Abstract: The present disclosure relates to systems and methods for activating a circuit of an implant device. Consistent with one implementation, an implant device is provided with a sensor including a working electrode (WE) and a counter electrode (CE). The sensor may be configured to generate a first current at the CE when the implant device is implanted in a body of a subject. A sensing circuit may also be provided that is electrically coupled to the WE of the sensor. The sensing circuit may be activated based on the first current and utilize the sensor to measure one or more parameters of an individual or other subject.

Abstract: The present disclosure relates to systems and methods for activating a circuit of an implant device. Consistent with one implementation, an implant device is provided with a sensor including a working electrode (WE) and a counter electrode (CE). The sensor may be configured to generate a first current at the CE when the implant device is implanted in a body of a subject. A sensing circuit may also be provided that is electrically coupled to the WE of the sensor. The sensing circuit may be activated based on the first current and utilize the sensor to measure one or more parameters of an individual or other subject.

Abstract: A vision traffic marker network system includes a management system and a plurality of self-powered wireless traffic nodes configured to collect data from a wireless mesh network. Each wireless traffic node is configured to function as a mesh network traffic node and in each mesh network traffic node, the mesh network traffic node is configured to exchange data between the traffic nodes. Each wireless traffic node in the vision traffic marker system is communicatively coupled to any server and client machine. The management system includes a data acquisition layer, a processing layer, a communication layer, and a management layer. The acquisition layer is configured to receive data from the plurality of wireless traffic nodes and transmit the acquired data to the processing layer so that the acquired data is processed and filtered before the data is broadcasted and distributed the plurality of wireless traffic nodes which in turn exchange or share the data with any server and client machine.

Abstract: An electrical circuit can bias a sensor, measure current from a sensor, or both of these. In some examples, the electrical circuit can include a comparator having two input terminals and an output terminal. The comparator can be configured to compare input signals applied to the two input terminals and generate an output signal at the output terminal based on the comparison. The electrical circuit can include a switch having a control terminal that is electrically coupled to the output terminal of the comparator. The switch can also include a first connection terminal that is electrically coupled to the sensor and a second connection terminal that is electrically coupled to a charge-packet source. The switch can be switchable between (i) an open state to electrically decouple the sensor from the charge-packet source, and (ii) a closed state to electrically couple the sensor to the charge-packet source.

Abstract: An example continuous glucose monitor includes a printed circuit board (“PCB”) having first and second outer layers and an inner layer; a semiconductor package having a plurality of pins coupled to the first outer layer of the PCB; an electrical contact formed on the second outer layer of the PCB; a trace having a first portion disposed on the first outer layer, a second portion disposed on the inner layer, and a third portion disposed on the second outer layer, the trace having a first end coupled to a first pin of the plurality of pins and a second end coupled to the electrical contact; and an encapsulant disposed around a perimeter of the semiconductor package, the encapsulant covering the plurality of pins, the first portion of the sensor trace, the third portion of the sensor trace, wherein an upper surface of the semiconductor package remains exposed.

Abstract: A vision traffic marker network system comprises a plurality of vision traffic markers or traffic nodes configured to capture information such as an event, an environment, a profile, or a condition of an object such as vehicle, human, combination thereof, or the like, for example. The environment information may be time of day, day of week, weather, traffic condition, and the like. The nodes may be one of a traffic node, an ambient node, a repeater, a gateway, or a combination thereof. These nodes are arranged in network neighborhoods and configured to communicate with at least one of the communication networks with at least one of the vision traffic markers or nodes, a control system, the automotive, a server, a global navigation system, other non-vision devices, traffic lights, street lights, electronic devices, or combination thereof, via one more links, either wirelessly or wired communication.

Abstract: The present disclosure relates to systems and methods for activating a circuit of an implant device. Consistent with one implementation, an implant device is provided with a sensor including a working electrode (WE) and a counter electrode (CE). The sensor may be configured to generate a first current at the CE when the implant device is implanted in a body of a subject. A sensing circuit may also be provided that is electrically coupled to the WE of the sensor. The sensing circuit may be activated based on the first current and utilize the sensor to measure one or more parameters of an individual or other subject.

Abstract: The technology described herein relates to auxiliary wakeup for low-power devices. In an implementation, an auxiliary path for waking up a radio frequency (RF) radio of a low-power device is disclosed. The auxiliary path includes peak detector circuitry, pattern detector circuitry and a battery switch. The peak detector circuitry is operable to detect the presence of a RF field at a RF antenna of the low-power device. The pattern detector circuitry is enabled by the presence of a RF field and is operable to detect a time pattern in an amplitude envelope of a wakeup signal received at the RF antenna of the low-power device. The battery switch is operable to connect battery power to a RF radio of the low-power device when the time pattern is detected. Once powered, the RF radio establishes communication with a wakeup device.

Abstract: The present disclosure relates to systems and methods for activating a circuit of an implant device. Consistent with one implementation, an implant device is provided with a sensor including a working electrode (WE) and a counter electrode (CE). The sensor may be configured to generate a first current at the CE when the implant device is implanted in a body of a subject. A sensing circuit may also be provided that is electrically coupled to the WE of the sensor. The sensing circuit may be activated based on the first current and utilize the sensor to measure one or more parameters of an individual or other subject.

