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Apple developed a process to 3D print the titanium case for its Watch at scale (Ultra 3, Series 11). It uses 50% the raw material compared to old models and made interesting calls on material sciences / manufacturing: 1️⃣ Take 100% recycled raw titanium powder. 2️⃣ Atomizes the powder...

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Trung Phan

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158,048 görüntüleme • 7 ay önce •via X (Twitter)

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These stainless-steel beads form a powder that is over six times finer than flour, meaning each particle is too small to see with the naked eye. Powders like this are the basic building material of a type of metal 3D printing called "laser powder bed fusion" or (PBF-LB). It works by spreading out a thin layer of metal powder and using a powerful laser to melt the powder together into a specific shape. Then the process continues by laying down a fresh layer of powder on top and repeating. Each layer is leveled off by a wiper. It’s like the way you might level off a cup of flour with the back of a knife. To make a good 3D-printed part, the powder must be spread in an even, consistent way. Now, thanks to NIST research, we can watch the powder spreading and study its behavior. This work will improve the consistency and quality of metal 3D printed parts. Video Credit: National Institute of Standards and Technology #engineering #technology #3dprinting #additivemanufacturing
1:15

These stainless-steel beads form a powder that is over six times finer than flour, meaning each particle is too small to see with the naked eye. Powders like this are the basic building material of a type of metal 3D printing called "laser powder bed fusion" or (PBF-LB). It works by spreading out a thin layer of metal powder and using a powerful laser to melt the powder together into a specific shape. Then the process continues by laying down a fresh layer of powder on top and repeating. Each layer is leveled off by a wiper. It’s like the way you might level off a cup of flour with the back of a knife. To make a good 3D-printed part, the powder must be spread in an even, consistent way. Now, thanks to NIST research, we can watch the powder spreading and study its behavior. This work will improve the consistency and quality of metal 3D printed parts. Video Credit: National Institute of Standards and Technology #engineering #technology #3dprinting #additivemanufacturing

Wevolver

73,188 görüntüleme • 1 ay önce

Amazing documentary from Sweden showcasing how they made iron from raw clay they harvest in a bog. This method is how they made raw materials for tools, weapons and export from the early iron age until the industrial revolution! The first step is to dig up clay rich in iron ore from a bog. The clay is left to dry in piles and then transported to a foundry nearby the bog. At the foundry the first step is the roast the raw material. This is to remove moisture and biological material. The temperature of the fire is around 500-600°C but not higher since the material should not melt yet. This shrinks the raw material to 50% of it's original mass, sometimes to a third of it's original mass. This process takes 2-4 hours. As this happens the men prepare the foundry. In a stone clad hole in the ground with an air vent at the bottom firewood is stacked. When this is lit on fire the men takes careful precautions to not allow it to burn up completely. After an hour the firewood is turned into charcoal used to turn the now refined iron ore into iron ingots. The roasted iron ore is placed into the bed of coal will sink slowly sink to the bottom of the pit as the coal burn with a temperature in-between 1200-1400°C, the men peak into the airhole at the foundry and can tell from the colour of the temperature is correct or if they need to adjust it. The bellows blows 350L of air into the foundry per turn and the entire process takes up to four hours. The lump of iron is still full of slag and byproduct. To remove this its beaten with a hammer on site. At a smiths workshop a smith continue to hammer our out the byproducts until it's refined enough for production! In the forests there are many traces of iron ore refinement. The foundry's can still be found in good condition even if they have not been in use for over 500 years and traces of slag and byproduct still litter the ground.
10:54

Amazing documentary from Sweden showcasing how they made iron from raw clay they harvest in a bog. This method is how they made raw materials for tools, weapons and export from the early iron age until the industrial revolution! The first step is to dig up clay rich in iron ore from a bog. The clay is left to dry in piles and then transported to a foundry nearby the bog. At the foundry the first step is the roast the raw material. This is to remove moisture and biological material. The temperature of the fire is around 500-600°C but not higher since the material should not melt yet. This shrinks the raw material to 50% of it's original mass, sometimes to a third of it's original mass. This process takes 2-4 hours. As this happens the men prepare the foundry. In a stone clad hole in the ground with an air vent at the bottom firewood is stacked. When this is lit on fire the men takes careful precautions to not allow it to burn up completely. After an hour the firewood is turned into charcoal used to turn the now refined iron ore into iron ingots. The roasted iron ore is placed into the bed of coal will sink slowly sink to the bottom of the pit as the coal burn with a temperature in-between 1200-1400°C, the men peak into the airhole at the foundry and can tell from the colour of the temperature is correct or if they need to adjust it. The bellows blows 350L of air into the foundry per turn and the entire process takes up to four hours. The lump of iron is still full of slag and byproduct. To remove this its beaten with a hammer on site. At a smiths workshop a smith continue to hammer our out the byproducts until it's refined enough for production! In the forests there are many traces of iron ore refinement. The foundry's can still be found in good condition even if they have not been in use for over 500 years and traces of slag and byproduct still litter the ground.

