Abstract: A handheld radio device that incorporates within equipment typically carried by a first-responder but with added functionality which enables assessments of a subject's cognitive, auditory, visual, and speech function. In addition to providing two-way tactical radio functionality, the handheld radio device operates to generate haptic, audible, and visual stimuli, and then assess a subject utilizing the handheld radio device based on the subject's responses to the stimuli on the interfaces and sensors of the handheld radio device. Because this functionality is provided in equipment this is already typically carried by the first-responder, assessments that are more forward-deployed and closer to the point and time of injury, exposure, or period of interest can occur.

Abstract: A handheld radio device that incorporates within equipment typically carried by a first-responder but with added functionality which enables assessments of a subject's cognitive, auditory, visual, and speech function. In addition to providing two-way tactical radio functionality, the handheld radio device operates to generate haptic, audible, and visual stimuli, and then assess a subject utilizing the handheld radio device based on the subject's responses to the stimuli on the interfaces and sensors of the handheld radio device. Because this functionality is provided in equipment this is already typically carried by the first-responder, assessments that are more forward-deployed and closer to the point and time of injury, exposure, or period of interest can occur.

Abstract: A biosignal measuring device that can include at least one Super-conducting Quantum Interference Device (SQUID) array (SQA) of High Temperature Superconducting (HTS) Josephson Junctions (JJs). The HTS JJs operating parameters can be adjusted to establish an anti-peak response for the SQA, that can be at a maximum along a defined response axis, for detection of extremely small biomagnetic fields. For operation, the SQA can be maneuvered around a target area of a stationary subject that is emitting biomagnetic signals using a stand with three degrees of freedom, so that the response axis remains orthogonal to the subject target area. The device can further include a radome with an atomic layer deposition (ALD) window on the radome surface. The radome ALD surface can allow for passage of magnetic signals through the ALD window and radome, while simultaneously preventing passage of infrared radiation therethrough.

Abstract: A biosignal measuring device that can include at least one Super-conducting Quantum Interference Device (SQUID) array (SQA) of High Temperature Superconducting (HTS) Josephson Junctions (JJs). The HTS JJs operating parameters can be adjusted to establish an anti-peak response for the SQA, that can be at a maximum along a defined response axis, for detection of extremely small biomagnetic fields. For operation, the SQA can be maneuvered around a target area of a stationary subject that is emitting biomagnetic signals using a stand with three degrees of freedom, so that the response axis remains orthogonal to the subject target area. The device can further include a radome with an atomic layer deposition (ALD) window on the radome surface. The radome ALD surface can allow for passage of magnetic signals through the ALD window and radome, while simultaneously preventing passage of infrared radiation therethrough.

Abstract: Sleep mask for reducing sleep inertia. In an embodiment, the sleep mask comprises a foam layer having a shape that covers both of a human subject's eyes so as to attenuate ambient light. Visual stimulation element(s), configured to emit light, are positioned between the foam layer and the subject's eyes. In addition, a plurality of sensors positioned on the forehead of the subject collect electroencephalogram (EEG), electrooculogram (EOG), and electromyogram (EMG) signals. A soft exterior cover houses the foam layer, the visual stimulation element(s), and the sensors. The sleep mask further comprises processor(s) that determine and record each sleep stage of the subject, determine when to wake the subject, and, when it is determined to wake the subject, control the visual stimulation element(s) to wake the subject using emitted light.

Abstract: Sleep mask for reducing sleep inertia. In an embodiment, the sleep mask comprises a foam layer having a shape that covers both of a human subject's eyes so as to attenuate ambient light. Visual stimulation element(s), configured to emit light, are positioned between the foam layer and the subject's eyes. In addition, a plurality of sensors positioned on the forehead of the subject collect electroencephalogram (EEG), electrooculogram (EOG), and electromyogram (EMG) signals. A soft exterior cover houses the foam layer, the visual stimulation element(s), and the sensors. The sleep mask further comprises processor(s) that determine and record each sleep stage of the subject, determine when to wake the subject, and, when it is determined to wake the subject, control the visual stimulation element(s) to wake the subject using emitted light.

Abstract: Systems and methods for optimizing sleep and post-sleep performance. In an embodiment, a system comprising a device and sleep mask are provided. The mask may comprise electroencephalographic (EEG) sensors and one or more stimulation elements configured to stimulate the senses of a wearer of the mask. The mask may be releasably and electrically coupled to a device which receives EEG signals from the mask, determines current and target sleep states based, at least in part, on the EEG signals, and uses this determination to tailor a sleep architecture of the wearer by controlling the stimulation elements. The mask may be a soft mask which utilizes conductive thread embroidered into one or more textile layers. In an embodiment, the stimulation elements may comprise one or more heating elements, electroluminescent panels, and speakers. In addition, the EEG sensors may comprise hybrid sensors comprising hydrogel in a conductive spacer fabric.

Abstract: Systems and methods for optimizing the sleep and post-sleep performance of individuals regardless of their environment and time available for sleep are provided. The systems and methods take into account factors that determine the effects of a sleep episode on dexterity, cognitive functions and the subjective feeling of fatigue after sleeping: duration and sleep architecture of the sleep episode, point on the circadian cycle at which the episode occurred, the amount of sleep debt accumulated prior to the episode and the subject's susceptibility to sleep deprivation. The systems and methods include monitoring of sleep architecture over a longer period of time, measurement of accumulated sleep debt and assessment and/or tailoring of the sleep architecture for each subsequent sleep episode, determining a desired sleep state in which the subject should be in, and generating sensory stimuli for guiding the subject to the desired sleep state.

Abstract: Systems and methods for optimizing sleep and post-sleep performance. In an embodiment, a system comprising a device and sleep mask are provided. The mask may comprise electroencephalographic (EEG) sensors and one or more stimulation elements configured to stimulate the senses of a wearer of the mask. The mask may be releasably and electrically coupled to a device which receives EEG signals from the mask, determines current and target sleep states based, at least in part, on the EEG signals, and uses this determination to tailor a sleep architecture of the wearer by controlling the stimulation elements. The mask may be a soft mask which utilizes conductive thread embroidered into one or more textile layers. In an embodiment, the stimulation elements may comprise one or more heating elements, electroluminescent panels, and speakers. In addition, the EEG sensors may comprise hybrid sensors comprising hydrogel in a conductive spacer fabric.

Abstract: Systems and methods for optimizing the sleep and post-sleep performance of individuals regardless of their environment and time available for sleep are provided. The systems and methods take into account factors that determine the effects of a sleep episode on dexterity, cognitive functions and the subjective feeling of fatigue after sleeping: duration and sleep architecture of the sleep episode, point on the circadian cycle at which the episode occurred, the amount of sleep debt accumulated prior to the episode and the subject's susceptibility to sleep deprivation. The systems and methods include monitoring of sleep architecture over a longer period of time, measurement of accumulated sleep debt and assessment and/or tailoring of the sleep architecture for each subsequent sleep episode, determining a desired sleep state in which the subject should be in, and generating sensory stimuli for guiding the subject to the desired sleep state.