mhurhangee/ep-ind-claims huggingface dataset:
A method in a GSM, EDGE Radio Access Network, GERAN, of notifying a communication device (530, 531, 532, 533) of a scheduled uplink transmission time period for the communication device (530, 531, 532, 533), the method comprising: sending, to the communication device (530, 531, 532, 533), an Uplink State Flag, USF, value (500, 501) assigned to the communication device (530, 531, 532, 533); and sending, to the communication device (530, 531, 532, 533), an extended USF, eUSF, value (510, 511, 512, 513) assigned to the communication device (530, 531, 532, 533), wherein said eUSF value (510, 511, 512, 513) is included in a Piggy-backed Ack/Nack, PAN, field, and wherein one Temporary Flow Identity, TFI, is reserved to indicate if said PAN field is used as said eUSF value (510, 511, 512, 513) or as a conventional PAN, whereby the communication device (530, 531, 532, 533) is notified that it has been granted an uplink transmission opportunity in a subsequent time period. sending, to the communication device (530, 531, 532, 533), an Uplink State Flag, USF, value (500, 501) assigned to the communication device (530, 531, 532, 533); and sending, to the communication device (530, 531, 532, 533), an extended USF, eUSF, value (510, 511, 512, 513) assigned to the communication device (530, 531, 532, 533), wherein said eUSF value (510, 511, 512, 513) is included in a Piggy-backed Ack/Nack, PAN, field, and wherein one Temporary Flow Identity, TFI, is reserved to indicate if said PAN field is used as said eUSF value (510, 511, 512, 513) or as a conventional PAN, whereby the communication device (530, 531, 532, 533) is notified that it has been granted an uplink transmission opportunity in a subsequent time period.
A subsea power distribution system, comprising - a power input for receiving electrical power at a first voltage level, - an input transformer coupled to the power input and adapted to transform received electrical power to a second voltage level which is lower than the first voltage level, - a distribution circuit for distributing received electrical power to two or more power distribution paths, - at least one rectifier unit that receives transformed electrical power from the input transformer and outputs rectified electrical power, wherein each of the two or more power distribution paths comprises - an inverter configured to receive rectified electrical power from the rectifier unit and to output AC electrical power at a third voltage level, - a distribution path transformer coupled to the respective inverter and configured to transform the output AC electrical power to a fourth voltage level which is higher than the third voltage level, and - a power output for providing the transformed AC electrical power to a subsea load. - a power input for receiving electrical power at a first voltage level, - an input transformer coupled to the power input and adapted to transform received electrical power to a second voltage level which is lower than the first voltage level, - a distribution circuit for distributing received electrical power to two or more power distribution paths, - at least one rectifier unit that receives transformed electrical power from the input transformer and outputs rectified electrical power, - an inverter configured to receive rectified electrical power from the rectifier unit and to output AC electrical power at a third voltage level, - a distribution path transformer coupled to the respective inverter and configured to transform the output AC electrical power to a fourth voltage level which is higher than the third voltage level, and - a power output for providing the transformed AC electrical power to a subsea load.
A method for displaying an image, wherein a target image is displayed on a screen and it is detected that the screen is subjected to a displacement, the method comprises steps determining a direction of the displacement; and translating the target image on the screen according to the direction of the displacement; wherein, the step of determining a direction of the displacement comprises a step of: determining a direction component of the displacement along a plane where the screen is located as a first direction; and the step of translating the target image on the screen according to the direction of the displacement comprises a step of: translating the target image on the screen in a direction opposite to the first direction; the method further comprises a step of: when it is detected that a boundary of the target image in the first direction coincides with a boundary of the screen in the first direction, ceasing translating the target image, characterized in that the method comprises: when it is detected that a full size of the target image displayed on the screen exceeds a size of the screen, enabling a sensor for detecting the displacement of the screen. determining a direction component of the displacement along a plane where the screen is located as a first direction; and the step of translating the target image on the screen according to the direction of the displacement comprises a step of: translating the target image on the screen in a direction opposite to the first direction; when it is detected that a boundary of the target image in the first direction coincides with a boundary of the screen in the first direction, ceasing translating the target image, characterized in that the method comprises: when it is detected that a full size of the target image displayed on the screen exceeds a size of the screen, enabling a sensor for detecting the displacement of the screen.