Birch Brother 🪓

161,263 görüntüleme • 2 gün önce

This might be the craziest workflow you'll see this week. From #VR greyboxing to 3D worlds with the help of #AI. The 2 tools I used are ShapesXR and Marble from World Labs. Let me tell you why and how. - ShapesXR is the most powerful and fastest way to assemble 3D scenes at scale. - The library of assets + ability to sketch from procedural primitives gives the perfect balance between speed and freedom. - ShapesXR allows you to export your creation as a glTF that can be used as a "3D prompt" into Marble - Marble now allows you to create a panorama using a 3D scene as input increasing DRAMATICALLY the control you have during the creation process - Through the workflow you can adjust textures and objects in the scene using AI inpainting - There are tons of options on how to use the final output (create a #GaussianSplatting, export collision mesh and even a detailed mesh 🤯) This is the perfect examples of how VR creative tools improve and accelerate the design process... so make sure to follow me if that's your jam 😉.
1:01

This might be the craziest workflow you'll see this week. From #VR greyboxing to 3D worlds with the help of #AI. The 2 tools I used are ShapesXR and Marble from World Labs. Let me tell you why and how. - ShapesXR is the most powerful and fastest way to assemble 3D scenes at scale. - The library of assets + ability to sketch from procedural primitives gives the perfect balance between speed and freedom. - ShapesXR allows you to export your creation as a glTF that can be used as a "3D prompt" into Marble - Marble now allows you to create a panorama using a 3D scene as input increasing DRAMATICALLY the control you have during the creation process - Through the workflow you can adjust textures and objects in the scene using AI inpainting - There are tons of options on how to use the final output (create a #GaussianSplatting, export collision mesh and even a detailed mesh 🤯) This is the perfect examples of how VR creative tools improve and accelerate the design process... so make sure to follow me if that's your jam 😉.

Gabriele Romagnoli

20,126 görüntüleme • 8 ay önce

The same kinds of productivity gains we've seen in coding with AI agents are heading to the rest of knowledge work. This is the jump when you go from having a chatbot to being able to actually have an agent go off and do work for minutes or even hours and come back with a complete work output that you then review. Here's an example of the new Box Agent filling out an RFP response from an existing knowledge base. This process would normally take hours to fill out, and requires the full attention of the user doing the work. Now, you provide the Box Agent with the RFP questions, and it will go off, make a plan, extract all the relevant questions, read through existing source material to come up with an answer, and then generate a new word document as the final output. All while you're doing something else. The key to this architecture is that the agent is able to use all of the same tools in the background that a user uses to get work done. The agent can search for documents, read entire files, run scripts and tools in the background, and even be able to write code on the fly to automate tasks it hasn't seen before. And best of all, the Box Agent will (soon) work from the Box MCP and CLI so you can invoke it in any agentic system as a step in a process. This kind of agent complexity would have been impossible even 6 months ago. Models consistently failed at tracking long running tasks or using the right tools at the right moment for the task. But this is all now possible because of models like GPT-5.4, Opus 4.6, and Gemini 3, and is only getting better by the month. Just as we moved from engineers writing code and using AI as an assistant to answer questions, in many areas of knowledge work -like legal, finance, consulting, sales, marketing, and more- when we have a problem we'll just kick off the AI agent to just go work on it for us in the background.
2:14

