mhurhangee/ep-ind-claims huggingface dataset:
A holding apparatus, comprising: a base tray with a first portion and a second portion, wherein the base tray is configured to hold a first board with first connectors in the first portion; and an expansion tray configured to fit within the second portion of the base tray and configured to hold a second board with second connectors facing the first connectors, the expansion tray comprising a transition mechanism configured to transition the second board between a first position and a second position, such that the first connectors and the second connectors engage in the first position, and the first connectors and the second connectors disengage in the second position; wherein the first board is a graphics processing unit board, and the second board is an expander PCIE board; wherein the transition mechanism comprises a lever and a pin, wherein the pin is positioned adjacent to and coupled to the second board, when the second board is loaded into the expansion tray; wherein the second board is movable from the second, disengaged, position to the first, engaged, position by pulling the lever in a counter-clockwise motion, causing the pin to push the second board; wherein when the second board is in the engaged position, the second board is movable into the disengaged position by pulling the lever in a clockwise motion, causing the pin to move backwards, thereby bringing the second board away from the first board. a base tray with a first portion and a second portion, wherein the base tray is configured to hold a first board with first connectors in the first portion; and an expansion tray configured to fit within the second portion of the base tray and configured to hold a second board with second connectors facing the first connectors, the expansion tray comprising a transition mechanism configured to transition the second board between a first position and a second position, such that the first connectors and the second connectors engage in the first position, and the first connectors and the second connectors disengage in the second position; wherein the first board is a graphics processing unit board, and the second board is an expander PCIE board; wherein the transition mechanism comprises a lever and a pin, wherein the pin is positioned adjacent to and coupled to the second board, when the second board is loaded into the expansion tray; wherein the second board is movable from the second, disengaged, position to the first, engaged, position by pulling the lever in a counter-clockwise motion, causing the pin to push the second board; wherein when the second board is in the engaged position, the second board is movable into the disengaged position by pulling the lever in a clockwise motion, causing the pin to move backwards, thereby bringing the second board away from the first board.
A module substrate comprising: a multilayered wiring substrate that includes wiring layers (34a - 34i); and embedded duplexers (40; 40a, 40b, 40c, 40d) that are embedded in the multilayered wiring substrate and electrically connected to the wiring layers, wherein the embedded duplexers include only duplexers supporting at least two bands of Band1, Band2, Band5, and Band8; a wiring layer formed on a surface of the multilayered wiring substrate out of the wiring layers includes a terminal portion that allows one or more external duplexers supporting at least one of Band3, Band4, Band7, Band13, Band17, and Band20 to be mounted thereon; Band1 includes a transmit band of 1920 ∼ 1980 MHz and a receive band of 2110 ∼ 2170 MHz; Band2 includes a transmit band of 1850 ∼ 1910 MHz and a receive band of 1930 ∼ 1990 MHz; Band5 includes a transmit band of 824 ∼ 849 MHz and a receive band of 869 - 894 MHz; Band8 includes a transmit band of 880 ∼ 915 MHz and a receive band of 925 ∼ 960 MHz; Band3 includes a transmit band of 1710 ∼ 1785 MHz and a receive band of 1805 ∼ 1880 MHz; Band4 includes a transmit band of 1710 ∼ 1755 MHz and a receive band of 2110 ∼ 2155 MHz; Band7 includes a transmit band of 2500 - 2570 MHz and a receive band of 2620 - 2690 MHz; Band13 includes a transmit band of 777 ∼ 787 MHz and a receive band of 746 ∼ 756 MHz; Band17 includes a transmit band of 704 ∼ 716 MHz and a receive band of 734 ∼ 746 MHz; and Band20 includes a transmit band of 832 ∼ 862 MHz and a receive band of 791 ∼ 821 MHz. a multilayered wiring substrate that includes wiring layers (34a - 34i); and embedded duplexers (40; 40a, 40b, 40c, 40d) that are embedded in the multilayered wiring substrate and electrically connected to the wiring layers, wherein the embedded duplexers include only duplexers supporting at least two bands of Band1, Band2, Band5, and Band8; a wiring layer formed on a surface of the multilayered wiring substrate out of the wiring layers includes a terminal portion that allows one or more external duplexers supporting at least one of Band3, Band4, Band7, Band13, Band17, and Band20 to be mounted thereon; Band1 includes a transmit