mhurhangee/ep-ind-claims huggingface dataset:
A medical holding arm comprising at least one joint (24, 26, 28, 30, 32) with two joint bodies (40, 42) which are rotatable relative to each other about a rotational axis, wherein a first of the joint bodies has a plurality of locking pins and a second of the joint bodies has a plurality of locking recesses, the number of locking pins differs from the number of locking recesses, the locking pins each have an axially tapered engagement part, the locking recesses are respectively formed axially tapered to selectively receive each of the engagement parts for locking the joint (24, 26, 28, 30, 32), and, when the joint (24, 26, 28, 30, 32) is locked, at least one of the locking pins is received with its tapered engagement part completely in one of the tapered locking recesses, while at least one of the other locking pins is received with its tapered engagement part only partially in one of the other tapered locking recesses, characterized in that the engagement part of the respective locking pin has at least one first flattened contact surface, and the respective locking recess has at least one second flattened contact surface, and, when the engagement part of the respective locking pin is received in the respective locking recess, the first and second contact surface (68, 72) are at least partially in flat contact with each other.
A beverage making system, comprising: a beverage precursor liquid supply arranged to provide a precursor liquid; a cartridge chamber arranged to hold first and second cartridge portions; a first cartridge portion, disposed in the cartridge chamber and containing a carbon dioxide source arranged to emit carbon dioxide gas for use in carbonating the precursor liquid; a second cartridge portion, disposed in the cartridge chamber and containing a beverage medium arranged to be mixed with the precursor liquid to form a beverage; and a carbon dioxide activating fluid supply arranged to provide the fluid to the first chamber for contact with the carbon dioxide source to cause the carbon dioxide source to emit carbon dioxide gas; wherein the system is arranged to carbonate the precursor liquid using the carbon dioxide gas emitted by the first cartridge portion and to mix the beverage medium of the second cartridge portion with the precursor liquid; characterised in that a single cartridge having an internal space that is sealed provides the first and second cartridge portions as first and second chambers (46, 47) of said cartridge, said chambers being isolated from each other; and in that a carbon dioxide gas supply is arranged to conduct carbon dioxide gas emitted by the carbon dioxide source, under pressure greater than the ambient pressure, to the beverage precursor liquid provided via the beverage precursor liquid supply, to carbonate the precursor liquid. a beverage precursor liquid supply arranged to provide a precursor liquid; a cartridge chamber arranged to hold first and second cartridge portions; a first cartridge portion, disposed in the cartridge chamber and containing a carbon dioxide source arranged to emit carbon dioxide gas for use in carbonating the precursor liquid; a second cartridge portion, disposed in the cartridge chamber and containing a beverage medium arranged to be mixed with the precursor liquid to form a beverage; and a carbon dioxide activating fluid supply arranged to provide the fluid to the first chamber for contact with the carbon dioxide source to cause the carbon dioxide source to emit carbon dioxide gas; wherein the system is arranged to carbonate the precursor liquid using the carbon dioxide gas emitted by the first cartridge portion and to mix the beverage medium of the second cartridge portion with the precursor liquid; characterised in that a single cartridge having an internal space that is sealed provides the first and second cartridge portions as first and second chambers (46, 47) of said cartridge, said chambers being isolated from each other; and in that a carbon dioxide gas supply is arranged to conduct carbon dioxide gas emitted by the carbon dioxide source, under pressure greater than the ambient pressure, to the beverage precursor liquid provided via the beverage precursor liquid supply, to carbonate the precursor liquid.
A balancing shaft for a single- or multi-cylinder engine comprising at least one unbalanced weight portion (21, 22; 23, 24) and at least one bearing point (16, 17), which is associated with the at least one unbalanced weight potion (21, 22; 23, 24), the bearing point (16, 17) comprising a radial peripheral surface which extends, only in part, over a periphery of the bearing point (16, 17) so that a centrifugal force resulting from rotation of the balancing shaft is situated in a region of the bearing point (16, 17) which is formed by the peripheral surface extending, in part, over the periphery of the bearing point (16, 17), and comprising a raceway which surrounds the partially formed peripheral surface of the bearing point (16, 17) and is connected to the bearing point (16, 17) by a non-positive and/or positive and/or cohesive joint, characterised in - that the peripheral surface of the bearing point (16, 17) comprises a receiving region for receiving the raceway, and in that at least an axially outer edge region or at least an annular region of the raceway is connected to a contact surface and a contact surface of the receiving region with a non-positive and/or positive and/or cohesive fit, or - that the raceway comprises a support portion in the axial direction on its running surface and adjacent thereto, which support portion extends in the radial direction, at least in part, but does not extend over the entire periphery and with at least one radial or axial end face (62, 63) of the support portion is connected to the receiving region or main body. - that the peripheral surface of the bearing point (16, 17) comprises a receiving region for receiving the raceway, and in that at least an axially outer edge region or at least an annular region of the raceway is connected to a contact surface and a contact surface of the receiving region with a non-positive and/or positive and/or cohesive fit, or - that the raceway comprises a support portion in the axial direction on its running surface and adjacent thereto, which support portion extends in the radial direction, at least in part, but does not extend over the entire periphery and with at least one radial or axial end face (62, 63) of the support portion is connected to the receiving region or main body.