The same kinds of productivity gains we've seen in coding with AI agents are heading to the rest of knowledge work. This is the jump when you go from having a chatbot to being able to actually have an agent go off and do work for minutes or even hours and come back with a complete work output that you then review. Here's an example of the new Box Agent filling out an RFP response from an existing knowledge base. This process would normally take hours to fill out, and requires the full attention of the user doing the work. Now, you provide the Box Agent with the RFP questions, and it will go off, make a plan, extract all the relevant questions, read through existing source material to come up with an answer, and then generate a new word document as the final output. All while you're doing something else. The key to this architecture is that the agent is able to use all of the same tools in the background that a user uses to get work done. The agent can search for documents, read entire files, run scripts and tools in the background, and even be able to write code on the fly to automate tasks it hasn't seen before. And best of all, the Box Agent will (soon) work from the Box MCP and CLI so you can invoke it in any agentic system as a step in a process. This kind of agent complexity would have been impossible even 6 months ago. Models consistently failed at tracking long running tasks or using the right tools at the right moment for the task. But this is all now possible because of models like GPT-5.4, Opus 4.6, and Gemini 3, and is only getting better by the month. Just as we moved from engineers writing code and using AI as an assistant to answer questions, in many areas of knowledge work -like legal, finance, consulting, sales, marketing, and more- when we have a problem we'll just kick off the AI agent to just go work on it for us in the background.

Aaron Levie

24,618 görüntüleme • 3 ay önce

I've built it for you!! It's an automated AI system that analyzes AI case studies (you can change the use case) to identify and document enterprise-level AI implementations. It starts by reading URLs from a CSV file and uses web scraping (either through WebLoader or Firecrawl) to extract the content from each case study. The extracted content is then sent to Claude 3.5 Sonnet, which analyzes whether the case study represents a genuine enterprise AI implementation based on specific criteria like company maturity, implementation scale, and measurable business outcomes. For each URL, the system first saves the raw content and then performs this initial qualification analysis. If Claude determines that a case study qualifies as an enterprise AI implementation, the system proceeds to generate a detailed analysis. It creates three types of reports: - an individual case study report with sections like Executive Summary, AI Strategy Analysis, and Business Impact Assessment - a cross-case analysis that identifies patterns and trends across multiple case studies - and an executive dashboard summarizing key metrics and insights. All of these reports are saved in structured formats (markdown for individual reports, JSON for cross-case analysis and dashboard) in their respective directories. If a case study doesn't qualify as an enterprise AI implementation, the system logs the reason and moves on to the next URL. The entire process is asynchronous and provides detailed terminal feedback about its progress and decisions.
0:34

I've built it for you!! It's an automated AI system that analyzes AI case studies (you can change the use case) to identify and document enterprise-level AI implementations. It starts by reading URLs from a CSV file and uses web scraping (either through WebLoader or Firecrawl) to extract the content from each case study. The extracted content is then sent to Claude 3.5 Sonnet, which analyzes whether the case study represents a genuine enterprise AI implementation based on specific criteria like company maturity, implementation scale, and measurable business outcomes. For each URL, the system first saves the raw content and then performs this initial qualification analysis. If Claude determines that a case study qualifies as an enterprise AI implementation, the system proceeds to generate a detailed analysis. It creates three types of reports: - an individual case study report with sections like Executive Summary, AI Strategy Analysis, and Business Impact Assessment - a cross-case analysis that identifies patterns and trends across multiple case studies - and an executive dashboard summarizing key metrics and insights. All of these reports are saved in structured formats (markdown for individual reports, JSON for cross-case analysis and dashboard) in their respective directories. If a case study doesn't qualify as an enterprise AI implementation, the system logs the reason and moves on to the next URL. The entire process is asynchronous and provides detailed terminal feedback about its progress and decisions.

Muratcan Koylan

85,221 görüntüleme • 1 yıl önce

On 23 May, the 20th Shenzhen International Cultural Industries Fair (#ICIF) kicked off in #Shenzhen, Guangdong Province. Cultural and creative products from China were very popular., with the 3D-printed Chinese dragon attracting many Chinese and foreign attendees. A foreign boy was seen holding up a golden dragon, unwilling to put it down. Feng Zizhou, an exhibitor at Creative China zone, introduced to #GDToday that the 3D-printed dragon was made of photosensitive resin. The printing process is very complicated, requiring modelling first and then printing. The printing period is quite long, and it takes three days to print a piece like this.
0:23

On 23 May, the 20th Shenzhen International Cultural Industries Fair (#ICIF) kicked off in #Shenzhen, Guangdong Province. Cultural and creative products from China were very popular., with the 3D-printed Chinese dragon attracting many Chinese and foreign attendees. A foreign boy was seen holding up a golden dragon, unwilling to put it down. Feng Zizhou, an exhibitor at Creative China zone, introduced to #GDToday that the 3D-printed dragon was made of photosensitive resin. The printing process is very complicated, requiring modelling first and then printing. The printing period is quite long, and it takes three days to print a piece like this.

