mhurhangee/ep-ind-claims huggingface dataset:
A hydrogen production device comprising a photoelectric conversion portion having a light-receiving surface and a back surface; a first electrolysis electrode provided on the back surface; and a second electrolysis electrode provided on the back surface, wherein, as a result of reception of light by the photoelectric conversion portion, a potential difference is generated between a first area on the back surface and a second area on the back surface, the first area becomes electrically connected to the first electrolysis electrode, and the second area becomes electrically connected to the second electrolysis electrode, and when the first electrolysis electrode and the second electrolysis electrode contact an electrolyte solution, the first electrolysis electrode forms a hydrogen generation portion that generates H 2 from the electrolyte solution using an electromotive force generated as a result of reception of light by the photoelectric conversion portion and the second electrolysis electrode forms an oxygen generation portion that generates O 2 from the electrolyte solution using the electromotive force, wherein the photoelectric conversion portion is composed of at least one semiconductor material having an n-type semiconductor portion and a p-type semiconductor portion, and one of the first area and the second area is a part of the n-type semiconductor portion and the other is a part of the p-type semiconductor portion.
A lateral entrance region for a passenger car having a floor, wherein the entrance region has a plurality of door openings with one door flange (VT, HT) in each case for a respective vehicle door to bear against, wherein an overall shape of the door flanges (VT, HT), at least in a lower portion (2, 3) which runs at least approximately parallel to the floor, viewed from the exterior of the car, is a convex shape, and wherein a front end portion of the foremost door flange in its lower portion is arranged further in the direction of the interior of the car than a point in a lower portion (2, 3) of the foremost door flange which is arranged further to the rear on the car than the front end portion, characterised in that a rear end portion in the lower portion of the rearmost door flange is arranged further in the direction of the interior of the car than a point in the lower portion (2, 3) of the rearmost door flange which is arranged further forward on the car than the rear end portion.
A method for remotely signalling a downhole assembly comprising one or more downhole tools (14A, 14B, 14C, 14D, 14E, 14F) located in a wellbore, the method comprising: detecting and/or analysing a tracer element (44A, 44B, 44C, 44D, 44E, 44F) associated with one or more of the downhole tools (14A, 14B, 14C, 14D, 14E, 14F) and which is transportable with a production fluid flow from the wellbore; determining from said tracer element (44A, 44B, 44C, 44D, 44E, 44F) which of said one or more downhole tools (14A, 14B, 14C, 14D, 14E, 14F) of the downhole assembly is to receive a command signal for initiating its operation; and then operating a choke arrangement configured to control production fluid flow from the wellbore to produce a trigger signal for the determined one or more downhole tools (14A, 14B, 14C, 14D, 14E, 14F) of the downhole assembly, wherein the trigger signal takes the form of a first pressure signature comprising at least a first pressure signal and a second pressure signal in the production fluid flow in the downhole assembly; and operating the choke arrangement to produce the command signal for initiating the operation of the determined one or more of the downhole tools (14A, 14B, 14C, 14D, 14E, 14F), wherein the command signal takes the form of a second pressure signature in the production fluid flow in the downhole assembly at a predetermined time period following the first pressure signature. detecting and/or analysing a tracer element (44A, 44B, 44C, 44D, 44E, 44F) associated with one or more of the downhole tools (14A, 14B, 14C, 14D, 14E, 14F) and which is transportable with a production fluid flow from the wellbore; determining from said tracer element (44A, 44B, 44C, 44D, 44E, 44F) which of said one or more downhole tools (14A, 14B, 14C, 14D, 14E, 14F) of the downhole assembly is to receive a command signal for initiating its operation; and then operating a choke arrangement configured to control production fluid flow from the wellbore to produce a trigger signal for the determined one or more downhole tools (14A, 14B, 14C, 14D, 14E, 14F) of the downhole assembly, wherein the trigger signal takes the form of a first pressure signature comprising at least a first pressure signal and a second pressure signal in the production fluid flow in the downhole assembly; and operating the choke arrangement to produce the command signal for initiating the operation of the determined one or more of the downhole tools (14A, 14B, 14C, 14D, 14E, 14F), wherein the command signal takes the form of a second pressure signature in the production fluid flow in the downhole assembly at a predetermined time period following the first pressure signature.
