mhurhangee/patent-ind-claim-en huggingface dataset:
A water-lithium bromide absorption chiller with medium connection lines for a hot water, a recooling and a cold water circuit, with a working substance guided in a cyclic process within the absorption chiller and provided in different mixing ratios of a solvent and a refrigerant depending on the cyclic process, with a high-pressure tank in which a generator , which expels the refrigerant from the solvent with the supply of heat, is arranged with a first heat exchanger , and a condenser , which condenses the expelled refrigerant, is arranged with a second heat exchanger , and with a low-pressure tank in which an evaporator , which evaporates the refrigerant by means of heat extraction, is arranged with a third heat exchanger , and an absorber , which absorbs the refrigerant vapour, being produced in the evaporator , in the solvent, is arranged with a fourth heat exchanger , with sprinkler systems arranged above the heat exchanger of the generator in the high-pressure tank and above the heat exchangers of the evaporator and also of the absorber in the low-pressure tank , wherein in the high-pressure tank below the heat exchanger of the generator and below the heat exchanger of the condenser , as well as in the low-pressure tank below the heat exchangers of the evaporator and of the absorber , liquid collecting trays are arranged in such a way that each of the corresponding heat exchangers forms a falling film apparatus together with the associated sprinkler system and the associated liquid collecting tray , and a connection line , equipped with a throttle acting as an expansion valve, is arranged between the liquid collecting tray of the condenser in the high-pressure tank and the liquid collecting tray of the evaporator in the low-pressure tank , and in addition, a further connection line , also equipped with a throttle acting as an expansion valve, is arranged between the high-pressure tank and the low-pressure tank between the liquid collecting tray of the generator and the sprinkler system of the absorber , and a pump is arranged in a further connection line between the liquid collecting tray of the absorber and the sprinkler system of the generator , wherein the connection line is thermally coupled to the connection line via a solvent heat exchanger arranged upstream the throttle between the high-pressure tank and the low-pressure tank , moreover, a further connection line is arranged with a further pump between the liquid collecting tray of the evaporator and the sprinkler system of the evaporator in the low-pressure tank , characterized in that all heat exchangers , i.e. the heat exchanger of the generator , the heat exchanger of the condenser , the heat exchanger of the evaporator , and also the heat exchanger of the absorber are constructed as open asymmetrical plate heat exchangers , and that the open asymmetrical plate heat exchangers are designed as asymmetrical plate heat exchangers open on two sides or as asymmetrical plate heat exchangers open on four sides or partly as asymmetrical plate heat exchangers open on two sides and partly as asymmetrical plate heat exchangers open on four sides.
A method performed by a wireless device for handling a transmission of data in a wireless communication network comprising: - receiving from a radio network node a default indication indicating a default value of an initial delay value for the wireless device for a transmission of data from the wireless device ; - using the default value when performing one or more transmissions of data to the radio network node . - transmitting , to the radio network node , a capability indication indicating the capability related to the processing time of the wireless device. - receiving a message from the radio network node , which message indicates a delay value for a transmission of data from the wireless device based on the capability of the wireless device ; and - performing a transmission of data to the radio network node delayed using the received delay value. - receiving from a radio network node a default indication indicating a default value of an initial delay value for the wireless device for a transmission of data from the wireless device ; - using the default value when performing one or more transmissions of data to the radio network node . - transmitting , to the radio network node , a capability indication indicating the capability related to the processing time of the wireless device. - receiving a message from the radio network node , which message indicates a delay value for a transmission of data from the wireless device based on the capability of the wireless device ; and - performing a transmission of data to the radio network node delayed using the received delay value.