Hi,GBA

20,263 görüntüleme • 2 yıl önce

David Friedberg: The Moon is the Next Industrial Frontier “ I think the moon could end up being the next industrial frontier for humanity. And the reason is, if you can get to the moon, it has an extraordinary abundance of material that we can mine, process, and manufacture into goods. And ultimately the cost to ship those goods back to the Earth is zero. And the reason is that on the moon, you can take advantage of the low gravity, it's about 1/6 the gravity, and the complete lack of an atmosphere, meaning that it's frictionless to move material off of the moon and very low energy to move it off of the moon. In fact, the design for moving material off of the moon is to use what's called a mass driver, which is like a train track, like a rail, like an electric rail. And you could put a package on that rail and use electricity to accelerate that package to 100 G-Force, shoot it back to the earth, or theoretically shoot it to Mars, and it will go to the exact point on the Earth you want it to go to, reenter the atmosphere, and land with a simple parachute where you want it to go. So we could run continuous mining, continuous manufacturing processes on the moon at a fraction of the cost of what it would take to do it here on Earth.”
1:06

David Friedberg: The Moon is the Next Industrial Frontier “ I think the moon could end up being the next industrial frontier for humanity. And the reason is, if you can get to the moon, it has an extraordinary abundance of material that we can mine, process, and manufacture into goods. And ultimately the cost to ship those goods back to the Earth is zero. And the reason is that on the moon, you can take advantage of the low gravity, it's about 1/6 the gravity, and the complete lack of an atmosphere, meaning that it's frictionless to move material off of the moon and very low energy to move it off of the moon. In fact, the design for moving material off of the moon is to use what's called a mass driver, which is like a train track, like a rail, like an electric rail. And you could put a package on that rail and use electricity to accelerate that package to 100 G-Force, shoot it back to the earth, or theoretically shoot it to Mars, and it will go to the exact point on the Earth you want it to go to, reenter the atmosphere, and land with a simple parachute where you want it to go. So we could run continuous mining, continuous manufacturing processes on the moon at a fraction of the cost of what it would take to do it here on Earth.”

The All-In Podcast

104,178 görüntüleme • 3 ay önce

🚨🇷🇺WEST IN RAGE: Russia's 3D printing Breakthrough Goes Global Rosatom (Russia's state nuclear corporation) shipped an industrial 3D printer to India — its first export to a far-abroad market. The RusBeam 2800, an electron-beam printer for large metal parts, now produces aerospace components. Russian additive manufacturing is outgrowing import substitution and starting to compete globally. Rostec (Russia's state industrial conglomerate) and Rosatom created the country's first certified reference sample of metal powder — titanium alloy PT-3V. Labs can now calibrate powder characteristics against a single standard: fewer defects, faster certification, a common quality language. It's no coincidence that Rosatom and Rostec lead this push. Nuclear reactors and jet engines demand absolute precision — exactly why the PT-3V reference sample matters. It gives every lab a single benchmark to check powders against, ensuring the hundredth printed part matches the first. Without it, 3D printing stays guesswork. With it, the technology becomes a trusted industrial process. Russian aviation has crossed that threshold: Rostec uses 3D-printed parts in PD-14 and PD-8 engines and has certified the first additively manufactured hot-section component for a serial aircraft engine — a combustor swirler inside the PD-14 powering the MC-21. These announcements are two sides of the same coin. Russia is assembling a complete chain: equipment, materials, software, standards, certification. After 2022, severed supply chains turned 3D printing from a trend into industrial survival. When a critical imported part is unavailable, printing it domestically shifts from convenience to necessity. The market hit 22.3 billion rubles in 2025. Hot-section parts face extreme temperatures and vibration, so certification means the technology has passed its toughest exam. Russia has moved beyond printing samples to building a full-fledged industry — from certified powder to exported machines for the most demanding sectors. Do you think the U.S. can really compete with Russia in this field?
0:35

