mhurhangee/ep-ind-claims huggingface dataset:
A developer supply container detachably mountable to a developer receiving apparatus, said developer receiving apparatus including a developer receiving portion provided with a receiving opening for receiving a developer and including a portion-to-be-engaged capable of displacing integrally with said developer receiving portion, said developer supply container comprising: a rotatable developer accommodating portion for accommodating the developer; a discharging portion provided at a bottom side thereof with a discharge opening (3a4) for discharging the developer accommodating in said developer accommodating portion; and an engaging portion engageable with the portion-to-be-engaged with a mounting operation of said developer supply container to displace said developer receiving portion in a displacing direction so as to bring the receiving opening into fluid communication with said discharge opening (3a4); and a supporting portion provided upstream of said engaging portion in an inserting direction in which said developer accommodating portion is inserted into the developer receiving apparatus, said supporting portion extending in a direction of a rotational axis of said developer accommodating portion, and said supporting portion being capable of supporting the portion-to-be-engaged delivered from said engaging portion, wherein when said discharge opening (3a4) and the receiving opening are in fluid communication with each other, a maximum height of said engaging portion is higher than a supporting surface of said supporting portion which supports the portion-to-be-engaged. a rotatable developer accommodating portion for accommodating the developer; a discharging portion provided at a bottom side thereof with a discharge opening (3a4) for discharging the developer accommodating in said developer accommodating portion; and an engaging portion engageable with the portion-to-be-engaged with a mounting operation of said developer supply container to displace said developer receiving portion in a displacing direction so as to bring the receiving opening into fluid communication with said discharge opening (3a4); and a supporting portion provided upstream of said engaging portion in an inserting direction in which said developer accommodating portion is inserted into the developer receiving apparatus, said supporting portion extending in a direction of a rotational axis of said developer accommodating portion, and said supporting portion being capable of supporting the portion-to-be-engaged delivered from said engaging portion, wherein when said discharge opening (3a4) and the receiving opening are in fluid communication with each other, a maximum height of said engaging portion is higher than a supporting surface of said supporting portion which supports the portion-to-be-engaged.
A method (600, 1000) of wireless communication operable at a user equipment, UE (110, 450, 502), the method characterised by comprising: camping on a cell and initially reporting (604, 1002) a capability of the UE to communicate with a network (102, 104, 200, 504) utilizing a first communication protocol with a maximum achievable throughput less than that of a second communication protocol; and dynamically reporting (608, 1004) the capability of the UE to transfer data utilizing the first communication protocol or the second communication protocol in consideration of an energy efficiency of transferring an amount of data utilizing the first communication protocol or the second communication protocol. camping on a cell and initially reporting (604, 1002) a capability of the UE to communicate with a network (102, 104, 200, 504) utilizing a first communication protocol with a maximum achievable throughput less than that of a second communication protocol; and dynamically reporting (608, 1004) the capability of the UE to transfer data utilizing the first communication protocol or the second communication protocol in consideration of an energy efficiency of transferring an amount of data utilizing the first communication protocol or the second communication protocol.
A vessel comprising: a hull with a transom for holding at least one outboard engine (50, 52) having a cowl; an engine cover positioned over an outboard engine when mounted to said transom; and a mist shield surrounding said engine cowl, said mist shield having edges spaced from said cowl and a flexible member extending from said edges into engagement with said engine cowl. a hull with a transom for holding at least one outboard engine (50, 52) having a cowl; an engine cover positioned over an outboard engine when mounted to said transom; and a mist shield surrounding said engine cowl, said mist shield having edges spaced from said cowl and a flexible member extending from said edges into engagement with said engine cowl.
