Abstract: A dark radiator includes a burner, a fan and a radiant tube which is connected to an exhaust gas discharge line, wherein the burner is connected to a fuel gas supply, wherein the fan is designed to supply the burner with combustion air, wherein the burner is designed to output a flame into the radiant tube, wherein the fuel gas supply is connected to a hydrogen source.

Abstract: A pressure reducer assembly (100) includes a pressure reducer body (110) defining at least one pressure reducer chamber (120) along a central axis (X-X?). The pressure reducer chamber (120) includes an inlet section (122) and an outlet section (124) fluidly coupled with the inlet section (122). The pressure reducer assembly (100) further includes a spring-operated hollow piston rod (121) having a center (X) along the central axis (X-X?), a cylindrical inner peripheral surface comprising an inner diameter (A), and a cylindrical outer peripheral surface comprising an outer diameter (B). A diaphragm (128) made of elastic material is adapted to be operatively coupled with the piston rod (121). The diaphragm (128) includes a central hole (150) having a center (Y) along a central axis (W-W?) and a diameter (C).

Abstract: A water socket (110) couplable with a water system, the water socket (110) comprising: a base body (112) defining an annular surface and having a longitudinal axis (LL1); a coupling nipple (114) defined with the base body (112) along the longitudinal axis (LL1), and one or more coupling pins (116) operatively coupled on the annular surface of the base body (112), wherein the one or more coupling pins (116) is movable with respect to the base body (112) along the longitudinal axis (LL1), to an open position and a closed position, and wherein coupling of the hose connector (150) and the water socket (110) is such that the one or more coupling pins (116) at least partially moves to the open position within the base body (112), based on engagement of the coupling pin (116) with the at least one indent (162).

Abstract: A motor vehicle transmission (1) has a drive input shaft (15), a drive output shaft (16) and a first planetary gearset (P1), and a second planetary gearset (P2), where the drive input shaft (15) is provided for coupling to a drive machine. In addition, a first shifting element (A) and a second shifting element (B) are provided, at least functionally. Also disclosed are a drive unit (5), a motor vehicle drivetrain, a hybrid or electric vehicle, and a method for operating a motor vehicle transmission.

Abstract: A motor vehicle transmission (1) has a drive input shaft (15), a drive output shaft (16), a first planetary gearset (P1), and a second planetary gearset (P2). The drive input shaft (15) is provided for coupling to a drive machine. In addition, a first shifting element (A) and a second shifting element (B) are provided, at least functionally. Also disclosed is a drive unit (5), a motor vehicle drivetrain, a hybrid or electric vehicle, and a method for operating a motor vehicle transmission.

Abstract: A fluid distributor assembly (100) includes a body (110). The body (110) defines a fluid inlet (120) adapted to receive a fluid supply from a fluid source (200). The body (110) further defines at least one fluid outlet (130) fluidly coupled with the fluid inlet (120). The at least one fluid outlet (130) is provided with a threaded portion (132) to allow fluid coupling with the fluid distribution component (500), The fluid distributor assembly (100) further includes one or more stabilizer arms (702, 800) that extend away from the body (110). The fluid distributor assembly (100) is characterized in that a first end (802) of the one or more stabilizer arm (702, 800) is removably coupled with the threaded portion (132).

Abstract: A pressure reducer (100) for reducing a fluid pressure includes a pressure reducer body (110) defining at least one pressure reducer chamber (120). The pressure reducer chamber (120) includes an inlet section (122) and an outlet section (124) fluidly coupled with the inlet section (122). The pressure reducer chamber (120) further includes a spring-operated piston rod (121) and a sealing element (128) operatively coupled with the piston rod (121). A flange (132) is sealing coupled with the pressure reducer body (110). The pressure reducer body (110) defines a pressure compensation hole (114). The pressure reducer (100) is characterized in that the pressure reducer body (110) has a first threaded portion (112), and the flange (132) has a second threaded portion (134) such that the pressure reducer body (110) and the flange (132) are threadedly coupled.

