Abstract: Controlled heating can be used to achieve selective nerve block of certain neural fibers. As an example, the selective heat-induced neural modulation can be used for pain management. A controller can determine an amount of energy to be delivered to a heat delivery component of a neural prosthetic device for conversion to a heat signal and application to a nerve to block neural conduction in at least a portion of the nerve. The amount of energy to be delivered is determined based on a thermal dose profile. The controller can receive a signal comprising a temperature of the nerve when the heat signal is applied to the nerve; and alter the amount of energy received by the heat delivery component based on the temperature of the nerve so the amount of energy follows the thermal dose profile, and the temperature of the nerve remains within an allowable range.

Abstract: Aspects of this invention relate to a system and method of neural stimulation for intraoperative nerve monitoring for a living subject. The system includes an optical source configured to generate light; a delivering means coupled to the optical source to deliver the generated light to a target nerve of the living subject for stimulating the target nerve; and a detector coupled to the target nerve to record evoked signals responsive to the stimulation for intraoperatively monitoring of the target nerve.

Abstract: The present disclosure relates to modulating neural activity within brainstem circuitry to evoke a certain bodily function (e.g., cardiorespiratory response) in a patient. A controller can configure a light signal (such as an infrared light signal) to deliver an amount of radiant exposure to a specific portion of the brainstem for a time. The specific portion of the brainstem can include brainstem circuitry that is the control center for the certain bodily function. The configured light signal can be delivered to the specific portion of the brainstem by an optrode for the time. During application, the light signal can deliver the amount of radiant exposure to the specific portion of the brainstem to evoke the certain bodily function.

Abstract: The present disclosure relates to using a light signal (e.g., an infrared (IR) light signal) for long-term modulation of peripheral nerve activity. Light generated with parameters (including intensity and time) can be applied to a peripheral nerve to achieve a target biological response. The target biological response can extend for a period after the light is applied. For example, when the light is applied for short period of time (e.g., 20 seconds), the target biological response can extend for a long period of time (e.g., over one hour).

Abstract: One aspect of the present disclosure relates a system that can quickly and reversibly block conduction in a nerve. The system can include a first nerve block modality that provides heat to the nerve to block conduction in the nerve. For example, the heat can provide the quick nerve block. The system can also include a second nerve block modality that provides an electrical signal to the nerve to block the conduction in the nerve. For example, the electrical signal can provide the reversibility. In some instances, the heat can be provided by an infrared light signal and the electrical signal can be provided by a kilohertz frequency alternating current (KHFAC) signal or a direct current (DC) signal.

Abstract: Small-diameter axons can be targeted for neuromodulation. A nerve modulating therapy can be configured to target the small diameter axons in a target area of a subject specifically. The nerve modulating therapy can be applied to the target area to modulate conduction in one or more small diameter axons within the target area to a greater degree than in large diameter axons within the target area. The nerve modulating therapy can be any therapy that affects an outer surface of the one or more small diameter axons (like a heat signal, a pressure wave, an optogenetic manipulation, and/or a pharmaceutical dosage).

Abstract: The present disclosure relates to modulating neural activity within brainstem circuitry to evoke a certain bodily function (e.g., cardiorespiratory response) in a patient. A controller can configure a light signal (such as an infrared light signal) to deliver an amount of radiant exposure to a specific portion of the brainstem for a time. The specific portion of the brainstem can include brainstem circuitry that is the control center for the certain bodily function. The configured light signal can be delivered to the specific portion of the brainstem by an optrode for the time. During application, the light signal can deliver the amount of radiant exposure to the specific portion of the brainstem to evoke the certain bodily function.

Abstract: The present disclosure relates to a system for using a light signal (e.g., an infrared (IR) light signal) for long-term modulation of peripheral nerve activity. Light generated with parameters (including intensity and time) can be applied to a peripheral nerve to achieve a target biological response. The target biological response can extend for a period after the light is applied. For example, when the light is applied for short period of time (e.g., 20 seconds), the target biological response can extend for a long period of time (e.g., over one hour).

Abstract: One aspect of the present disclosure relates a system that can quickly and reversibly block conduction in a nerve. The system can include a first nerve block modality that provides heat to the nerve to block conduction in the nerve. For example, the heat can provide the quick nerve block. The system can also include a second nerve block modality that provides an electrical signal to the nerve to block the conduction in the nerve. For example, the electrical signal can provide the reversibility. In some instances, the heat can be provided by an infrared light signal and the electrical signal can be provided by a kilohertz frequency alternating current (KHFAC) signal or a direct current (DC) signal.

Abstract: One aspect of the present disclosure relates a system that can quickly and reversibly block conduction in a nerve. The system can include a first nerve block modality that provides heat to the nerve to block conduction in the nerve. For example, the heat can provide the quick nerve block. The system can also include a second nerve block modality that provides an electrical signal to the nerve to block the conduction in the nerve. For example, the electrical signal can provide the reversibility. In some instances, the heat can be provided by an infrared light signal and the electrical signal can be provided by a kilohertz frequency alternating current (KHFAC) signal or a direct current (DC) signal.

Abstract: One aspect of the present disclosure relates a system that can quickly and reversibly block conduction in a nerve. The system can include a first nerve block modality that provides heat to the nerve to block conduction in the nerve. For example, the heat can provide the quick nerve block. The system can also include a second nerve block modality that provides an electrical signal to the nerve to block the conduction in the nerve. For example, the electrical signal can provide the reversibility. In some instances, the heat can be provided by an infrared light signal and the electrical signal can be provided by a kilohertz frequency alternating current (KHFAC) signal or a direct current (DC) signal.