EEka Robotics builds transport robotics systems with automated guided vehicles, control software, and fleet management to automate material movement. Its platform trains robot controllers in simulation using self-supervised learning and then transfers the policies to real robots through sim-to-real reinforcement learning, giving robots practical intuition for dynamic environments. The company differentiates itself with a strong academic and industry-backed team and a focus on physical AI and end-to-end automation for robotics and drones. Its goal is to enable autonomous transport robotics that continuously learn from their surroundings, reducing manual labor and increasing efficiency.
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11-50
Company Stage
Series A
Total Funding
$150M
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Cambridge, MA
Founded
2025
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The Era of Superhuman Robotics
Eka Robotics raises $150 million to scale its force-aware physical AI technology. October 21, 2026 Highlights. * Eka Robotics secured a $150 million Series A round led by Andreessen Horowitz and F-Prime. * Its $1.45 billion post-money valuation reflects investor interest in physical AI and dexterous robotic manipulation. * The startup's vision-force-action model combines sensory feedback with reinforcement learning and physics simulation. * Eka reports handling rates of approximately 1,500 objects per hour and grasp reliability above 95%. * Industrial durability and performance beyond pick-and-place applications remain key challenges. Eka Robotics raises $150 million for physical AI. Eka Robotics has raised $150 million in Series A funding at a post-money valuation of $1.45 billion, positioning the startup among the emerging companies developing advanced AI systems for physical tasks. The round was led by Andreessen Horowitz (a16z) and F-Prime. The company was founded by Pulkit Agrawal, an MIT professor, and Tuomas Haarnoja, a former Google DeepMind researcher. Eka is developing a robotic manipulation system that combines a specialised gripper, force sensors and a deep-learning model. Its objective is to help robots handle a wide range of objects with greater speed, precision and adaptability. Despite substantial investment in robotics, manipulating everyday objects reliably remains difficult. Robots can perform repetitive tasks in controlled environments, but handling unfamiliar objects, responding to unexpected contact and adjusting grip strength can require significant engineering and training. Eka is targeting these limitations with an approach that prioritises physical interaction alongside visual understanding. Why Eka is combining vision with force. Many contemporary robotics models use a vision-language-action architecture, connecting visual information and language instructions with physical actions. Eka instead focuses on a vision-force-action approach, which incorporates force measurements into the relationship between perception and movement. The distinction matters because cameras can help a robot locate an object and estimate its position, but visual information alone may not reveal how much pressure is needed to grasp it safely. A delicate object such as a raspberry requires a different grip from a heavy or rigid component. The robot must detect contact, adjust the force it applies and respond when the object moves or resists. Eka's specialised gripper is designed to address this challenge through a more flexible mechanism and additional force sensors. These allow the system to respond to physical contact rather than relying exclusively on visual estimates. According to the company, the combination helps its robots adapt to different objects without requiring retraining for every new item. The broader aim is to improve the connection between high-level AI reasoning and the low-level control required to execute physical tasks safely and consistently. Simulation and reinforcement learning drive training. Eka's approach also differs from systems that rely heavily on recorded human demonstrations. The startup uses physics simulation to model the forces a robot encounters while manipulating objects. These simulated environments support reinforcement learning, allowing the system to practise tasks repeatedly and improve its behaviour through experience. This approach could reduce dependence on collecting large volumes of physical demonstrations, which can be expensive and time-consuming. Simulations also allow developers to explore different interactions and failure scenarios at a scale that may be impractical with physical robots. Eka's founders say the system can generate thousands of hours of robot experience in minutes through simulation. However, simulated performance does not automatically translate into reliable real-world operation. Differences between simulated environments and actual hardware can affect how a robot responds to friction, unexpected contact, component wear and variations in objects. The company's ability to transfer learned behaviour into physical environments will therefore be central to its commercial success. Reported performance targets industrial applications. Eka's reported demonstrations have attracted attention because of the speed and adaptability of its robotic manipulation system. The company says its robot can handle approximately 1,500 objects per hour weighing up to one kilogram, compared with around 600 objects per hour for a human performing the cited task. Eka also reports grasp reliability above 95%. These figures suggest potential applications in industrial environments where repetitive handling tasks require both speed and careful control. However, the supplied reporting does not establish that the results have been independently benchmarked under standardised conditions. The company is pursuing industrial pilots involving pick-and-place operations