A method of fabricating a light emitting diode structure, the method comprising: providing a semiconductor wafer, the semiconductor wafer comprising a substrate and an epitaxial LED layer structure carried by the substrate, forming a set of contacts (310a, 310b) overlying a front surface of the epitaxial LED layer structure of the semiconductor wafer; forming an insulator overlying the set of contacts (310a, 310b); forming a plurality of throughholes (316a, 316b) that extend through the insulator to the contacts (310a, 310b); integrating a set of drive circuits (318a, 318b); connecting respective ones of the drive circuits (318a, 318b) to respective ones of the contacts (310a, 310b) by way of respective ones of a set of vias formed by the throughholes (316a, 316b); separating a structure resulting from the previous operations from the substrate to expose a back surface of the epitaxial LED layer; and forming at least one backside contact overlying the back surface of the epitaxial LED layer structure exposed by the separation of the substrate therefrom, wherein the method further comprises: between forming the set of contacts (310a, 310b) and forming the insulator, de-doping at least a portion of the front surface of the epitaxial LED layer structure to improve isolation of the contacts (310a, 310b), wherein the de-doping is performed to a depth not extending into a recombination region of the LED epitaxial layer structure. providing a semiconductor wafer, the semiconductor wafer comprising a substrate and an epitaxial LED layer structure carried by the substrate, forming a set of contacts (310a, 310b) overlying a front surface of the epitaxial LED layer structure of the semiconductor wafer; forming an insulator overlying the set of contacts (310a, 310b); forming a plurality of throughholes (316a, 316b) that extend through the insulator to the contacts (310a, 310b); integrating a set of drive circuits (318a, 318b); connecting respective ones of the drive circuits (318a, 318b) to respective ones of the contacts (310a, 310b) by way of respective ones of a set of vias formed by the throughholes (316a, 316b); separating a structure resulting from the previous operations from the substrate to expose a back surface of the epitaxial LED layer; and forming at least one backside contact overlying the back surface of the epitaxial LED layer structure exposed by the separation of the substrate therefrom, between forming the set of contacts (310a, 310b) and forming the insulator, de-doping at least a portion of the front surface of the epitaxial LED layer structure to improve isolation of the contacts (310a, 310b), wherein the de-doping is performed to a depth not extending into a recombination region of the LED epitaxial layer structure.
A control system for controlling behavior of a straddle-type vehicle that includes a suspension (5, 6), the control system comprising: a control section that controls a damping characteristic of the suspension (5, 6), characterised in that the control section estimates a damping force to be generated to the suspension (5, 6) on the basis of the damping characteristic and a stroke speed of the suspension (5, 6), and executes slip suppression control for suppressing slippage of the straddle-type vehicle by using a target amount corresponding to the estimated damping force. a control section that controls a damping characteristic of the suspension (5, 6), characterised in that the control section estimates a damping force to be generated to the suspension (5, 6) on the basis of the damping characteristic and a stroke speed of the suspension (5, 6), and executes slip suppression control for suppressing slippage of the straddle-type vehicle by using a target amount corresponding to the estimated damping force. estimates a damping force to be generated to the suspension (5, 6) on the basis of the damping characteristic and a stroke speed of the suspension (5, 6), and executes slip suppression control for suppressing slippage of the straddle-type vehicle by using a target amount corresponding to the estimated damping force.
