MLchartDataset catalogue

Patent · US10512583B2 · B2 · US

Forward or rearward oriented exoskeleton

(11) Publication number
US10512583B2
(21) Application number
14/704,964
(22) Filing date
2015-05-05
(30) Priority date
2014-05-06
(43) Publication date
2019-12-24
(45) Date of grant
2019-12-24
(51) IPC
A61H 1/02; A61H 3/00; B25J 9/00
(52) CPC
  • A61H Physical therapy apparatus, e.g. devices for locating or stimulating reflex points in the body; artificial respiration; massage; bathing devices for special therapeutic or hygienic purposes or specific parts of the body: 3/00, 1/0237, 1/024, 1/0244, 1/0255, 1/0262, 1/0266, 1/0274, 1/0277, 1/0281, 1/0285, 2201/1207, 2201/1238, 2201/1614, 2201/1628, 2201/164, 2201/165, 2201/1676, 2201/5061
  • B25J Manipulators; chambers provided with manipulation devices: 17/0283, 9/0006, 9/144
(73) Assignee
Sarcos LC
(72) Inventors
Fraser M. Smith
(54) Title
Forward or rearward oriented exoskeleton
(57) Abstract

An exoskeleton is disclosed. The exoskeleton can include support members rotatably coupled together about a joint. The joint can define a degree of freedom, which can correspond to a degree of freedom of a human extremity, such as hip medial/lateral rotation, ankle medial/lateral rotation, shoulder medial/lateral rotation, or wrist pronation/supination rotation. One or more parasagittal planes through the human extremity can intersect the joint to minimize a gravity-induced moment on the first joint during operation of the exoskeleton.

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Claims (29)