Method for generating hydrogen gas from a sulphurous first gas mixture comprising at least a hydrocarbon gas, which method comprises the steps of (i) providing the sulphurous first gas mixture, (ii) separating the sulphurous first gas mixture into a desulphurized second gas mixture and a sulphurous third gas mixture, (iii) guiding the second gas mixture separated in the second step (ii) to a converting device for converting the second gas mixture into a fourth gas mixture of substantially hydrogen gas and residual gases, and (iv) separating the fourth gas mixture into hydrogen gas and residual gases, wherein the step (ii) of separating the sulphurous first gas mixture is performed with a first pressure swing adsorption process (PSA process), wherein the first gas mixture is admitted into at least one vessel (1, 2, 3, 4) in which an adsorption mass for adsorbing sulphurous material is received, and the step (iv) of separating the fourth gas mixture into hydrogen gas and residual gases is performed with a second pressure swing adsorption process (PSA process), wherein the fourth gas mixture is admitted into at least one vessel (1', 2', 3', 4'), in which an adsorption mass for adsorbing at least carbon monoxide and carbon dioxide is received, for the purpose of separating the fourth gas mixture into hydrogen gas and a waste gas, and wherein the converting device comprises a steam reformer which is provided with a burner for supplying heat to this steam reformer, characterized by a step (v) of guiding the third gas mixture separated in the second step (ii) from the at least one vessel (1, 2, 3, 4) and to the burner of the steam reformer. (i) providing the sulphurous first gas mixture, (ii) separating the sulphurous first gas mixture into a desulphurized second gas mixture and a sulphurous third gas mixture, (iii) guiding the second gas mixture separated in the second step (ii) to a converting device for converting the second gas mixture into a fourth gas mixture of substantially hydrogen gas and residual gases, and (iv) separating the fourth gas mixture into hydrogen gas and residual gases, wherein
A base station, comprising: a controller configured to: receive from a wireless LAN, WLAN, termination apparatus, a first message including a first list of WLAN access points, APs, via an Xw interface between the base station and the WLAN termination apparatus, the WLAN termination apparatus managing a plurality of APs, the first list of WLAN APs including identifiers of WLAN APs added to the plurality of APs; transmit a second message to another base station, the second message including an identifier of the WLAN termination apparatus and a second list of WLAN APs associated to the WLAN termination apparatus; and receive from the another base station, an acknowledged message for the second message. receive from a wireless LAN, WLAN, termination apparatus, a first message including a first list of WLAN access points, APs, via an Xw interface between the base station and the WLAN termination apparatus, the WLAN termination apparatus managing a plurality of APs, the first list of WLAN APs including identifiers of WLAN APs added to the plurality of APs; transmit a second message to another base station, the second message including an identifier of the WLAN termination apparatus and a second list of WLAN APs associated to the WLAN termination apparatus; and receive from the another base station, an acknowledged message for the second message.
A method performed by a first terminal performing vehicle-to-everything, V2X, communication with a second terminal in a wireless communication system, the method comprising: receiving, from a core network entity, information on at least one security policy respectively corresponding to at least one PC5 unicast link, wherein the at least one PC5 unicast link is associated with at least one V2X service; transmitting, to the second terminal, a direct communication request message including the at least one security policy for initiating the V2X communication; and activating a security of the at least one PC5 unicast link, based on the information on the at least one security policy. receiving, from a core network entity, information on at least one security policy respectively corresponding to at least one PC5 unicast link, wherein the at least one PC5 unicast link is associated with at least one V2X service; transmitting, to the second terminal, a direct communication request message including the at least one security policy for initiating the V2X communication; and activating a security of the at least one PC5 unicast link, based on the information on the at least one security policy.