Driving experience simulation device comprising at least five superimposed planes, said planes being in sequence from the bottom upwards: a first plane in turn comprising a rotation plate ; a second plane in turn comprising a second rotation plate ; a third plane comprising a track-like structure for the sliding of an overlying slidable base ; a fourth plane in turn comprising said slidable base , a fourth rotation plate (4") integrally joined beneath said slidable base , a support bearing said fourth rotation plate (4") and slidable in said structure ; and at least one fifth plane comprising at least one cockpit , suitable to enable the access of the user of said driving experience simulation device, said simulation device providing for that said rotation plates be superimposed in a de-centred fashion thus being non-coaxial structures, said first rotation plate having a greater diameter than said second rotation plate , the latter having a diameter equal to or greater than said fourth rotation plate (4"), said second rotation plate having the centre thereof in a point that can be projected on the radius of the underlying first rotation plate , said fourth rotation plate (4") having the centre thereof in a point that can be projected on the radius of the underlying rotation plate or along the circumference thereof, said track-like structure being integrally joined - at the upper part - to said second rotation plate and being dimensioned to enable the sliding of the overlying slidable base , each of said first rotation plate , second rotation plate , fourth rotation plate (4") being rotatable by 360° around the rotational axis thereof both clockwise and anticlockwise, said driving experience simulation device being suitable to offer the user the feeling of the forces related to lateral acceleration forces that occur when negotiating curves, said simulation device being characterised in that said track-like structure of the third plane is constrained to the underlying second rotation plate by means of a pin , the latter constraining the front smaller side (3") of the rectangular side of the track-like structure with the edge of the underlying rotation plate of the second plane .
A reciprocating linear-rotating motion conversion device, comprising a main shaft , a linear motion guiding mechanism , a sector gear and a rack frame linearly moving along the linear motion guiding mechanism ; the sector gear being fixedly connected with the main shaft ; a rack pair being arranged on the inner wall of the rack frame ; the rack pair comprising a first gear rack and a second gear rack separately arranged on both sides of the sector gear ; and the reciprocating linear-rotating motion conversion device further comprises a reversing mechanism fixedly connected with the main shaft , a guiding curved surface and a guide member are arranged on the reversing mechanism , a reversing block is arranged on the rack frame , and a first curved surface and a second curved surface are arranged on the reversing block ; the reciprocating linear-rotating motion conversion device enters a reversing state, a transitional state, and a transmission state in a successive manner, and wherein when the reciprocating linear-rotating motion conversion device is in a transmission state, the sector gear is completely engaged with the rack pair; when the reciprocating linear-rotating motion conversion device is in a reversing state, the sector gear is completely disengaged from the gear rack, the first curved surface of the reversing block is constrained by the external surface of the guide member , and the second curved surface of the reversing block is constrained by the guiding curved surface ; the guide member comprises a guide shaft fixedly connected with the reversing mechanism and a roller wheel sleeved on the guide shaft , characterized in that when the reciprocating linear-rotating motion conversion device is in a transitional state, the sector gear is only partially engaged with a single tooth with the rack pair, and the first curved surface of the reversing block is constrained by an external surface of the guide member , and the second curved surface of the reversing block is constrained by the guiding curved surface . when the reciprocating linear-rotating motion conversion device is in a reversing state, the sector gear is completely disengaged from the gear rack, the first curved surface of the reversing block is constrained by the external surface of the guide member , and the second curved surface of the reversing block is constrained by the guiding curved surface ; the guide member comprises a guide shaft fixedly connected with the reversing mechanism and a roller wheel sleeved on the guide shaft , characterized in that when the reciprocating linear-rotating motion conversion device is in a transitional state, the sector gear is only partially engaged with a single tooth with the rack pair, and the first curved surface of the reversing block is constrained by an external surface of the guide member , and the second curved surface of the reversing block is constrained by the guiding curved surface .