band of 1920 ∼ 1980 MHz and a receive band of 2110 ∼ 2170 MHz; Band2 includes a transmit band of 1850 ∼ 1910 MHz and a receive band of 1930 ∼ 1990 MHz; Band5 includes a transmit band of 824 ∼ 849 MHz and a receive band of 869 - 894 MHz; Band8 includes a transmit band of 880 ∼ 915 MHz and a receive band of 925 ∼ 960 MHz; Band3 includes a transmit band of 1710 ∼ 1785 MHz and a receive band of 1805 ∼ 1880 MHz; Band4 includes a transmit band of 1710 ∼ 1755 MHz and a receive band of 2110 ∼ 2155 MHz; Band7 includes a transmit band of 2500 - 2570 MHz and a receive band of 2620 - 2690 MHz; Band13 includes a transmit band of 777 ∼ 787 MHz and a receive band of 746 ∼ 756 MHz; Band17 includes a transmit band of 704 ∼ 716 MHz and a receive band of 734 ∼ 746 MHz; and Band20 includes a transmit band of 832 ∼ 862 MHz and a receive band of 791 ∼ 821 MHz.
Method for producing organic amino compounds of formula in which R1 and R2 independently of each other denote hydrogen, methyl or ethyl, wherein R1 can additionally denote NH 2, from organic nitro compounds of formula in which R2 and R3 independently of each other denote hydrogen, methyl or ethyl, wherein R3 can additionally denote NO 2, wherein the organic nitro compound is hydrogenated to the organic amino compound with a hydrogen-containing gas stream by means of a catalyst, wherein the reaction course of the hydrogenation is monitored by analysis of secondary products forming during hydrogenation, wherein the concentration of one or more gaseous secondary products is determined in the gas phase and if the concentration of the one or more gaseous secondary products falls below a predefinable minimum concentration, the hydrogenating activity of the catalyst is increased by increasing the volumetric flow rate of the hydrogen-containing gas stream, by throttling the feed of organic nitro compound, by increasing the pressure, by increasing the temperature, by increasing the residence time and/or by adding further catalyst.
A method for configuring a Scheduling Request, SR, applied to a network device, the method comprising: configuring, for a terminal device, an SR configuration corresponding to each of at least one carrier, at least one SR configuration being configured for the at least one carrier; and configuring, for the terminal device, a mapping relationship between each of at least one Logical Channel, LCH, and the at least one SR configuration, wherein configuring, for the terminal device, the SR configuration corresponding to each of the at least one carrier comprises: configuring different SR configurations for different carriers, different SR configurations with a same SR configuration period being configured for different carriers, characterized in that: two different SR configurations including a first SR configuration and a second SR configuration are configured for each carrier, the first SR configurations of the different carries have a same SR configuration period, and the second SR configurations of the different carries have a same SR configuration period, and the first SR configurations of the different carries are mapped to a first group of LCHs, and the second SR configurations of the different carries are mapped to a second group of LCHs different from the first group of LCHs. configuring, for a terminal device, an SR configuration corresponding to each of at least one carrier, at least one SR configuration being configured for the at least one carrier; and configuring, for the terminal device, a mapping relationship between each of at least one Logical Channel, LCH, and the at least one SR configuration, wherein configuring, for the terminal device, the SR configuration corresponding to each of the at least one carrier comprises: configuring different SR configurations for different carriers, different SR configurations with a same SR configuration period being configured for different carriers, characterized in that: two different SR configurations including a first SR configuration and a second SR configuration are configured for each carrier, the first SR configurations of the different carries have a same SR configuration period, and the second SR configurations of the different carries have a same SR configuration period, and the first SR configurations of the different carries are mapped to a first group of LCHs, and the second SR configurations of the different carries are mapped to a second group of LCHs different from the first group of LCHs. two different SR configurations including a first SR configuration and a second SR configuration are configured for each carrier, the first SR configurations of the different carries have a same SR configuration period, and the second SR configurations of the different carries have a same SR configuration period, and the first SR configurations of the different carries are mapped to a first group of LCHs, and the second SR configurations of the different carries are mapped to a second group of LCHs different from the first group of LCHs.
