, and the air, once heavy with carbon dioxide, dramatically thinned, leaving only the wisp of an atmosphere that clings to the planet today.

Where exactly did Mars’ atmosphere go? This question has been a central mystery of Mars’ 4.6-billion-year history.

For two MIT geologists, the answer may lie in the planet’s clay. In a paper appearing today in Science Advances, they propose that much of Mars’ missing atmosphere could be locked up in the planet’s clay-covered crust.

The team makes the case that, while water was present on Mars, the liquid could have trickled through certain rock types and set off a slow chain of reactions that progressively drew carbon dioxide out of the atmosphere and converted it into methane — a form of carbon that could be stored for eons in the planet’s clay surface.

Similar processes occur in some regions on Earth. The researchers used their knowledge of interactions between rocks and gases on Earth and applied that to how similar processes could play out on Mars. They found that, given how much clay is estimated to cover Mars’ surface, the planet’s clay could hold up to 1.7 bar of carbon dioxide, which would be equivalent to around 80 percent of the planet’s initial, early atmosphere.

It’s possible that this sequestered Martian carbon could one day be recovered and converted into propellant to fuel future missions between Mars and Earth, the researchers propose.

“Based on our findings on Earth, we show that similar processes likely operated on Mars, and that copious amounts of atmospheric CO2 could have transformed to methane and been sequestered in clays,” says study author Oliver Jagoutz, professor of geology in MIT’s Department of Earth, Atmospheric and Planetary Sciences (EAPS). “This methane could still be present and maybe even used as an energy source on Mars in the future.”

The study’s lead author is recent EAPS graduate Joshua Murray PhD ’24.

In the folds

Jagoutz’ group at MIT seeks to identify the geologic processes and interactions that drive the evolution of Earth’s lithosphere — the hard and brittle outer layer that includes the crust and upper mantle, where tectonic plates lie.

In 2023, he and Murray focused on a type of surface clay mineral called smectite, which is known to be a highly effective trap for carbon. Within a single grain of smectite are a multitude of folds, within which carbon can sit undisturbed for billions of years. They showed that smectite on Earth was likely a product of tectonic activity, and that, once exposed at the surface, the clay minerals acted to draw down and store enough carbon dioxide from the atmosphere to cool the planet over millions of years.

Soon after the team reported their results, Jagoutz happened to look at a map of the surface of Mars and realized that much of that planet’s surface was covered in the same smectite clays. Could the clays have had a similar carbon-trapping effect on Mars, and if so, how much carbon could the clays hold?

“We know this process happens, and it is well-documented on Earth. And these rocks and clays exist on Mars,” Jagoutz says. “So, we wanted to try and connect the dots.”

“Every nook and cranny”

Unlike on Earth, where smectite is a consequence of continental plates shifting and uplifting to bring rocks from the mantle to the surface, there is no such tectonic activity on Mars. The team looked for ways in which the clays could have formed on Mars, based on what scientists know of the planet’s history and composition.

For instance, some remote measurements of Mars’ surface suggest that at least part of the planet’s crust contains ultramafic igneous rocks, similar to those that produce smectites through weathering on Earth. Other observations reveal geologic patterns similar to terrestrial rivers and tributaries, where water could have flowed and reacted with the underlying rock.

Jagoutz and Murray wondered whether water could have reacted with Mars’ deep ultramafic rocks in a way that would produce the clays that cover the surface today. They developed a simple model of rock chemistry, based on what is known of how igneous rocks interact with their environment on Earth.

They applied this model to Mars, where scientists believe the crust is mostly made up of igneous rock that is rich in the mineral olivine. The team used the model to estimate the changes that olivine-rich rock might undergo, assuming that water existed on the surface for at least a billion years, and the atmosphere was thick with carbon dioxide.

“At this time in Mars’ history, we think CO2 is everywhere, in every nook and cranny, and water percolating through the rocks is full of CO2 too,” Murray says.