Abstract: A device for generating thermal images includes a low resolution infrared (IR) sensor supported within a housing and having a field of view. The IR sensor is configured to generate thermal images of objects within the field of view having a first resolution. A spatial information sensor supported within the housing is configured to determine a position for each of the thermal images generated by the IR sensor. A processing unit supported within the housing is configured to receive the thermal images and to combine the thermal images based on the determined positions of the thermal images to produce a combined thermal image having a second resolution that is greater than the first resolution.

Abstract: An example continuous glucose monitor includes a printed circuit board (“PCB”) having first and second outer layers and an inner layer, the inner layer disposed between the first and second outer layers; a semiconductor package having four corner portions and a plurality of pins, the semiconductor package coupled to the first outer layer of the PCB via the plurality of pins; an electrical ground plane formed on the PCB and coupled to at least one pin at each of a first, second, and third of the four corner portions, and not coupled to any pins at a fourth corner portion; an electrical contact for a sensor wire formed on the second outer layer of the PCB; a sensor trace having a first portion disposed on the first outer layer, a second portion disposed on the inner layer, and a third portion disposed on the second outer layer, the sensor trace having a first end coupled to a first pin of the plurality of pins and a second end coupled to the electrical contact for the sensor wire, the first pin at the fourth co

Abstract: A vision traffic marker network system includes a management system and a plurality of self-powered wireless traffic nodes configured to collect data from a wireless mesh network. Each wireless traffic node is configured to function as a mesh network traffic node and in each mesh network traffic node, the mesh network traffic node is configured to exchange data between the traffic nodes. Each wireless traffic node in the vision traffic marker system is communicatively coupled to any server and client machine. The management system includes a data acquisition layer, a processing layer, a communication layer, and a management layer. The acquisition layer is configured to receive data from the plurality of wireless traffic nodes and transmit the acquired data to the processing layer so that the acquired data is processed and filtered before the data is broadcasted and distributed the plurality of wireless traffic nodes which in turn exchange or share the data with any server and client machine.

Abstract: A vision traffic marker network system comprises a plurality of vision traffic markers or traffic nodes configured to capture information such as an event, an environment, a profile, or a condition of an object such as vehicle, human, combination thereof, or the like, for example. The environment information may be time of day, day of week, weather, traffic condition, and the like. The nodes may be one of a traffic node, an ambient node, a repeater, a gateway, or a combination thereof. These nodes are arranged in network neighborhoods and configured to communicate with at least one of the communication networks with at least one of the vision traffic markers or nodes, a control system, the automotive, a server, a global navigation system, other non-vision devices, traffic lights, street lights, electronic devices, or combination thereof, via one more links, either wirelessly or wired communication.

Abstract: The technology described herein relates to auxiliary wakeup for low-power devices. In an implementation, an auxiliary path for waking up a radio frequency (RF) radio of a low-power device is disclosed. The auxiliary path includes peak detector circuitry, pattern detector circuitry and a battery switch. The peak detector circuitry is operable to detect the presence of a RF field at a RF antenna of the low-power device. The pattern detector circuitry is enabled by the presence of a RF field and is operable to detect a time pattern in an amplitude envelope of a wakeup signal received at the RF antenna of the low-power device. The battery switch is operable to connect battery power to a RF radio of the low-power device when the time pattern is detected. Once powered, the RF radio establishes communication with a wakeup device.

Abstract: An electrical circuit can bias a sensor, measure current from a sensor, or both of these. In some examples, the electrical circuit can include a comparator having two input terminals and an output terminal. The comparator can be configured to compare input signals applied to the two input terminals and generate an output signal at the output terminal based on the comparison. The electrical circuit can include a switch having a control terminal that is electrically coupled to the output terminal of the comparator. The switch can also include a first connection terminal that is electrically coupled to the sensor and a second connection terminal that is electrically coupled to a charge-packet source. The switch can be switchable between (i) an open state to electrically decouple the sensor from the charge-packet source, and (ii) a closed state to electrically couple the sensor to the charge-packet source.

Abstract: The present disclosure relates to systems and methods for activating a circuit of an implant device. Consistent with one implementation, an implant device is provided with a sensor including a working electrode (WE) and a counter electrode (CE). The sensor may be configured to generate a first current at the CE when the implant device is implanted in a body of a subject. A sensing circuit may also be provided that is electrically coupled to the WE of the sensor. The sensing circuit may be activated based on the first current and utilize the sensor to measure one or more parameters of an individual or other subject.

Abstract: A new cultivar of Rhododendron plant named ‘HORT13’ that is characterized by green flower buds that open slowly, light pink double flowers, late flowering and a long flowering period.

Abstract: A new cultivar of Rhododendron plant named ‘HORT12’ that is characterized by shiny green leaves, white double flowers with a green throat and a long flowering time.

Abstract: A new cultivar of Rhododendron plant named ‘HORT13’ that is characterized by green flower buds that open slowly, light pink double flowers, late flowering and a long flowering period.

Abstract: A new cultivar of Rhododendron plant named ‘HORT14’ that is characterized by pink flower buds with yellow-green tips that open slowly, double flowers with pink petals having yellow-green tips, late flowering and a long flowering period.