A magnetically driven unit for a fluid pump assembly, comprising: a housing comprising a base and a nozzle extending from the base; a rotator assembly at least partially contained in the housing, the rotator assembly comprising a magnet assembly with a magnet constructed and arranged to be magnetically coupled to and rotationally driven by a magnet of a drive unit, a shaft connected to the magnet assembly and a blade operatively associated with the shaft, wherein an axle is anchored to the base, wherein the bottom of the axle comprises a flange base, and wherein the axle extends through the base and connects to the nozzle at an upper constraint, which receives the top portion of the axle, the shaft is held on the axle, so that the rotator assembly rotates around the axle, characterized in a magnet cover fixed to the base to enclose the magnet assembly so that the magnet assembly is disposed between the base and the magnet cover. a housing comprising a base and a nozzle extending from the base; a rotator assembly at least partially contained in the housing, the rotator assembly comprising a magnet assembly with a magnet constructed and arranged to be magnetically coupled to and rotationally driven by a magnet of a drive unit, a shaft connected to the magnet assembly and a blade operatively associated with the shaft, wherein an axle is anchored to the base, wherein the bottom of the axle comprises a flange base, and wherein the axle extends through the base and connects to the nozzle at an upper constraint, which receives the top portion of the axle, the shaft is held on the axle, so that the rotator assembly rotates around the axle, characterized in a magnet cover fixed to the base to enclose the magnet assembly so that the magnet assembly is disposed between the base and the magnet cover.
Method for placing plate-like elements within a processing machine comprising a feeder for placing these plate-like elements in a plurality of gripping members of a conveyor which conveys them in a paced flow into successive stations (3, 4, 5), said feeder being furnished with a fixing device, said feeder being driven by a computation and control unit, comprising the successive steps consisting in: - during the advancement of each plate-like element: - measuring the longitudinal placement error and the angular placement error of the plate-like element relative to a theoretical position, by detecting the front edge or the rear edge of the plate-like element, - controlling the feeder according to the measured longitudinal placement error and the angular placement error, - activating the fixing device in order to make said plate-like element attached to the feeder, characterized in that it comprises the successive steps consisting in: - measuring the longitudinal placement error, the transverse placement error and the angular placement error of the plate-like element attached to the feeder, relative to a theoretical position, by detecting register marks printed on said plate-like element, - controlling the feeder according to the placement errors of the plate-like element to which it is attached. - during the advancement of each plate-like element: - measuring the longitudinal placement error and the angular placement error of the plate-like element relative to a theoretical position, by detecting the front edge or the rear edge of the plate-like element, - controlling the feeder according to the measured longitudinal placement error and the angular placement error, - activating the fixing device in order to make said plate-like element attached to the feeder, characterized in that it comprises the successive steps consisting in: - measuring the longitudinal placement error, the transverse placement error and the angular placement error of the plate-like element attached to the feeder, relative to a theoretical position, by detecting register marks printed on said plate-like element, - controlling the feeder according to the placement errors of the plate-like element to which it is attached. - measuring the longitudinal placement error and the angular placement error of the plate-like element relative to a theoretical position, by detecting the front edge or the rear edge of the plate-like element, - controlling the feeder according to the measured longitudinal placement error and the angular placement error, - activating the fixing device in order to make said plate-like element attached to the feeder, characterized in that it comprises the successive steps consisting in: - measuring the longitudinal placement error, the transverse placement error and the angular placement error of the plate-like element attached to the feeder, relative to a theoretical position, by detecting register marks printed on said plate-like element, - controlling the feeder according to the placement errors of the plate-like element to which it is attached.
