Abstract: In some implementations, a method may include obtaining target fault data indicating a preselected fault for a vehicle having a hydrogen source. In addition, the method may include obtaining vehicle fault data indicating a fault of the vehicle. The method may include identifying a match between the fault and the preselected fault. Moreover, the method may include purging, in response to the identifying the match, hydrogen from the hydrogen source so as to reduce consequences of a battery thermal event by reducing the likelihood of a hydrogen-fueled fire.

Abstract: Provided herein are, among other things, methods for treating a patient suffering from a CD38+ cancer.

Abstract: Provided here, amongst other things, are populations of expanded and stimulated natural killer cells, pharmaceutical compositions comprising populations of expanded and stimulated natural killer cells, and methods of expanding and stimulating natural killer cells

Abstract: A method for determining the thickness of a plurality of coating layers. The method comprises the steps of performing a calibration analysis on calibration data to determine initial values and search limits of optical parameters of the plurality of coating layers, irradiating the plurality of layers with a pulse of THz radiation in the range from 0.01 THz to 10 THz, detecting the reflected radiation to produce a sample response derived from the reflected radiation, producing a synthesized waveform using the optical parameters and predetermined initial thicknesses of the layers, varying the thicknesses and the optical parameters within the search limits to minimize the error measured between the sample response and the synthesized waveform, and outputting the thicknesses of the layers.

Abstract: A cleansing composition includes 25% to 35% by weight of a surfactant, 1.5% to 5% by weight of a co-surfactant, 5% to 9% by weight of water; and 50% to 60% by weight of a fatty acid and soap mixture, wherein the fatty acid to soap ratio is 2.3:1 to 1.8:1. A method of making cleansing bars includes heating the cleansing composition to a temperature sufficient to provide a molten composition, cooling the molten composition to form flakes and/or chips, refining the flakes and/or chips to form billets, and stamping and/or cutting the billets to form the cleansing bars. Another method of making cleansing bars includes heating the cleansing composition to a temperature sufficient to provide a molten composition, pouring the molten composition into a mold, cooling the molten composition until the cleansing bars are formed, and removing the cleansing bars from the mold.

Abstract: Provided herein are, among other things, methods for treating a patient suffering from a CD20+ cancer

Abstract: This invention relates to particulate electroactive materials consisting of a plurality of composite particles, wherein the composite particles comprise a plurality of silicon nanoparticles dispersed within a conductive carbon matrix. The particulate material comprises 40 to 65 wt % silicon, at least 6 wt % and less than 20% oxygen, and has a weight ratio of the total amount of oxygen and nitrogen to silicon in the range of from 0.1 to 0.45 and a weight ratio of carbon to silicon in the range of from 0.1 to 1. The particulate electroactive materials are useful as an active component of an anode in a metal ion battery.

Abstract: This invention relates to particulate electroactive materials consisting of a plurality of composite particles, wherein the composite particles comprise a plurality of silicon nanoparticles dispersed within a conductive carbon matrix. The particulate material comprises 40 to 65 wt % silicon, at least 6 wt % and less than 20% oxygen, and has a weight ratio of the total amount of oxygen and nitrogen to silicon in the range of from 0.1 to 0.45 and a weight ratio of carbon to silicon in the range of from 0.1 to 1. The particulate electroactive materials are useful as an active component of an anode in a metal ion battery.

Abstract: This invention relates to particulate electroactive materials comprising a plurality of composite particles, wherein the composite particles comprise: (a) a porous carbon framework including micropores and optional mesopores having a total volume of at least 0.7 cm3/g and up to 2 cm3/g, wherein at least half of the total micropore and mesopore volume is in the form of pores having a diameter of no more than 1.5 nm; and (b) silicon located within the micropores and optional mesopores of the porous carbon framework in a defined amount relative to the total volume of the micropores and optional mesopores.

Abstract: This invention relates to particulate electroactive materials comprising a plurality of composite particles, wherein the composite particles comprise: (a) a porous carbon framework including micropores and optional mesopores having a combined total volume of at least 0.7 cm3/g, wherein at least half of the micropore/mesopore volume is in the form of pores having a diameter of no more than 1.5 nm; and (b) an electroactive material located within the micropores and/or mesopores of the porous carbon framework. The D90 particle diameter of the composite particles is no more than 10 nm.

Abstract: The present invention relates generally to the field of floor mats. More specifically, the present invention relates to a magnetic mat device that prevents a user from wasting excessive amounts of time searching for nuts, bolts, screws, sockets, or other parts that fall onto the floor while working. The device is primarily comprised of a body, further comprised of a top layer, a middle layer, further comprised of at least one magnet, and a bottom layer. Further, the top layer is comprised of a top surface that helps prevent against slips as well as stains from oils and other liquids. Further, the bottom surface is comprised of protrusions that prevent the device from sliding on the floor. The device is also comprised of a side surface comprised of at least one magnet to attach multiple devices together to encompass any size workstation.