and wire manipulation. These tasks are relevant to manufacturing and assembly, where components must be positioned, arranged or connected accurately. Eka says its gripper hardware costs less than $1,000 and is rated for five million duty cycles. Its longer-term target is 20 million cycles, a benchmark the company associates with standard industrial robotic arms. Reaching that level of durability will be important for customers evaluating equipment expected to operate continuously on production lines. From laboratory demonstrations to factory deployment. Despite the reported results, Eka still faces a substantial deployment challenge. A robot that performs impressively in a demonstration must also operate consistently across long production runs, different materials and changing workplace conditions. Industrial customers need equipment that can maintain performance without frequent failures, repairs or costly interruptions. Generalisability is another unresolved question. Successful pick-and-place performance does not necessarily demonstrate competence in more complex assembly tasks, which may involve multiple coordinated movements, precise force control and interactions with several components. Eka is initially concentrating on pick, arrange and place workflows, alongside wire handling, rather than attempting to automate every industrial task immediately. This focused strategy could help the startup establish measurable value in selected applications before expanding into more complicated operations. The $150 million funding round gives Eka additional resources to develop its technology and pursue commercial deployments. Its next milestone will be demonstrating that the combination of force-aware AI, simulation and specialised hardware can deliver dependable results outside controlled demonstrations. Physical AI moves toward practical robotics. Eka's approach highlights an important direction in physical AI: improving how robots interact with the real world, rather than focusing exclusively on planning and visual recognition. More capable reasoning models can help determine what a robot should do, but execution depends on sensing contact, controlling forces and responding to physical uncertainty. By building its system around those interactions, Eka is attempting to narrow the gap between general-purpose AI capabilities and useful robotic work. The company's reported funding and valuation signal strong investor interest, but its long-term prospects will depend on real-world reliability, manufacturing economics and the range of tasks its technology can perform. If Eka can translate its demonstrations into durable industrial systems, its combination of force-sensitive hardware and reinforcement learning could become a significant approach to robotic manipulation.
Eka Robotics raises $150 million at a $1.45 billion valuation for robot-gripping AI. Eka Robotics raises $150 million at a $1.45 billion valuation to advance robot-gripping AI, reporting over 95% success at 1,500 picks per hour. * Published onOctober 20, 2026 * InAI, News, Robotics About 1,500 objects an hour, each weighing up to 1 kg, is the pickup rate for Eka Robotics' arm. A human manages about 600. Eka reports a success rate above 95%, using a manipulation system that pairs a force-sensitive gripper with a new type of deep-learning model. MIT professor Pulkit Agrawal and former Google DeepMind researcher Tuomas Haarnoja founded the company, which has now raised $150 million in a Series A round. Led by venture funds a16z and F-Prime, the financing gives Eka a post-money valuation of $1.45 billion. "They are already exceeding superhuman performance for certain tasks, and so we think over the next few months there will be superhuman performance in many dexterous manipulation tasks," Raghu Raguram, the a16z general partner who co-led the fundraising round, told TechCrunch. Billions of dollars of investment and large amounts of video training haven't made picking things up easy for robots. But Eka's demonstration stood out to University of Illinois Urbana-Champaign professor Kris Hauser. He described its "wow factor" relative to the other robot demonstrations he'd seen recently. Hauser said the robot "was able to adapt to a large number of different objects without retraining," and noted how it kept attempting a task after failing. He described that quality as "humanness, creepy humanness that it would try over and over again if it failed the first time." Discover more Read Company News Learn Physics Upgrade Cookware A second roboticist requested anonymity because they work at a frontier lab. They told TechCrunch that the system prompted an emotional reaction comparable to watching robots first master reliable legged locomotion five to ten years before. The arm's movement is fast and smooth, and its power is sufficient to damage it at those speeds. That led the observer to conclude that "they have a lot of trust in their algorithm not breaking the robot. I wonder how many robots they broke along the way?" When the anonymous roboticist handed the robot a raspberry, apparently one of the lab's preferred test objects, the arm rushed toward their arm, slowed just in time, and touched them gently. "The experience of a big, heavy robot rushing towards my arm and then slowing down just in time and very gently touching me is a feeling that I am, as we speak, carrying this feeling in my body," they told TechCrunch. How to keep a raspberry intact. That precision stems in part from the model's underlying design. Vision-language-action models train on the relationships among language, visual inputs, and actions. Eka's alternative is a vision-force-action model, described by TechCrunch as connecting language, force inputs, and actions. Rodney Brooks and other critics contend that generative AI models for robotics won't succeed without representing touch and force. Eka's performance lends weight