🚨🇷🇺WEST IN RAGE: Russia's 3D printing Breakthrough Goes Global Rosatom (Russia's state nuclear corporation) shipped an industrial 3D printer to India — its first export to a far-abroad market. The RusBeam 2800, an electron-beam printer for large metal parts, now produces aerospace components. Russian additive manufacturing is outgrowing import substitution and starting to compete globally. Rostec (Russia's state industrial conglomerate) and Rosatom created the country's first certified reference sample of metal powder — titanium alloy PT-3V. Labs can now calibrate powder characteristics against a single standard: fewer defects, faster certification, a common quality language. It's no coincidence that Rosatom and Rostec lead this push. Nuclear reactors and jet engines demand absolute precision — exactly why the PT-3V reference sample matters. It gives every lab a single benchmark to check powders against, ensuring the hundredth printed part matches the first. Without it, 3D printing stays guesswork. With it, the technology becomes a trusted industrial process. Russian aviation has crossed that threshold: Rostec uses 3D-printed parts in PD-14 and PD-8 engines and has certified the first additively manufactured hot-section component for a serial aircraft engine — a combustor swirler inside the PD-14 powering the MC-21. These announcements are two sides of the same coin. Russia is assembling a complete chain: equipment, materials, software, standards, certification. After 2022, severed supply chains turned 3D printing from a trend into industrial survival. When a critical imported part is unavailable, printing it domestically shifts from convenience to necessity. The market hit 22.3 billion rubles in 2025. Hot-section parts face extreme temperatures and vibration, so certification means the technology has passed its toughest exam. Russia has moved beyond printing samples to building a full-fledged industry — from certified powder to exported machines for the most demanding sectors. Do you think the U.S. can really compete with Russia in this field?

NewRulesGeopolitics

21,176 görüntüleme • 1 ay önce

There was an India before this Bill. The India that comes after this Bill strikes at the very fabric of our Constitution and the intent of its makers. Today, the government is asking us to hand over a blank cheque. This Bill contains no clear mention of limits such as a 50% increase, no clarity on the basis of delimitation, and no transparent safeguards to prevent arbitrary action. It leaves open the possibility of an unfair, unjust delimitation process and places enormous power in the hands of a committee that will be appointed by the executive itself. How can this be called fair in a functioning democracy? How are we expected to trust a government that, over the past 12 years, has repeatedly pushed through draconian laws without meaningful consultation or consensus in Parliament? Laws that reshape institutions, alter balances of power, and weaken the spirit of federalism! As Chief Minister Thiru M.K.Stalin has rightly said, this is a fight we are prepared to take to the streets and to the people of Tamil Nadu. Because when faith in the parliamentary process is eroded, the responsibility to defend constitutional values must return to the people themselves. #Delimitation #TNWillFightTNWillWin
1:41

There was an India before this Bill. The India that comes after this Bill strikes at the very fabric of our Constitution and the intent of its makers. Today, the government is asking us to hand over a blank cheque. This Bill contains no clear mention of limits such as a 50% increase, no clarity on the basis of delimitation, and no transparent safeguards to prevent arbitrary action. It leaves open the possibility of an unfair, unjust delimitation process and places enormous power in the hands of a committee that will be appointed by the executive itself. How can this be called fair in a functioning democracy? How are we expected to trust a government that, over the past 12 years, has repeatedly pushed through draconian laws without meaningful consultation or consensus in Parliament? Laws that reshape institutions, alter balances of power, and weaken the spirit of federalism! As Chief Minister Thiru M.K.Stalin has rightly said, this is a fight we are prepared to take to the streets and to the people of Tamil Nadu. Because when faith in the parliamentary process is eroded, the responsibility to defend constitutional values must return to the people themselves. #Delimitation #TNWillFightTNWillWin

Dr P Thiaga Rajan (PTR)

174,449 görüntüleme • 3 ay önce

We are developing a new design paradigm that enables seamless integration of 2D and 3D on the same canvas in real time. No need for plugins or cumbersome workflows. It's all connected in a single place. All systems (frames, layouts, booleans, vectors, effects, etc.) work in sync across 2D and 3D, non-destructively. This is the starting point of a fully multi-dimensional design process. At some point in the near future, people won't need to refer to '3d design' as a separate part of the process, because it will be all part of the same system. The following is a demo of this in the works within Hana (a design canvas). We will ship this latest development in about a week.
0:50

