Abstract: A neuromodulator includes one or more coil sets. Each of the coil sets has three coils aligned to produce magnetic and electric fields in three different directions. A plurality of conductors couple the coils of the one or more coil sets to one or more input signals such that each of the coils is independently activated via an individually selectable current applied through the conductors. The individual activation creates a resultant field that is a combination of the magnetic and electric fields in three different directions for each of the coil sets.

Abstract: A device includes at least one stress-engineered portion and at least one second portion. The stress-engineered portion includes at least one tensile stress layer having a residual tensile stress and at least one compressive stress layer having a residual compressive stress. The tensile stress layer and the compressive stress layer are mechanically coupled such that the at least one tensile stress layer and the at least one compressive stress layer are self-equilibrating. The stress-engineered portion is configured to fracture due to propagating cracks generated in response to energy applied to the stress-engineered portion. Fracture of the stress-engineered portion changes functionality of the device from a first function to a second function, different from the first function.

Abstract: A neuromodulator includes one or more coil sets. Each of the coil sets has three coils aligned to produce magnetic and electric fields in three different directions. A plurality of conductors couple the coils of the one or more coil sets to one or more input signals such that each of the coils is independently activated via an individually selectable current applied through the conductors. The individual activation creates a resultant field that is a combination of the magnetic and electric fields in three different directions for each of the coil sets.

Abstract: An electrochemical metal alloy identification device employing electrolytes to measure and identify different potentials of alloys is presented. This includes physical structure, disposables, electrical systems, control circuitry, and algorithms to identify alloys.

Abstract: A passive sensor tag system including a passive electronic sensor tag and an external readout. The passive electronic sensor tag including a sensor element configured to sense data in a local environment and to cause a shift in a fundamental electrical resonance frequency characteristic of a sensor circuit based on the sensed data. The external readout including an external readout circuit that is configured to generate a signal having a frequency and a voltage and to transmit the signal through an output antenna. The transmitted signal coupling the sensor circuit and the external readout circuit. The external readout determining a fundamental electrical resonance frequency characteristic of the sensor circuit based on the impedance of the coupled sensor circuit and external readout circuit. The external readout determining the sensed data based the fundamental electrical resonance frequency characteristic of the sensor circuit.

Abstract: A device includes at least one stress-engineered portion and at least one second portion. The stress-engineered portion includes at least one tensile stress layer having a residual tensile stress and at least one compressive stress layer having a residual compressive stress. The tensile stress layer and the compressive stress layer are mechanically coupled such that the at least one tensile stress layer and the at least one compressive stress layer are self-equilibrating. The stress-engineered portion is configured to fracture due to propagating cracks generated in response to energy applied to the stress-engineered portion. Fracture of the stress-engineered portion changes functionality of the device from a first function to a second function, different from the first function.

Abstract: An implantable neural probe includes a flexible substrate having a first surface and an opposing second surface. The probe has an elongated three dimensional shape with an exterior surface and an interior surface such that the exterior surface of the probe includes at least a portion of first surface of the flexible substrate and the interior surface of the probe includes at least a portion of the second surface of the flexible substrate. The probe may include an array of one or more neural stimulators disposed on the flexible substrate and configured to stimulate neurons. The probe may alternatively or additionally include an array of one or more neural sensors configured to sense brain neurons.

Abstract: An implantable subsystem includes multiple implantable neural probes disposed on a flexible substrate. Each neural probe is configured to magnetically stimulate brain neurons. Each probe includes an array of magnetic neural stimulators that magnetically stimulate neurons. Each probe also includes neural probe activation circuitry comprising thin film switches disposed on the flexible substrate. The thin film switches are electrically coupled to row and column activation lines and selectively activate the magnetic neural stimulators in response to neural stimulation activation signals carried on the activation lines.

Abstract: A neural modulation system includes neural encoder in a patient-external device. The neural encoder converts input signals into a neural stimulation pattern and wirelessly transmits the neural stimulation pattern to a patient-internal device. The patient internal device includes a flexible substrate and a two dimensional array of neural probes disposed on the flexible substrate. Each neural probe includes an array of magnetic neural stimulators and/or an array of neural sensors along with probe addressing circuitry that allow for addressing the magnetic neural stimualtors and/or neural sensors. Control circuitry in the implantable device controls activation of the magnetic neural stimulators and/or neural sensors according to the neural stimulation pattern via the probe addressing circuitry.

Abstract: Connected consumer device systems are described. The consumer products associated with the systems can be powered or non-powered. The systems include one or more sensors to detect the state of the consumer product. An exemplary consumer product is designed to collect material and then be replaced once a desired amount of material is collected. The sensor is capable of detecting the existence and/or volume of material collected by the consumer product and is capable thereafter to communicate data to a hub and/or computing device. The communicated data can alert a consumer of a suggested action based on the data; for example, replace the consumer product as it has collected material. The communicated data can also trigger access to an e-commerce gateway to order more consumer products.