A buffer free, acid stable, liquid, oral rotavirus vaccine formulation comprising: (a) A target titer of at least 10 6 FFU/0.5mL of rotavirus strain 116E; (b) combination of sugars selected from sucrose, lactose and trehalose; (c) lactalbumin hydrolysate; and (d) recombinant human serum albumin, wherein the vaccine is stable at acidic pH range of pH 2-4 in stomach, capable of withstanding the stomach acidity without any titer loss for a period of at least 20 minutes, and wherein the volume dose is 0.5 mL. (a) A target titer of at least 10 6 FFU/0.5mL of rotavirus strain 116E; (b) combination of sugars selected from sucrose, lactose and trehalose; (c) lactalbumin hydrolysate; and (d) recombinant human serum albumin,
A radiation emitting device for applying radiation to mammal tissue, comprising: - a substrate having a front surface and an opposing back surface, said substrate accommodating at least one radiation source on said front surface wherein said at least one radiation source is arranged for applying radiation that leaves the device at a front side of the radiation emitting device toward said mammal tissue in a radiation emitting area; - a heat spreading section arranged on said back surface of said substrate in thermal contact with said at least one radiation source; - wherein said heat spreading section has an extended area extending sideways beyond said substrate in a direction substantially parallel to said substrate and wherein at least part of said extended area of said heat spreading section is arranged in thermal contact with said mammal tissue, wherein, when said radiation emitting device is applied with its front side to said mammal tissue, heat produced by said at least one radiation source is emitted or conducted via the front side of the radiation emitting device to said mammal tissue in an area that at least partially surrounds the radiation emitting area, characterized in that the radiation emitting device further comprises an insulating layer arranged to cover a backside of the heat spreading section which backside faces away from the front side of the radiation emitting device. - a substrate having a front surface and an opposing back surface, said substrate accommodating at least one radiation source on said front surface wherein said at least one radiation source is arranged for applying radiation that leaves the device at a front side of the radiation emitting device toward said mammal tissue in a radiation emitting area; - a heat spreading section arranged on said back surface of said substrate in thermal contact with said at least one radiation source; - wherein said heat spreading section has an extended area extending sideways beyond said substrate in a direction substantially parallel to said substrate and wherein at least part of said extended area of said heat spreading section is arranged in thermal contact with said mammal tissue, wherein, when said radiation emitting device is applied with its front side to said mammal tissue, heat produced by said at least one radiation source is emitted or conducted via the front side of the radiation emitting device to said mammal tissue in an area that at least partially surrounds the radiation emitting area,
An atomizing device (100, 200, 400, or 500) for an electronic cigarette, comprising: an atomizing sleeve; a mouthpiece assembly and an atomizing assembly received in the atomizing sleeve, the mouthpiece assembly and the atomizing assembly being connected through an air pipe, and a liquid reserving space being formed between the atomizing sleeve and the air pipe; wherein the atomizing assembly comprises an oil obstructing ring located at an end of the air pipe, a supporting sleeve, a porous body being fixed between the oil obstructing ring and the supporting sleeve, a heating wire wrapping around the porous body, a screw sleeve located at an end of the atomizing sleeve, an insulated ring, and an tubular electrode received between the screw sleeve and the insulated ring, two ends of the heating wire are respectively electrically connected to the tubular electrode and the screw sleeve, wherein an oil valve is formed between the supporting sleeve and the tubular electrode, or between the tubular electrode and the insulated ring; the oil valve is opened or closed by a movement of the tubular electrode, and the oil valve is configured as an air passage in communication with the air pipe when the oil valve is opened. an atomizing sleeve; a mouthpiece assembly and an atomizing assembly received in the atomizing sleeve, the mouthpiece assembly and the atomizing assembly being connected through an air pipe, and a liquid reserving space being formed between the atomizing sleeve and the air pipe; wherein the atomizing assembly comprises an oil obstructing ring located at an end of the air pipe, a supporting sleeve, a porous body being fixed between the oil obstructing ring and the supporting sleeve, a heating wire wrapping around the porous body, a screw sleeve located at an end of the atomizing sleeve, an insulated ring, and an tubular electrode received between the screw sleeve and the insulated ring, two ends of the heating wire are respectively electrically connected to the tubular electrode and the screw sleeve, wherein an oil valve is formed between the supporting sleeve and the tubular electrode, or between the tubular electrode and the insulated ring; the oil valve is opened or closed by a movement of the tubular electrode, and the oil valve is configured as an air passage in communication with the air pipe when the oil valve is opened.