Over about a billion years, water trickling through the crust would have slowly reacted with olivine — a mineral that is rich in a reduced form of iron. Oxygen molecules in water would have bound to the iron, releasing hydrogen as a result and forming the red oxidized iron which gives the planet its iconic color. This free hydrogen would then have combined with carbon dioxide in the water, to form methane. As this reaction progressed over time, olivine would have slowly transformed into another type of iron-rich rock known as serpentine, which then continued to react with water to form smectite.

“These smectite clays have so much capacity to store carbon,” Murray says. “So then we used existing knowledge of how these minerals are stored in clays on Earth, and extrapolate to say, if the Martian surface has this much clay in it, how much methane can you store in those clays?”

He and Jagoutz found that if Mars is covered in a layer of smectite that is 1,100 meters deep, this amount of clay could store a huge amount of methane, equivalent to most of the carbon dioxide in the atmosphere that is thought to have disappeared since the planet dried up.

“We find that estimates of global clay volumes on Mars are consistent with a significant fraction of Mars’ initial CO2 being sequestered as organic compounds within the clay-rich crust,” Murray says. “In some ways, Mars’ missing atmosphere could be hiding in plain sight.”

“Where the CO2 went from an early, thicker atmosphere is a fundamental question in the history of the Mars atmosphere, its climate, and the habitability by microbes,” says Bruce Jakosky, professor emeritus of geology at the University of Colorado and principal investigator on the Mars Atmosphere and Volatile Evolution (MAVEN) mission, which has been orbiting and studying Mars’ upper atmosphere since 2014. Jakosky was not involved with the current study. “Murray and Jagoutz examine the chemical interaction of rocks with the atmosphere as a means of removing CO2. At the high end of our estimates of how much weathering has occurred, this could be a major process in removing CO2 from Mars’ early atmosphere.”

This work was supported, in part, by the National Science Foundation.

[obeetlebeetle]

mm ok for necromancy to work a planet must be dead. john killed the planets and when he 'resurrected' that scrap of humankind, he sent them to 'live' on those dead planets, he set them up to perform death magics by the dozen so that he could learn from their mistakes. and then he made of them an army, sent that army across the galaxy to kill more planets so that there could be more places for the necros to 'live'. he has control over the river. he can summon it. more and more evidence points, in fact, to his tampering with it -- choking it with souls until they decay, fall like whales into stoma mouths, never crossing which seems to have been some original intention. christian theology amiright? and boe calls necros zombies and are they wrong? really, are they? my point being: were they ever really alive? when harrow goes to hell she lies waiting inside the tomb of alecto's body. we already doubt every aspect of the story that john presents us with. doesnt it seem likely that rather than all that resurrection, he instead found a way to blur the physical and metaphysical realities? the houses are/in hell.

[potsticker1234]

I spent like way too many hours on this class project making a pickguard for my bass out of carbon fiber

I made a before and after tiktok

[mrsmyths-automobilia-1984]

Pagani Utopia

[nnctales]

Types of Fillers in Construction

Introduction Fillers play a pivotal role in construction, providing stability, strength, and insulation. Their selection is critical, affecting the cost, durability, and environmental impact of a project. This article delves into the various types of fillers utilized in the construction industry. 1. Natural Fillers Natural fillers like sand, gravel, and stone are ubiquitous in construction due to…

[rockmanac]

Current trends in advanced composite solutions Composite parts offer various benefits over traditional materials like metal, glass, and plastic. They are more durable, stronger, lightweight, less expensive, more sustainable, and easily convertible to different shapes. For more information please visit our page https://rockmanac.com/about/and get in touch with us at https://www.linkedin.com/company/rockmanac

[materialsscienceandengineering]

Modeling system could enable future generations of self-sensing materials

Research that eliminates the guesswork in developing advanced 3D printed materials could help accelerate the development of new forms of "self-sensing" airplanes, robots, bridges and more. A team of engineers led by researchers from the University of Glasgow have developed the first system capable of modeling the complex physics of 3D-printed composites capable of detecting strain, load, and damage using nothing more than a measure of electrical current. By allowing material scientists to predict in advance for the first time how new structures can be fine-tuned to produce specific combinations of strength, stiffness, and self-sensing properties, it could help catalyze the development of revolutionary new applications for the technology.

