Abstract: Radiant energy control systems, methods, and apparatuses are provided. An example light emitting device may comprise a sensor operable to detect whether a space is occupied, and a controller in communication with the sensor and operable to cause output, via a first light emitter white light comprising a wavelength range of 380 to 420 nm, and cause output, via a second light emitter a non-white light comprising a wavelength range of 380 to 420 nm.

Abstract: The present invention includes a spray drying disposable device for use in a spray drying system. The disposable has a spray drying head and a plasma drying chamber. The head has a spray dry nozzle assembly in fluid communication with the plasma source and the pressurized aerosol gas source. The pressurized gas flows in a vortex pattern that atomizes plasma droplets in the chamber. The head also includes a plenum has uniform air pressure of the drying gas. A baffle plate forms the floor of the plenum having drying gas jets that supply drying gas to the chamber. The atomized plasma droplets evaporate in the presence of the drying gas emitted from the jets to obtain dried plasma particles and humid air. A capture filter captures the dried plasma particles and allows the humid air to pass. The humid air passes through the gas outlet and the exhaust port.

Abstract: The present invention relates to spray drying plasma methodology that includes pretreating a donated liquid plasma unit, drying the liquid plasma using a spray drying apparatus with the spray drying disposable device that results in a disposable having the dried plasma, finishing the disposable using the finishing apparatus that is designed to seal and separate the disposable, and transform the disposable into a dried plasma unit. The methods of the present invention include storing the dried plasma unit and, when ready for use, reconstituting the dried plasma unit with reconstitution solution to obtain a plasma unit ready for transfusion into a recipient.

Abstract: A vehicle includes a chassis, a body, and a door assembly. The body is supported by the chassis, and defines a driver compartment and a cargo compartment. The driver compartment has a cab opening and the cargo compartment has a cargo opening. The door assembly is coupled to the body and provides selective access into the driver compartment and into the cargo compartment through the cab opening and cargo opening, respectively. The door assembly includes a first door and a second door. The first door is movable between a first position extending across the cab opening and a second position extending at least partially across a portion of the cab opening. The second door is movable between a third position extending across the cargo opening and a fourth position extending at least partially across a portion of the cab opening.

Abstract: A device configured to inactivate microorganisms may include a container comprising at least one surface and an internal volumetric space, a removable cover comprising at least one substrate facing into the internal volumetric space, and a first array of light emitters disposed on the substrate and configured to emit a first light, within a wavelength range of 380-420 nanometers (nm) and having a first intensity, into the internal volumetric space, wherein the first intensity comprises an intensity sufficient to initiate inactivation of microorganisms, and wherein the first light creates a multi-dimensional space of disinfection associated with the internal volumetric space.

Abstract: Systems, methods, and apparatuses involving lighting device dissipation are provided. An example light emitting device for inactivating microorganisms may comprise a vent configured to allow air to flow therethrough. The light emitting device may comprise a light emitter disposed on a substrate and configured to at least produce a light. The light may comprise a radiant flux sufficient to initiate inactivation of microorganisms, wherein at least 20% of a spectral energy of the light is in a wavelength in a range of 380-420 nanometers (nm). The light emitting device may comprise a fan configured to create an airflow through the vent and towards the substrate.

Abstract: A surface light emitting device that inactivates microorganisms may include at least one light emitter configured to emit a first light comprising a first peak wavelength wherein the first light is a blue light, and a light converting layer disposed over the at least one light emitter. The light converting layer may include a first light-converting material configured to convert only a first portion of the first light to at least a second light comprising a second peak wavelength different from the first peak wavelength, a second light-converting material configured to convert only a second portion of the first light to at least a third light comprising a third peak wavelength different from the first peak wavelength and the second peak wavelength.

Abstract: A system may include an area configured to accept an object for disinfection, a first light emitter configured to emit a first light within a wavelength range of 380-420 nanometers (nm) and having a first intensity, and a second light emitter configured to emit a second light within a wavelength range of 380-420 nanometers (nm) and having a second intensity, wherein the first intensity and the second intensity comprise an intensity sufficient to initiate inactivation of microorganisms, and wherein the first light and the second light create a multi-dimensional space of disinfection.

Abstract: A method, system, and computer program product for diagnosing IT logs based on events are configured to: receive a notification of an incident associated with an application; obtain data defining a set of events related to the application for a predefined range of time; create a timeseries of each type of event in the set of events; compute an event change score for each respective type of event for windows of the range of time based the timeseries of the respective type of event; compute an overall score for each of the windows based on the respective event change scores of the respective event types for each of the windows; and identify respective ones of the windows as a region of interest based on the overall score of the respective ones of the windows exceeding a threshold.

Abstract: A surface light emitting device that inactivates microorganisms may include at least one light emitter configured to emit a first light comprising a first peak wavelength wherein the first light is a blue light, and a light converting layer disposed over the at least one light emitter. The light converting layer may include a first light-converting material configured to convert only a first portion of the first light to at least a second light comprising a second peak wavelength different from the first peak wavelength, a second light-converting material configured to convert only a second portion of the first light to at least a third light comprising a third peak wavelength different from the first peak wavelength and the second peak wavelength.