A composition for a gel polymer electrolyte, the composition comprising: a lithium salt, an organic solvent, an oligomer represented by Formula 1, a compound represented by Formula 2, and a polymerization initiator: wherein, in Formula 1, R 1 is an alkylene group having 1 to 5 carbon atoms or - R 1 '-O-, wherein R 1 ' is an alkylene group having 1 to 5 carbon atoms, R 2 is an alkylene group having 1 to 5 carbon atoms or - O-R 2 '-, wherein R 2 ' is an alkylene group having 1 to 5 carbon atoms, R 4, R 5, R 6, and R 7 are each independently hydrogen or an alkyl group having 1 to 3 carbon atoms, R and R 3 are each independently an aliphatic hydrocarbon group or an aromatic hydrocarbon group, each of R 8 and R 9 is an alkylene group having 1 to 5 carbon atoms, R a, R b, R c, and R d are each independently hydrogen or an alkyl group having 1 to 3 carbon atoms, x, y, z, and o are each independently an integer of 1 to 100, c and c1 are each independently an integer of 1 to 3, and d and d1 are each independently an integer of 0 to 2. wherein, in Formula 2, R 10 is hydrogen or an alkyl group having 1 to 4 carbon atoms, R 11 is an alkylene group having 1 to 6 carbon atoms which is unsubstituted or substituted with fluorine, and M is at least one alkali metal ion selected from lithium (Li), sodium (Na), and potassium, and A is SO 3 ⊖, SO 2 C ⊖ CN 2 or SO 2 N ⊖ SO 2 CF 3, wherein a weight ratio of the oligomer represented by Formula 1: the compound represented by Formula 2 is in a range of 0.2:99.8 to 99.8:0.2. a lithium salt, an organic solvent, an oligomer represented by Formula 1, a compound represented by Formula 2, and a polymerization initiator: wherein, in Formula 1, R 1 is an alkylene group having 1 to 5 carbon atoms or - R 1 '-O-, wherein R 1 ' is an alkylene group having 1 to 5 carbon atoms, R 2 is an alkylene group having 1 to 5 carbon atoms or - O-R 2 '-, wherein R 2 ' is an alkylene group having 1 to 5 carbon atoms, R 4, R 5, R 6, and R 7 are each independently hydrogen or an alkyl group having 1 to 3 carbon atoms, R and R 3 are each independently an aliphatic hydrocarbon group or an aromatic hydrocarbon group, each of R 8 and R 9 is an alkylene group having 1 to 5 carbon atoms, R a, R b, R c, and R d are each independently hydrogen or an alkyl group having 1 to 3 carbon atoms, x, y, z, and o are each independently an integer of 1 to 100, c and c1 are each independently an integer of 1 to 3, and d and d1 are each independently an integer of 0 to 2. wherein, in Formula 2, R 10 is hydrogen or an alkyl group having 1 to 4 carbon atoms, R 11 is an alkylene group having 1 to 6 carbon atoms which is unsubstituted or substituted with fluorine, and M is at least one alkali metal ion selected from lithium (Li), sodium (Na), and potassium, and A is SO 3 ⊖, SO 2 C ⊖ CN 2 or SO 2 N ⊖ SO 2 CF 3, wherein a weight ratio of the oligomer represented by Formula 1: the compound represented by Formula 2 is in a range of 0.2:99.8 to 99.8:0.2.