mhurhangee/ep-ind-claims huggingface dataset:
Device for thermally treating beer, with a flash pasteuriser; and a heat-retention unit which is connected to the flash pasteuriser and which has a serpentine pipe for keeping the beer hot; characterised in that the serpentine pipe has a length of not more than 12 metres, in particular 4 metres to 10 metres, and the serpentine pipe has a diameter of 0.05 metres to 0.2 metres. a flash pasteuriser; and a heat-retention unit which is connected to the flash pasteuriser and which has a serpentine pipe for keeping the beer hot; characterised in that the serpentine pipe has a length of not more than 12 metres, in particular 4 metres to 10 metres, and the serpentine pipe has a diameter of 0.05 metres to 0.2 metres.
A method for transmitting uplink data, comprising: determining, by a network side, a size of a slot for transmitting data, and transmitting uplink scheduling signaling to a User Equipment, UE, according to the size of the slot; and receiving, by the network side, uplink data transmitted by the UE according to predefined scheduling timing; wherein the slot is a temporal unit with a length shorter than 1 millisecond, and the predefined scheduling timing is: when the network side transmits the uplink scheduling signaling in a slot n, the network side receives the uplink data transmitted by the UE in a slot n+l, wherein l ∈L, n is an integer more than or equal to zero, 1 is an integer greater than or equal to 1, and L represents a set of values of l; wherein the length of the slot is seven Orthogonal Frequency Division Multiplexing, OFDM, symbols, and a radio frame comprises 20 slots; and for the downlink slot n=0 or 1 or 10 or 11, L =; for the downlink slot n=2 or 12, L = {5, 7}; and for the downlink slot n=8 or 18, L =; or for the downlink slot n=0 or 10, L =; for the downlink slot n=1 or 8 or 11 or 18, L =; and for the downlink slot n=2 or 6 or 12 or 16, L =; or for the downlink slot n=0 or 10, L =; for the downlink slot n=1 or 11, L = {4, 6}; and for the downlink slot n=2 or 12, L = {7, 11}; or for the downlink slot n=0 or 10, L = {4, 5}; for the downlink slot n=1 or 11, L = {5, 6}; and for the downlink slot n=2 or 12, L = {6, 7}; or for the downlink slot n=0 or 10, L = {4, 5, 6}; for the downlink slot n=1 or 11, L = {6, 7, 8}; and for the downlink slot n=2 or 12, L = {8, 9, 10, 11}. determining, by a network side, a size of a slot for transmitting data, and transmitting uplink scheduling signaling to a User Equipment, UE, according to the size of the slot; and receiving, by the network side, uplink data transmitted by the UE according to predefined scheduling timing; wherein the slot is a temporal unit with a length shorter than 1 millisecond, and the predefined scheduling timing is: when the network side transmits the uplink scheduling signaling in a slot n, the network side receives the uplink data transmitted by the UE in a slot n+l, wherein l ∈L, n is an integer more than or equal to zero, 1 is an integer greater than or equal to 1, and L represents a set of values of l; wherein the length of the slot is seven Orthogonal Frequency Division Multiplexing, OFDM, symbols, and a radio frame comprises 20 slots; and for the downlink slot n=0 or 1 or 10 or 11, L =; for the downlink slot n=2 or 12, L = {5, 7}; and for the downlink slot n=8 or 18, L =; or for the downlink slot n=0 or 10, L =; for the downlink slot n=1 or 8 or 11 or 18, L =; and for the downlink slot n=2 or 6 or 12 or 16, L =; or for the downlink slot n=0 or 10, L =; for the downlink slot n=1 or 11, L = {4, 6}; and for the downlink slot n=2 or 12, L = {7, 11}; or for the downlink slot n=0 or 10, L = {4, 5}; for the downlink slot n=1 or 11, L = {5, 6}; and for the downlink slot n=2 or 12, L = {6, 7}; or for the downlink slot n=0 or 10, L = {4, 5, 6}; for the downlink slot n=1 or 11, L = {6, 7, 8}; and for the downlink slot n=2 or 12, L = {8, 9, 10, 11}.