  1. A lower body exoskeleton, comprising: a first joint defining a degree of freedom corresponding to a degree of freedom of a hip medial/lateral rotation of a human leg; and first and second support members rotatably coupled together about the first joint, wherein the first joint is positionable about a human leg such that a parasagittal plane that extends through the human leg intersects the first joint and a portion of each of the first and second support members, such that the first joint is positionable in at least one of a forward oriented or a rearward oriented position relative to the human leg to minimize a gravity-induced moment on the first joint during operation of the exoskeleton.
  2. The lower body exoskeleton of claim 1, wherein at least a portion of at least one of the first or second support members associated with the first joint is adapted to be located in at least one of a forward oriented or a rearward oriented position relative to the human leg.
  3. The lower body exoskeleton of claim 1, wherein the first joint is a non-powered joint and moveable under power by an operator.
  4. The lower body exoskeleton of claim 3, further comprising a biasing mechanism comprising a spring operatively coupled to at least one of the first or second support members to bias the first and second support members associated with the first joint to a neutral position.
  5. The lower body exoskeleton of claim 1, wherein the first joint is a powered joint, and wherein an actuator associated with the first joint functions to apply a torque to the first and second support members associated with the first joint.
  6. The lower body exoskeleton of claim 5, wherein the first joint is a low-powered joint, and wherein the actuator associated with the first joint is a low powered actuator that operates at less power and that applies less torque than that of a powered actuator associated with a joint of the lower body exoskeleton that defines a degree of freedom corresponding to a degree of freedom of a flexion/extension rotation.
  7. The lower body exoskeleton of claim 1, wherein at least one of the first or second support members associated with the first joint extends between the first joint and a second joint adapted to be located in at least one of a medially and laterally oriented position relative to the human leg, wherein the at least one of the first or second support members is adapted to extend around the human leg from at least one of a forward or a rearward oriented positon to at least one of the medially and laterally oriented position.
  8. The lower body exoskeleton of claim 1, further comprising a second joint that defines a degree of freedom corresponding to an ankle medial/lateral rotation of the human leg, and wherein the second joint is positionable about the human leg such that the parasagittal plane through the human leg intersects the second joint.
  9. The lower body exoskeleton of claim 8, wherein the second joint is a non-powered joint and moveable under power by an operator.
  10. The lower body exoskeleton of claim 1, further comprising a second joint that defines a degree of freedom corresponding to a degree of freedom of at least one of hip flexion/extension and hip abduction/adduction.
  11. The lower body exoskeleton of claim 1, further comprising a second joint that define a degree of freedom corresponding to a degree of freedom of knee flexion/extension.
  12. The lower body exoskeleton of claim 1, further comprising a second joint that defines a degree of freedom corresponding to a degree of freedom of an ankle flexion/extension rotation.
  13. The lower body exoskeleton of claim 1, further comprising a support structure from which the first and second support members extend, wherein the support structure is adapted to be located substantially in at least one of a forward oriented or a rearward oriented position relative to a human operator.
  14. An upper body exoskeleton, comprising: a first joint defining a degree of freedom corresponding to a degree of freedom of a shoulder medial/lateral rotation of a human arm; and first and second support members rotatably coupled together about and defining the first joint, wherein the first joint is positionable about a human arm such that a parasagittal plane through the human arm intersects the first joint and a portion of each of the first and second support members to minimize a gravity-induced moment on the first joint during operation of the exoskeleton.
  15. The upper body exoskeleton of claim 14, wherein at least a portion of at least one of the first or second support members associated with the first joint is adapted to be located in at least one of a forward oriented or a rearward oriented position relative to the human arm.
  16. The upper body exoskeleton of claim 14, wherein at least one of the first or second support members associated with the first joint extends between the first joint and a second joint adapted to be located in at least one of a medially and laterally oriented position relative to the human arm, wherein the at least one of the first or second support members is adapted to extend around the human arm from at least one of a forward or a rearward oriented positon to at least one of the medially and laterally oriented position.
  17. The upper body exoskeleton of claim 14, further comprising a second joint that defines a degree of freedom corresponding to a wrist pronation/supination rotation of the human arm, and wherein the second joint is positionable about the human arm such that the parasagittal plane through the human arm intersects the second joint.
