Abstract: An explosion-resistant device is provided. The explosion-resistant device includes an enclosure defining a control compartment and a display compartment. The display compartment is isolated from the control compartment. The explosion-resistant device also includes a graphical interface assembly received in the display compartment. The graphical interface assembly is configured to present visual information and receive input from a user. The graphical interface assembly includes a display sensor assembly including a face plate, a backing plate, and a sensor layer positioned between the face plate and the backing plate and configured to detect touch of the user.

Abstract: In some embodiments, one general aspect includes a method of mitigating disrupted communication with an analyte sensor. The method includes receiving, at a first device, analyte measurements from the analyte sensor. The method also includes receiving, at the first device, an indication of a communication disruption between the analyte sensor and a second device. The method also includes, responsive to the indication, at the first device, facilitating transfer of at least a portion of the analyte measurements from the first device to the second device.

Abstract: In one embodiment, a method of alert optimization includes receiving, at a first device, one or more analyte measurements produced by an analyte sensor worn by a patient. The method also includes determining, at the first device, a first unique identifier for a first alert based on the one or more analyte measurements. The method also includes comparing, at the first device, the first unique identifier for the first alert to a stored record that includes unique identifiers for historical alerts. The method also includes conditionally suppressing the first alert on the first device based on the comparing.

Abstract: Devices, systems, and methods for explosion resistance include an explosion-resistant enclosure and a lid assembly. The lid assembly includes a lid for enclosing an opening of the explosion-resistant enclosure, and a graphical display assembly for presenting visual information regarding the analysis equipment.

Abstract: The present invention discloses improved analytical methods that use spectral quality, classification, and quantitative algorithms to properly vet date and thereby enable the use of conventional spectroscopic methods to easily, quickly, and automatically identify and quantify chemical species in samples.

Abstract: Devices, systems, and methods for explosion resistance include an analysis compartment isolated from a control compartment. A feed-through extends between the analysis compartment and the control compartment for extension of cabling therethrough, the feed-through hermetically sealed to block against flow of fluids between the analysis and control compartments.

Abstract: Devices, systems, and methods for explosion resistance include an analysis compartment isolated from a control compartment. A feed-through extends between the analysis compartment and the control compartment for extension of cabling therethrough, the feed-through hermetically sealed to block against flow of fluids between the analysis and control compartments.

Abstract: Devices, systems, and methods for explosion resistance include an explosion-resistant enclosure and a lid assembly. The lid assembly includes a lid for enclosing an opening of the explosion-resistant enclosure, and a graphical display assembly for presenting visual information regarding the analysis equipment.

Abstract: Certain aspects of the present disclosure relate generally to configuring applications used in conjunction with medical devices in order to help with monitoring and improving the patient's health. Certain aspects include a method including receiving a request for assets including access information associated with a user of a computing device, the access information including feature customization information for a health intervention application and being issued by an account management service for the health intervention application, and validating that the access information is valid.

Abstract: Systems and methods to measure Total THC easily and accurately in cannabis plant material to discriminate between legal hemp and illegal marijuana. In a particularly preferred embodiment, infrared spectral measurements are made of samples, a plurality of calibration models are applied, and a given sample is classified as to whether it is hemp or marijuana.

Abstract: Systems and methods to measure Total THC easily and accurately in cannabis plant material to discriminate between legal hemp and illegal marijuana. In a particularly preferred embodiment, infrared spectral measurements are made of samples, a plurality of calibration models are applied, and a given sample is classified as to whether it is hemp or marijuana.

Abstract: Described herein are systems and techniques for determining a pack station for storing inventory in a materials handling facility, routing item packages to pack stations based on size ranges for custom containers and optimizing dimensions of custom containers based on dimensions of a shipping container. For example, the systems described herein may allocate a percentage of inventory to a custom inventory location that is physically near custom container forming devices, thereby reducing the cost to pick, sort, pack and route items for shipment, storing or otherwise handling in a custom container.

Abstract: The present application provides a method of treating flue gas in a duct with an injection system, the flue gas comprising an acid gas and/or one or more metal components, the injection system comprising at least one injection nozzle in communication with an air supply and a supply of sorbent; wherein the method comprises supplying air and sorbent through the nozzle to the duct such that the penetration of the sorbent into the duct is represented by the formula: Y=(Dna(pnVn2/pfVf2)0.5(x/Dn)0.33)/Df where ‘Y’ is the fraction of duct penetration depth of the sorbent when the duct length is ‘x’, ‘Dn’ is the diameter of the nozzle, Df is the depth of the duct, ‘pn’ and ‘pf’ are the densities of the air supply and flue gas, respectively Vn? and ‘Vf’ are the velocities of the air exiting the nozzle and the flue gas, respectively, and where ‘a’ is between 0.3 and 1.0 and where Y is between 0.3 and 0.8.

Abstract: An example system includes a first tote handling assembly having a wiper bar, a first plurality of actuators connected to and moveable with the first wiper bar, and a first tab associated with a first actuator of the first plurality of actuators. The system may also includes a second tote handling assembly disposed substantially adjacent and substantially parallel to the first tote handling assembly. The second tote handling assembly includes a second wiper bar, a second plurality of actuators connected to and moveable with the second wiper bar, and a second tab associated with a second actuator of the second plurality of actuators. In such a system, movement of the first wiper bar in a first direction along a transverse axis of the first tote handling assembly, while the first tab is engaged with a tote disposed on the first tote handling assembly, transfers the tote from the first tote handling assembly to the second tote handling assembly.

Abstract: An example system includes a first tote handling assembly having a wiper bar, a first plurality of actuators connected to and moveable with the first wiper bar, and a first tab associated with a first actuator of the first plurality of actuators. The system may also includes a second tote handling assembly disposed substantially adjacent and substantially parallel to the first tote handling assembly. The second tote handling assembly includes a second wiper bar, a second plurality of actuators connected to and moveable with the second wiper bar, and a second tab associated with a second actuator of the second plurality of actuators. In such a system, movement of the first wiper bar in a first direction along a transverse axis of the first tote handling assembly, while the first tab is engaged with a tote disposed on the first tote handling assembly, transfers the tote from the first tote handling assembly to the second tote handling assembly.