A portable cutting tool, whereby the portable cutting tool comprises: a blade; a motor for driving the blade to rotate, wherein the motor comprises an output shaft; a cutting unit comprising a guard assembly; wherein the guard assembly comprises an upper guard for receiving the blade and a lower guard, wherein the lower guard is rotatable relative to the upper guard to expose the blade to cut a workpiece; a base connected to the upper guard, wherein the base is provided with a blade through-hole for the blade to pass through, and further comprises a base bottom portion for abutting against the workpiece and a front side wall extending upwards from the base bottom portion; a housing, comprising a front portion connected to the upper guard, a rear portion extending longitudinally, and a gripping portion disposed between the front portion and the rear portion, wherein the blade is rotatably disposed on the front portion by a blade shaft, the motor is disposed in the rear portion, and the blade shaft is perpendicular to the output shaft; and a supporting member connected to the base, the housing and the cutting unit movable around a first axis relative to the base and the supporting member to change the cutting depth, and the supporting member comprising a depth adjusting holder, wherein the depth adjusting holder is provided with a first guide slot which is an arc-shaped guide slot, and the center of a circle corresponding to the arc where the first guide slot is located is on the first axis, wherein the upper guard and the arc-shaped guide slot are respectively disposed on two sides of the front portion. a blade; a motor for driving the blade to rotate, wherein the motor comprises an output shaft; a cutting unit comprising a guard assembly; wherein the guard assembly comprises an upper guard for receiving the blade and a lower guard, wherein the lower guard is rotatable relative to the upper guard to expose the blade to cut a workpiece; a base connected to the upper guard, wherein the base is provided with a blade through-hole for the blade to pass through, and further comprises a base bottom portion for abutting against the workpiece and a front side wall extending upwards from the base bottom portion; a housing, comprising a front portion connected to the upper guard, a rear portion extending longitudinally, and a gripping portion disposed between the front portion and the rear portion, wherein the blade is rotatably disposed on the front portion by a blade shaft, the motor is disposed in the rear portion, and the blade shaft is perpendicular to the output shaft; and a supporting member connected to the base, the housing and the cutting unit movable around a first axis relative to the base and the supporting member to change the cutting depth, and the supporting member comprising a depth adjusting holder, wherein the depth adjusting holder is provided with a first guide slot which is an arc-shaped guide slot, and the center of a circle corresponding to the arc where the first guide slot is located is on the first axis, wherein the upper guard and the arc-shaped guide slot are respectively disposed on two sides of the front portion.
A method of propagating an organism that can convert one or more monosaccharides into a biochemical, the method comprising: providing a first cell mass of the organism; providing a carbon source that can support growth of the first cell mass of the organism; wherein the organism is yeast cells and comprises yeast capable of metabolizing at least xylose to ethanol; wherein the carbon source comprises at least xylose; providing a nutrient source that can support growth of the first cell mass of the organism, wherein the nutrient source comprises a stillage component and wherein the stillage component comprises thin stillage that is a by-product of fermenting grain material; combining at least the carbon source and the nutrient source to form a medium for propagating the organism, wherein the weight ratio- of xylose to solids of thin stillage is in the range of from 0.5 to 2.5; and combining the first cell mass of the organism with the carbon source and the nutrient source, wherein the medium comprising the yeast cells is aerated under aerobic conditions to propagate the first cell mass of the organism for a time period to form a second cell mass of the organism. providing a first cell mass of the organism; providing a carbon source that can support growth of the first cell mass of the organism; wherein the organism is yeast cells and comprises yeast capable of metabolizing at least xylose to ethanol; wherein the carbon source comprises at least xylose; providing a nutrient source that can support growth of the first cell mass of the organism, wherein the nutrient source comprises a stillage component and wherein the stillage component comprises thin stillage that is a by-product of fermenting grain material; combining at least the carbon source and the nutrient source to form a medium for propagating the organism, wherein the weight ratio- of xylose to solids of thin stillage is in the range of from 0.5 to 2.5; and combining the first cell mass of the organism with the carbon source and the nutrient source, wherein the medium comprising the yeast cells is aerated under aerobic conditions to propagate the first cell mass of the organism for a time period to form a second cell mass of the organism.
An alumina-zirconia-silica fused cast refractory comprising Al 2 O 3, ZrO 2, SiO 2, Na 2 O and K 2 O as essential components, wherein the alumina-zirconia-silica fused cast refractory comprises, in mass % on an oxide basis: 30 to 75% of Al 2 O 3; 20 to 55% of ZrO 2; 5 to 15% of SiO 2; 0.12 to 1.52% of Na 2 O; and 0.11 to 1.46% of K 2 O, and the alumina-zirconia-silica fused cast refractory satisfies the following Expression and Expression: 0.095 ≤ Na 2 O + K 2 O / 1.52 / SiO 2 ≤ 0.125 and 0.30 ≤ K 2 O / 1.52 / Na 2 O + K 2 O / 1.52 ≤ 0.55 (in the aforementioned Expression and Expression, each chemical formula expresses a content (mass %) of the chemical formula in the refractory). the alumina-zirconia-silica fused cast refractory comprises, in mass % on an oxide basis: 30 to 75% of Al 2 O 3; 20 to 55% of ZrO 2; 5 to 15% of SiO 2; 0.12 to 1.52% of Na 2 O; and 0.11 to 1.46% of K 2 O, and 30 to 75% of Al 2 O 3; 20 to 55% of ZrO 2; 5 to 15% of SiO 2; 0.12 to 1.52% of Na 2 O; and 0.11 to 1.46% of K 2 O, and the alumina-zirconia-silica fused cast refractory satisfies the following Expression and Expression: 0.095 ≤ Na 2 O + K 2 O / 1.52 / SiO 2 ≤ 0.125 and 0.30 ≤ K 2 O / 1.52 / Na 2 O + K 2 O / 1.52 ≤ 0.55 (in the aforementioned Expression and Expression, each chemical formula expresses a content (mass %) of the chemical formula in the refractory).