A method of making a ready-to-use liquid larvicide composition comprising Bacillus thuringiensis (Bt) fermentate, propionic acid, and water, the method comprising: - fermenting the Bt until it reaches stationary phase and begins to sporulate and produce Cry proteins, thereby producing a Bt fermentate; - slowly mixing the Bt fermentate with a portion of the water; - adding the propionic acid; and - mixing the resulting composition with the remainder of the water, wherein the composition is free of an isothiazolinone. - fermenting the Bt until it reaches stationary phase and begins to sporulate and produce Cry proteins, thereby producing a Bt fermentate; - slowly mixing the Bt fermentate with a portion of the water; - adding the propionic acid; and - mixing the resulting composition with the remainder of the water, wherein the composition is free of an isothiazolinone.
Method for determining a property of a sample from a correlogram obtainable by scanning of a surface of the sample through a focal plane of an objective while applying broad-band interferometry, the sample comprising a film, such as a thin or multilayer film, transparent for the broadband radiation used in the broad-band interferometry, the method comprising: receiving a correlogram comprising interference radiation intensity as a function of the scanning distance from the surface; autocorrelating the received correlogram with itself to calculate an autocorrelogram as a cross correlogram; and, determining as the property of the sample a thickness and/or a refractive index of the film from the autocorrelogram as the cross correlogram. receiving a correlogram comprising interference radiation intensity as a function of the scanning distance from the surface; autocorrelating the received correlogram with itself to calculate an autocorrelogram as a cross correlogram; and, determining as the property of the sample a thickness and/or a refractive index of the film from the autocorrelogram as the cross correlogram.
A cooler device for a motor vehicle comprising a charge air cooler with a first cooler element for cooling of charge air for the motor vehicle's combustion engine and an EGR cooler with a second cooler element for cooling of exhaust gases which are to be led back to said combustion engine, whereby the first cooler element and the second cooler element are arranged beside and substantially in plane with one another and whereby the respective cooler elements (11, 21) each comprise pipelines (12, 22) for the medium which is to be cooled and air passages (13,23) for a cooling air flow which are arranged between the pipelines, characterised in that: - the cooler device comprises a screening means arranged in front of or behind said cooler elements (11, 21) in order to regulate the air flow through them, and - that the cooler device comprises a control mechanism by which said screening means is switchable to and fro between an open position in which the screening element does not, or at least does not appreciably, limit the air flow through said air passages (13, 23) of the cooler elements (11, 21), and a closed position in which the screening means limits the air flow through the air passages between all of said pipelines of the second cooler element and the air flow through the air passages between only some of said pipelines of the first cooler element in order to counteract ice formation in these pipelines. - the cooler device comprises a screening means arranged in front of or behind said cooler elements (11, 21) in order to regulate the air flow through them, and - that the cooler device comprises a control mechanism by which said screening means is switchable to and fro between an open position in which the screening element does not, or at least does not appreciably, limit the air flow through said air passages (13, 23) of the cooler elements (11, 21), and a closed position in which the screening means limits the air flow through the air passages between all of said pipelines of the second cooler element and the air flow through the air passages between only some of said pipelines of the first cooler element in order to counteract ice formation in these pipelines.
A liquid-cooled-type cooling device comprising a casing having a cooling-liquid inlet formed in the rear end portion and a cooling-liquid outlet formed in the front end portion, and an outflow pipe connected to the cooling-liquid outlet of the casing, wherein a parallel-flow-channel section is provided in an internal region of the casing located between the cooling-liquid inlet and the cooling-liquid outlet and includes a plurality of flow channels through which cooling liquid flows from rear to front; an inlet header section communicating with the cooling-liquid inlet is provided in an internal region of the casing located upstream of the parallel-flow-channel section, and an outlet header section communicating with the cooling-liquid outlet is provided in an internal region of the casing located downstream of the parallel-flow-channel section, wherein the casing includes a cooling-liquid outflow portion communicating with the outlet header section, wherein a guide portion is provided on a portion of an upper surface of a bottom wall of the cooling-liquid outflow portion, at a position facing the cooling-liquid outlet, so as to change, toward an upward direction, the flow direction of cooling liquid flowing into the cooling-liquid outflow portion, wherein a raised portion which is parallel to the upper surface of the bottom wall of the cooling-liquid outflow portion is provided via a step portion on the portion of the upper surface of the bottom wall, the portion corresponding to the cooling-liquid outlet, and the step portion and the raised portion form the guide portion; characterized in that the cooling-liquid outflow portion projects sideward perpendicularly to the front-rear direction at the front end of the casing and has a closed distal end, and in that the cooling-liquid outlet is formed in a top wall of the cooling-liquid outflow portion, the outflow pipe has a bottom wall which is parallel to the portion of the top wall of the cooling-liquid outflow portion having the cooling-liquid outlet, and which has a through hole for communication with the cooling-liquid outlet.