Read more.

[osmiumpenguin]

I just looked up the law, and it seems to define "weather modification" so loosely—

any activity performed with the intention of producing artificial changes in the composition, behaviour, or dynamics of the atmosphere

—that it covers intentionally creating a systematic pattern of pressure waves in the air around you, also known as "speaking," which most assuredly is an artificial change in the dynamics of the atmosphere.

Mulder. Please tell me what part of the american legal code covers this.

[metalloyinternational]

The Comprehensive Guide to ASTM A333 Grade 6 Steel Pipe and Its Applications

Metalloy International is a leading supplier and exporter of ASTM A333 Grade 6 Steel Pipe for low-temperature services. Known for its durability and high tensile strength, ASTM A333 Grade 6 Pipe is widely used in industries such as oil, gas, and power generation. If you’re in search of quality ASME SA 333 Grade 6 Pipes Supplier & Exporter in UAE, our team at Metalloy International ensures that you receive products that exceed industry standards and perform exceptionally under low-temperature conditions.

What is ASTM A333 Grade 6 Steel Pipe?

The ASTM A333 Grade 6 Seamless Pipe is specifically designed for low-temperature applications, ensuring a stable and reliable performance even in extreme conditions. The SA333 Gr6 Pipe Specification highlights that it is a Carbon Steel ASTM A333 ERW Pipe with enhanced strength, perfect for handling high-pressure and low-temperature applications. As a prominent **ASME SA333 Grade 6 Round Pipe Supplier**, Metalloy International supplies pipes that meet stringent quality and safety standards.

Key Features of ASTM A333 Grade 6 Pipes

1. High Tensile Strength – A333 CS Gr 6 Seamless Pipe* is known for its high strength, making it ideal for structural applications.

2. *Excellent Weldability– The *A333 Carbon Steel Gr 6 Seamless Pipe offers excellent weldability, simplifying installation and repairs.

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Applications of ASTM A333 Grade 6 Steel Pipe

These pipes are crucial for industries that need to maintain structural integrity under low temperatures. Some of the applications include:

- Oil and Gas Pipelines

- Power Plants

- Petrochemical Industries

For businesses looking for an ASTM A333 Grade 6 Pipe Supplier in UAE, Metalloy International provides high-quality A333 Pipe solutions tailored to specific needs.

ASTM A333 Grade 6 Material Specification and Chemical Composition

The A333 MATERIAL SPECIFICATION offers insight into the pipe’s capacity to withstand low temperatures. The SA 333 GR 6 CHEMICAL COMPOSITION ensures that the steel alloy used meets industry requirements, enhancing its durability and performance.

Advantages of Choosing ASTM A333 Grade 6 Pipes

1. Enhanced Durability – Perfect for handling extreme conditions.

2. Corrosion Resistance– The composition provides strong resistance to corrosion.

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As a **Carbon Steel ASTM A333 ERW Pipe** supplier, **Metalloy International** is committed to quality and reliability, ensuring that your projects remain safe and efficient.

Why Choose Metalloy International?

Metalloy International is recognized as a top **A333 Gr 6 Pipe Specification Manufacturer in India**. Our expertise in providing **A333 Gr6 Pipe** is backed by years of industry experience. We take pride in delivering ASTM A333 Grade 6 Pipes that are inspected and tested for quality, safety, and performance.

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Conclusion

Choosing ASTM A333 Grade 6 Steel Pipe from Metalloy International ensures that you receive a reliable, high-quality product suitable for your low-temperature and high-stress applications. For those in search of a dependable **ASTM A333 Gr 6 CS Pipes Manufacturer in India** or **A333 gr 6** supplier in the UAE, Metalloy International is ready to provide the best solutions.

With our commitment to quality and customer satisfaction, we invite you to explore **ASTM A333 Grade 6 Pipe** for your upcoming projects. For detailed specifications, please refer to our product page [here].

Email id - sales@metalloyinternational.com

CONTACY US - 9820836013