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Allonic, a Hungarian robotics startup is developing humanoid robot bodies using a proprietary 3D Tissue Braiding system that weaves high-strength fibers, elastic tendons, wiring and sensors around a minimal internal skeleton, mimicking how human connective tissue wraps around bones. The approach enables complex, dexterous structures that are lightweight, strong... show more

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Just saw something that actually feels like a real leap in robotics hardware.👋 Allonic built a robot hand using 3D Tissue Braiding,basically weaving high-strength fibers around a minimal rigid skeleton the way human connective tissue wraps around bone. No hundreds of screws, bearings, cables or fiddly joints. Instead,a continuous automated process that creates the tendons, soft tissue & compliant structure all at once. The outcome is wild: »strong yet naturally soft & safe for close human interaction »surprisingly dexterous »produced from digital design→physical part in minutes »cost drops so much that you could eventually swap end-effectors like disposable gloves This is starting to feel like the moment robotic bodies get their own “3D printing revolution”. Hardware iteration speed finally approaching software speed. If this scales, it could be one of the missing pieces that lets dexterous humanoid robots move from lab → factories → homes. (Oh, and the company just raised $7.2M Pre-Seed,largest ever in Hungary. Budapest-based with US HQ. Led by Visionaries Club + angels from OpenAI, Hugging Face, ETH Zurich, Northwestern etc.) Prototype hand looks insane,the woven fiber texture is unreal.

Just saw something that actually feels like a real leap in robotics hardware.👋 Allonic built a robot hand using 3D Tissue Braiding,basically weaving high-strength fibers around a minimal rigid skeleton the way human connective tissue wraps around bone. No hundreds of screws, bearings, cables or fiddly joints. Instead,a continuous automated process that creates the tendons, soft tissue & compliant structure all at once. The outcome is wild: »strong yet naturally soft & safe for close human interaction »surprisingly dexterous »produced from digital design→physical part in minutes »cost drops so much that you could eventually swap end-effectors like disposable gloves This is starting to feel like the moment robotic bodies get their own “3D printing revolution”. Hardware iteration speed finally approaching software speed. If this scales, it could be one of the missing pieces that lets dexterous humanoid robots move from lab → factories → homes. (Oh, and the company just raised $7.2M Pre-Seed,largest ever in Hungary. Budapest-based with US HQ. Led by Visionaries Club + angels from OpenAI, Hugging Face, ETH Zurich, Northwestern etc.) Prototype hand looks insane,the woven fiber texture is unreal.

CyberRobo

261,488 Aufrufe • vor 4 Monaten

This robotic hand can weave itself together in minutes. Allonic developed a process that "braids" robot bodies around a 3D-printed skeleton in a single automated step. The tech draws from the textile industry, using braided fibers instead of traditional mechanical joints and bearings. Their braiding system grows tendon-driven structures directly onto skeletal cores, creating flexible yet durable parts without screws or assembly. One finger only needs 4 skeletal elements. Then thousands of braided fibers wrap around them to handle force and articulation. The software converts designs directly into machine code that runs the braiding process. But what matters is that robotic hands like this can cost up to $30,000, ~20-30% of a humanoid robot's total price. Allonic's braiding process could crush those costs while enabling custom designs at scale.

This robotic hand can weave itself together in minutes. Allonic developed a process that "braids" robot bodies around a 3D-printed skeleton in a single automated step. The tech draws from the textile industry, using braided fibers instead of traditional mechanical joints and bearings. Their braiding system grows tendon-driven structures directly onto skeletal cores, creating flexible yet durable parts without screws or assembly. One finger only needs 4 skeletal elements. Then thousands of braided fibers wrap around them to handle force and articulation. The software converts designs directly into machine code that runs the braiding process. But what matters is that robotic hands like this can cost up to $30,000, ~20-30% of a humanoid robot's total price. Allonic's braiding process could crush those costs while enabling custom designs at scale.

Rowan Cheung

74,426 Aufrufe • vor 2 Monaten

Allonic Robotics has introduced a new robotic hand built without screws, cables, or complex joints. It uses braided fibers to create both tendons and structure in a single automated step, making it strong, flexible, and smooth in motion. This approach could simplify manufacturing and speed up the production of robotic hands.

Allonic Robotics has introduced a new robotic hand built without screws, cables, or complex joints. It uses braided fibers to create both tendons and structure in a single automated step, making it strong, flexible, and smooth in motion. This approach could simplify manufacturing and speed up the production of robotic hands.