A method for a user equipment, UE, to transmit an acknowledgement signal in a communication system, the method comprising: transmitting the acknowledgement signal in {(n+Q) th, (n+Q+1) th,..., (n+Q+N-1) th} transmission time intervals, TTIs,, the acknowledgement signal corresponding to a data packet the UE receives in an n th TTI; and not transmitting acknowledgement signals in response to other data packets received in {(n+1) th, (n+2) th,..., (n+N-1) th} TTIs, wherein n is an integer, Q is a number greater than 0, and N is a number greater than 1. transmitting the acknowledgement signal in {(n+Q) th, (n+Q+1) th,..., (n+Q+N-1) th} transmission time intervals, TTIs,, the acknowledgement signal corresponding to a data packet the UE receives in an n th TTI; and not transmitting acknowledgement signals in response to other data packets received in {(n+1) th, (n+2) th,..., (n+N-1) th} TTIs, wherein n is an integer, Q is a number greater than 0, and N is a number greater than 1.
Bottom base for cosmetic products, having an upper surface intended to constitute a support for the cosmetic product and a lower surface, opposite said upper surface, intended to rest on the bottom of an outer container, characterised in that at least one of said surfaces of the bottom base is decorated with decorations made by thermal sublimation photographic printing.
A method comprising: (a) in a first mode disabling a keypress entry interface of an integrated circuit and enabling a data path, wherein the data path extends from a display information input interface of the integrated circuit and passes through the integrated circuit and to a display information output interface of the integrated circuit, such that the keypress entry interface of the integrated circuit cannot be used to receive keypress information when untrusted information from an external source is driven into the secure integrated circuit, through the data path, and out of the secure integrated circuit and to a display; and (b) in a second mode disabling the data path and enabling the keypress entry interface, which is then usable to receive keypress information onto the secure integrated circuit from a keypad, wherein the data path is disabled in that information received onto the display information input interface cannot pass from an unauthorized source, through the data path, to the display information output interface, characterized in that in the second mode, additional locally-generated images and information generated on the integrated circuit are enabled to be output to the display information output interface, and wherein the first and second modes are two modes of operation of the integrated circuit. (a) in a first mode disabling a keypress entry interface of an integrated circuit and enabling a data path, wherein the data path extends from a display information input interface of the integrated circuit and passes through the integrated circuit and to a display information output interface of the integrated circuit, such that the keypress entry interface of the integrated circuit cannot be used to receive keypress information when untrusted information from an external source is driven into the secure integrated circuit, through the data path, and out of the secure integrated circuit and to a display; and (b) in a second mode disabling the data path and enabling the keypress entry interface, which is then usable to receive keypress information onto the secure integrated circuit from a keypad, wherein the data path is disabled in that information received onto the display information input interface cannot pass from an unauthorized source, through the data path, to the display information output interface,
A method of delivering discrete entities to a substrate, the method comprising: flowing a plurality of discrete entities through a microfluidic device in a carrier fluid, wherein the discrete entities are insoluble and/or immiscible in the carrier fluid, wherein the microfluidic device comprises a sorter; sorting, via the sorter, one or more of the plurality of discrete entities to be delivered through a delivery orifice to the substrate from the plurality of discrete entities: directing the carrier fluid and the one or more of the plurality of discrete entities through the delivery orifice to the substrate; and affixing the one or more of the plurality of discrete entities to the substrate, wherein the one or more of the plurality of discrete entities are affixed to the substrate via a force selected from an electrical force, a magnetic force, and a combination thereof, wherein the force is from one or more electrodes located in, on, or under the substrate flowing a plurality of discrete entities through a microfluidic device in a carrier fluid, wherein the discrete entities are insoluble and/or immiscible in the carrier fluid, wherein the microfluidic device comprises a sorter; sorting, via the sorter, one or more of the plurality of discrete entities to be delivered through a delivery orifice to the substrate from the plurality of discrete entities: directing the carrier fluid and the one or more of the plurality of discrete entities through the delivery orifice to the substrate; and affixing the one or more of the plurality of discrete entities to the substrate, wherein the one or more of the plurality of discrete entities are affixed to the substrate via a force selected from an electrical force, a magnetic force, and a combination thereof, wherein the force is from one or more electrodes located in, on, or under the substrate directing the carrier fluid and the one or more of the plurality of discrete entities through the delivery orifice to the substrate; and affixing the one or more of the plurality of discrete entities to the substrate, wherein the one or more of the plurality of discrete entities are affixed to the substrate via a force selected from an electrical force, a magnetic force, and a combination thereof, wherein the force is from one or more electrodes located in, on, or under the substrate
Suction/throttling tube for a refrigerating device, having a suction tube, a throttling tube guided along the suction tube and parallel thereto and a foil which is attached externally to the suction tube and throttling tube and holds both in contact with one another, characterised in that the foil extends tightly and continuously around the suction tube and the throttling tube, wherein the foil is a tape wound helically around the suction tube and throttling tube, wherein the tape is placed under tension, and wherein the foil is metal-free.