  18. The upper body exoskeleton of claim 14, further comprising a second joint that defines a degree of freedom corresponding to a degree of freedom of at least one of shoulder flexion/extension and shoulder abduction/adduction.
  19. The upper body exoskeleton of claim 14, further comprising a second joint that defines a degree of freedom corresponding to a degree of freedom of elbow flexion/extension.
  20. The upper body exoskeleton of claim 14, further comprising a support structure from which the first and second support members extend, wherein the support structure is adapted to be located substantially in at least one of a forward oriented or a rearward oriented position relative to a human operator.
  21. An exoskeleton, comprising: first and second joints, each defining a degree of freedom corresponding to a degree of freedom of a joint of a human extremity; and a plurality of support members associated with each of the first and second joints, respectively, an actuator associated with at least one of the first or second joints to apply a torque to the support members associated with the respective one of the first or second joints, wherein the first joint and the second joint are positionable about the human extremity such that one or more parasagittal planes through the human extremity intersects the first joint and the second joint, and a portion of each of the support members associated with the first and second joints, such that the first and second joints are positionable in at least one of a forward or a rearward oriented position relative to the human extremity to minimize a gravity-induced moment on each of the first and second joints during operation of the exoskeleton.
  22. The exoskeleton of claim 21, wherein the degree of freedom defined by each of the respective first and second joints corresponds to a degree of freedom of at least one of hip adduction/abduction, hip medial/lateral rotation, ankle inversion/eversion, ankle medial/lateral rotation, shoulder medial/lateral rotation, wrist adduction/abduction, or wrist pronation/supination of the human extremity.
  23. The exoskeleton of claim 21, wherein the first and second joints are adapted to be located in a forward oriented position relative to the human extremity.
  24. The exoskeleton of claim 21, wherein at least one of the first or second support members is adapted to be located substantially in at least one of a forward oriented or a rearward oriented position relative to the extremity.
  25. The exoskeleton of claim 21, wherein the actuator is associated with at least one of the first or second joints defining a degree of freedom corresponding to a degree of freedom of at least one of hip flexion/extension, knee flexion/extension, ankle flexion/extension, shoulder flexion/extension, shoulder adduction/abduction, elbow flexion/extension, or wrist flexion/extension of the human extremity.
  26. The exoskeleton of claim 21, further comprising a support structure from which the first and second support members extend, wherein the support structure is adapted to be located substantially in at least one of a forward oriented or a rearward oriented position relative to a human operator.
  27. A method for facilitating use of a lower body exoskeleton with little or no actuation for a degree of freedom corresponding to at least one of a degree of freedom of a hip medial/lateral rotation or an ankle medial/lateral rotation of a human leg, the method comprising: providing a lower body exoskeleton including a first joint defining a degree of freedom corresponding to a degree of freedom of a hip medial/lateral rotation of a human leg, and first and second support members rotatably coupled together about the first joint, a second joint defining a degree of freedom corresponding to a degree of freedom of an ankle medial/lateral rotation, and third and fourth support members rotatably coupled together about the second joint; and locating a portion of at least one of the first, second, third, and fourth support members and the first joint and the second joint in at least one of a forward oriented or a rearward oriented position relative to the human leg such that, when the lower body exoskeleton is worn by a wearer, a parasagittal plane through the human leg intersects the first joint and the second joint to minimize a gravity-induced moment on each of the first joint and the second joint during operation of the exoskeleton.
  28. The method of claim 27, wherein at least a portion of at least one of the first or second support members associated with the first joint is adapted to be located in at least one of a forward oriented or a rearward oriented position relative to the human leg.
  29. A lower body exoskeleton, comprising: a first joint defining a degree of freedom corresponding to a degree of freedom of a hip medial/lateral rotation of a human leg; first and second support members rotatably coupled together about the first joint; a second joint defining a degree of freedom corresponding to a degree of freedom of an ankle medial/lateral rotation of the human leg; third and fourth support members rotatably coupled together about the second joint, and wherein the first joint and the second joint are positionable about a human leg, such that a parasagittal plane through the human leg intersects the first joint and the second joint, and a portion of each of the first, second, third, and fourth support members, such that the first joint and the second joint are each positionable in at least one of a forward oriented or a rearward oriented position relative to the human leg, to minimize a gravity-induced moment on each of the first joint and the second joint during operation of the exoskeleton.