We are developing a new design paradigm that enables seamless integration of 2D and 3D on the same canvas in real time. No need for plugins or cumbersome workflows. It's all connected in a single place. All systems (frames, layouts, booleans, vectors, effects, etc.) work in sync across 2D and 3D, non-destructively. This is the starting point of a fully multi-dimensional design process. At some point in the near future, people won't need to refer to '3d design' as a separate part of the process, because it will be all part of the same system. The following is a demo of this in the works within Hana (a design canvas). We will ship this latest development in about a week.

Spline

55,835 görüntüleme • 6 ay önce

Coming very soon to a 3D Printer near you. The sheer simplicity of the ammo and the lack of professional tools is a part of the demonstration so don't get too hurt by this. This is a project we have been working on for a while known as the Deep ammo series. It is a 3D printed ammunition system that uses a printed hull, powder, a primer (whether printed or normal), and a projectile. As of now we have these cycling in revolvers, and both actions but getting something like this firing semi-automatic is difficult. Not impossible though, we are hard at work and I just know you'll be seeing more of these soon.
2:13

Coming very soon to a 3D Printer near you. The sheer simplicity of the ammo and the lack of professional tools is a part of the demonstration so don't get too hurt by this. This is a project we have been working on for a while known as the Deep ammo series. It is a 3D printed ammunition system that uses a printed hull, powder, a primer (whether printed or normal), and a projectile. As of now we have these cycling in revolvers, and both actions but getting something like this firing semi-automatic is difficult. Not impossible though, we are hard at work and I just know you'll be seeing more of these soon.

Moderator Gage

35,145 görüntüleme • 4 ay önce

Printing metal made easy! 🖊️ Most metal 3D printing today relies on heat. Lasers or electron beams melt metal powder or wire, fuse it, and let it solidify again. That works, but it’s inefficient: a lot of energy is lost before it ever reaches the material, and even more is wasted as heat dissipates into the surroundings. This work explores a very different idea. Instead of melting metal, it uses high-frequency, low-amplitude mechanical vibrations to temporarily lower a metal’s yield stress and enhance atomic diffusion. Under these conditions, metal can be shaped and joined without full melting. By combining shaping and joining at the same time, the researchers introduce a new additive manufacturing process called Resonance-Assisted Deposition (RAD). Because it avoids melt–solidification, RAD is far more energy-efficient and enables things that are difficult or impossible with conventional methods. Pretty cool method! More info here: ~~ ♻️ Join the weekly robotics newsletter, and never miss any news →
0:36

Printing metal made easy! 🖊️ Most metal 3D printing today relies on heat. Lasers or electron beams melt metal powder or wire, fuse it, and let it solidify again. That works, but it’s inefficient: a lot of energy is lost before it ever reaches the material, and even more is wasted as heat dissipates into the surroundings. This work explores a very different idea. Instead of melting metal, it uses high-frequency, low-amplitude mechanical vibrations to temporarily lower a metal’s yield stress and enhance atomic diffusion. Under these conditions, metal can be shaped and joined without full melting. By combining shaping and joining at the same time, the researchers introduce a new additive manufacturing process called Resonance-Assisted Deposition (RAD). Because it avoids melt–solidification, RAD is far more energy-efficient and enables things that are difficult or impossible with conventional methods. Pretty cool method! More info here: ~~ ♻️ Join the weekly robotics newsletter, and never miss any news →

Lukas Ziegler

124,903 görüntüleme • 6 ay önce

Share time: The process of making something is an art performance spectacle. They can all be so fascinating to observe. The making of a cup of coffee. The slicing of fish for sushi. The stirring and rocking of a wok for fried rice. The cutting, carving and sanding of wood to make a chair. The pencil gliding on paper for hours to create an illusion of volume in an illustration. The mixing of pigments to create the resemblance of a faces or sceneries on canvas. The testing and retesting of an assembly of sound from different instruments to sculpt out a tapestry of music. The weaving of fibres into strands into fabric into clothings. The coming together of ideas to turn the clothings into fashion and style. The setting up of lighting to set up moods for a photoshoot. The disassembly and reassembly of tiny machineries that measures time. Heck, even the cleaning and polishing of a toilet. Etc. What's your process?
0:42