Method for operating a fluid meter, in particular a clamp-on fluid meter, in which a first measuring arrangement is arranged on a pipeline through which fluid flows, the first measuring arrangement is assigned a first measurement path, a determination of the amount of fluid flowing through is carried out on the basis of the first measuring arrangement, and there is a second measuring arrangement, which comprises an ultrasonic transducer, wherein the ultrasonic transducer transmits an ultrasonic signal along a second measurement path, which preferably can be reflected at the pipeline in the direction of the ultrasonic transducer, the second measurement path is arranged substantially orthogonal to the pipeline and/or the direction in which the fluid flows through, and the transit time of the ultrasonic signal along the second measurement path is determined, characterized in that operationally dependent changes of the flow cross section are ascertained on the basis of the transit time of the ultrasonic signal along the second measurement path, a correction of the measured values of the first measuring arrangement is performed on the basis of the ascertained operationally dependent changes of the flow cross section, wherein the operationally dependent changed flow cross section of the pipeline is determined on the basis of the speed of sound in the fluid and the transit time of the ultrasonic signal along the second measurement path, a determination of the temperature of the fluid is performed, wherein the temperature of the fluid is used for correcting the speed of sound in the fluid and/or the amount of fluid flowing through and the determination of the temperature of the fluid is performed on the basis of the first measuring arrangement.
A display apparatus, comprising: a first substrate; a driving circuit layer positioned on the first substrate, and the driving circuit layer comprising a plurality of thin film transistors in an array; a pixel definition layer disposed on a side of the driving circuit layer away from the first substrate and comprising a plurality of pixel holes in an array, and each pixel hole receiving an organic light emitter, and each of the organic light emitters being connected to one thin film transistor; a common electrode layer disposed on a side of the pixel definition layer away from the driving circuit layer; a second substrate disposed closer to a side of the common electrode layer away from the pixel definition layer than a side of the common electrode layer in contact with the pixel definition layer; and a capping layer disposed between the second substrate and the common electrode layer; characterized in that: the display apparatus defining a body area and a light transmitting area, and the light transmitting area is at least partially surrounded by the body area, and in the light transmitting area, a plurality of light shielding blocks are disposed between the second substrate and each one of the organic light emitters, and the light shielding blocks are at least partially corresponding to one thin film transistor. a first substrate; a driving circuit layer positioned on the first substrate, and the driving circuit layer comprising a plurality of thin film transistors in an array; a pixel definition layer disposed on a side of the driving circuit layer away from the first substrate and comprising a plurality of pixel holes in an array, and each pixel hole receiving an organic light emitter, and each of the organic light emitters being connected to one thin film transistor; a common electrode layer disposed on a side of the pixel definition layer away from the driving circuit layer; a second substrate disposed closer to a side of the common electrode layer away from the pixel definition layer than a side of the common electrode layer in contact with the pixel definition layer; and a capping layer disposed between the second substrate and the common electrode layer; characterized in that: the display apparatus defining a body area and a light transmitting area, and the light transmitting area is at least partially surrounded by the body area, and in the light transmitting area, a plurality of light shielding blocks are disposed between the second substrate and each one of the organic light emitters, and the light shielding blocks are at least partially corresponding to one thin film transistor. the display apparatus defining a body area and a light transmitting area, and the light transmitting area is at least partially surrounded by the body area, and in the light transmitting area, a plurality of light shielding blocks are disposed between the second substrate and each one of the organic light emitters, and the light shielding blocks are at least partially corresponding to one thin film transistor.