Space and Technology

291,578 Aufrufe • vor 2 Monaten

Chinese robotics startup Rochu Robotics has developed a humanoid hand with a human-like skeletal structure for natural movement. The hand uses a hydraulic system and 24 biomimetic tendons instead of electric motors. This design improves flexibility, strength, and precise fingertip control.

Chinese robotics startup Rochu Robotics has developed a humanoid hand with a human-like skeletal structure for natural movement. The hand uses a hydraulic system and 24 biomimetic tendons instead of electric motors. This design improves flexibility, strength, and precise fingertip control.

Space and Technology

25,168 Aufrufe • vor 20 Tagen

Clone Robotics CEO Necromancer in a fireside chat with Peter Diamandis at the Abundance Summit: Rather than following the conventional humanoid robot path, they are building "Synthetic Human Androids."(westworld like) > Abandoning the rigid skeleton + electric motor approach > Adopting a human anatomical design: an internal skeleton paired with their proprietary Myofiber artificial muscles (fluid-driven). While this may appear slow in the short term, only a foundational design rooted in biological principles can ultimately prevail in the long run. > Mimicking the actual musculoskeletal system results in a robot that is more natural, compliant, and quiet. > Initial versions will feature a faceless design to avoid the "uncanny valley" effect. Facial artificial muscles will be added incrementally to enable micro-expressions, making the robots virtually indistinguishable from real humans. Goal: A cost of < $20,000, with commercial deployment commencing around 2028. They will begin by performing repetitive service tasks in structured environments,such as hotels and facilities,while simultaneously learning more complex operations through embodied AI as they work. (For the full video, see Clone's post.)

Clone Robotics CEO Necromancer in a fireside chat with Peter Diamandis at the Abundance Summit: Rather than following the conventional humanoid robot path, they are building "Synthetic Human Androids."(westworld like) > Abandoning the rigid skeleton + electric motor approach > Adopting a human anatomical design: an internal skeleton paired with their proprietary Myofiber artificial muscles (fluid-driven). While this may appear slow in the short term, only a foundational design rooted in biological principles can ultimately prevail in the long run. > Mimicking the actual musculoskeletal system results in a robot that is more natural, compliant, and quiet. > Initial versions will feature a faceless design to avoid the "uncanny valley" effect. Facial artificial muscles will be added incrementally to enable micro-expressions, making the robots virtually indistinguishable from real humans. Goal: A cost of < $20,000, with commercial deployment commencing around 2028. They will begin by performing repetitive service tasks in structured environments,such as hotels and facilities,while simultaneously learning more complex operations through embodied AI as they work. (For the full video, see Clone's post.)

CyberRobo

41,216 Aufrufe • vor 2 Monaten

Budapest-based Allonic just raised $7.2 million to develop its so-called 3D tissue braiding system designed to replace traditional robot assembly. The pre-seed funding round, reportedly the largest in Hungary’s history, was led by Visionaries Club, a European early-stage investor group, with other participants including Day One Capital, Prototype, SDAC Ventures, TinyVC, and angel investors affiliated with OpenAI and Hugging Face.

Budapest-based Allonic just raised $7.2 million to develop its so-called 3D tissue braiding system designed to replace traditional robot assembly. The pre-seed funding round, reportedly the largest in Hungary’s history, was led by Visionaries Club, a European early-stage investor group, with other participants including Day One Capital, Prototype, SDAC Ventures, TinyVC, and angel investors affiliated with OpenAI and Hugging Face.

Mike Kalil

15,092 Aufrufe • vor 4 Monaten

Japanese robotics startup Tokyo Robotics has developed a humanoid robot called Torobo. The robot walks with smooth and natural human-like movement. It can also copy human motions in real time through full-body remote control while maintaining good balance.

Japanese robotics startup Tokyo Robotics has developed a humanoid robot called Torobo. The robot walks with smooth and natural human-like movement. It can also copy human motions in real time through full-body remote control while maintaining good balance.

