Abstract: An implanted neural micro interface device is provided. The device comprises microfilaments of various materials and forms embedded within a body. The microfilaments form interaction sites with surrounding neural tissue at their exit points from the implantable body. The body and filaments are configurable in a multitude of positions to provide increased engagement of a given neural tissue section as well as interaction and closed loop feedback between the microfilament sites. Such configurations allow for a range of recording, stimulating, and treatment modalities for the device within research and clinical settings.

Abstract: An implanted neural micro interface device comprises microfilaments of various materials and forms embedded within a body. The microfilaments form interaction sites with surrounding neural tissue at their exit points from the implantable body. The body and filaments are configurable in a multitude of positions to provide increased engagement of a given neural tissue section as well as interaction and closed loop feedback between the microfilament sites. Such configurations allow for a range of recording, stimulating, and treatment modalities for the device within research and clinical settings.

Abstract: Devices and methods for manipulating devices such as micro-scale devices are provided. The devices can include a tether of various materials surrounded by a stiff body. The tether interfaces with microscale devices to draw them against the stiff body, holding the microscale devices in a locked position for insertion into or extraction out of tissue. The tensional hook and stiff body are configurable in a multitude of positions and geometries to provide increased engagement. Such configurations allow for a range of implantation and extraction surgical procedures for the device within research and clinical settings.

Abstract: Devices and methods for manipulating devices such as micro-scale devices are provided. The devices can include a tether of various materials surrounded by a stiff body. The tether interfaces with microscale devices to draw them against the stiff body, holding the microscale devices in a locked position for insertion into or extraction out of tissue. The tensional hook and stiff body are configurable in a multitude of positions and geometries to provide increased engagement. Such configurations allow for a range of implantation and extraction surgical procedures for the device within research and clinical settings.

Abstract: A device system and method for wirelessly communicating through tissue is provided. The device system comprises an implanted device with an array of antennas aligned with a tandem device with an array of antennas outside of the body. The two devices wirelessly communicate in a bi-directional manner. The implanted device can act as a physiological sensor and stimulator, and the external device can act as a controller and relay. Such configurations allow for a range of uses within research and clinical settings.

Abstract: Devices and methods for manipulating devices such as micro-scale devices are provided. The devices can include a tether of various materials surrounded by a stiff body. The tether interfaces with microscale devices to draw them against the stiff body, holding the microscale devices in a locked position for insertion into or extraction out of tissue. The tensional hook and stiff body are configurable in a multitude of positions and geometries to provide increased engagement. Such configurations allow for a range of implantation and extraction surgical procedures for the device within research and clinical settings.

Abstract: Devices and methods for manipulating devices such as micro-scale devices are provided. The devices can include a tether of various materials surrounded by a stiff body. The tether interfaces with microscale devices to draw them against the stiff body, holding the microscale devices in a locked position for insertion into or extraction out of tissue. The tensional hook and stiff body are configurable in a multitude of positions and geometries to provide increased engagement. Such configurations allow for a range of implantation and extraction surgical procedures for the device within research and clinical settings.

Abstract: A device system and method for wirelessly communicating through tissue is provided. The device system comprises an implanted device with an array of antennas aligned with a tandem device with an array of antennas outside of the body. The two devices wirelessly communicate in a bi-directional manner. The implanted device can act as a physiological sensor and stimulator, and the external device can act as a controller and relay. Such configurations allow for a range of uses within research and clinical settings.

Abstract: A device system and method for wirelessly communicating through tissue is provided. The device system comprises an implanted device with an array of antennas aligned with a tandem device with an array of antennas outside of the body. The two devices wirelessly communicate in a bi-directional manner. The implanted device can act as a physiological sensor and stimulator, and the external device can act as a controller and relay. Such configurations allow for a range of uses within research and clinical settings.

Abstract: An implanted neural micro interface device is provided. The device comprises microfilaments of various materials and forms embedded within a body. The microfilaments form interaction sites with surrounding neural tissue at their exit points from the implantable body. The body and filaments are configurable in a multitude of positions to provide increased engagement of a given neural tissue section as well as interaction and closed loop feedback between the microfilament sites. Such configurations allow for a range of recording, stimulating, and treatment modalities for the device within research and clinical settings.

Abstract: Devices and methods for manipulating devices such as micro-scale devices are provided. The devices can include a tether of various materials surrounded by a stiff body. The tether interfaces with microscale devices to draw them against the stiff body, holding the microscale devices in a locked position for insertion into or extraction out of tissue. The tensional hook and stiff body are configurable in a multitude of positions and geometries to provide increased engagement. Such configurations allow for a range of implantation and extraction surgical procedures for the device within research and clinical settings.

Abstract: An implanted neural micro interface device is provided. The device comprises microfilaments of various materials and forms embedded within a body. The microfilaments form interaction sites with surrounding neural tissue at their exit points from the implantable body. The body and filaments are configurable in a multitude of positions to provide increased engagement of a given neural tissue section as well as interaction and closed loop feedback between the microfilament sites. Such configurations allow for a range of recording, stimulating, and treatment modalities for the device within research and clinical settings.

Abstract: Devices and methods for manipulating devices such as micro-scale devices are provided. The devices can include a tether of various materials surrounded by a stiff body. The tether interfaces with microscale devices to draw them against the stiff body, holding the microscale devices in a locked position for insertion into or extraction out of tissue. The tensional hook and stiff body are configurable in a multitude of positions and geometries to provide increased engagement. Such configurations allow for a range of implantation and extraction surgical procedures for the device within research and clinical settings.

Abstract: Devices and methods for manipulating devices such as micro-scale devices are provided. The devices can include a tether of various materials surrounded by a stiff body. The tether interfaces with microscale devices to draw them against the stiff body, holding the microscale devices in a locked position for insertion into or extraction out of tissue. The tensional hook and stiff body are configurable in a multitude of positions and geometries to provide increased engagement. Such configurations allow for a range of implantation and extraction surgical procedures for the device within research and clinical settings.

Abstract: An implanted neural micro interface device is provided. The device comprises microfilaments of various materials and forms embedded within a body. The microfilaments form interaction sites with surrounding neural tissue at their exit points from the implantable body. The body and filaments are configurable in a multitude of positions to provide increased engagement of a given neural tissue section as well as interaction and closed loop feedback between the microfilament sites. Such configurations allow for a range of recording, stimulating, and treatment modalities for the device within research and clinical settings.

Abstract: An implanted neural micro interface device is provided. The device comprises microfilaments of various materials and forms embedded within a body. The microfilaments form interaction sites with surrounding neural tissue at their exit points from the implantable body. The body and filaments are configurable in a multitude of positions to provide increased engagement of a given neural tissue section as well as interaction and closed loop feedback between the microfilament sites. Such configurations allow for a range of recording, stimulating, and treatment modalities for the device within research and clinical settings.