Abstract: Systems and methods are provided for collecting and transmitting information associated with conditions in an environment around a device. The method includes: collecting, using at least one infrared (IR) camera, IR data of the environment around the device; collecting, using at least one gas sensor, gas concentration data of at least one gas; collecting, using at least one particulate matter detector, particulate matter concentrations in the environment around the device, wherein the at least one infrared camera, the at least one gas sensor and the at least one particulate matter detector forward their respective collected data to a radio; generating, using at least one solar panel, power for at least one of the at least one IR camera, the at least one gas sensor and the at least one particulate matter detector; and transmitting, using the radio, the collected data.

Abstract: Systems and methods are provided for reconfiguring a gas sensing device which is configured to detect a first type of gas to enable the gas sensing device to detect a second type of gas. The method includes: receiving, by the gas sensing device, information associated with the second type of gas; reconfiguring, by the gas sensing device, a processor to enable the processor to evaluate sensor response information to detect the second type of gas; and evaluating, by the processor, the sensor response information to detect a presence of the second type of gas.

Abstract: Methods, devices, and systems for aerosol detection, such as NTAs and PBAs are disclosed. The device can be worn, handheld, or mounted to an apparatus.

Abstract: Methods, devices, and systems for sensor and satellite AI fusion to detect changes in the environment, e.g., fire, smoke, chemicals, gasses, etc. and to pinpoint a specifical geographical location of those changes.

Abstract: An Application Specific Integrated Circuit (ASIC) configured to control one or more gas sensors includes a light emitting diode (LED) driver which receives a pulse width modulator (PWM) signal for driving at least one ultraviolet (UV) LED, wherein an output of the at least one UV LED activates the one or more gas sensors; and an amplifier front end and an analog to digital converter (ADC) configured to calibrate an output of an amplifier to remove offsets associated with outputs associated with the one or more gas sensors, wherein calibration of the amplifier occurs after both generation of the PWM signal and entering a steady state by the one or more gas sensors, further wherein the amplifier receives one or more inputs associated with the one or more gas sensors.

Abstract: Systems and methods provide for manufacturing and assembling a single package gas sensor. The method includes: disposing a substrate in a housing; disposing at least one gas sensor die on the substrate; disposing at least one ultraviolet (UV) light emitting diode (LED) on the substrate; and attaching a lid to the housing, wherein the lid includes at least one gas ingress point.

Abstract: A nanostructure sensing device comprises a semiconductor nanostructure having an outer surface, and at least one of metal or metal-oxide nanoparticle clusters functionalizing the outer surface of the nanostructure and forming a photoconductive nanostructure/nanocluster hybrid sensor enabling light-assisted sensing of a target analyte.

Abstract: Systems and methods provide for manufacturing and assembling a single package gas sensor. The method includes: disposing a substrate in a housing; disposing at least one gas sensor die on the substrate; disposing at least one ultraviolet (UV) light emitting diode (LED) on the substrate; and attaching a lid to the housing, wherein the lid includes at least one gas ingress point.

Abstract: A carbon dioxide sensor package includes a housing having an opening. A filter membrane is mounted in the opening of the housing. A sensor is disposed within a cavity in the housing, the cavity being disposed beneath the opening, wherein the sensor is configured with first particles functionalizing an outer surface thereof to adsorb a target analyte in a presence of light, wherein the target analyte is carbon dioxide, and further configured to output data associated with a concentration of carbon dioxide sensed by the sensor. The package also includes an application specific integrated circuit disposed within the housing and configured to process data from the sensor and output processed data associated with the concentration of carbon dioxide. A light source is also disposed within the housing and configured to generate the light.

Abstract: A nanostructure sensing device comprises a semiconductor nanostructure having an outer surface, and at least one of metal or metal-oxide nanoparticle clusters functionalizing the outer surface of the nanostructure and forming a photoconductive nanostructure/nanocluster hybrid sensor enabling light-assisted sensing of a target analyte.

Abstract: A nanostructure sensing device comprises a semiconductor nanostructure having an outer surface, and at least one of metal or metal-oxide nanoparticle clusters functionalizing the outer surface of the nanostructure and forming a photoconductive nanostructure/nanocluster hybrid sensor enabling light-assisted sensing of a target analyte.

Abstract: A nanostructure sensing device comprises a semiconductor nanostructure having an outer surface, and at least one of metal or metal-oxide nanoparticle clusters functionalizing the outer surface of the nanostructure and forming a photoconductive nanostructure/nanocluster hybrid sensor enabling light-assisted sensing of a target analyte.

Abstract: A nanostructure sensing device comprises a semiconductor nanostructure having an outer surface, and at least one of metal or metal-oxide nanoparticle clusters functionalizing the outer surface of the nanostructure and forming a photoconductive nanostructure/nanocluster hybrid sensor enabling light-assisted sensing of a target analyte.

Abstract: A nanostructure sensing device comprises a semiconductor nanostructure having an outer surface, and at least one of metal or metal-oxide nanoparticle clusters functionalizing the outer surface of the nanostructure and forming a photoconductive nanostructure/nanocluster hybrid sensor enabling light-assisted sensing of a target analyte.

Abstract: A nanostructure sensing device comprises a semiconductor nanostructure having an outer surface, and at least one of metal or metal-oxide nanoparticle clusters functionalizing the outer surface of the nanostructure and forming a photoconductive nanostructure/nanocluster hybrid sensor enabling light-assisted sensing of a target analyte.

Abstract: Methods of fabricating micro- and nanostructures comprise top-down etching of lithographically patterned GaN layer to form an array of micro- or nanopillar structures, followed by selective growth of GaN shells over the pillar structures via selective epitaxy. Also provided are methods of forming micro- and nanodisk structures and microstructures formed from thereby.

Abstract: A nanostructure sensing device comprises a semiconductor nanostructure having an outer surface, and at least one of metal or metal-oxide nanoparticle clusters functionalizing the outer surface of the nanostructure and forming a photoconductive nanostructure/nanocluster hybrid sensor enabling light-assisted sensing of a target analyte.

Abstract: A nanostructure sensing device comprises a semiconductor nanostructure having an outer surface, and at least one of metal or metal-oxide nanoparticle clusters functionalizing the outer surface of the nanostructure and forming a photoconductive nanostructure/nanocluster hybrid sensor enabling light-assisted sensing of a target analyte.

Abstract: Methods of fabricating micro- and nanostructures comprise top-down etching of lithographically patterned GaN layer to form an array of micro- or nanopillar structures, followed by selective growth of GaN shells over the pillar structures via selective epitaxy. Also provided are methods of forming micro- and nanodisk structures and microstructures formed from thereby.