mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, LTE, for use in a wireless communication system, the LTE comprising: a communication module; and a processor configured to control the communication module, wherein the processor is configured to: receive configuration information related to a cyclic period for monitoring an uplink, UL, preemption indicator; receive scheduling information for a physical uplink shared channel, PUSCH, transmission; after a reception of the scheduling information, receive a common physical downlink control channel, PDCCH, including the UL preemption indicator during a monitoring time configured by the cyclic period; and based on the PUSCH transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting time of the reference time-frequency resource is located after the monitoring time, at least by a time interval associated with a PUSCH processing time. a communication module; and a processor configured to control the communication module, wherein the processor is configured to: receive configuration information related to a cyclic period for monitoring an uplink, UL, preemption indicator; receive scheduling information for a physical uplink shared channel, PUSCH, transmission; after a reception of the scheduling information, receive a common physical downlink control channel, PDCCH, including the UL preemption indicator during a monitoring time configured by the cyclic period; and based on the PUSCH transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting time of the reference time-frequency resource is located after the monitoring time, at least by a time interval associated with a PUSCH processing time. receive configuration information related to a cyclic period for monitoring an uplink, UL, preemption indicator; receive scheduling information for a physical uplink shared channel, PUSCH, transmission; after a reception of the scheduling information, receive a common physical downlink control channel, PDCCH, including the UL preemption indicator during a monitoring time configured by the cyclic period; and based on the PUSCH transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting time of the reference time-frequency resource is located after the monitoring time, at least by a time interval associated with a PUSCH processing time.
A method of a mobile terminal receiving MBMS service, characterized in that the method includes the steps of: a mobile terminal receiving a MBMS modified service message from a system simulator via a dedicated control channel, DCCH, wherein the MBMS modified service message comprises an MBMS-REQUIRED-USER-EQUIPMENT-ACTION information element set as REQUEST-POINT-TO-POINT-RADIO-BEARER; in accordance with the setting of the MBMS-REQUIRED-USER-EQUIPMENT-ACTION information element in the MBMS modified service message, the mobile terminal sending a MBMS modification request message to the system simulator to request to establish a radio bearer required for service transmission; the mobile terminal receiving a radio bearer setup message from the system simulator to notify the mobile terminal to establish the radio bearer; after establishing the radio bearer between the mobile terminal and the system simulator, the mobile terminal sending a radio bearer setup complete message to the system simulator to notify the system simulator that the radio bearer is successfully established; the mobile terminal receiving user data from the system simulator through the established radio bearer via a dedicated traffic channel, DTCH. a mobile terminal receiving a MBMS modified service message from a system simulator via a dedicated control channel, DCCH, wherein the MBMS modified service message comprises an MBMS-REQUIRED-USER-EQUIPMENT-ACTION information element set as REQUEST-POINT-TO-POINT-RADIO-BEARER; in accordance with the setting of the MBMS-REQUIRED-USER-EQUIPMENT-ACTION information element in the MBMS modified service message, the mobile terminal sending a MBMS modification request message to the system simulator to request to establish a radio bearer required for service transmission; the mobile terminal receiving a radio bearer setup message from the system simulator to notify the mobile terminal to establish the radio bearer; after establishing the radio bearer between the mobile terminal and the system simulator, the mobile terminal sending a radio bearer setup complete message to the system simulator to notify the system simulator that the radio bearer is successfully established; the mobile terminal receiving user data from the system simulator through the established radio bearer via a dedicated traffic channel, DTCH.
A device, comprising: a first circuit (708, 864) for receiving a transmitted signal at an operational frequency; and a second circuit (704, 706, 856) for generating a magnetic field proximate the first circuit that opposes at least a portion of a wireless power magnetic field generated by a wireless power device at a non-operational frequency of the first circuit. a first circuit (708, 864) for receiving a transmitted signal at an operational frequency; and a second circuit (704, 706, 856) for generating a magnetic field proximate the first circuit that opposes at least a portion of a wireless power magnetic field generated by a wireless power device at a non-operational frequency of the first circuit.
A process for the preparation of a 7-[2-(5-amino-[1,2,4]thiadiazol-3-yl)-2-hydroxy-imino-acetylamino]-3-formyl-8-oxo-5-thia-1-aza-bicyclo[4.2.0]oct-2-ene-2-carboxylic acid derivative of formula wherein R 1 is a hydroxy protecting group and R 2 is a carboxylic acid protecting group, which process is characterized in that it comprises oxidizing a compound of formula with a combination of a hypervalent iodine oxidizing agent of the type 10-I-3 and a catalyst selected from 2,2,6,6-tetramethyl-1-piperidinyloxy (TEMPO), 4-hydroxy-2,2,6,6-tetramethyl-1-piperidinyloxy and 4-(acetylamino)- 2,2,6,6-tetramethyl-1-piperidinyloxy in a suitable solvent.