Abstract: Methods, systems, and devices for inactivating microorganisms are disclosed. An example light emitting device that inactivates microorganisms on a surface comprises a light emitter configured to emit a first light comprising a first wavelength in a range of 380 nanometers (nm) to 420 nm, a first light-converting material configured to convert a first portion of the first light to at least a second light comprising a second wavelength different from the first wavelength, and a second light-converting material configured to convert a second portion of the first light to at least a third light comprising a third wavelength different from the first wavelength, wherein at least the first light, the second light, and the third light mix to form a disinfecting white light.

Abstract: Methods and systems involving disinfecting light subcomponents are provided. An example system may include a substrate with one or more light emitters disposed on the substrate. The one or more light emitters may be configured to inactivate microorganisms on a surface by emitting light. The light may comprise a proportion of spectral energy of the light, measured in a 380 nanometers (nm) to 420 nm wavelength range. The light may comprise an irradiance at the surface sufficient to initiate inactivation of microorganisms on the surface.

Abstract: Methods, systems, and apparatuses involving disinfecting light subcomponents are provided. An example system comprises a substrate with one or more light emitters disposed on the substrate. The one or more light emitters may be configured to inactivate microorganisms on a surface by emitting light. The light may comprise a proportion of spectral energy of the light, measured in a 380 nanometers (nm) to 420 nm wavelength range, greater than 50%. The light may comprise a full width half max (FWHM) emission spectrum of less than 20 nm and centered at a wavelength of approximately 405 nm to concentrate a spectral energy of the light and minimize energy associated with wavelengths that bleed into an ultraviolet wavelength range. The light may comprise an irradiance at the surface sufficient to initiate inactivation of microorganisms on the surface.

Abstract: A system may include an area configured to accept an object for disinfection, a first light emitter configured to emit a first light within a wavelength range of 380-420 nanometers (nm) and having a first intensity, and a second light emitter configured to emit a second light within a wavelength range of 380-420 nanometers (nm) and having a second intensity, wherein the first intensity and the second intensity comprise an intensity sufficient to initiate inactivation of microorganisms, and wherein the first light and the second light create a multi-dimensional space of disinfection.

Abstract: Radiant energy control systems, methods, and apparatuses are provided. An example light emitting device may comprise a sensor operable to detect whether a space is occupied, and a controller in communication with the sensor and operable to cause output, via a first light emitter white light comprising a wavelength range of 380 to 420 nm, and cause output, via a second light emitter a non-white light comprising a wavelength range of 380 to 420 nm.

Abstract: Systems and methods for bacterial load sensing devices are disclosed. An example contamination sensing device may comprise a body, a light emitter disposed on the body and configured to emit an excitation wavelength of light toward a surface, a sensor disposed on the body, configured to detect light, and directed toward the surface, and a filter adjuster configured to determine, based on the excitation wavelength of light, a filter configured to remove light outside of an emission wavelength range, wherein the emission wavelength range corresponds to wavelengths of light emitted by contamination upon exposure to the excitation wavelength of light, and adjustably move the filter in front of the sensor.

Abstract: A method and system for disinfecting air purification and heating, ventilation, air conditioning (HVAC) devices may include a fibrous media filter, an antimicrobial filter layer positioned adjacent to one or more surfaces of the fibrous media filter, and one or more light emitters positioned within the antimicrobial filter layer and configured to emit a disinfecting light. The disinfecting light may include an irradiance sufficient to inactivate microorganisms on the fibrous media filter, and the disinfecting light may include a wavelength from about 380 nm to about 420 nm.

Abstract: Methods, systems, and devices for inactivating microorganisms are disclosed. An example light emitting device that inactivates microorganisms on a surface comprises a light emitter configured to emit a first light comprising a first wavelength in a range of 380 nanometers (nm) to 420 nm, a first light-converting material configured to convert a first portion of the first light to at least a second light comprising a second wavelength different from the first wavelength, and a second light-converting material configured to convert a second portion of the first light to at least a third light comprising a third wavelength different from the first wavelength, wherein at least the first light, the second light, and the third light mix to form a disinfecting white light.

Abstract: Methods, systems, and apparatuses involving devices with disinfecting illumination are provided. An example apparatus comprises a container comprising a first side and a second side, a first array of light emitters disposed on the first side and configured to emit a first light within a wavelength range of 380-420 nanometers (nm) and having a first intensity, and a second array of light emitters disposed on the second side and configured to emit a second light within the wavelength range of 380-420 nm and having a second intensity, wherein the first intensity comprises an intensity sufficient to initiate inactivation of micro-organisms, and wherein the first array of light emitters and the second array of light emitters are configured to collectively create a multi-dimensional space of disinfection.

Abstract: Methods, systems, and devices for inactivating microorganisms are disclosed. An example light emitting device that inactivates microorganisms on a surface comprises a light emitter configured to emit a first light comprising a first wavelength in a range of 380 nanometers (nm) to 420 nm, a first light-converting material configured to convert a first portion of the first light to at least a second light comprising a second wavelength different from the first wavelength, and a second light-converting material configured to convert a second portion of the first light to at least a third light comprising a third wavelength different from the first wavelength, wherein at least the first light, the second light, and the third light mix to form a disinfecting white light, wherein the first light makes up at least 10% of the disinfecting white light.