to their argument. "Vision is not the primary way in which you close this last millimeter problem," Agrawal told TechCrunch. "Vision tells you roughly where the object is, what the pose is, but the actual grabbing, the actual searching is happening through forces." Discover more Stream Indie Films Learn AI Tools Try Office Apps Compared with conventional grippers, the hand Eka developed is more flexible and has additional force sensors. It can react to contact, allowing it to hold a raspberry without squashing it. For competitive reasons, the founders haven't disclosed the implementation in detail, but they have explained the broad training method. A physics simulator models the various forces a robot encounters when grasping an object. This becomes a reinforcement learning environment that can run at scale. Eka says a few minutes of simulation can generate thousands of hours' worth of robot experience. The founders first crossed paths during graduate school at the University of California, Berkeley. Agrawal and Haarnoja are both leading researchers working on reinforcement learning for robotic control. They bet on using simulation to scale this learning, instead of relying on videos collected by gigworkers or robot operators carrying out tasks over many hours. For Hauser, the advantage is that learning needn't stop at what the examples show. "Rather than being limited to the data that you're collecting from, say, human demonstrations, Eka is pushing through reinforcement learning this approach where the robot can surpass any kind of demonstrations that are given to it," he said. "What's really exciting is that they're able to not be limited to the data that is presented to them for training." Eka's dependable object handling relied on simulation. Historically, transferring simulated skills to the physical world has been harder when a task requires contact with objects, rather than avoiding them. Discover more Read Daily News "What EKA is bridging is the generality-performance gap, which plagues a lot of modern robotics," Agrawal argues. Putting a general-purpose robot to work. A model's ability to try a wide range of tasks doesn't guarantee good results. The most generalizable physical AI models today have trouble carrying tasks out. At the other extreme, models trained to be highly capable at a single task may not close the business case for a company. The promise of generative AI is that robots could quickly learn multiple tasks, even novel ones. Robots have become more generally intelligent through existing methods. As an example, TechCrunch points to Astra, which its report describes as ChatGPT's latest LLM. It can use a robot in an unfamiliar environment to carry out tasks, though execution is slow and expensive. The proposed division of labor gives Eka responsibility for the physical actions and a more general model responsibility for deciding how to solve the problem. Astra, for instance, might know to put plates in a cupboard after they're taken out of a dishwasher. Handling a dish gently enough to lift it without damage would fall to Eka's model. "Most of the field has been focusing on the planning," Haarnoja says, "so they approach from the top: high-level intelligence, pushing that down towards the physical. Whereas we think about it from the bottom up." Eka hasn't yet proved itself in industrial deployment. It is running secretive pilots with several industrial customers on pick-and-place and wire manipulation. The distance between laboratory performance and production-line use is nearly as great as the one between simulation and the real world. "What's going to be a big challenge is when they work with integrators on real assembly lines, and it needs to run without breaking for an entire year," Hauser said. How generalizable Eka's techniques are to different tasks is another question Hauser considers unanswered. "What I've seen is pick and place, but many industry tasks that are value added involve more than just pick-and-place." Agrawal's work on deployment also includes hardware durability. According to him, the gripper costs under $1,000 and is currently rated for 5 million duty cycles. The ultimate goal for the gripper hardware is 20 million cycles, matching the benchmark set by standard industrial arms. "What we are building is that engineering of how to design entire workflows, but we are starting off being very pragmatic, and saying here are two verticals in pick, arrange, place, and wire handling, let's make them be home runs," Agrawal said. "Once we have made home runs on them, the sky is the limit in how much we can do with the approach we are developing." Share your love The genius geek. The weekly geek. Don't miss a thing: get its top stories in a weekly roundup.
Eka Robotics, a Cambridge, Massachusetts startup, has reportedly raised a $150 million Series A, according to TechCrunch. The headline says a $1.45 billion valuation, but the article text cites $1 billion. Founded in 2025 by MIT professor Pulkit Agrawal and former DeepMind researcher Tuomas Haarnoja, the company builds a robotic arm that can grasp a wide range of objects, from light bulbs to food products. It closed an $11 million seed round on May 9, 2025, backed by Andreessen Horowitz and MFV Partners. Eka trains robots through simulation-based reinforcement learning and physics reasoning, rather than copying human demonstrations. It employs about 25 people.
Eka Robotics reportedly hits $1.45B valuation with $150M Series A. Eka Robotics reportedly raised a $150M Series A at a $1B valuation for its physics-trained robotic arm that handles fragile objects.
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Industries
Company Size
11-50
Company Stage
Series A
Total Funding
$150M
Headquarters
Cambridge, MA
Founded
2025
Find jobs on Simplify and start your career today
Don't see your dream role? Check out thousands of other roles on Simplify.Browse all jobs