Abstract: Silicon-containing composite particles, the process comprising the steps of: (a) providing a plurality of porous particles comprising micropores and/or mesopores, wherein the D50 particle diameter of the porous particles from 0.5 to 200 ?m; the total pore volume of micropores and mesopores is from 0.4 to 2.2 cm3/g; and the PD50 pore diameter is no more than 30 nm; c (b) combining a charge of the porous particles with a charge of a silicon-containing precursor in a batch pressure reactor, wherein the charge of porous particles has a volume of at least 20 cm3 per litre of reactor volume (cm3/LRV), and wherein the charge of the silicon-containing precursor comprises at least 2 g of silicon per litre of reactor volume (g/LRV); and (c) heating the reactor to a temperature effective to cause deposition of silicon in the pores of the porous particles, thereby providing the silicon-containing composite particles.

Abstract: A transmitter device (100) includes a housing (102). The transmitter device (100) has at least one battery housed within the housing (102). The transmitter device (100) has a cover (104) which at least partially covers the at least one battery. The transmitter device (100) further includes a sensor (106) electrically coupled with the at least one battery. The transmitter device (100) is installed in a ground surface. The transmitter device (100) is characterized in that the cover (104) is removably coupled with the housing (102) by a snap-fit connection such that the cover (104) is vertically accessible for removal while the transmitter device (100) remains installed. The cover (104) includes one or more recesses or protrusions (114) and the housing (102) has one or more complementary protrusions (112) or recesses for the removable coupling between the cover (104) and the housing (102), and the cover (104) includes a tab (108) or a slot which allows disassembly of the cover (104) from the housing (102).

Abstract: A pressure reducer (100) for reducing a fluid pressure includes a pressure reducer body (110) defining at least one pressure reducer chamber (120). The pressure reducer chamber (120) includes an inlet section (122) and an outlet section (124) fluidly coupled with the inlet section (122). The pressure reducer chamber (120) further includes a spring-operated piston rod (121) and a sealing element (128) operatively coupled with the piston rod (121). A flange (132) is sealing coupled with the pressure reducer body (110). The pressure reducer body (110) defines a pressure compensation hole (114). The pressure reducer (100) is characterized in that the pressure reducer body (110) has a first threaded portion (112), and the flange (132) has a second threaded portion (134) such that the pressure reducer body (110) and the flange (132) are threadedly coupled.

Abstract: A hand operated cutting tool (200) for pipes or tubes includes a housing (202). The housing (202) defining at least one first opening (204) to receive an object (210) to perform a first cutting action, and a second opening (206) which is adapted to perform a second cutting action. The first opening (204) includes a longitudinal axis (A-A1) and the second opening (206) include a longitudinal axis (X-X?). The longitudinal axis (A-A1) and the longitudinal axis (X-X?) include an angle (Z) therebetween that is unequal to 0 degree. And, one or more cutting blades (208, 502) are operatively coupled to the first opening (204) and the second opening (206). The one or more cutting blades (208) is arranged such that it is performing both the first cutting action and the second cutting action.

Abstract: A perfluorophenyl azide containing siloxane oligomer mixture along with products made therefrom, uses for the same, methods for preparing and methods for curing the same.

Abstract: A hand operated cutting tool (200) for pipes or tubes includes a housing (202). The housing (202) defining at least one first opening (204) to receive an object (210) to perform a first cutting action, and a second opening (206) which is adapted to perform a second cutting action. The first opening (204) includes a longitudinal axis (A-A1) and the second opening (206) include a longitudinal axis (X-X?). The longitudinal axis (A-A1) and the longitudinal axis (X-X?) include an angle (Z) therebetween that is unequal to 0 degree. And, one or more cutting blades (208, 502) are operatively coupled to the first opening (204) and the second opening (206). The one or more cutting blades (208) is arranged such that it is performing both the first cutting action and the second cutting action.

