Zander Labs

Red Rabbit Robotics develops autonomous humanoid robots designed to address labor shortages in manufacturing and supply chain operations. Led by co-CEOs Lingkang Zhang and David Goldberg, the US-based company is building general-purpose humanoid platforms capable of performing what it categorizes as dull, dangerous, and dirty jobs across manufacturing, logistics, packaging, and food sectors. The company's technical approach combines sophisticated sensors with advanced machine learning to enable robots to handle complex tasks requiring human-like precision and adaptability. The company's flagship product, the RX1 humanoid robot, follows a development path that begins with remote teleoperation and progresses toward full autonomy. This staged approach allows the system to operate in real-world industrial environments while the autonomy capabilities mature. The platform is designed for continuous operation without the fatigue and error patterns associated with repetitive human labor. Red Rabbit's technical domains span humanoid robotics, sensors, advanced machine learning, teleoperation, robot autonomy, and industrial automation. Red Rabbit Robotics has set an ambitious deployment target of one million humanoid robots, positioning its technology against a projected need for 3.8 million new manufacturing employees by 2033. The company estimates that nearly half of these positions may remain unfilled due to skills gaps. Its stated performance targets include operational costs at half that of human labor while delivering three times the productivity, though these represent mission-level goals rather than validated field metrics. The company frames its technology as a means to shift human workers toward creative and strategic roles while robots handle routine operational tasks.

We’re building a new kind of scientific institute that brings together world-class researchers, engineers, and innovators to tackle some of humanity’s most persistent problems. Founded by Larry Ellison, EIT focuses on four critical areas: health and medical science, food security and sustainable agriculture, climate change, and artificial intelligence & robotics. Our Oxford campus, designed by Foster + Partners and set for completion in 2027, will house state-of-the-art laboratories and collaborative spaces where breakthrough discoveries can move from lab to real-world application. What makes us different is how we combine fundamental research with practical solutions. We don’t just publish papers - we build technologies, launch products, and create platforms that actually address global challenges. Through our Ellison Scholars program, we fully fund exceptional students at Oxford University, nurturing the next generation of scientific leaders. We work closely with Oracle and other partners to leverage cutting-edge cloud infrastructure and AI capabilities at scale. Our team includes pioneering scientists like Sir John Bell, along with experts in machine learning, genomics, and engineering, all working together across traditional disciplinary boundaries.

We're a small team in Zurich developing Solskin - an adaptive solar facade that actually thinks. Most solar panels just sit there, but ours moves and responds to weather conditions using AI, optimizing both energy production and indoor comfort at the same time. We combine intelligent shading with solar generation through moveable panels that can reduce a building's energy consumption by up to 80%. The technology started as research at ETH Zürich's architecture department, and we've now moved beyond the lab to install our systems on real buildings across Switzerland and abroad. What makes us different is that we're not just slapping PV panels on walls - we're creating a dynamic building envelope that learns from its environment and the people inside. Our prefabricated modular system means we can adapt to pretty much any building, whether it's new construction or renovation, offices or homes. We've picked up some recognition along the way, including the Watt d'Or from the Swiss Federal Office of Energy and selection for the official Swiss delegation to the World Climate Summit. At the end of the day, we're engineers who want to make buildings carbon neutral without making them ugly or uncomfortable to live in.

The Robotics and AI Institute tackles fundamental challenges in robotics and artificial intelligence to develop machines capable of perceiving, learning, and interacting with the physical world. Led by Marc Raibert, founder of Boston Dynamics, the organization operates facilities in Cambridge, Massachusetts and Zurich, Switzerland. The institute structures its work around four core research areas: Cognitive Intelligence, Athletic Intelligence, Organic Design, and Ethics - reflecting both technical ambition and deliberate consideration of how intelligent machines should function in society. Research spans the technical stack from perception and machine learning to robot control, locomotion, and human-robot interaction. The organization maintains high-performance computing infrastructure and access to cutting-edge equipment to support development of next-generation robots designed to be more agile and capable than current platforms. Target applications include increasing productivity, removing humans from dangerous work environments, and providing assistive technology for individuals with disabilities. The institute positions itself as a hybrid between academic research labs and corporate R&D organizations - combining the fundamental research orientation of academia with the resources, pace, and focus on deployment characteristic of industry. With substantial backing and infrastructure investment, the organization aims to advance the state of the art in how robots perceive their environment, learn from experience, and physically interact with unstructured spaces. The work directly addresses constraints that currently limit robot autonomy, dexterity, and real-world deployment across industrial automation and assistive technology applications.

Apex Microtechnology designs and manufactures precision power analog monolithic, hybrid, and open frame components for demanding applications across industrial, defense, aerospace, medical, and semiconductor capital equipment markets. As a subsidiary of HEICO Corporation, Apex delivers industry-leading innovation in high voltage, high current analog solutions that engineers trust for mission-critical systems. The company's product portfolio encompasses linear amplifiers capable of up to 50A continuous current and 2500V supply voltage, PWM amplifiers, integrated power modules reaching 200A, precision ICs, and voltage references with ultra-low noise performance. Apex operates a DLA MIL-PRF38534 certified U.S. manufacturing facility with ISO 9001:2015 registration, ensuring reliability for defense and space applications. Their radiation-tolerant product family addresses new space requirements, while application engineers provide worldwide technical support to help customers solve complex design challenges.

DEKA Research & Development, founded in 1982 by Dean Kamen, operates from the historic Amoskeag Millyard in Manchester, New Hampshire, employing nearly a thousand engineers, technicians, machinists, and designers. The company has built a portfolio of more than 6,000 patents across multiple technology domains, with core capabilities spanning the complete product lifecycle from R&D through design and manufacturing. Over three decades of operation, DEKA has developed technologies across medical devices, water purification systems, autonomous robotics, and mobility enhancement systems. The company's technical scope includes infusion systems, dialysis innovations, organ preservation technologies, and what it describes as regenerative manufacturing approaches. DEKA's autonomous robotics work represents one of several parallel development tracks, alongside medical device development and water purification technologies. The engineering team works collaboratively across disciplines, with machinists, designers, and engineers operating under the same roof to iterate on hardware and system integration challenges. DEKA maintains end-to-end engineering and manufacturing capabilities on its New Hampshire campus, allowing for rapid prototyping and refinement of complex electromechanical systems. The company's work addresses problems at the intersection of hardware constraints, real-world deployment requirements, and regulatory considerations - particularly in medical applications where reliability and safety are non-negotiable. Projects span from assistive mobility technologies to autonomous systems, each requiring different approaches to sensing, actuation, and control architecture. The organization positions itself as serving global markets while maintaining its operational base in New Hampshire. Its patent portfolio and multi-decade operating history indicate sustained technical output across healthcare, robotics, and related fields, with technologies intended for deployment in clinical, field, and industrial environments.