Method for regulating the speed of a vehicle, in which, a speed is set by means of a Tempomat cruise control system, and with a sensor system directed in the travel direction which recognises an environment by the spatial resolution of electromagnetic radiation, the said method comprising steps in which: - a specified speed is defined, and - by means of the Tempomat system a safe speed lower compared with the said specified speed is set, and - by means of the sensor system a lane change of the vehicle is recognised, - and then an exit ramp in a predicted travel route of the vehicle is recognised by the sensor system, characterised in that - the speed that can be set by the Tempomat system is restricted to a value lower than the specified speed in such manner that the speed is restricted by limiting an acceleration. - a specified speed is defined, and - by means of the Tempomat system a safe speed lower compared with the said specified speed is set, and - by means of the sensor system a lane change of the vehicle is recognised, - and then an exit ramp in a predicted travel route of the vehicle is recognised by the sensor system, characterised in that - the speed that can be set by the Tempomat system is restricted to a value lower than the specified speed in such manner that the speed is restricted by limiting an acceleration.
A bifunctional compound having a structure represented by formula I: or a pharmaceutically acceptable salt or stereoisomer thereof, wherein the histone acetyltransferase targeting ligand has a structure represented by any one of structures TL-1 and TL-1a to TL-1f: wherein A is CH 2, NH or O, B is CH 2 or CO; and R is H, halo, CN, CF 3, alkyl or alkoxy, wherein A, B and R are as above for (TL-1a) and R 1 is a C3-C5 carbocyclic or alkcarbocyclic group or a 3-5 membered N-heterocyclic or alkN-heterocyclic group, and wherein the alkyl group is a C1-C10 alkyl group, wherein Q is CH 2, O, N, CO, C O, C N, CH 2 N, CH 2 C, CH 2 C O, CH 2 C N, or CH 2 CH 2 N, and R 2 is a C3-C5 carbocyclic or alkcarbocyclic group or a 3-5 membered N-heterocyclic or alkN-heterocyclic group, and wherein the alkyl group is a C1-C10 alkyl group, and wherein the linker is represented by any of structures L10, - L26: wherein X is CH 2, NH, NMe, or O, and n is an integer from 0 to 11, and wherein the degron binds cereblon (CRBRN) and is represented by structure D1: wherein Y is CH 2 or CO; and Z is NH, O, or OCH 2 CO and the squiggle represents the point of attachment for the linker and EP300 targeting moiety, or wherein the degron binds von Hippel Landau tumor suppressor and is represented by a structure selected from the group consisting of: wherein Y' is a bond, N, O or C; wherein Z is a C 5 -C 6 carbocyclic or a C 5 -C 6 heterocyclic group; and wherein the histone acetyltransferase targeting ligand has a structure represented by any one of structures TL-1 and TL-1a to TL-1f: wherein A is CH 2, NH or O, B is CH 2 or CO; and R is H, halo, CN, CF 3, alkyl or alkoxy, wherein A, B and R are as above for (TL-1a) and R 1 is a C3-C5 carbocyclic or alkcarbocyclic group or a 3-5 membered N-heterocyclic or alkN-heterocyclic group, and wherein the alkyl group is a C1-C10 alkyl group, wherein Q is CH 2, O, N, CO, C O, C N, CH 2 N, CH 2 C, CH 2 C O, CH 2 C N, or CH 2 CH 2 N, and R 2 is a C3-C5 carbocyclic or alkcarbocyclic group or a 3-5 membered N-heterocyclic or alkN-heterocyclic group, and wherein the alkyl group is a C1-C10 alkyl group, and wherein the linker is represented by any of structures L10, - L26: wherein X is CH 2, NH, NMe, or O, and n is an integer from 0 to 11, and wherein the degron binds cereblon (CRBRN) and is represented by structure D1: wherein Y is CH 2 or CO; and Z is NH, O, or OCH 2 CO and the squiggle represents the point of attachment for the linker and EP300 targeting moiety, or wherein the degron binds von Hippel Landau tumor suppressor and is represented by a structure selected from the group consisting of: wherein Y' is a bond, N, O or C; wherein Z is a C 5 -C 6 carbocyclic or a C 5 -C 6 heterocyclic group; and