Description

A wide variety of exoskeleton, humanoid, and other legged robot systems exist. The fundamental technical problem to be solved for such systems, where energetic autonomy is concerned, is power. Two options are available: use a high-output power supply that can meet the demands of the robotic system, or use less power. The first option lacks practicality, inasmuch as portable power remains a challenge, which leaves the second option. Accordingly, the exoskeletons or ambulatory robots currently in existence are not capable of providing high force outputs for prolonged periods of time. In other words, the power issue has been a challenging obstacle, with the typical solution being to reduce the force output capabilities of the system.

Features and advantages of the invention will be apparent from the detailed description which follows, taken in conjunction with the accompanying drawings, which together illustrate, by way of example, features of the invention; and, wherein:

FIG. 1 is an illustration of an exoskeleton in accordance with an example of the present disclosure.

FIG. 2A illustrates a sagittal plane of a human body.

FIG. 2B is a schematic cross-section of a human extremity, illustrating joints of the exoskeleton of FIG. 1 located relative to the extremity, in accordance with an example of the present disclosure.

FIGS. 3A and 3B are illustrations of an exoskeleton in accordance with another example of the present disclosure.

FIGS. 4A and 4B are illustrations of an exoskeleton in accordance with yet another example of the present disclosure.

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Record as JSON
{
  "publication_number": "US10512583B2",
  "country": "US",
  "kind": "B2",
  "title": "Forward or rearward oriented exoskeleton",
  "abstract": "An exoskeleton is disclosed. The exoskeleton can include support members rotatably coupled together about a joint. The joint can define a degree of freedom, which can correspond to a degree of freedom of a human extremity, such as hip medial/lateral rotation, ankle medial/lateral rotation, shoulder medial/lateral rotation, or wrist pronation/supination rotation. One or more parasagittal planes through the human extremity can intersect the joint to minimize a gravity-induced moment on the first joint during operation of the exoskeleton.",
  "claims": [
    "1. A lower body exoskeleton, comprising: a first joint defining a degree of freedom corresponding to a degree of freedom of a hip medial/lateral rotation of a human leg; and first and second support members rotatably coupled together about the first joint, wherein the first joint is positionable about a human leg such that a parasagittal plane that extends through the human leg intersects the first joint and a portion of each of the first and second support members, such that the first joint is positionable in at least one of a forward oriented or a rearward oriented position relative to the human leg to minimize a gravity-induced moment on the first joint during operation of the exoskeleton.",
    "2. The lower body exoskeleton of claim 1, wherein at least a portion of at least one of the first or second support members associated with the first joint is adapted to be located in at least one of a forward oriented or a rearward oriented position relative to the human leg.",
    "3. The lower body exoskeleton of claim 1, wherein the first joint is a non-powered joint and moveable under power by an operator.",
    "4. The lower body exoskeleton of claim 3, further comprising a biasing mechanism comprising a spring operatively coupled to at least one of the first or second support members to bias the first and second support members associated with the first joint to a neutral position.",
    "5. The lower body exoskeleton of claim 1, wherein the first joint is a powered joint, and wherein an actuator associated with the first joint functions to apply a torque to the first and second support members associated with the first joint.",
    "6. The lower body exoskeleton of claim 5, wherein the first joint is a low-powered joint, and wherein the actuator associated with the first joint is a low powered actuator that operates at less power and that applies less torque than that of a powered actuator associated with a joint of the lower body exoskeleton that defines a degree of freedom corresponding to a degree of freedom of a flexion/extension rotation.",
    "7. The lower body exoskeleton of claim 1, wherein at least one of the first or second support members associated with the first joint extends between the first joint and a second joint adapted to be located in at least one of a medially and laterally oriented position relative to the human leg, wherein the at least one of the first or second support members is adapted to extend around the human leg from at least one of a forward or a rearward oriented positon to at least one of the medially and laterally oriented position.",
    "8. The lower body exoskeleton of claim 1, further comprising a second joint that defines a degree of freedom corresponding to an ankle medial/lateral rotation of the human leg, and wherein the second joint is positionable about the human leg such that the parasagittal plane through the human leg intersects the second joint.",
    "9. The lower body exoskeleton of claim 8, wherein the second joint is a non-powered joint and moveable under power by an operator.",
    "10. The lower body exoskeleton of claim 1, further comprising a second joint that defines a degree of freedom corresponding to a degree of freedom of at least one of hip flexion/extension and hip abduction/adduction.",
    "11. The lower body exoskeleton of claim 1, further comprising a second joint that define a degree of freedom corresponding to a degree of freedom of knee flexion/extension.",
    "12. The lower body exoskeleton of claim 1, further comprising a second joint that defines a degree of freedom corresponding to a degree of freedom of an ankle flexion/extension rotation.",
    "13. The lower body exoskeleton of claim 1, further comprising a support structure from which the first and second support members extend, wherein the support structure is adapted to be located substantially in at least one of a forward oriented or a rearward oriented position relative to a human operator.",
    "14. An upper body exoskeleton, comprising: a first joint defining a degree of freedom corresponding to a degree of freedom of a shoulder medial/lateral rotation of a human arm; and first and second support members rotatably coupled together about and defining the first joint, wherein the first joint is positionable about a human arm such that a parasagittal plane through the human arm intersects the first joint and a portion of each of the first and second support members to minimize a gravity-induced moment on the first joint during operation of the exoskeleton.",
    "15. The upper body exoskeleton of claim 14, wherein at least a portion of at least one of the first or second support members associated with the first joint is adapted to be located in at least one of a forward oriented or a rearward oriented position relative to the human arm.",
    "16. The upper body exoskeleton of claim 14, wherein at least one of the first or second support members associated with the first joint extends between the first joint and a second joint adapted to be located in at least one of a medially and laterally oriented position relative to the human arm, wherein the at least one of the first or second support members is adapted to extend around the human arm from at least one of a forward or a rearward oriented positon to at least one of the medially and laterally oriented position.",
    "17. The upper body exoskeleton of claim 14, further comprising a second joint that defines a degree of freedom corresponding to a wrist pronation/supination rotation of the human arm, and wherein the second joint is positionable about the human arm such that the parasagittal plane through the human arm intersects the second joint.",