An inspection system for game tokens for games using a game table, comprising: a recording device configured to record types and authenticity of the game tokens using a camera; and an inspection device configured to determine authenticity of the game tokens using a result recorded by the recording device, wherein each of the game tokens is provided with a unique ID for individual identification in appearance, the inspection device reads the unique ID of a target game token for inspection among the game tokens using the camera, and determines authenticity of the target game token based on the read unique ID, and the unique ID for individual identification or for individual identification in a specific group unit is formed by irradiating an ID mark region that is formed of a UV ink or an infrared absorbing material with laser light to partially denature the UV ink or the infrared absorbing material that forms the ID mark region so that an irradiated part does not emit light even when being exposed to UV light or does not absorb infrared light. a recording device configured to record types and authenticity of the game tokens using a camera; and an inspection device configured to determine authenticity of the game tokens using a result recorded by the recording device, wherein each of the game tokens is provided with a unique ID for individual identification in appearance, the inspection device reads the unique ID of a target game token for inspection among the game tokens using the camera, and determines authenticity of the target game token based on the read unique ID, and the unique ID for individual identification or for individual identification in a specific group unit is formed by irradiating an ID mark region that is formed of a UV ink or an infrared absorbing material with laser light to partially denature the UV ink or the infrared absorbing material that forms the ID mark region so that an irradiated part does not emit light even when being exposed to UV light or does not absorb infrared light.
A gene marker set for use in the prediction of the risk of colorectal cancer in a subject comprising: a) 20 genes with the sequences as set forth in SEQ ID NOs: 1 to 20; b) 4 genes with the sequences as set forth in SEQ ID NOs: 1, 9, 13 and 16; c) 2 genes with the sequences as set forth in SEQ ID NOs: 13 and 16; or d) the gene with the sequence as set forth in SEQ ID NOs: 13, or rpoB gene from P. micra encoding RNA polymerase subunit β. a) 20 genes with the sequences as set forth in SEQ ID NOs: 1 to 20; b) 4 genes with the sequences as set forth in SEQ ID NOs: 1, 9, 13 and 16; c) 2 genes with the sequences as set forth in SEQ ID NOs: 13 and 16; or d) the gene with the sequence as set forth in SEQ ID NOs: 13, or rpoB gene from P. micra encoding RNA polymerase subunit β.
A semiconductor device (1, 2, 3) comprising: a temperature sensor unit; a coefficient calculation unit (104, 204) operable to calculate up to the N-th order coefficient, N being an integer equal to or greater than one, of a correction function as an N-th order approximation of a characteristic function indicative of correspondence relation of temperature data (t) measured by the temperature sensor unit and temperature (T, τ), based on N+1 pieces of the temperature data (t) including a theoretical value of the temperature data at a predetermined temperature in the characteristic function and N measured values of the temperature data measured (t) by the temperature sensor unit at N points of temperature; and a correction operation unit (105, 205, 305) operable to generate data including information on temperature, by performing calculation with the use of the correction function to which the coefficients calculated are applied, on the basis of temperature data (t) outputted from the temperature sensor unit; wherein the temperature sensor unit generates the temperature data (t), on the basis of a first voltage of which the limiting value at the absolute zero is zero, and a second voltage of which the limiting value at the absolute zero is given by a constant other than zero, wherein the predetermined temperature is the absolute zero, and wherein the temperature data indicates a value corresponding to a ratio of the first voltage to the second voltage. a temperature sensor unit; a coefficient calculation unit (104, 204) operable to calculate up to the N-th order coefficient, N being an integer equal to or greater than one, of a correction function as an N-th order approximation of a characteristic function indicative of correspondence relation of temperature data (t) measured by the temperature sensor unit and temperature (T, τ), based on N+1 pieces of the temperature data (t) including a theoretical value of the temperature data at a predetermined temperature in the characteristic function and N measured values of the temperature data measured (t) by the temperature sensor unit at N points of temperature; and a correction operation unit (105, 205, 305) operable to generate data including information on temperature, by performing calculation with the use of the correction function to which the coefficients calculated are applied, on the basis of temperature data (t) outputted from the temperature sensor unit; wherein the temperature sensor unit generates the temperature data (t), on the basis of a first voltage of which the limiting value at the absolute zero is zero, and a second voltage of which the limiting value at the absolute zero is given by a constant other than zero, wherein the predetermined temperature is the absolute zero, and wherein the temperature data indicates a value corresponding to a ratio of the first voltage to the second voltage.