Share time: The process of making something is an art performance spectacle. They can all be so fascinating to observe. The making of a cup of coffee. The slicing of fish for sushi. The stirring and rocking of a wok for fried rice. The cutting, carving and sanding of wood to make a chair. The pencil gliding on paper for hours to create an illusion of volume in an illustration. The mixing of pigments to create the resemblance of a faces or sceneries on canvas. The testing and retesting of an assembly of sound from different instruments to sculpt out a tapestry of music. The weaving of fibres into strands into fabric into clothings. The coming together of ideas to turn the clothings into fashion and style. The setting up of lighting to set up moods for a photoshoot. The disassembly and reassembly of tiny machineries that measures time. Heck, even the cleaning and polishing of a toilet. Etc. What's your process?

Choen Lee

24,270 görüntüleme • 2 yıl önce

Rep. John James Rep. John James has once again, encouraged the Secretary of State to engage with the Nigerian government regarding concerns about due process and human rights in the case of Mazi #NnamdiKanu." - Thanks to the Nwankwo Brothers for always stretching . While H.Res. 1321 is not a legal remedy, it has placed the case firmly on the U.S. congressional agenda, encourage engagement with Nigeria on due process and human rights, and increase international scrutiny as the appeal process moves forward. The opinion of UN Human Rights Working Group as referenced is still valid? #HumanRights #JusticeAndDueProcess #FairAppealforNnamdiKanu
1:13

Rep. John James Rep. John James has once again, encouraged the Secretary of State to engage with the Nigerian government regarding concerns about due process and human rights in the case of Mazi #NnamdiKanu." - Thanks to the Nwankwo Brothers for always stretching . While H.Res. 1321 is not a legal remedy, it has placed the case firmly on the U.S. congressional agenda, encourage engagement with Nigeria on due process and human rights, and increase international scrutiny as the appeal process moves forward. The opinion of UN Human Rights Working Group as referenced is still valid? #HumanRights #JusticeAndDueProcess #FairAppealforNnamdiKanu

Uchechi Okwu-Kanu

12,273 görüntüleme • 1 ay önce

This is what I did for 40 years. I formed engine nuts/bolts for jet aircraft. This machine is making a 12 point bolt made of stainless steel. It forges the metal at 16 tons per square inch. I designed and worked with engineers to make the dies. The punches. This is only a 2 die header. When you get up to the 5 die headers, you are in a different category. When forming Titanium, you have to heat the wire to 1200 degrees to form it. This is what I did.
0:35

This is what I did for 40 years. I formed engine nuts/bolts for jet aircraft. This machine is making a 12 point bolt made of stainless steel. It forges the metal at 16 tons per square inch. I designed and worked with engineers to make the dies. The punches. This is only a 2 die header. When you get up to the 5 die headers, you are in a different category. When forming Titanium, you have to heat the wire to 1200 degrees to form it. This is what I did.