Endoscope with an adjustable viewing direction (21, 22), comprising: a light-emergence apparatus at the distal end of the endoscope for radiating illumination light in an illumination direction, wherein the light-emergence apparatus is movable relative to the endoscope for setting the illumination direction (34, 35, 36); an optical waveguide for transmitting illumination light to the light-emergence apparatus, wherein a flexible portion of the optical waveguide is embodied and arranged to be elastically deformed when the light-emergence apparatus is moved, characterized in that the endoscope furthermore contains a sliding-block guide (58, 59, 50) for guiding the light-emergence apparatus, which comprises a sled with a holder and a circular arc-shaped abutment apparatus for the optical waveguide, wherein the abutment apparatus is rigidly connected to the sled, wherein the sled is guided in one or more guide grooves or on one or more webs or rails of the distal end of the endoscope, wherein the guide grooves, webs or rails are embodied in an arc-shaped or circular arc-shaped manner, wherein a distal end of the optical waveguide is held rigidly against the sled in the vicinity of the light emergence face of the optical waveguide by way of the holder, a force transmission apparatus for transmitting a shearing or tensile force to the proximal end of the endoscope for moving the light-emergence apparatus, wherein the force transmission apparatus is formed integrally with the sled of the sliding-block guide. a light-emergence apparatus at the distal end of the endoscope for radiating illumination light in an illumination direction, wherein the light-emergence apparatus is movable relative to the endoscope for setting the illumination direction (34, 35, 36); an optical waveguide for transmitting illumination light to the light-emergence apparatus, wherein a flexible portion of the optical waveguide is embodied and arranged to be elastically deformed when the light-emergence apparatus is moved, characterized in that the endoscope furthermore contains a sliding-block guide (58, 59, 50) for guiding the light-emergence apparatus, which comprises a sled with a holder and a circular arc-shaped abutment apparatus for the optical waveguide, wherein the abutment apparatus is rigidly connected to the sled, wherein the sled is guided in one or more guide grooves or on one or more webs or rails of the distal end of the endoscope, wherein the guide grooves, webs or rails are embodied in an arc-shaped or circular arc-shaped manner, wherein a distal end of the optical waveguide is held rigidly against the sled in the vicinity of the light emergence face of the optical waveguide by way of the holder, a force transmission apparatus for transmitting a shearing or tensile force to the proximal end of the endoscope for moving the light-emergence apparatus, wherein the force transmission apparatus is formed integrally with the sled of the sliding-block guide.
A method of preparing a battery electrode plate for a lithium secondary battery, comprising: a coating step of coating a positive electrode material slurry containing positive electrode active material onto a current collector substrate; a drying step of drying the current collector substrate coated with the positive electrode material so as to form an electrode material layer on the current collector substrate; a calendering step of calendering the current collector substrate on which the electrode material layer is formed; repeating the coating step, the drying step and the calendering step at least once so as to form the battery electrode plate, wherein the closer the electrode material layer is to the current collector substrate, the higher a volume density of the positive electrode active material in the electrode material layer, characterized in that viscosity of the positive electrode material slurry is 2,8-3,5 Pa·s. a coating step of coating a positive electrode material slurry containing positive electrode active material onto a current collector substrate; a drying step of drying the current collector substrate coated with the positive electrode material so as to form an electrode material layer on the current collector substrate; a calendering step of calendering the current collector substrate on which the electrode material layer is formed; repeating the coating step, the drying step and the calendering step at least once so as to form the battery electrode plate, wherein the closer the electrode material layer is to the current collector substrate, the higher a volume density of the positive electrode active material in the electrode material layer, characterized in that viscosity of the positive electrode material slurry is 2,8-3,5 Pa·s.