Abstract: A method of generating a representation of a structure includes providing an ad hoc mesh network having at least two nodes associated with the structure, obtaining time of flight data for each node in the network, and using the time of flight data to generate the representation of the structure. A method of generating a three-dimensional representation of a structure includes providing an ad hoc mesh network having at least three nodes associated with the structure, wherein at least one node is a mobile node that moves around the structure, obtaining time of flight data for each pair of nodes in the network, and using the time of flight data to generate the three-dimensional representation of the structure.

Abstract: An implantable neural probe includes a flexible substrate having a first surface and an opposing second surface. The probe has an elongated three dimensional shape with an exterior surface and an interior surface such that the exterior surface of the probe includes at least a portion of first surface of the flexible substrate and the interior surface of the probe includes at least a portion of the second surface of the flexible substrate. The probe may include an array of one or more neural stimulators disposed on the flexible substrate and configured to stimulate neurons. The probe may alternatively or additionally include an array of one or more neural sensors configured to sense brain neurons.

Abstract: A neural modulation system includes neural encoder in a patient-external device. The neural encoder converts input signals into a neural stimulation pattern and wirelessly transmits the neural stimulation pattern to a patient-internal device. The patient internal device includes a flexible substrate and a two dimensional array of neural probes disposed on the flexible substrate. Each neural probe includes an array of magnetic neural stimulators and/or an array of neural sensors along with probe addressing circuitry that allow for addressing the magnetic neural stimualtors and/or neural sensors. Control circuitry in the implantable device controls activation of the magnetic neural stimulators and/or neural sensors according to the neural stimulation pattern via the probe addressing circuitry.

Abstract: An implantable subsystem includes multiple implantable neural probes disposed on a flexible substrate. Each neural probe is configured to magnetically stimulate brain neurons. Each probe includes an array of magnetic neural stimulators that magnetically stimulate neurons. Each probe also includes neural probe activation circuitry comprising thin film switches disposed on the flexible substrate. The thin film switches are electrically coupled to row and column activation lines and selectively activate the magnetic neural stimulators in response to neural stimulation activation signals carried on the activation lines.

Abstract: A light emitting diode (LED) light bulb includes a thermally conductive base and at least one LED assembly disposed on and thermally coupled to a surface of the base. The LED assembly includes at least one LED configured to generate light. A thermal optical diffuser defines an interior volume and the LED is arranged to emit light into the interior volume and through the thermal optical diffuser. The thermal optical diffuser is disposed on the surface of the base and extends from the base to a terminus on the light emitting side. The thermal optical diffuser is configured to include one or more openings that allow convective air flow between the interior volume of the thermal optical diffuser and ambient environment.

Abstract: A light emitting diode (LED) light bulb includes a thermally conductive base and at least one LED assembly disposed on and thermally coupled to a surface of the base. The LED assembly includes at least one LED configured to generate light. A thermal optical diffuser defines an interior volume and the LED is arranged to emit light into the interior volume and through the thermal optical diffuser. The thermal optical diffuser is disposed on the surface of the base and extends from the base to a terminus on the light emitting side. The thermal optical diffuser is configured to include one or more openings that allow convective air flow between the interior volume of the thermal optical diffuser and ambient environment.

Abstract: An electrochemical metal alloy identification device employing electrolytes to measure and identify different potentials of alloys is presented. This includes physical structure, disposables, electrical systems, control circuitry, and algorithms to identify alloys.

Abstract: A passive sensor tag system including a passive electronic sensor tag and an external readout. The passive electronic sensor tag including a sensor element configured to sense data in a local environment and to cause a shift in a fundamental electrical resonance frequency characteristic of a sensor circuit based on the sensed data. The external readout including an external readout circuit that is configured to generate a signal having a frequency and a voltage and to transmit the signal through an output antenna. The transmitted signal coupling the sensor circuit and the external readout circuit. The external readout determining a fundamental electrical resonance frequency characteristic of the sensor circuit based on the impedance of the coupled sensor circuit and external readout circuit. The external readout determining the sensed data based the fundamental electrical resonance frequency characteristic of the sensor circuit.

Abstract: A light emitting diode (LED) lighting device includes at least one LED assembly comprising a substrate and two or more LEDs configured to generate light spaced apart along the substrate. A cured structural coating is disposed on at least a portion of the LED assembly, wherein the cured structural coating is configured to maintain the LED assembly in a predetermined shape. The substrate of the LED assembly may comprise an elongated and/or flexible substrate.