Space and Technology

113,447 Aufrufe • vor 22 Tagen

New Episode: Benedek Tasi is leading Allonic, a Hungarian robotics startup leveraging textile technology to create humanoid hands that mimic human anatomy. We discuss their 3D braiding process, engineering complexities, and Benedek’s vision for the future of robotics. 0:52 Intro 1:32 Prior work in bio-inspired solutions 4:05 Drawing inspiration from textile industries 6:01 Innovations in braiding manufacturing 7:46 Speed of production 9:03 Physics of load distribution in fibers 9:45 Inherent limitations of tendon-driven systems 12:51 Solving precision and dexterity challenges 14:58 Full musculoskeletal humanoid robots? 17:14 Growth plans and technological expansion 18:38 Long-term vision for robotic infrastructure

New Episode: Benedek Tasi is leading Allonic, a Hungarian robotics startup leveraging textile technology to create humanoid hands that mimic human anatomy. We discuss their 3D braiding process, engineering complexities, and Benedek’s vision for the future of robotics. 0:52 Intro 1:32 Prior work in bio-inspired solutions 4:05 Drawing inspiration from textile industries 6:01 Innovations in braiding manufacturing 7:46 Speed of production 9:03 Physics of load distribution in fibers 9:45 Inherent limitations of tendon-driven systems 12:51 Solving precision and dexterity challenges 14:58 Full musculoskeletal humanoid robots? 17:14 Growth plans and technological expansion 18:38 Long-term vision for robotic infrastructure

The Humanoid Hub

39,922 Aufrufe • vor 3 Monaten

New humanoid startup out of Hungary: Allonic The unique hand design moves away from rigid industrial design toward a biomimetic approach. - Each finger is braided around like a rope in a single autonomous process; this process also includes the threading of the tendons through the braided "tissues." - The braidings wrap around and provide distributed load across the surface of the finger rather than a single point of failure. - The hand naturally conforms to objects during a grip and allows for variable stiffness like human hands. The cost of the hand (not including motors) could be as low as $50.

New humanoid startup out of Hungary: Allonic The unique hand design moves away from rigid industrial design toward a biomimetic approach. - Each finger is braided around like a rope in a single autonomous process; this process also includes the threading of the tendons through the braided "tissues." - The braidings wrap around and provide distributed load across the surface of the finger rather than a single point of failure. - The hand naturally conforms to objects during a grip and allows for variable stiffness like human hands. The cost of the hand (not including motors) could be as low as $50.

The Humanoid Hub

22,958 Aufrufe • vor 4 Monaten

THE WOVEN ROBOT! Wow! The woven robot hand is here and it is absolutely game-changing. Allonic just braided thousands of tendon-like fibers around a 3D-printed skeleton in minutes. No joints. No screws. No human assembly. Pure biomimetic tissue that flexes, grips, and lasts like biology itself. This isn’t incremental. This is the breakthrough that collapses robot hand costs from $30,000 to pennies. The old world of expensive, fragile robotic limbs is over. Now humanoid robots can build more of themselves scalable, replicable, anywhere. Robots building Robots building Robots, yeah you get it. In your freaking garage! Massive opportunities are about to explode as work as we know it fades. Rent one, have it build your fleet, send it back, repeat. Thousands if you want. The age of woven machines begins.

THE WOVEN ROBOT! Wow! The woven robot hand is here and it is absolutely game-changing. Allonic just braided thousands of tendon-like fibers around a 3D-printed skeleton in minutes. No joints. No screws. No human assembly. Pure biomimetic tissue that flexes, grips, and lasts like biology itself. This isn’t incremental. This is the breakthrough that collapses robot hand costs from $30,000 to pennies. The old world of expensive, fragile robotic limbs is over. Now humanoid robots can build more of themselves scalable, replicable, anywhere. Robots building Robots building Robots, yeah you get it. In your freaking garage! Massive opportunities are about to explode as work as we know it fades. Rent one, have it build your fleet, send it back, repeat. Thousands if you want. The age of woven machines begins.

Brian Roemmele

21,376 Aufrufe • vor 2 Monaten

🚨 WATER-POWERED HUMANOID ROBOT MOVES, THINKS, AND FEELS LIKE YOU Meet Proto Alpha, one of the most humanlike robot ever made. Built by Clone Robotics it mimics the human body with 206 3D printed bones and over 1,000 synthetic muscle fibers each light as a paperclip but strong enough to lift a kilo. Powered not by motors but by a 500 watt heart sized water pump it moves with eerie fluidity. With 320 pressure sensors 70 motion trackers 4 depth cameras and an Nvidia brain this machine can move see and react like us. Source: Clone Robotics