A washing machine, comprising: a main body having a laundry inlet on the front portion; a tub provided inside the main body to store water; a drum rotatably installed inside the tub; a pulsator provided inside the drum and configured to be rotatable with respect to the drum; a first driving motor to provide power to the pulsator; a second driving motor to provide power to the drum; a first shaft extending from the pulsator along a rotation axis of the pulsator; a first pulley connected to the first shaft; a first belt connecting the first driving motor and the first pulley, wherein the second driving motor is mounted on the rear surface of the tub and includes an annular stator and a rotor rotating with respect to the stator, characterized in that the first pulley comprises: a first base portion radially extending from the first shaft at the rear of the second driving motor, a first extending portion extending from the first base portion towards the drum, and a first coupling portion provided at an end portion of the first extending portion and connected to the first belt. a main body having a laundry inlet on the front portion; a tub provided inside the main body to store water; a drum rotatably installed inside the tub; a pulsator provided inside the drum and configured to be rotatable with respect to the drum; a first driving motor to provide power to the pulsator; a second driving motor to provide power to the drum; a first shaft extending from the pulsator along a rotation axis of the pulsator; a first pulley connected to the first shaft; a first belt connecting the first driving motor and the first pulley, wherein the second driving motor is mounted on the rear surface of the tub and includes an annular stator and a rotor rotating with respect to the stator, characterized in that the first pulley comprises: a first base portion radially extending from the first shaft at the rear of the second driving motor, a first extending portion extending from the first base portion towards the drum, and a first coupling portion provided at an end portion of the first extending portion and connected to the first belt. a first base portion radially extending from the first shaft at the rear of the second driving motor, a first extending portion extending from the first base portion towards the drum, and a first coupling portion provided at an end portion of the first extending portion and connected to the first belt.
A method of communicating in a wireless network comprising: receiving at a base station controller effective load values for a plurality of sectors accessible to an access terminal of the wireless network, each effective load value representing the effective load on a sector carrier as faced by incoming throughput-sensitive flows; receiving pilot signal channel quality values of the plurality of sector carriers; and selecting a serving sector carrier, from the plurality of sector carriers, for the access terminal based on the effective load values and the pilot signal channel quality values by subtracting an effective load value of each sector carrier from a pilot signal channel quality of each sector carrier to determine a suitability metric for each of the plurality of sector carriers for which an effective load value is received, and selecting a sector carrier with a highest suitability metric. receiving at a base station controller effective load values for a plurality of sectors accessible to an access terminal of the wireless network, each effective load value representing the effective load on a sector carrier as faced by incoming throughput-sensitive flows; receiving pilot signal channel quality values of the plurality of sector carriers; and selecting a serving sector carrier, from the plurality of sector carriers, for the access terminal based on the effective load values and the pilot signal channel quality values by subtracting an effective load value of each sector carrier from a pilot signal channel quality of each sector carrier to determine a suitability metric for each of the plurality of sector carriers for which an effective load value is received, and selecting a sector carrier with a highest suitability metric.
A method for use in a cellular wireless access system, in which system there is a first controlling node which serves, inter alia, to control transmissions to and from user terminals, UEs, within a certain area, a cell, in which system UEs can assume one of at least two states, a first such state being a non-listening state, i.e. a state during which a UE does not listen for data from its controlling node, and a second such state being a listening state, an "on duration" state, according to which method a UE in the system is able to alternate between said two states according to a certain scheme, the method further comprising that the scheme according to which a UE in the system alternates between said two states depends on whether or not data units which are transmitted between the UE and its controlling node are received entirely and correctly within an initially allocated resource for each data unit, as allocated by the controlling node, the method being characterized in that: if the UE transmits an ACK, the UE extends its stay in the listening state by a predefined period of time, to ensure that the UE does not receive any retransmission from the controlling node during the time that a retransmission would have been performed if an ACK transmitted by the UE had been misread by the controlling node as a NACK. if the UE transmits an ACK, the UE extends its stay in the listening state by a predefined period of time, to ensure that the UE does not receive any retransmission from the controlling node during the time that a retransmission would have been performed if an ACK transmitted by the UE had been misread by the controlling node as a NACK.
A method of dispersing or dissolving a hydrocarbon foulant in a process fluid in contact with processing equipment for the preparation of an acrylate, methacrylic acid, or a methacrylate monomer comprising contacting the hydrocarbon foulant with a dispersing or dissolving effective amount of an organic solvent, the organic solvent comprising an alkyl phthalate, an alkaryl phthalate, an aryl phthalate, a phthalic acid, or a combination thereof, wherein the process fluid comprises a spent acid stream and the hydrocarbon foulant is an oligomer or a polymer of acrylic acid, methacrylic acid, an acrylate, a methacrylate, a methacrylamide, or a combination thereof.
