Abstract: An apparatus for providing an external power supply, memory device, camera, and/or other peripheral capabilities to a head-mounted data collection device may include a first portion releasably connecting to the data collection device. The first portion may have a first data port interface configured for connection to a corresponding data port interface of the data collection device. The apparatus may have a second portion releasably connectable to the first portion, the second portion including an internal data port interface configured for connection to a corresponding internal data port interface of the first portion, a power cell module, and a power supply interface configured for connection to a corresponding power supply input of the head-mounted wearable data collection device. The first portion and/or the second portion may include interface logic for receiving data via the first data port and command logic for issuing commands to the data collection device.

Abstract: In one aspect, the systems, environment, and methods described herein support anticipation and identification of adverse health events and/or atypical behavioral episodes such as Autistic behaviors, epileptic seizures, heart attack, stroke, and/or narcoleptic “sleep attacks” using a portable data collection device. In another aspect, the systems, environment, and methods described herein support measurement of motions and vibrations associated with recurring transitory physiological states and events using a portable data collection device. For example, motion and vibration measurements may be analyzed to identify pronounced head motion patterns indicative of specific heart defects, neurodegenerative conditions, inner ear or other balance problems, or types of cardiac disease.

Abstract: The systems, environment, and methods, described herein support evaluation of an individual for ASD while in the home environment. Through data collected by a wearable data collection device donned by the individual, eye contact with the caregiver, verbal interaction, and repetitive verbalizations and motions of the head and body may be tracked and objectively quantified during evaluation. Further, the wearable data collection device may support monitoring of brain activity and other physiology which, in turn, may be analyzed by the systems and environment described herein during evaluation to recognize patterns that predict evaluation outcome and other clinical features. Various software modules and tools supported by the wearable data collection device provide training, ongoing progress tracking, and management solutions for individuals living with ASD.

Abstract: An apparatus for providing an external power supply, memory device, camera, and/or other peripheral capabilities to a head-mounted data collection device may include a first portion releasably connecting to the data collection device. The first portion may have a first data port interface configured for connection to a corresponding data port interface of the data collection device. The apparatus may have a second portion releasably connectable to the first portion, the second portion including an internal data port interface configured for connection to a corresponding internal data port interface of the first portion, a power cell module, and a power supply interface configured for connection to a corresponding power supply input of the head-mounted wearable data collection device. The first portion and/or the second portion may include interface logic for receiving data via the first data port and command logic for issuing commands to the data collection device.

Abstract: The systems, environment, and methods, described herein support evaluation of an individual for ASD while in the home environment. Through data collected by a wearable data collection device donned by the individual, eye contact with the caregiver, verbal interaction, and repetitive verbalizations and motions of the head and body may be tracked and objectively quantified during evaluation. Further, the wearable data collection device may support monitoring of brain activity and other physiology which, in turn, may be analyzed by the systems and environment described herein during evaluation to recognize patterns that predict evaluation outcome and other clinical features. Various software modules and tools supported by the wearable data collection device provide training, ongoing progress tracking, and management solutions for individuals living with ASD.

Abstract: An apparatus for providing an external power supply, memory device, camera, and/or other peripheral capabilities to a head-mounted data collection device may include a first portion releasably connecting to the data collection device. The first portion may have a first data port interface configured for connection to a corresponding data port interface of the data collection device. The apparatus may have a second portion releasably connectable to the first portion, the second portion including an internal data port interface configured for connection to a corresponding internal data port interface of the first portion, a power cell module, and a power supply interface configured for connection to a corresponding power supply input of the head-mounted wearable data collection device. The first portion and/or the second portion may include interface logic for receiving data via the first data port and command logic for issuing commands to the data collection device.

Abstract: The systems, environment, and methods, described herein support evaluation of an individual for ASD while in the home environment. Through data collected by a wearable data collection device donned by the individual, eye contact with the caregiver, verbal interaction, and repetitive verbalizations and motions of the head and body may be tracked and objectively quantified during evaluation. Further, the wearable data collection device may support monitoring of brain activity and other physiology which, in turn, may be analyzed by the systems and environment described herein during evaluation to recognize patterns that predict evaluation outcome and other clinical features. Various software modules and tools supported by the wearable data collection device provide training, ongoing progress tracking, and management solutions for individuals living with ASD.

Abstract: In one aspect, the systems, environment, and methods described herein support anticipation and identification of adverse health events and/or atypical behavioral episodes such as Autistic behaviors, epileptic seizures, heart attack, stroke, and/or narcoleptic “sleep attacks” using a portable data collection device. In another aspect, the systems, environment, and methods described herein support measurement of motions and vibrations associated with recurring transitory physiological states and events using a portable data collection device. For example, motion and vibration measurements may be analyzed to identify pronounced head motion patterns indicative of specific heart defects, neurodegenerative conditions, inner ear or other balance problems, or types of cardiac disease.