Device for actuating a gearwheel (4 to 7), configured as a loose wheel, of a transmission device, which gearwheel (4 to 7) is rotatably mounted on a shaft and can be transferred, via at least one activating device (8, 9) having an actuator (10, 22) which is at least partially arranged in the interior of the shaft and can be operated by means of a fluid pressure medium, into an activated state in which the gearwheel (4 to 7) is connected to the shaft in a rotationally fixed manner, and wherein the actuating force required for activation or deactivation is applied to the gearwheel (4 to 7) from the interior of the shaft, characterized in that the at least one actuator (10, 22) is designed as a motor which is connected to the shaft in a rotationally fixed manner and is arranged therein, wherein the operative connection between a motor output shaft (11, 30) of the motor (10, 22) and the gearwheel (4 to 7) to be actuated is configured with a rotational speed decoupling between the motor output shaft (11, 30) and the shaft.
An antagonist of IL-20 cytokines for use in the treatment of acute exacerbation of chronic obstructive pulmonary disease (COPD) in a subject in need thereof wherein - the antagonist of IL-20 cytokine is an anti-IL20R2 antibody, and - the acute exacerbation of COPD is caused by a bacterial infection. - the antagonist of IL-20 cytokine is an anti-IL20R2 antibody, and - the acute exacerbation of COPD is caused by a bacterial infection.
A welding torch (3, 3A, 3B) comprising a non-consumable electrode and a gas lens of a lattice structure that straightens a shielding gas, wherein the gas lens has a three-dimensional mesh lattice structure, in which a plurality of first and second beams (90, 92) are joined in a three-dimensional manner, the gas lens having a thickness in the axial direction of the non-consumable electrode, the axial direction being considered as a vertical direction, and the gas lens has a structure in which mesh sheets, each formed by joining a plurality of said first beams in a planar manner, are stacked in the thickness direction with different phases, characterized in that lattice points of the stacked mesh sheets are joined by a said second beam that is oblique to the vertical direction. wherein the gas lens has a three-dimensional mesh lattice structure, in which a plurality of first and second beams (90, 92) are joined in a three-dimensional manner, the gas lens having a thickness in the axial direction of the non-consumable electrode, the axial direction being considered as a vertical direction, and the gas lens has a structure in which mesh sheets, each formed by joining a plurality of said first beams in a planar manner, are stacked in the thickness direction with different phases, characterized in that lattice points of the stacked mesh sheets are joined by a said second beam that is oblique to the vertical direction.
An electric circuit, comprising: a power supply; a load operated by a current supplied from the power supply via a supply line; and a vehicle safety device installable in a hybrid electric vehicle or an electric vehicle to be capable of interrupting the current supplied from the power supply to the load via the supply line when an abnormality occurs in the load, characterized in that the vehicle safety device comprises: first interrupting means (20, 22) adapted to set the supply line in an interrupted condition when a temperature of the load reaches a first set temperature that is set at a higher temperature than an upper limit of an allowable temperature range; and second interrupting means (30, 31, 32) adapted to set the supply line in the interrupted condition such that the supply line cannot be returned to an energized condition when the temperature of the load reaches a second set temperature that is higher than the first set temperature, wherein the first interrupting means (20, 22) is adapted to return the supply line to the energized condition when the temperature of the load decreases to a third set temperature that is lower than the first set temperature. a power supply; a load operated by a current supplied from the power supply via a supply line; and a vehicle safety device installable in a hybrid electric vehicle or an electric vehicle to be capable of interrupting the current supplied from the power supply to the load via the supply line when an abnormality occurs in the load, characterized in that the vehicle safety device comprises: first interrupting means (20, 22) adapted to set the supply line in an interrupted condition when a temperature of the load reaches a first set temperature that is set at a higher temperature than an upper limit of an allowable temperature range; and second interrupting means (30, 31, 32) adapted to set the supply line in the interrupted condition such that the supply line cannot be returned to an energized condition when the temperature of the load reaches a second set temperature that is higher than the first set temperature, wherein the first interrupting means (20, 22) is adapted to return the supply line to the energized condition when the temperature of the load decreases to a third set temperature that is lower than the first set temperature. first interrupting means (20, 22) adapted to set the supply line in an interrupted condition when a temperature of the load reaches a first set temperature that is set at a higher temperature than an upper limit of an allowable temperature range; and second interrupting means (30, 31, 32) adapted to set the supply line in the interrupted condition such that the supply line cannot be returned to an energized condition when the temperature of the load reaches a second set temperature that is higher than the first set temperature, wherein the first interrupting means (20, 22) is adapted to return the supply line to the energized condition when the temperature of the load decreases to a third set temperature that is lower than the first set temperature.