The mobile device for producing a concrete mixture consists of frame provided with a chassis or of a frame provided for a connection with a chassis, wherein at least one binding agent reservoir and at least one filler reservoir are arranged on the frame, a mixing device being also attached to the frame, wherein the binding agent reservoir and the filler reservoir are provided with feeders for feeding filler and binding agent into the mixing device, wherein the mixing device is arranged between the filler reservoir and the binding agent reservoir and wherein the filler reservoir is arranged at rear end of the frame, wherein the binding agent reservoir and the filler reservoir are provided in their bottom part with respective feeders for feeding the binder and the filler into the mixing device, characterized in that the that the reservoirs (10, 11) together with the respective feeders are provided essentially above the frame, while the mixing device is essentially provided below the frame, the mixing device being provided with a discharge opening in its lower part wherein below said discharge opening a reservoir of finished mixture is disposed, the reservoir of finished mixture being formed as a trough and a case of the mixing device, wherein in the transportation position the reservoir of finished mixture surrounds the mixing device being designed to be lowered below the mixing device in order to increase its volume, the finished mixture reservoir being provided in its lower part with a stirring device having a pump of the finished mixture.
A method for forming a combustor of a gas turbine engine, the method comprising: additively manufacturing a combustor wall of the combustor, the combustor wall including a surface facing a combustion chamber of the combustor and defining an outer boundary of the combustion chamber, characterised in that the combustor wall includes a component, projecting from the surface of the combustor wall into the combustion chamber, and a support structure in communication with the component and the surface of the combustor wall, wherein the support structure is a lattice structure. additively manufacturing a combustor wall of the combustor, the combustor wall including a surface facing a combustion chamber of the combustor and defining an outer boundary of the combustion chamber, characterised in that the combustor wall includes a component, projecting from the surface of the combustor wall into the combustion chamber, and a support structure in communication with the component and the surface of the combustor wall, wherein the support structure is a lattice structure.
A method for producing a film containing cork particles or an artificial leather containing cork particles, having a layered structure (120; 220) with at least one layer (126; 224) based on polyurethane or polyvinylchloride and a surface coating (130; 230) comprising the following steps: pretreating the cork particles (128; 228) in order to reduce the water content in the cork particles, preparing a starting material for producing the layers, producing the layered structure (120; 220), wherein at least one layer (126, 224) of the layered structure (120; 220) is made of the starting material and forming the surface coating (130; 230) by applying varnish onto the layered structure (120; 220), wherein the cork particles (128, 228) are mixed into the starting material or into the varnish or into both the starting material and the varnish. pretreating the cork particles (128; 228) in order to reduce the water content in the cork particles, preparing a starting material for producing the layers, producing the layered structure (120; 220), wherein at least one layer (126, 224) of the layered structure (120; 220) is made of the starting material and forming the surface coating (130; 230) by applying varnish onto the layered structure (120; 220), wherein the cork particles (128, 228) are mixed into the starting material or into the varnish or into both the starting material and the varnish.
A method for preventing spread of a seed associated disease within a population of seedlings, the method comprises: providing a formulation obtained by mixing, until an emulsion is formed, of at least: (a) a first component comprising particulate matter holding one or more natural oils; and (b) a second component comprising a bacterial cocktail of at least two antagonistic bacteria; and providing an amount of said formulation to said seedlings. providing a formulation obtained by mixing, until an emulsion is formed, of at least: (a) a first component comprising particulate matter holding one or more natural oils; and (b) a second component comprising a bacterial cocktail of at least two antagonistic bacteria; and (a) a first component comprising particulate matter holding one or more natural oils; and (b) a second component comprising a bacterial cocktail of at least two antagonistic bacteria; and providing an amount of said formulation to said seedlings.