Abstract: An apparatus for providing an external power supply, memory device, camera, and/or other peripheral capabilities to a head-mounted data collection device may include a first portion releasably connecting to the data collection device. The first portion may have a first data port interface configured for connection to a corresponding data port interface of the data collection device. The apparatus may have a second portion releasably connectable to the first portion, the second portion including an internal data port interface configured for connection to a corresponding internal data port interface of the first portion, a power cell module, and a power supply interface configured for connection to a corresponding power supply input of the head-mounted wearable data collection device. The first portion and/or the second portion may include interface logic for receiving data via the first data port and command logic for issuing commands to the data collection device.

Abstract: In one aspect, the systems, environment, and methods described herein support anticipation and identification of adverse health events and/or atypical behavioral episodes such as Autistic behaviors, epileptic seizures, heart attack, stroke, and/or narcoleptic “sleep attacks” using a portable data collection device. In another aspect, the systems, environment, and methods described herein support measurement of motions and vibrations associated with recurring transitory physiological states and events using a portable data collection device. For example, motion and vibration measurements may be analyzed to identify pronounced head motion patterns indicative of specific heart defects, neurodegenerative conditions, inner ear or other balance problems, or types of cardiac disease.

Abstract: An apparatus for providing an external power supply, memory device, camera, and/or other peripheral capabilities to a head-mounted data collection device may include a first portion releasably connecting to the data collection device. The first portion may have a first data port interface configured for connection to a corresponding data port interface of the data collection device. The apparatus may have a second portion releasably connectable to the first portion, the second portion including an internal data port interface configured for connection to a corresponding internal data port interface of the first portion, a power cell module, and a power supply interface configured for connection to a corresponding power supply input of the head-mounted wearable data collection device. The first portion and/or the second portion may include interface logic for receiving data via the first data port and command logic for issuing commands to the data collection device.

Abstract: The technology provides a plurality of examples for implementing solar cell, solar panels, and solar collection devices on natural looking installations such as faux trees and plants as well as objects mimicking natural ones. The technology allows the installation of solar power generating installations in a distributed manner on land and water. The installation of, for example, artificial plants as carriers of solar cells provides a number of benefits to society in addition to the generation of power. The aesthetics of a community are maintained, while at the same time the need for maintain natural plants is eliminated, providing financial and environmental savings for consumers and municipalities.

Abstract: An apparatus for providing an external power supply, memory device, camera, and/or other peripheral capabilities to a head-mounted data collection device may include a first portion releasably connecting to the data collection device. The first portion may have a first data port interface configured for connection to a corresponding data port interface of the data collection device. The apparatus may have a second portion releasably connectable to the first portion, the second portion including an internal data port interface configured for connection to a corresponding internal data port interface of the first portion, a power cell module, and a power supply interface configured for connection to a corresponding power supply input of the head-mounted wearable data collection device. The first portion and/or the second portion may include interface logic for receiving data via the first data port and command logic for issuing commands to the data collection device.

Abstract: In one aspect, the systems, environment, and methods described herein support anticipation and identification of adverse health events and/or atypical behavioral episodes such as Autistic behaviors, epileptic seizures, heart attack, stroke, and/or narcoleptic “sleep attacks” using a portable data collection device. In another aspect, the systems, environment, and methods described herein support measurement of motions and vibrations associated with recurring transitory physiological states and events using a portable data collection device. For example, motion and vibration measurements may be analyzed to identify pronounced head motion patterns indicative of specific heart defects, neurodegenerative conditions, inner ear or other balance problems, or types of cardiac disease.

Abstract: The systems, environment, and methods, described herein support evaluation of an individual for ASD while in the home environment. Through data collected by a wearable data collection device donned by the individual, eye contact with the caregiver, verbal interaction, and repetitive verbalizations and motions of the head and body may be tracked and objectively quantified during evaluation. Further, the wearable data collection device may support monitoring of brain activity and other physiology which, in turn, may be analyzed by the systems and environment described herein during evaluation to recognize patterns that predict evaluation outcome and other clinical features. Various software modules and tools supported by the wearable data collection device provide training, ongoing progress tracking, and management solutions for individuals living with ASD.

Abstract: The technology provides a plurality of examples for implementing solar cell, solar panels, and solar collection devices on natural looking installations such as faux trees and plants as well as objects mimicking natural ones. The technology allows the installation of solar power generating installations in a distributed manner on land and water. The installation of, for example, artificial plants as carriers of solar cells provides a number of benefits to society in addition to the generation of power. The aesthetics of a community are maintained, while at the same time the need for maintain natural plants is eliminated, providing financial and environmental savings for consumers and municipalities.