🚨 WATER-POWERED HUMANOID ROBOT MOVES, THINKS, AND FEELS LIKE YOU Meet Proto Alpha, one of the most humanlike robot ever made. Built by Clone Robotics it mimics the human body with 206 3D printed bones and over 1,000 synthetic muscle fibers each light as a paperclip but strong enough to lift a kilo. Powered not by motors but by a 500 watt heart sized water pump it moves with eerie fluidity. With 320 pressure sensors 70 motion trackers 4 depth cameras and an Nvidia brain this machine can move see and react like us. Source: Clone Robotics

Mario Nawfal

72,435 Aufrufe • vor 11 Monaten

Do you know that the human foot is a complex structure made up of 26 bones, 33 joints and more than 100 muscles, tendons and ligaments?

Do you know that the human foot is a complex structure made up of 26 bones, 33 joints and more than 100 muscles, tendons and ligaments?

ᴀʀᴛ ᴏꜰ ᴘʜʏꜱɪQᴜᴇ

18,960 Aufrufe • vor 4 Monaten

"A year and a half on testosterone and by the end I'm also paraplegic." She attributed her declining health to an inherited connective tissue disorder, but can it be ignored that this hormone directly acts on connective tissue?

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Σ𝕏ulansic 🦎

53,681 Aufrufe • vor 10 Monaten

UBTech Robotics has showcased its humanoid robot Walker S2 playing tennis with a human. Using real-time vision sensors, it tracks the ball, adjusts its position, and returns shots with good accuracy. The robot can also swap its own batteries, allowing it to operate continuously without human help.

UBTech Robotics has showcased its humanoid robot Walker S2 playing tennis with a human. Using real-time vision sensors, it tracks the ball, adjusts its position, and returns shots with good accuracy. The robot can also swap its own batteries, allowing it to operate continuously without human help.

Space and Technology

16,121 Aufrufe • vor 1 Monat

Clone Robotics CEO Dhanush Radhakrishnan: the industry is over-relying on motors and rigid structures. Their own robots use fluid actuation and Myofiber artificial muscles muscles and a full anatomical skeleton to get closer to how real human move.

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Rohan Paul

154,447 Aufrufe • vor 2 Monaten

AGIBOT founder Zhihui Peng unveiled the Lingxi X2, a bipedal humanoid robot integrating motion, interaction, and task intelligence. With 28 degrees of freedom, a Diffusion-based motion engine, and a computing system that enables natural human-robot interaction. It can walk, run, dance, and ride a bicycle, while also excelling in precise object manipulation.

AGIBOT founder Zhihui Peng unveiled the Lingxi X2, a bipedal humanoid robot integrating motion, interaction, and task intelligence. With 28 degrees of freedom, a Diffusion-based motion engine, and a computing system that enables natural human-robot interaction. It can walk, run, dance, and ride a bicycle, while also excelling in precise object manipulation.

The Humanoid Hub

124,533 Aufrufe • vor 1 Jahr

Dexterous hands are one of the biggest challenges in robotics, with even Elon Musk noting their development accounts for half of a humanoid robot's total work. A new approach from the Y-Hand M1 bionic hand may be a significant step forward. Based on an international first-of-its-kind "bionic tension-compression theory," the M1 replaces traditional rigid hinges with a 6-DoF joint system and uses self-developed magnetic artificial muscles. This design allows it to perform complex, human-like tasks, including: ► Mastering all 33 Feix dexterous grasp categories. ► Precisely twirling playing cards and threading a needle with subtle human-like adjustments. ► Smoothly twisting bottle caps and turning book pages. The team behind the M1 is already working on the next-gen Y-Hand M3, aiming for around 70 degrees of freedom, believing that robotic hands may soon reach or even exceed human-level dexterity.

Dexterous hands are one of the biggest challenges in robotics, with even Elon Musk noting their development accounts for half of a humanoid robot's total work. A new approach from the Y-Hand M1 bionic hand may be a significant step forward. Based on an international first-of-its-kind "bionic tension-compression theory," the M1 replaces traditional rigid hinges with a 6-DoF joint system and uses self-developed magnetic artificial muscles. This design allows it to perform complex, human-like tasks, including: ► Mastering all 33 Feix dexterous grasp categories. ► Precisely twirling playing cards and threading a needle with subtle human-like adjustments. ► Smoothly twisting bottle caps and turning book pages. The team behind the M1 is already working on the next-gen Y-Hand M3, aiming for around 70 degrees of freedom, believing that robotic hands may soon reach or even exceed human-level dexterity.

