Small Business Innovation Research/Small Business Tech Transfer
Pneubotics - Membrane-Based Robotics for Remote Material Handling, Phase I
Project Description
We have invented a new class of robotics, called `Pneubotics', that rival current manipulators in payload and reach at 1/10th the weight. Our technology leverages insights into lightweight materials and mass manufacturing to create robots that derive power, structure, and movement from pressurized air. As a result, drive trains, motors, bearings, shafts, sliding surfaces, and excess structural material are eliminated, leading the way for robots that exhibit extremely high strength to weight ratios, inherent human safe operation, and high degrees of freedom at comparatively low part count. This transformative new technology has the potential to enable the widespread use of automated material handling on missions beyond low earth orbit. The compliant nature of these robotic systems allows them to robustly grasp arbitrarily shaped objects and make them ideal for operating around sensitive equipment or cooperatively with humans. Similarly, due to their fluidic architecture they can be deflated and stowed for efficient transport. The work described in this phase I SBIR proposal aims to develop the key technological components that will allow the production of Pneubotic systems, including novel pressure vessel based fabric actuator design, a pneumatic power architecture that exceeds electromagnetic efficiency, and dynamic models of inflated fabric structures. These components will enable the construction of a full prototype manipulation system in phase II.
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Anticipated Benefits
Pneubotic systems offer robust grasping, human safe operation, and efficient transportation, vital qualities for robotic manipulators that will join future NASA missions. This unique technology enables a diverse set of applications from tele-operated repairs to safe capture systems at the large scale. The lightweight, fully compliant structure alleviates concerns about errant motion during interactions with humans while the use of fabric manufacturing techniques allows for the construction of complex shapes which enhances dexterous manipulation. The technology also enables wearable fabric orthotics (exoskeletons) that can be actuated based on a tele-operated arm and provide haptic feedback to a human user. Due to the low weight and price point of Pneubotic technology, high performance manipulators with the strength of industrial arms become available to mobile applications. The commercial potential of such a product is immense and has applications in a wide range of markets including manufacturing, agriculture, military, commercial, and consumer. We are targeting an untapped sector of the global material handling market that we are calling "mobile material handling". This market encompasses tasks that take place outside the confines of a structured industrial cell where objects between 10kg - 30kg need to be moved short distances. Distribution centers, fulfillment centers, package delivery, baggage centers, and small manufacturing facilities are all potential customers. Traditionally, these applications have resisted robotics due to their high cost, weight, lack of mobility, and need for safety cages. Pneubotics can uniquely address the challenges presented by mobile material handling and offer a product that replaces pallet jacks and hand trucks with human directed solutions that take the burden of lifting off of the operator.
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Primary U.S. Work Locations and Key Partners
| Organizations Performing Work | Role | Type | Location |
|---|---|---|---|
| Otherlab, Inc. | Lead Organization | Industry | San Francisco, California |
Ames Research Center
(ARC)
|
Supporting Organization | NASA Center | Moffett Field, California |
Primary U.S. Work Locations
-
California
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