Mike Lad

109,515 görüntüleme • 5 ay önce

Shane Wighton, from the YouTube channel Stuff Made Here, used 3D-printed tooling to form a sheet metal component as part of a concept validation process. Metal manufacturing is essential for all areas of the economy. Because of their strength, stiffness, and long-term durability, metal components are used in applications from appliances to construction parts and car body panels. Traditional metal manufacturing techniques include forming, casting, molding, joining, and machining. Sheet metal forming involves various processes where force is applied to a piece of sheet metal to plastically deform the material into the desired shape, modifying its geometry rather than removing any material. Sheet metals can be bent or stretched into a variety of complex shapes, permitting the creation of complex structures with great strength and a minimum amount of material. Sheet metal forming is the most cost-effective forming procedure today for manufacturing parts in large quantities. It can be highly automated in factories or, at the other end of the spectrum, manually operated in metal workshops for small series parts. It is a versatile, consistent, and high-quality procedure to create accurate metal parts with limited material waste. From metal cans to protective housing for hardware, parts created by sheet metal forming are found everywhere in our daily lives. In this article, learn the basics of sheet metals, the various sheet metal forming processes, and how to reduce the cost of sheet metal forming with rapid tooling and 3D printed dies. For a detailed overview and the step-by-step method, watch our webinar or download our white paper: Research conducted by Shane Wighton. Check out the fantastic 15-minute video on his YouTube channel 'Stuff Made Here'! its top-notch engineering content.:
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Shane Wighton, from the YouTube channel Stuff Made Here, used 3D-printed tooling to form a sheet metal component as part of a concept validation process. Metal manufacturing is essential for all areas of the economy. Because of their strength, stiffness, and long-term durability, metal components are used in applications from appliances to construction parts and car body panels. Traditional metal manufacturing techniques include forming, casting, molding, joining, and machining. Sheet metal forming involves various processes where force is applied to a piece of sheet metal to plastically deform the material into the desired shape, modifying its geometry rather than removing any material. Sheet metals can be bent or stretched into a variety of complex shapes, permitting the creation of complex structures with great strength and a minimum amount of material. Sheet metal forming is the most cost-effective forming procedure today for manufacturing parts in large quantities. It can be highly automated in factories or, at the other end of the spectrum, manually operated in metal workshops for small series parts. It is a versatile, consistent, and high-quality procedure to create accurate metal parts with limited material waste. From metal cans to protective housing for hardware, parts created by sheet metal forming are found everywhere in our daily lives. In this article, learn the basics of sheet metals, the various sheet metal forming processes, and how to reduce the cost of sheet metal forming with rapid tooling and 3D printed dies. For a detailed overview and the step-by-step method, watch our webinar or download our white paper: Research conducted by Shane Wighton. Check out the fantastic 15-minute video on his YouTube channel 'Stuff Made Here'! its top-notch engineering content.:

Formlabs

39,948 görüntüleme • 1 yıl önce

In France, construction has been completed of the largest 3D-printed residential building in Europe The project includes 12 social housing apartments across three floors. The company Plurial Novilia built it in 34 days instead of the planned 50. The entire process was supervised by only three operators. This is the first case in France where 3D printing was used not only for walls but also for the building’s load-bearing structures. Next to it stands a similar building constructed using traditional methods — it took about three months longer to build. In the future, the developer plans to scale up the project and further speed up construction.
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In France, construction has been completed of the largest 3D-printed residential building in Europe The project includes 12 social housing apartments across three floors. The company Plurial Novilia built it in 34 days instead of the planned 50. The entire process was supervised by only three operators. This is the first case in France where 3D printing was used not only for walls but also for the building’s load-bearing structures. Next to it stands a similar building constructed using traditional methods — it took about three months longer to build. In the future, the developer plans to scale up the project and further speed up construction.

NEXTA

94,319 görüntüleme • 1 ay önce

A robot as a 3D printer? 🖨️ Meltio developed a robot that 3D prints in metal. They have unveiled their own line of wire-based 3D printing materials. The new materials range, named Meltio Materials, includes stainless steel, mild steel, titanium, and nickel alloys. 👨🏼‍🏭 What makes this exciting is that Meltio is offering a closed materials platform, providing users with a hassle-free experience by validating the materials and optimizing them for their systems. This move sets Meltio apart from its competitors and paves the way for faster industrial adoption and user-driven innovation. With Meltio Materials, metal 3D printing becomes more accessible, reliable, and efficient for various industries, including aerospace, healthcare, and consumer electronics. 🛩️ Great to see the reliability of proven robots from ABB Robotics. P.S. I could be watching the 3D printing process over and over! ~~ ♻️ Join the weekly robotics newsletter, and never miss any news →
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A robot as a 3D printer? 🖨️ Meltio developed a robot that 3D prints in metal. They have unveiled their own line of wire-based 3D printing materials. The new materials range, named Meltio Materials, includes stainless steel, mild steel, titanium, and nickel alloys. 👨🏼‍🏭 What makes this exciting is that Meltio is offering a closed materials platform, providing users with a hassle-free experience by validating the materials and optimizing them for their systems. This move sets Meltio apart from its competitors and paves the way for faster industrial adoption and user-driven innovation. With Meltio Materials, metal 3D printing becomes more accessible, reliable, and efficient for various industries, including aerospace, healthcare, and consumer electronics. 🛩️ Great to see the reliability of proven robots from ABB Robotics. P.S. I could be watching the 3D printing process over and over! ~~ ♻️ Join the weekly robotics newsletter, and never miss any news →

Lukas Ziegler

34,094 görüntüleme • 6 ay önce