A sensor assembly comprising: a molded housing having a first cavity configured to mate with a wire harness connector, the molded housing further comprising a second cavity; a leadless sensor package (110a, 110b) including conductive pads (128, 130) exposed in a surface of the leadless sensor package (110a, 110b); and terminals inserted into the molded housing and extending into the first cavity, each terminal forming an electrical and mechanical connection with a pad of the conductive pads (128, 130) in the surface of the leadless sensor package (110a, 110b), wherein said electrical and mechanical connections are maintained by a spring force of the terminals applied between the molded housing and the conductive pads (128, 130), characterised in that the leadless sensor package (110a, 110b) interacts with, and deforms, at least one crush rib in the molded housing to restrain movement of the leadless sensor package (110a, 110b) when fully inserted into said second cavity. a molded housing having a first cavity configured to mate with a wire harness connector, the molded housing further comprising a second cavity; a leadless sensor package (110a, 110b) including conductive pads (128, 130) exposed in a surface of the leadless sensor package (110a, 110b); and terminals inserted into the molded housing and extending into the first cavity, each terminal forming an electrical and mechanical connection with a pad of the conductive pads (128, 130) in the surface of the leadless sensor package (110a, 110b), wherein said electrical and mechanical connections are maintained by a spring force of the terminals applied between the molded housing and the conductive pads (128, 130), characterised in that the leadless sensor package (110a, 110b) interacts with, and deforms, at least one crush rib in the molded housing to restrain movement of the leadless sensor package (110a, 110b) when fully inserted into said second cavity.
Refrigeration and/or freezer device with a device body having thermally insulating walls that enclose an interior, and having a refrigerant circuit that comprises as components a compressor, a condenser, a throttle and an evaporator, wherein the evaporator and the remaining components of the refrigerant circuit are arranged in the lower region of the refrigeration and/or freezer device, wherein the device has a cold air duct, which is extended in one section to form an evaporator chamber, wherein the evaporator is arranged in this evaporator chamber, wherein the air inlet opening and the air outlet opening of the evaporator chamber are located below the level of the evaporator, wherein the evaporator chamber has a bell-shaped design, characterised in that all components of the refrigerant circuit are installed together on a unit carrier, which can be separated from the device body and removed from the device, wherein the cold air duct is also formed in the unit carrier and the unit carrier comprises a machine portion and an evaporator portion connected thereto, wherein the compressor and the condenser are accommodated in the machine portion and the evaporator and the cold air duct are accommodated in the evaporator portion, wherein the machine portion is accommodated in a base space of the device body and the evaporator portion is accommodated in the lowermost region of the interior space.
Baler for agricultural harvested crops, comprising a movable conveyor element (8, 9) and a stripping device having a stripper support and a stripper, the conveyor element (8, 9) being designed as a rotatably mounted roller (8, 9) for conveying and pressing harvested crops, a surface (8.1) of the conveyor element (8, 9) adjacent to the stripper being able to be moved past the stripper in order to strip adhering material from the surface (8.1), and a position of the stripper relative to the stripper support being adjustable, the stripper being connected to the stripper support by at least one adjustment arrangement, characterized in that the adjustment arrangement has a first adjustment element which can be rotated relative to the stripper support about an adjustment direction, and a second adjustment element which forms a helical gear with the first adjustment element, is displaceable relative to the stripper support in the adjustment direction, and is designed to transmit force to the stripper. the stripper being connected to the stripper support by at least one adjustment arrangement, characterized in that the adjustment arrangement has a first adjustment element which can be rotated relative to the stripper support about an adjustment direction, and a second adjustment element which forms a helical gear with the first adjustment element, is displaceable relative to the stripper support in the adjustment direction, and is designed to transmit force to the stripper.