RoboHub🤖

62,997 Aufrufe • vor 9 Monaten

This dexterous robotic hand can see, feel, and solve a Rubik’s cube BrainCo's Revo 3 dexterous robotic hand, a Chinese-developed system with integrated vision, full-palm tactile sensors, and high-precision actuators for complex manipulation tasks

This dexterous robotic hand can see, feel, and solve a Rubik’s cube BrainCo's Revo 3 dexterous robotic hand, a Chinese-developed system with integrated vision, full-palm tactile sensors, and high-precision actuators for complex manipulation tasks

Science girl

19,923 Aufrufe • vor 1 Monat

⚡️📣👇Tremendously excited to share our new Cell article, where we develop TriPath, a method for analyzing 3D pathology samples using weakly supervised AI. Article: TriPath enables 3D computational pathology via 3D multiple instance learning allowing AI models to capture intricate morphological details from pathology volumes. Code: Blog post: Tested on two different imaging modalities, and patient cohorts from two institutions. Our superstar Andrew H. Song put in a monumental effort of leading the study, in a fantastic collaboration with Jonathan Liu at University of Washington . Interesting aspects: - Utilizing the whole tissue volume and leveraging 3D deep learning enable superior risk prediction performance compared to 2D deep learning baselines based on a few sampled tissue sections that emulate standard clinical practice. This indicates TriPath can harness additional information provided by 3D tissue morphology. - The performance is also superior to clinical baselines from a reader study that involved six expert pathologists. - The morphologically heterogeneous tissue volume could lead to opposing patient-level outcome predictions, dependent on which portion of the tissue volume is used. This concurs with current clinical literature warning that tissue sampling bias can lead to misdiagnosis. Some limitations: - While the 3D pathology cohort size is unprecedented, it is smaller than typical 2D pathology cohorts. Further large-scale studies will be required for validation. Nevertheless, we believe that this study will initiate a positive cycle, encouraging academic institutions and pharmaceutical companies to contribute large banks of human tissue blocks with paired clinical outcomes, thus speeding up advancements in 3D computational pathology. Concluding insights: We believe that 3D pathology is just around the corner - It has the huge potential to not only augment/improve the current clinical practice centered around 2D examination of human tissue, but also help reveal novel biomarkers for prognosis and therapeutic response.. Harvard Medical School Harvard Data Science Initiative Mass General Brigham Broad Institute

⚡️📣👇Tremendously excited to share our new Cell article, where we develop TriPath, a method for analyzing 3D pathology samples using weakly supervised AI. Article: TriPath enables 3D computational pathology via 3D multiple instance learning allowing AI models to capture intricate morphological details from pathology volumes. Code: Blog post: Tested on two different imaging modalities, and patient cohorts from two institutions. Our superstar Andrew H. Song put in a monumental effort of leading the study, in a fantastic collaboration with Jonathan Liu at University of Washington . Interesting aspects: - Utilizing the whole tissue volume and leveraging 3D deep learning enable superior risk prediction performance compared to 2D deep learning baselines based on a few sampled tissue sections that emulate standard clinical practice. This indicates TriPath can harness additional information provided by 3D tissue morphology. - The performance is also superior to clinical baselines from a reader study that involved six expert pathologists. - The morphologically heterogeneous tissue volume could lead to opposing patient-level outcome predictions, dependent on which portion of the tissue volume is used. This concurs with current clinical literature warning that tissue sampling bias can lead to misdiagnosis. Some limitations: - While the 3D pathology cohort size is unprecedented, it is smaller than typical 2D pathology cohorts. Further large-scale studies will be required for validation. Nevertheless, we believe that this study will initiate a positive cycle, encouraging academic institutions and pharmaceutical companies to contribute large banks of human tissue blocks with paired clinical outcomes, thus speeding up advancements in 3D computational pathology. Concluding insights: We believe that 3D pathology is just around the corner - It has the huge potential to not only augment/improve the current clinical practice centered around 2D examination of human tissue, but also help reveal novel biomarkers for prognosis and therapeutic response.. Harvard Medical School Harvard Data Science Initiative Mass General Brigham Broad Institute

Faisal Mahmood

65,520 Aufrufe • vor 2 Jahren