A fluid filtration assembly, comprising: a housing (104; 204; 304; 404; 504; 704; 904; 1004; 1104; 1204; 1304) configured with one or more filter units (120; 220; 320; 420; 520; 720; 920; 1020; 1120; 1220; 1320) extending in fluid flow between a raw fluid inlet port (116; 216; 316; 416; 516; 716; 916; 1016; 1116; 1216; 1316) and a filtered fluid outlet port (176; 276; 376; 476; 576; 776; 976; 1076; 1176; 1276; 1376), each of the one or more filter units comprising a cylindrical, thread-type filtration media (122; 222; 322; 422; 522) and a thread tensioning mechanism for controlling tension of coiled threads of the thread-type filtration media, said thread tensioning mechanism comprising an array of thread supports (1546; 1602), axially extending and being radially displaceable between a tensioned filtering mode and a loose rinsing mode, respectively; characterized in that a filter rinsing assembly is in fluid communication with a rinsing fluid inlet port ; a propulsion fluid inlet port is in flow communication with a propulsion mechanism configured for propelling one or both of the filter rinsing assembly and the filter unit with respect to one another; and the thread tensioning mechanism is configured with a mechanism for converting axial motion in a longitudinal axis into radial motion in plane normal to said longitudinal axis. a housing (104; 204; 304; 404; 504; 704; 904; 1004; 1104; 1204; 1304) configured with one or more filter units (120; 220; 320; 420; 520; 720; 920; 1020; 1120; 1220; 1320) extending in fluid flow between a raw fluid inlet port (116; 216; 316; 416; 516; 716; 916; 1016; 1116; 1216; 1316) and a filtered fluid outlet port (176; 276; 376; 476; 576; 776; 976; 1076; 1176; 1276; 1376), each of the one or more filter units comprising a cylindrical, thread-type filtration media (122; 222; 322; 422; 522) and a thread tensioning mechanism for controlling tension of coiled threads of the thread-type filtration media, said thread tensioning mechanism comprising an array of thread supports (1546; 1602), axially extending and being radially displaceable between a tensioned filtering mode and a loose rinsing mode, respectively; characterized in that a filter rinsing assembly is in fluid communication with a rinsing fluid inlet port ; a propulsion fluid inlet port is in flow communication with a propulsion mechanism configured for propelling one or both of the filter rinsing assembly and the filter unit with respect to one another; and the thread tensioning mechanism is configured with a mechanism for converting axial motion in a longitudinal axis into radial motion in plane normal to said longitudinal axis.
Vitreous coating characterised in that it comprises at least one layer embodied in the form of a continuous film of a sol-gel material comprising a matrix formed from at least one metallic polyalkoxylate and wherein anisotropically-shaped particles are dispersed, said layer comprising at least one area wherein said particles are particles predominantly inclined by an angle α determined in accordance with the description between 20° and 90° relative to the median plane of the film.
Milling tool for machining wood, wood-based materials, plastics or light metal, having a tool body which can be rotated about a tool axis of rotation and which consists of at least a housing and a basic body and in which at least two blade carriers are arranged uniformly spaced apart from one another over the circumference, wherein each blade carrier is arranged in the tool body so as to be rotatable about a carrier axis of rotation and has a plurality of blades (4, 4', 4", 4"'), characterized in that each blade carrier is assigned a latching disc , and in that a spring-loaded clamping disc is arranged between the latching discs and the basic body and has wedge-shaped projections which interact with slots provided on the latching discs in order to latch the blade carriers in the circumferential direction.
A device comprising: a plurality of electroactive material actuator units arranged as a set, each electroactive material actuator unit comprising three power line terminals (T1, T2, T3); and three power lines comprising a common reference power line (Vref), a controller power line (Vop) and a driver power line (Vop2), wherein each electroactive material actuator unit is connected in parallel between the three power lines (Vop, Vop2, Vref), the three power lines connecting to the three power line terminals (T1, T2, T3); wherein each electroactive material actuator unit comprises: an electroactive material actuator ; a demodulator for demodulating a data signal carried by at least one (Vop) of the power lines; a controller for receiving data from the demodulated data signal; and a driver for driving the electroactive material actuator in dependence on the received data. a plurality of electroactive material actuator units arranged as a set, each electroactive material actuator unit comprising three power line terminals (T1, T2, T3); and three power lines comprising a common reference power line (Vref), a controller power line (Vop) and a driver power line (Vop2), wherein each electroactive material actuator unit is connected in parallel between the three power lines (Vop, Vop2, Vref), the three power lines connecting to the three power line terminals (T1, T2, T3); wherein each electroactive material actuator unit comprises: an electroactive material actuator ; a demodulator for demodulating a data signal carried by at least one (Vop) of the power lines; a controller for receiving data from the demodulated data signal; and a driver for driving the electroactive material actuator in dependence on the received data. an electroactive material actuator ; a demodulator for demodulating a data signal carried by at least one (Vop) of the power lines; a controller for receiving data from the demodulated data signal; and a driver for driving the electroactive material actuator in dependence on the received data.