Abstract: A bar composition comprising: a) 10%-60% synthetic (non-soap) surfactant; b) 0%-50% fatty acid and soap wherein total fatty acid soap is less than 60% of total synthetic surfactant; c) 6.8%-54% water-soluble structurant, selected from • polyalkylene oxides having MW 1,500-10,000, • PEO-PPO blockcopolymers, wherein the water soluble structurant has a melting point of 40-100° C. and further comprises polyalkylene oxides having MW 50,000-500,000, 1-5 wt %; d) 0.1%-4.8% alkali metal isethionate; e) 2.7%-13.5% water, wherein the sum of water, alkali metal isethionate and water-soluble structurant is 10%-60%, wherein based on the total amount of water, alkali metal isethionate and said water-soluble structurant, • water is present 4-27%, • alkali metal isethionate is present less than 8%, • water-soluble structurant is present 68-90%. Use of the composition for eliminating efflorescence.

Abstract: This invention relates to particulate electroactive materials comprising a plurality of composite particles, wherein the composite particles comprise: (a) a porous carbon framework including micropores and/or mesopores having a total volume of at least 0.7 cm3/g, wherein at least half of the micropore/mesopore volume is in the form of pores having a diameter of no more than 5 nm; and (b) silicon located within the micropores and/or mesopores of the porous carbon framework in a defined amount relative to the volume of the micropores and/or mesopores.

Abstract: This invention relates to particulate electroactive materials consisting of a plurality of composite particles, wherein the composite particles comprise: (a) a porous carbon framework including micropores and/or mesopores having a total volume of at least 0.6 cm 3/g, wherein at least half of the micropore/mesopore volume is in the form of pores having a diameter of no more than 2 nm; and (b) an electroactive material located within the micropores and/or mesopores of the porous carbon framework. The D 90 particle diameter of the composite particles is no more than 10 nm.

Abstract: This invention relates to particulate electroactive materials comprising a plurality of composite particles, wherein the composite particles comprise: (a) a porous carbon framework including micropores and optional mesopores having a combined total volume of at least 0.7 cm3/g, wherein at least half of the micropore/mesopore volume is in the form of pores having a diameter of no more than 1.5 nm; and (b) an electroactive material located within the micropores and/or mesopores of the porous carbon framework. The D90 particle diameter of the composite particles is no more than 10 nm.

Abstract: A mounting enclosure assembly is configured to mount electronic components onto a DIN rail. The mounting enclosure assembly includes a mounting bracket including a body having at least one elongate slot configured to receive an edge of the electronic component therein. The mounting enclosure assembly further includes a heat sink secured to the mounting bracket. The heat sink includes a mounting configuration configured to secure the heat sink and the mounting bracket to the DIN rail. The mounting enclosure assembly further includes a thermal bonding material disposed within the slot to secure the electronic component to the body of the mounting bracket within the slot. Other embodiments of the mounting enclosure assembly are further disclosed.

Abstract: This invention relates to particulate electroactive materials comprising a plurality of composite particles, wherein the composite particles comprise: (a) a porous carbon framework including micropores and optional mesopores having a total volume of at least 0.7 cm3/g and up to 2 cm3/g, wherein at least half of the total micropore and mesopore volume is in the form of pores having a diameter of no more than 1.5 nm; and (b) silicon located within the micropores and optional mesopores of the porous carbon framework in a defined amount relative to the total volume of the micropores and optional mesopores.

Abstract: A multi-player smartphone video gaming system using a smartphone with a video game controller and a video game projector connected to an input-output port of the smartphone with wired connections. Earphones and a microphone are connected to an audio in/out port of the smartphone. A host server provides a multi-player video game playing application and video games for the smartphone through an Internet interface on the smartphone. The host server provides a platform for multi-player video gaming over the Internet through the internet interface of the smartphone. The smartphone, controller, and video game projector occupy less than 0.5 cubic feet of space. The projected video game display can be displayed up to 170 inches wide.

Abstract: A multi-player smartphone video gaming system having a smartphone, a video game controller connected to the smartphone, a video game projector connected to the smartphone, wherein the video game projector is a 3D projector or a virtual hologram projector and wherein the virtual hologram projector is a virtual holographic fan or a pyramidal holographic display or a Z-shaped holographic display. Earphones and a microphone are connected to the smartphone. A video camera monitors a user's movements during video gaming and provides facial recognition of the user. A host server provides the smartphone, through a network interface, a multi-player video game playing application, video games, and a platform for multiplayer video gaming over a network.

Abstract: A mounting enclosure assembly is configured to mount electronic components onto a DIN rail. The mounting enclosure assembly includes a mounting bracket including a body having at least one elongate slot configured to receive an edge of the electronic component therein. The mounting enclosure assembly further includes a heat sink secured to the mounting bracket. The heat sink includes a mounting configuration configured to secure the heat sink and the mounting bracket to the DIN rail. The mounting enclosure assembly further includes a thermal bonding material disposed within the slot to secure the electronic component to the body of the mounting bracket within the slot. Other embodiments of the mounting enclosure assembly are further disclosed.