A method for transmitting an extended narrowband positioning reference signals, NPRS, sequence, performed by a base station, comprising: generating the extended NPRS sequence, wherein the extended NPRS sequence is a function of a plurality of slot numbers of a plurality of slots of a plurality of sequential radio frames and a plurality of symbol indexes of a plurality of symbols of a single physical resource block; and transmitting to at least one user equipment, UE, over a wireless narrowband channel, the extended NPRS sequence on the plurality of symbols of the single physical resource block corresponding to the plurality of symbol indexes and across the plurality of slots of the plurality of sequential radio frames corresponding to the plurality of slot numbers; wherein a physical resource block index of the single physical resource block is incremented from one radio frame to another in the plurality of sequential radio frames; wherein the plurality of radio frames comprises K radio frames; and wherein the physical resource block index is reset every K radio frames. generating the extended NPRS sequence, wherein the extended NPRS sequence is a function of a plurality of slot numbers of a plurality of slots of a plurality of sequential radio frames and a plurality of symbol indexes of a plurality of symbols of a single physical resource block; and transmitting to at least one user equipment, UE, over a wireless narrowband channel, the extended NPRS sequence on the plurality of symbols of the single physical resource block corresponding to the plurality of symbol indexes and across the plurality of slots of the plurality of sequential radio frames corresponding to the plurality of slot numbers; wherein a physical resource block index of the single physical resource block is incremented from one radio frame to another in the plurality of sequential radio frames; wherein the plurality of radio frames comprises K radio frames; and wherein the physical resource block index is reset every K radio frames. wherein a physical resource block index of the single physical resource block is incremented from one radio frame to another in the plurality of sequential radio frames; wherein the plurality of radio frames comprises K radio frames; and wherein the physical resource block index is reset every K radio frames.
A sleeve-folding assistance device for assisting a back-revealing sleeve-folding device, the sleeve-folding assistance device comprising: a pair of right and left sleeve guide portions, when disposing a body portion of a garment having the body portion and both sleeve portions on a loading conveyor to transport the garment from a front to a rear, the pair of right and left sleeve guide portions is configured to move and to approach both sides of the loading conveyor so as to guide both sleeve portions of the garment hung down on both sides of the loading conveyor to a sleeve-folding device for performing back-revealing sleeve-folding, the sleeve-folding assistance device being characterized in that when the body portion is transported from the front to the rear on the loading conveyor, the pair of right and left sleeve guide portions approaches both sides of the loading conveyor and transports the sleeve portions from the front to the rear on the loading conveyor, and the pair of right and left sleeve guide portions lifts both sleeve portions of the garment, respectively. a pair of right and left sleeve guide portions, when disposing a body portion of a garment having the body portion and both sleeve portions on a loading conveyor to transport the garment from a front to a rear, the pair of right and left sleeve guide portions is configured to move and to approach both sides of the loading conveyor so as to guide both sleeve portions of the garment hung down on both sides of the loading conveyor to a sleeve-folding device for performing back-revealing sleeve-folding, the sleeve-folding assistance device being characterized in that when the body portion is transported from the front to the rear on the loading conveyor, the pair of right and left sleeve guide portions approaches both sides of the loading conveyor and transports the sleeve portions from the front to the rear on the loading conveyor, and the pair of right and left sleeve guide portions lifts both sleeve portions of the garment, respectively.
A method of machining a feature in a metal sheet, the method comprising: securing the metal sheet with a vacuum fixture to reduce vibrations during machining, said vacuum fixture including a base member to support the metal sheet, the method being characterised by: first drawing and maintaining a vacuum via an outer periphery seal of the base member to secure the metal sheet to the base member; and then drawing and maintaining a vacuum through an inner grid of recessed seals of the base member to secure inner portions of the metal sheet to the base member; machining at least one feature into the metal sheet with an end mill starting at an interior of the metal sheet. securing the metal sheet with a vacuum fixture to reduce vibrations during machining, said vacuum fixture including a base member to support the metal sheet, the method being characterised by: first drawing and maintaining a vacuum via an outer periphery seal of the base member to secure the metal sheet to the base member; and then drawing and maintaining a vacuum through an inner grid of recessed seals of the base member to secure inner portions of the metal sheet to the base member; first drawing and maintaining a vacuum via an outer periphery seal of the base member to secure the metal sheet to the base member; and then drawing and maintaining a vacuum through an inner grid of recessed seals of the base member to secure inner portions of the metal sheet to the base member; machining at least one feature into the metal sheet with an end mill starting at an interior of the metal sheet.
Pressure-tightly encapsulated housing, with a tempering device which has a first heat exchanger unit arranged in the interior of the housing and a second heat exchanger unit arranged outside the housing, wherein the two heat exchanger units (21, 22) are connected together via a fluid circuit, wherein the fluid circuit in the housing has a supply line and a return line which are connected to the first heat exchanger unit and are each fluidically connected to a passage channel of a lead-through unit, wherein the lead-through units are each arranged in a wall of the housing via a fixing means so as to be protected against ignition breakthrough, so that the passage channel extends through the wall, characterised in that at least one fluid-monitoring sensor is present which generates a fluid-monitoring signal characteristic of the level of fluid in the passage channels and transmits said signal to a monitoring unit, wherein the monitoring unit is configured to evaluate the fluid-monitoring signal and generate a first output signal characteristic of the inadequate explosion protection if the fluid-monitoring signal from the at least one fluid-monitoring sensor indicates that at least one of the two passage channels is inadequately filled with fluid, such that an ignition gap can form in this passage channel, and wherein neither the fluid itself nor its decomposition products are combustible or constitute or contain or release explosive substances.