A body-mountable device comprising a tag , wherein the tag comprises an antenna and a rectification circuit of the body-mountable device , characterised in that : the antenna of the body-mountable device is configured to: receive first electromagnetic radiation during a first period of time, receive second electromagnetic radiation during a second period of time, wherein the received second electromagnetic radiation communicates program instructions, and output a first signal indicative of both a supply voltage of the body-mountable device based on the received first electromagnetic radiation and an indication that the body-mountable device currently has no stored program instructions; the rectification circuit of the body-mountable device is configured to rectify at least the received first electromagnetic radiation to generate the supply voltage; and the tag further comprises: a volatile memory of the body-mountable device, wherein the volatile memory is powered by the supply voltage and configured to store the program instructions communicated via the second electromagnetic radiation; and a processing unit of the body-mountable device configured to execute the program instructions stored in the volatile memory. the antenna of the body-mountable device is configured to: receive first electromagnetic radiation during a first period of time, receive second electromagnetic radiation during a second period of time, wherein the received second electromagnetic radiation communicates program instructions, and output a first signal indicative of both a supply voltage of the body-mountable device based on the received first electromagnetic radiation and an indication that the body-mountable device currently has no stored program instructions; receive first electromagnetic radiation during a first period of time, receive second electromagnetic radiation during a second period of time, wherein the received second electromagnetic radiation communicates program instructions, and output a first signal indicative of both a supply voltage of the body-mountable device based on the received first electromagnetic radiation and an indication that the body-mountable device currently has no stored program instructions; the rectification circuit of the body-mountable device is configured to rectify at least the received first electromagnetic radiation to generate the supply voltage; and the tag further comprises: a volatile memory of the body-mountable device, wherein the volatile memory is powered by the supply voltage and configured to store the program instructions communicated via the second electromagnetic radiation; and a processing unit of the body-mountable device configured to execute the program instructions stored in the volatile memory. a volatile memory of the body-mountable device, wherein the volatile memory is powered by the supply voltage and configured to store the program instructions communicated via the second electromagnetic radiation; and a processing unit of the body-mountable device configured to execute the program instructions stored in the volatile memory.
Auxiliary device for dental procedure, said device comprising a support intended to be placed in a perioral area of a patient, characterized in that the device further comprises a generating member of a gaseous fluid flow exerting a barrier effect between an inner area of the patient's mouth and the outside of the mouth, said generating member of a gaseous fluid flow being formed by at least one duct including at one of its ends an aperture that is placed in the exterior of the perioral area of the patient in front of said support , and the generating member being attached to the support in a central portion.
A method for multi-user multiplexing for block transmissions, comprising: generating a first user signal comprising a plurality of first samples in time domain, the plurality of first samples are generated based on a first discrete-time baseband signal and a first predetermined guard period; performing a first discrete Fourier transform (DFT) operation on the plurality of first samples to obtain a plurality of second samples in frequency domain; performing a first interleaving operation on the plurality of second samples to obtain a plurality of third samples in frequency domain; performing a first inverse-DFT (IDFT) operation on the plurality of third samples to obtain a plurality of fourth samples in time domain; performing a first time shifting on the plurality of fourth samples to obtain a plurality of shifted fourth samples; and sending a block transmission using the plurality of shifted fourth samples, and wherein the first discrete-time baseband signal comprises a modulation on conjugate-reciprocal zeros (MOCZ) symbol. generating a first user signal comprising a plurality of first samples in time domain, the plurality of first samples are generated based on a first discrete-time baseband signal and a first predetermined guard period; performing a first discrete Fourier transform (DFT) operation on the plurality of first samples to obtain a plurality of second samples in frequency domain; performing a first interleaving operation on the plurality of second samples to obtain a plurality of third samples in frequency domain; performing a first inverse-DFT (IDFT) operation on the plurality of third samples to obtain a plurality of fourth samples in time domain; performing a first time shifting on the plurality of fourth samples to obtain a plurality of shifted fourth samples; and sending a block transmission using the plurality of shifted fourth samples, and wherein the first discrete-time baseband signal comprises a modulation on conjugate-reciprocal zeros (MOCZ) symbol.