A system configured for generating an online analytical processing (OLAP) cube, the system comprising: one or more processors configured by machine-readable instructions to: receive a query comprising a cube identifier; receive a cube definition file from a data source associated with the cube identifier; access and parse data of the data-source; automatically generate, responsive to receiving the query with the cube identifier, a data-source property configuration for the data-source using the cube definition file; automatically determine if each of respective parsed data from the data-source is a key, attribute, or measure; generate the OLAP cube by combining the cube definition file and the data-source property configuration for the parsed data from the data-source determined to be a key, attribute or measure; generate an OLAP context container based on the cube identifier provided in the query by determining if a cached OLAP context container associated with the cube identifier is accessible; and respond to the query based on the generated OLAP context container and retrieved objects from the data source. receive a query comprising a cube identifier; receive a cube definition file from a data source associated with the cube identifier; access and parse data of the data-source; automatically generate, responsive to receiving the query with the cube identifier, a data-source property configuration for the data-source using the cube definition file; automatically determine if each of respective parsed data from the data-source is a key, attribute, or measure; generate the OLAP cube by combining the cube definition file and the data-source property configuration for the parsed data from the data-source determined to be a key, attribute or measure; generate an OLAP context container based on the cube identifier provided in the query by determining if a cached OLAP context container associated with the cube identifier is accessible; and respond to the query based on the generated OLAP context container and retrieved objects from the data source.
Roller cell pump with a pump chamber in which a rotor is rotatably mounted and which is formed by a circumferential wall and two face walls, wherein the first face wall is formed at an inner side of a cover and a second face wall is formed at an inner side of a pump part, wherein the circumferential wall is formed integrally on an annular collar of the pump part, characterized in that, on the outer side, averted from the pump chamber, of the circumferential wall, there are provided ribs which extend in a radial direction, in relation to a rotor axis, from the outer side of the circumferential wall as far as a housing wall and which are formed with different heights in a radial direction and which are formed on the collar.
Method for producing a structural element comprising a hollow profile made of continuous fibre-reinforced plastics material with a thermosetting matrix material having a softening temperature which is below the cross-linking temperature, and at least one load-application element, wherein the method comprises at least the following method steps: a. providing a cut-to-size hollow profile made of plastics material reinforced with continuous fibres on a liner, wherein the liner forms the inner lateral surface of the hollow profile, and wherein the hollow profile is impregnated by means of heating to a temperature that is equal to or above the softening temperature of the matrix material and below the cross-linking temperature of the matrix material; b. removing the liner in the inner region of the hollow profile which is intended for load application; c. arranging a load-application element on the inner region of the hollow profile which is intended for load application; d. consolidating and functionalising the structural element comprising the hollow profile and the load-application element by means of heating the structural element to a temperature that is equal to or above the cross-linking temperature of the matrix material and applying a radially inwardly acting pressure to the structural element, wherein the holbw profile is moulded onto the load-application element in a form-fitting manner. a. providing a cut-to-size hollow profile made of plastics material reinforced with continuous fibres on a liner, wherein the liner forms the inner lateral surface of the hollow profile, and wherein the hollow profile is impregnated by means of heating to a temperature that is equal to or above the softening temperature of the matrix material and below the cross-linking temperature of the matrix material; b. removing the liner in the inner region of the hollow profile which is intended for load application; c. arranging a load-application element on the inner region of the hollow profile which is intended for load application; d. consolidating and functionalising the structural element comprising the hollow profile and the load-application element by means of heating the structural element to a temperature that is equal to or above the cross-linking temperature of the matrix material and applying a radially inwardly acting pressure to the structural element, wherein the holbw profile is moulded onto the load-application element in a form-fitting manner.
A display terminal configured to be mounted in a vehicle, the display terminal comprising: a display screen; an electrical connector mounted to the display screen and electrically connected to the display screen, the electrical connector being integrated with a plurality of wiring harness connecting positions, the plurality of wiring harness connecting positions being configured to transmit at least two different types of data and to be electrically connected to the vehicle, characterized in that the plurality of wiring harness connecting positions comprise an HSD wiring harness connecting position and a CAN wiring harness connecting position. a display screen; an electrical connector mounted to the display screen and electrically connected to the display screen, the electrical connector being integrated with a plurality of wiring harness connecting positions, the plurality of wiring harness connecting positions being configured to transmit at least two different types of data and to be electrically connected to the vehicle, characterized in that the plurality of wiring harness connecting positions comprise an HSD wiring harness connecting position and a CAN wiring harness connecting position.