Abstract: A transmitter device (100) includes a housing (102). The transmitter device (100) has a cable (110). The cable (110) is at least partially housed within the housing (102) and electrically connected to a socket (130). Further, the transmitter device (100) has a sensor (106). The sensor (106) is electrically coupled with the cable (110). The transmitter device (100) further includes a cover (104). The cover (104) at least partially covers the sensor (106). The transmitter dev ice (100) is characterized in that the socket (130) is disposed outside the housing (102), and the socket (130) is flexibly coupled to the housing (102) through the cable (110). The housing (102) includes a channel (111) such that the cable (110) is slidably received within the channel (111).

Abstract: A transmitter device (100) includes a housing (102). The transmitter device (100) has at least one battery housed within the housing (102). The transmitter device (100) has a cover (104) which at least partially covers the at least one battery. The transmitter device (100) further includes a sensor (106) electrically coupled with the at least one battery. The transmitter device (100) is installed in a ground surface. The transmitter device (100) is characterized in that the cover (104) is removably coupled with the housing (102) by a snap-fit connection such that the cover (104) is vertically accessible for removal while the transmitter device (100) remains installed. The cover (104) includes one or more recesses or protrusions (114) and the housing (102) has one or more complementary protrusions (112) or recesses for the removable coupling between the cover (104) and the housing (102), and the cover (104) includes a tab (108) or a slot which allows disassembly of the cover (104) from the housing (102).

Abstract: A spray head includes a spray head base body (2) and a nozzle plate (3). The spray head base body (2) includes at least one liquid channel (4) for providing a liquid flow towards the nozzle plate (3). A drip-stop element (10) is located between the spray head base body (2) and the nozzle plate (3). The drip-stop element (10) includes at least one opening (11) being fluidly coupled with liquid channel (4) for providing a fluid flow into a space (6) between the drip-stop element (10) and the nozzle plate (3). At least a top portion (12) of the drip-stop element (10) is movably mounted within a spray head chamber (5) in order to perform a stroke movement.

Abstract: The invention relates to a spray head comprising a spray head base body (2) and a nozzle plate (3), the spray head base body (2) comprising at least one liquid channel (4) for providing a liquid flow towards the nozzle plate (3), wherein a drip-stop element (10) is located between the spray head base body (2) and the nozzle plate (3), said drip-stop element (10) comprising at least one opening (11) being fluidly coupled with said liquid channel (4) for providing a fluid flow into a space (6) between the drip-stop element (10) and the nozzle plate (3), wherein at least a top portion (12) of said drip-stop element (10) is movably mounted within a spray head chamber (5) in order to perform a stroke movement, wherein said top portion (12) is preloaded such that the top portion (12) rests against the nozzle plate (3) without applying any external forces to the top portion (12) and said top portion (12) is lifted off the nozzle plate (3) in case that a liquid flow is provided through the liquid channel (4) into the

Abstract: A thermoplastic bottle has a crimped valve cup and a method of manufacturing a thermoplastic bottle includes crimping a valve cup to such a bottle. The thermoplastic bottle and valve cup may be used in a system to dispense aerosol products. At least one protrusion extends from a flange of the bottle to which the valve cup is crimped. Prior to being crimped to the bottle, the valve cup is set to the bottle with an interference fit between a crimping portion of the valve cup and the protrusion. The interference fit prevents shifting of the valve cup from its set position on the bottle prior before the valve cup is crimped.

Abstract: A process for producing olefins from oxygenates includes the following steps: (i) heterogeneously catalyzed conversion of at least one oxygenate to a stream containing propylene, aromatics and cyclic olefins, (ii) at least partial hydrogenation of the aromatics and cyclic olefins to naphthenes, and (iii) at least partial recirculation of the naphthenes into the heterogeneously catalyzed conversion.