    "18. The upper body exoskeleton of claim 14, further comprising a second joint that defines a degree of freedom corresponding to a degree of freedom of at least one of shoulder flexion/extension and shoulder abduction/adduction.",
    "19. The upper body exoskeleton of claim 14, further comprising a second joint that defines a degree of freedom corresponding to a degree of freedom of elbow flexion/extension.",
    "20. The upper body exoskeleton of claim 14, further comprising a support structure from which the first and second support members extend, wherein the support structure is adapted to be located substantially in at least one of a forward oriented or a rearward oriented position relative to a human operator.",
    "21. An exoskeleton, comprising: first and second joints, each defining a degree of freedom corresponding to a degree of freedom of a joint of a human extremity; and a plurality of support members associated with each of the first and second joints, respectively, an actuator associated with at least one of the first or second joints to apply a torque to the support members associated with the respective one of the first or second joints, wherein the first joint and the second joint are positionable about the human extremity such that one or more parasagittal planes through the human extremity intersects the first joint and the second joint, and a portion of each of the support members associated with the first and second joints, such that the first and second joints are positionable in at least one of a forward or a rearward oriented position relative to the human extremity to minimize a gravity-induced moment on each of the first and second joints during operation of the exoskeleton.",
    "22. The exoskeleton of claim 21, wherein the degree of freedom defined by each of the respective first and second joints corresponds to a degree of freedom of at least one of hip adduction/abduction, hip medial/lateral rotation, ankle inversion/eversion, ankle medial/lateral rotation, shoulder medial/lateral rotation, wrist adduction/abduction, or wrist pronation/supination of the human extremity.",
    "23. The exoskeleton of claim 21, wherein the first and second joints are adapted to be located in a forward oriented position relative to the human extremity.",
    "24. The exoskeleton of claim 21, wherein at least one of the first or second support members is adapted to be located substantially in at least one of a forward oriented or a rearward oriented position relative to the extremity.",
    "25. The exoskeleton of claim 21, wherein the actuator is associated with at least one of the first or second joints defining a degree of freedom corresponding to a degree of freedom of at least one of hip flexion/extension, knee flexion/extension, ankle flexion/extension, shoulder flexion/extension, shoulder adduction/abduction, elbow flexion/extension, or wrist flexion/extension of the human extremity.",
    "26. The exoskeleton of claim 21, further comprising a support structure from which the first and second support members extend, wherein the support structure is adapted to be located substantially in at least one of a forward oriented or a rearward oriented position relative to a human operator.",
    "27. A method for facilitating use of a lower body exoskeleton with little or no actuation for a degree of freedom corresponding to at least one of a degree of freedom of a hip medial/lateral rotation or an ankle medial/lateral rotation of a human leg, the method comprising: providing a lower body exoskeleton including a first joint defining a degree of freedom corresponding to a degree of freedom of a hip medial/lateral rotation of a human leg, and first and second support members rotatably coupled together about the first joint, a second joint defining a degree of freedom corresponding to a degree of freedom of an ankle medial/lateral rotation, and third and fourth support members rotatably coupled together about the second joint; and locating a portion of at least one of the first, second, third, and fourth support members and the first joint and the second joint in at least one of a forward oriented or a rearward oriented position relative to the human leg such that, when the lower body exoskeleton is worn by a wearer, a parasagittal plane through the human leg intersects the first joint and the second joint to minimize a gravity-induced moment on each of the first joint and the second joint during operation of the exoskeleton.",
    "28. The method of claim 27, wherein at least a portion of at least one of the first or second support members associated with the first joint is adapted to be located in at least one of a forward oriented or a rearward oriented position relative to the human leg.",
    "29. A lower body exoskeleton, comprising: a first joint defining a degree of freedom corresponding to a degree of freedom of a hip medial/lateral rotation of a human leg; first and second support members rotatably coupled together about the first joint; a second joint defining a degree of freedom corresponding to a degree of freedom of an ankle medial/lateral rotation of the human leg; third and fourth support members rotatably coupled together about the second joint, and wherein the first joint and the second joint are positionable about a human leg, such that a parasagittal plane through the human leg intersects the first joint and the second joint, and a portion of each of the first, second, third, and fourth support members, such that the first joint and the second joint are each positionable in at least one of a forward oriented or a rearward oriented position relative to the human leg, to minimize a gravity-induced moment on each of the first joint and the second joint during operation of the exoskeleton."
  ],
  "description_excerpt": "A wide variety of exoskeleton, humanoid, and other legged robot systems exist. The fundamental technical problem to be solved for such systems, where energetic autonomy is concerned, is power. Two options are available: use a high-output power supply that can meet the demands of the robotic system, or use less power. The first option lacks practicality, inasmuch as portable power remains a challenge, which leaves the second option. Accordingly, the exoskeletons or ambulatory robots currently in existence are not capable of providing high force outputs for prolonged periods of time. In other words, the power issue has been a challenging obstacle, with the typical solution being to reduce the force output capabilities of the system.\n\nFeatures and advantages of the invention will be apparent from the detailed description which follows, taken in conjunction with the accompanying drawings, which together illustrate, by way of example, features of the invention; and, wherein:\n\nFIG. 1 is an illustration of an exoskeleton in accordance with an example of the present disclosure.\n\nFIG. 2A illustrates a sagittal plane of a human body.\n\nFIG. 2B is a schematic cross-section of a human extremity, illustrating joints of the exoskeleton of FIG. 1 located relative to the extremity, in accordance with an example of the present disclosure.\n\nFIGS. 3A and 3B are illustrations of an exoskeleton in accordance with another example of the present disclosure.\n\nFIGS. 4A and 4B are illustrations of an exoskeleton in accordance with yet another example of the present disclosure.",
  "cpc": [
    "A61H 3/00",
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    "A61H 2201/1207",
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  "ipc": [
    "A61H 1/02",
    "A61H 3/00",
    "B25J 9/00"
  ],
  "assignees": [
    "Sarcos LC"
  ],
  "inventors": [
    "Fraser M. Smith"
  ],
  "filing_date": "2015-05-05",
  "publication_date": "2019-12-24",
  "grant_date": "2019-12-24",
  "priority_date": "2014-05-06",
  "application_number": "US-201514704964-A",
  "family_id": "53180548",
  "cited_by_count": 24,
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Record 2,392 of 8,000 in Patents full text (MLC-0201). Request the full dataset.