A recirculation fuel cell device having at least one fuel cell, a first inlet for oxygen, a second inlet for hydrogen, and a first water separator, wherein the fuel cell comprises an input side and an output side along with an anode side and a cathode side, wherein the first inlet for oxygen is connected to the input side of the cathode side of the fuel cell, wherein the second inlet for hydrogen is connected to the input side of the anode side of the fuel cell, wherein the device comprises a cathode-side connection, wherein the cathode-side connection is a connection between the output side of the cathode side of the fuel cell and the input side of the cathode side of the fuel cell, wherein the device comprises an anode-side connection, wherein the anode-side connection is a connection between the output side of the anode side of the fuel cell and the input side of the anode side of the fuel cell, wherein the first water separator is arranged in the cathode-side connection, wherein on the output side of the cathode side of the fuel cell the device comprises a gas discharge valve for process gases for the continuous release of process gases, characterized in that the device comprises a first oxygen sensor, wherein the first oxygen sensor detects the oxygen concentration in the surrounding air, wherein the gas discharge valve can be regulated to adjust the inert gas concentration on the basis of the oxygen concentration in the surrounding air as detected by the first oxygen sensor.
A vehicle mounting structure for an electric motor unit comprising: a drive unit with a drive motor; and a power generation unit with a power generation motor, wherein the drive unit and the power generation unit are individually mounted on a vehicle body, the drive unit is fixed to a suspension member of the vehicle body, and the power generation unit is fixed to a side member of the vehicle body, the drive unit is provided behind the power generation unit, characterized in that the drive unit and the power generation unit include an interference portion lower than a rotation shaft center of the drive motor and a rotation shaft center of the power generation motor, and a clearance between the drive unit and the power generation unit is narrower in the interference portion than in a portion other than the interference portion. a drive unit with a drive motor; and a power generation unit with a power generation motor, wherein the drive unit and the power generation unit are individually mounted on a vehicle body, the drive unit is fixed to a suspension member of the vehicle body, and the power generation unit is fixed to a side member of the vehicle body, the drive unit is provided behind the power generation unit, characterized in that the drive unit and the power generation unit include an interference portion lower than a rotation shaft center of the drive motor and a rotation shaft center of the power generation motor, and a clearance between the drive unit and the power generation unit is narrower in the interference portion than in a portion other than the interference portion.
An Ethernet switch, comprising a network switching module, a microcontroller unit module, and a dial code module; the MCU module being connected to the network switching module, and the dial code module being connected to the MCU module; the dial code module is configured for providing two configuration inputs for a normal mode and a long-distance mode for user equipment; the MCU module is configured for monitoring a configuration input state of the dial code module in real time, wherein when detecting that the dial code module is in the configuration input for the normal mode, the MCU module configures a network port of the network switching module to be in a self-negotiation mode; and when detecting that the dial code module is in the configuration input state for the long-distance mode, the MCU module configures the network switching module to negotiate a network link bandwidth of10 Mbps and a full-duplex mode between the network switching module and the user equipment and controls an amplitude of an output voltage of a network signal of the network switching module to increase; and wherein the MCU module is further configured for determining a maximum value for the amplitude of the output voltage according to parameters of a network switching chip in the network switching module, and increasing the amplitude of the output voltage based on the determined maximum value for achieving the long-distance data transmission. the dial code module is configured for providing two configuration inputs for a normal mode and a long-distance mode for user equipment; the MCU module is configured for monitoring a configuration input state of the dial code module in real time, wherein when detecting that the dial code module is in the configuration input for the normal mode, the MCU module configures a network port of the network switching module to be in a self-negotiation mode; and when detecting that the dial code module is in the configuration input state for the long-distance mode, the MCU module configures the network switching module to negotiate a network link bandwidth of10 Mbps and a full-duplex mode between the network switching module and the user equipment and controls an amplitude of an output voltage of a network signal of the network switching module to increase; and wherein the MCU module is further configured for determining a maximum value for the amplitude of the output voltage according to parameters of a network switching chip in the network switching module, and increasing the amplitude of the output voltage based on the determined maximum value for achieving the long-distance data transmission.