Nuclear magnetic resonance (= NMR) probehead, comprising N basic elements (10a, 10b, 10c), where N ≥ 2, wherein each basic element (10a, 10b, 10c) comprises a cylindrical measurement sample and a resonator system (12a, 12b, 12c), wherein the N measurement samples contain an identical measuring substance, wherein a coupling network for the N resonator systems (12a, 12b, 12c) is provided, with which the totality of the N resonator systems (12a, 12b, 12c) can be operated in one identical, coupled mode during transmission and reception, wherein the N resonator systems (12a, 12b, 12c) of the N basic elements (10a, 10b, 10c) are connected to each other for setting up the coupled mode through electromagnetic coupling, and wherein the coupling network comprises one common receiver circuit for the totality of the N resonator systems (12a, 12b, 12c), characterized in that the type of the measuring substance and the number N of the basic elements (10a, 10b, 10c) are selected in such a manner that the noise of the measurement samples dominates the total noise of the NMR probehead.
A fabrication method of fabricating Inconel 718 type nickel superalloys characterized in that the last forging step to which said nickel superalloy is subjected is such that it takes place at a temperature T lower than the δ-solvus temperature, that at all points M of the nickel superalloy the local deformation ratio D, defined as D = Ln δi δf where δ i is the initial distance between the point M and a point M' neighboring the point M, and δ f is the distance between the points M and M' after forging, is not less than a minimum value D m equal to 0.7, and in that said nickel superalloy is subjected to quenching after following that final forging step and is not subjected to any heat treatment at a temperature higher than a threshold temperature T s equal to 750°C after said quenching.
Electric distributor, comprising a trough-shaped housing shell, - with a printed circuit board located within the housing shell, - wherein the printed circuit board supports passive and/or active electric components (10, 14), - and with an electric outlet electrically connected to the printed circuit board, - wherein the electric outlet is routed through the housing shell, - and wherein the housing shell is filled with a packing material, characterised in that - the packing material consists of an injection moulding compound of a thermoplastic elastomer, - the injection moulding compound is injected into the housing shell, - the injection moulding compound completely encloses the printed circuit board with the electric components (10, 14), - and the injection moulding compound mechanically joins the printed circuit board to the housing shell. - with a printed circuit board located within the housing shell, - wherein the printed circuit board supports passive and/or active electric components (10, 14), - and with an electric outlet electrically connected to the printed circuit board, - wherein the electric outlet is routed through the housing shell, - and wherein the housing shell is filled with a packing material, characterised in that - the packing material consists of an injection moulding compound of a thermoplastic elastomer, - the injection moulding compound is injected into the housing shell, - the injection moulding compound completely encloses the printed circuit board with the electric components (10, 14), - and the injection moulding compound mechanically joins the printed circuit board to the housing shell.
A method for preparing a polyimide adhesive-free flexible printed circuit board, comprising: 1) placing a polyimide thin film into a low vacuum environment, and treating the polyimide thin film using plasma produced by a capacitively coupled discharge of an organic amine; 2) placing the polyimide thin film obtained in the step 1) into the low vacuum environment, and pretreating the polyimide thin film using plasma formed by a capacitively coupled discharge of a nitrogen gas bubbled through a metal salt solution prepared with corresponding metal salt and deionized water; 3) pre-plating the polyimide thin film obtained in the step 2) using vacuum sputtering plating or chemical plating so as to obtain a dense copper film with a thickness of less than 100 nm; and 4) thickening the copper film to a required thickness by means of an electroplating method. 1) placing a polyimide thin film into a low vacuum environment, and treating the polyimide thin film using plasma produced by a capacitively coupled discharge of an organic amine; 2) placing the polyimide thin film obtained in the step 1) into the low vacuum environment, and pretreating the polyimide thin film using plasma formed by a capacitively coupled discharge of a nitrogen gas bubbled through a metal salt solution prepared with corresponding metal salt and deionized water; 3) pre-plating the polyimide thin film obtained in the step 2) using vacuum sputtering plating or chemical plating so as to obtain a dense copper film with a thickness of less than 100 nm; and 4) thickening the copper film to a required thickness by means of an electroplating method.