An auto-selecting holding current circuit for a converter, wherein an input voltage (V IN) which is input to a primary side of the converter is adjusted by a Triode for Alternating Current, the primary side has a bleeder circuit, the Triode for Alternating Current has a holding-current value (I H), the bleeder circuit makes an input current (I IN) flowing through the Triode for Alternating Current greater than or equal to the holding-current value (I H) according to a current detector signal (V CS) and a reference current signal (I Iref), the current detector signal (V CS) corresponds to the input current (I IN); and the auto-selecting holding current circuit comprises: a first sensor module, preferably a current drop detector, adapted to detect a current drop time of the current detector signal (V CS) or a voltage drop time of the input voltage (V IN) to output a sense signal (V cd) to detect when the Triode for Alternating Current is turned off; a second sensor module, preferably a current range detector, adapted to receive the current detector signal (V CS) to output a critical current signal (V th), wherein the critical current signal (V th) is adapted to judge a current value range of the holding-current value (I H); and characterised in that the auto-selecting holding current circuit further comprises: a reference voltage selecting circuit, adapted to output the reference current signal (V Iref) to the bleeder circuit according to the sense signal (V cd) and the critical current signal (V th),_wherein the reference voltage selecting circuit is adapted to increase the reference current signal (V Iref) when the critical current signal (V th) and the sense signal (V cd) indicate that the input current (I IN) is greater than a preset value and less than the holding current value (I H). a first sensor module, preferably a current drop detector, adapted to detect a current drop time of the current detector signal (V CS) or a voltage drop time of the input voltage (V IN) to output a sense signal (V cd) to detect when the Triode for Alternating Current is turned off; a second sensor module, preferably a current range detector, adapted to receive the current detector signal (V CS) to output a critical current signal (V th), wherein the critical current signal (V th) is adapted to judge a current value range of the holding-current value (I H); and characterised in that the auto-selecting holding current circuit further comprises: a reference voltage selecting circuit, adapted to output the reference current signal (V Iref) to the bleeder circuit according to the sense signal (V cd) and the critical current signal (V th),_wherein the reference voltage selecting circuit is adapted to increase the reference current signal (V Iref) when the critical current signal (V th) and the sense signal (V cd) indicate that the input current (I IN) is greater than a preset value and less than the holding current value (I H).
Elastic rotary actuator including: an output member rotatable around an axis of rotation; an input member rotatable around said axis of rotation and elastically connected for rotation with the output member through elastic means (20, 20'), wherein said elastic means (20, 20') comprise a plurality of springs interposed between the output member and the input member in such a manner as to allow, due to their elastic deformation, a relative rotation between said members (12, 14) around said axis of rotation; a motor assembly (16, 18) arranged to drive the input member to rotate around said axis of rotation; and control means (38, 40, ECU) arranged to control the motor assembly (16, 18), said control means (38, 40, ECU) including first sensor means adapted to provide a signal indicative of the angular velocity ( θ Om) of the input member, and an electronic control unit arranged to determine a desired angular velocity ( θ̇ OD) of the input member on the base of a desired impedance value ( Z D) for the actuator and to control the motor assembly (16, 18) on the base of the error between the desired angular velocity ( θ OD) of the input member and the angular velocity ( θ̇ m) of the input member determined from the signal provided by said first sensor means. an output member rotatable around an axis of rotation; an input member rotatable around said axis of rotation and elastically connected for rotation with the output member through elastic means (20, 20'), wherein said elastic means (20, 20') comprise a plurality of springs interposed between the output member and the input member in such a manner as to allow, due to their elastic deformation, a relative rotation between said members (12, 14) around said axis of rotation; a motor assembly (16, 18) arranged to drive the input member to rotate around said axis of rotation; and control means (38, 40, ECU) arranged to control the motor assembly (16, 18), said control means (38, 40, ECU) including first sensor means adapted to provide a signal indicative of the angular velocity ( θ Om) of the input member, and an electronic control unit arranged to determine a desired angular velocity ( θ̇ OD) of the input member on the base of a desired impedance value ( Z D) for the actuator and to control the motor assembly (16, 18) on the base of the error between the desired angular velocity ( θ OD) of the input member and the angular velocity ( θ̇ m) of the input member determined from the signal provided by said first sensor means.