A resource status information transmission method, comprising: sending (403, 502), by a first base station, a first message to a second base station, the first message requests the second base station to report a resource status, wherein: • the first message comprises: indication information, a first cell identifier list and a first resource type set, wherein the indication information indicates the second base station to report the resource status based on a network slice; or, • the first message comprises: a slice identification information of a network slice, a first cell identifier list and a first resource type set; wherein the first cell identifier list comprises an identifier of a cell whose resource status needs to be reported, and the first resource type set comprises a type of a resource whose resource status needs to be reported; and, receiving (412, 511), by the first base station, resource status information from the second base station, wherein the resource status information comprises the slice identification information of the network slice and the resource status corresponding to the slice identification information of the network slice, and wherein the network slice is a logical network function combination that meets a communications service requirement. sending (403, 502), by a first base station, a first message to a second base station, the first message requests the second base station to report a resource status, wherein: • the first message comprises: indication information, a first cell identifier list and a first resource type set, wherein the indication information indicates the second base station to report the resource status based on a network slice; or, • the first message comprises: a slice identification information of a network slice, a first cell identifier list and a first resource type set; wherein the first cell identifier list comprises an identifier of a cell whose resource status needs to be reported, and the first resource type set comprises a type of a resource whose resource status needs to be reported; and, • the first message comprises: indication information, a first cell identifier list and a first resource type set, wherein the indication information indicates the second base station to report the resource status based on a network slice; or, • the first message comprises: a slice identification information of a network slice, a first cell identifier list and a first resource type set; receiving (412, 511), by the first base station, resource status information from the second base station, wherein the resource status information comprises the slice identification information of the network slice and the resource status corresponding to the slice identification information of the network slice, and wherein the network slice is a logical network function combination that meets a communications service requirement.
A charging port assembly, comprising: a charging port seat provided with a guiding structure, the guiding structure having a bending section; a charging port cover mounted to the charging port seat in an openable and closable manner; a transmission mechanism slidably fitting with the guiding structure and connected to the charging port cover; and a driving mechanism dynamically coupled with the transmission mechanism; characterized in that the driving mechanism comprises a driving gear and at least one driven gear, the transmission mechanism comprises a rack, and the rack engages with one driven gear of the at least one driven gear. a charging port seat provided with a guiding structure, the guiding structure having a bending section; a charging port cover mounted to the charging port seat in an openable and closable manner; a transmission mechanism slidably fitting with the guiding structure and connected to the charging port cover; and a driving mechanism dynamically coupled with the transmission mechanism;
A computer-implemented method for reading an optical code encoding a message comprising a character string having a plurality of characters, comprising the steps of capturing image data with the optical code; evaluating the image data and reading the message; comparing the read characters of the message with a scheme which contains a fixed portion, i.e. for at least one position of the message, a fixed character which is expected at this position in optical codes to be read, so that it is known what the message should read like at this position; and recognizing an incorrectly read message if the fixed portion of the scheme was not read in the message as expected, and/or correcting the read message by correcting or replacing parts of the message from the prior knowledge of the fixed portion of the scheme, characterized in that the scheme contains, for at least one position of the message, a variable character which is expected at this position in codes to be read, a variable character that is fixed to a partial range of the possible characters, but is not a fixed character, thus varies only in a partial range of the total possible characters, and in that a check is made as to whether the variable characters of the read message are located at the associated positions in the partial ranges of the scheme. capturing image data with the optical code; evaluating the image data and reading the message; comparing the read characters of the message with a scheme which contains a fixed portion, i.e. for at least one position of the message, a fixed character which is expected at this position in optical codes to be read, so that it is known what the message should read like at this position; and recognizing an incorrectly read message if the fixed portion of the scheme was not read in the message as expected, and/or correcting the read message by correcting or replacing parts of the message from the prior knowledge of the fixed portion of the scheme, characterized in that the scheme contains, for at least one position of the message, a variable character which is expected at this position in codes to be read, a variable character that is fixed to a partial range of the possible characters, but is not a fixed character, thus varies only in a partial range of the total possible characters, and in that a check is made as to whether the variable characters of the read message are located at the associated positions in the partial ranges of the scheme.