Abstract: The present application is directed to apparatus, systems and methods for automated delivery of fluids. According to one aspect, it is especially useful in providing a restricted flow of fluid to a tool, for example, a cannula or a needle used in hair transplantation. According to another aspect, the systems and methods provided herein enable the hair harvesting or a hair implantation tool to be cleaned, flushed or lubricated.

Abstract: The present application is directed to apparatus, systems and methods for automated delivery of fluids. According to one aspect, it is especially useful in providing a restricted flow of fluid to a tool, for example, a cannula or a needle used in hair transplantation. According to another aspect, the systems and methods provided herein enable the hair harvesting or a hair implantation tool to be cleaned, flushed or lubricated.

Abstract: A system and method for harvesting, storing, and implanting biological unit delivery tools, particularly useful to facilitate robotic hair transplant procedures. A storage device includes a lower module having a plurality of receptacles for containing delivery tools, for example small tubular follicular unit implant needles. The receptacles may contain liquid for maintaining hydration of the biological unit. The lower module may be manipulated by an automated system which includes a pick and placed collet that handles the delivery tools one at a time in an implant procedure. An upper module registers with the lower module and provides guide bores leading to the delivery tools in the receptacles. A biological unit removal tool, such as a follicular unit harvesting needle, can be carried by the collet and used to deposit biological units through the guide bores and into each delivery tool.

Abstract: A system and method for harvesting, storing, and implanting biological unit delivery tools, particularly useful to facilitate robotic hair transplant procedures. A storage device includes a lower module having a plurality of receptacles for containing delivery tools, for example small tubular follicular unit implant needles. The receptacles may contain liquid for maintaining hydration of the biological unit. The lower module may be manipulated by an automated system which includes a pick and placed collet that handles the delivery tools one at a time in an implant procedure. An upper module registers with the lower module and provides guide bores leading to the delivery tools in the receptacles. A biological unit removal tool, such as a follicular unit harvesting needle, can be carried by the collet and used to deposit biological units through the guide bores and into each delivery tool.

Abstract: A robot drive assembly for moving a working tool in x, y, z and theta directions comprising three independent, coaxially nested tubes, each tube being driven around a common central axis by drive belts attached to separate drive motors located in a mounting flange associated with the outermost tube. The motors, and the tubes which they drive, provide horizontal rotary motion to a robot arm attached to the upper end of the outer tube and the wrist and elbow of that arm. A fourth motor controls vertical motion of the whole assembly. The robot system also includes motor position adjustment structure and belt tension structure designed for ease of use and to eliminate movement of tensioned components once locked in position.

Abstract: A robot drive assembly for moving a working tool in x, y, z and theta directions comprising three independent, coaxially nested tubes, each tube being driven around a common central axis by drive belts attached to separate drive motors located in a mounting flange associated with the outermost tube. The motors, and the tubes which they drive, provide horizontal rotary motion to a robot arm attached to the upper end of the outer tube and the wrist and elbow of that arm. A fourth motor controls vertical motion of the whole assembly. The robot system also includes motor position adjustment structure and belt tension structure designed for ease of use and to eliminate movement of tensioned components once locked in position.

Abstract: A robot drive assembly for moving a working tool in x, y, z and theta directions comprising three independent, coaxially nested tubes, each tube being driven around a common central axis by drive belts attached to separate drive motors located in a mounting flange associated with the outermost tube. The motors, and the tubes which they drive, provide horizontal rotary motion to a robot arm attached to the upper end of the outer tube and the wrist and elbow of that arm. A fourth motor controls vertical motion of the whole assembly. The robot system also includes motor position adjustment structure and belt tension structure designed for ease of use and to eliminate movement of tensioned components once locked in position.

Abstract: A robot drive assembly for moving a working tool in x, y, z and theta directions comprising three independent, coaxially nested tubes, each tube being driven around a common central axis by drive belts attached to separate drive motors located in a mounting flange associated with the outermost tube. The motors, and the tubes which they drive, provide horizontal rotary motion to a robot arm attached to the upper end of the outer tube and the wrist and elbow of that arm. A fourth motor controls vertical motion of the whole assembly. The robot system also includes motor position adjustment structure and belt tension structure designed for ease of use and to eliminate movement of tensioned components once locked in position.