mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for positioning a window or a door in a building opening, said apparatus comprising at least one spacer element (19, 49, 69) which has a coupling section (27, 67) for a coupling to the window or to the door and a contact section configured for a placement at a border of the building opening, wherein an adjustment device is provided for a displacement of the window or of the door within the building opening, by means of which adjustment device the contact section is adjustable relative to the coupling section (27, 57) in and against an adjustment direction, wherein the adjustment device has a first threaded spindle which extends along the adjustment direction, which can be supported in or against the adjustment direction at the coupling section (27, 57) or at the contact section and which cooperates with a first spindle nut which can be supported in the opposite direction at the other one of the coupling section (27, 57) and contact section, characterized in that the adjustment device has a second threaded spindle which extends along the adjustment direction and which cooperates with a second spindle nut such that the contact section is adjustable relative to the coupling section (27, 57) in and against the adjustment direction both by a rotation of the first spindle nut with respect to the first threaded spindle and by a rotation of the second spindle nut with respect to the second threaded spindle, with the first threaded spindle and the second threaded spindle having different thread pitches.
Vehicle lift comprising: - at least one column, - at least one carriage slidably movable along the column, said carriage comprising at least one lifting arm configured to contact a vehicle to allow the lifting thereof, - a movement system configured to move the carriage along the column, the movement system comprising: o at least one rotary member, o at least one electric motor configured to rotate said rotary member, characterised by the fact that the rotary member has a plurality of blades configured to generate an airflow during the rotation of the rotary member itself. - at least one column, - at least one carriage slidably movable along the column, said carriage comprising at least one lifting arm configured to contact a vehicle to allow the lifting thereof, - a movement system configured to move the carriage along the column, the movement system comprising: o at least one rotary member, o at least one electric motor configured to rotate said rotary member, o at least one rotary member, o at least one electric motor configured to rotate said rotary member,
Hybrid vehicle having a tank device, wherein the hybrid vehicle comprises an electric drive with an energy storage device for the electric drive, and an internal combustion engine, wherein the tank device comprises a tank for storing the fuel for the internal combustion engine, wherein the hybrid vehicle comprises a cooling circuit with a circulating cooling medium, wherein the cooling circuit is designed in such a way that the energy storage device can be cooled by the cooling medium in the cooling circuit, wherein the cooling circuit runs through the tank, thus enabling the fuel in the tank to be cooled by the cooling medium in the cooling circuit, characterized in that the hybrid vehicle comprises a control unit, wherein the control unit selectively passes the cooling medium through the cooling circuit in the tank or not, with the result that the fuel in the tank is cooled or not by the cooling medium in the cooling circuit, wherein a temperature sensor and/or a pressure sensor is arranged in the tank, and the control unit is configured to pass the cooling medium through the cooling circuit in the tank if the temperature at the temperature sensor and/or the pressure at the pressure sensor in each case exceed/s predetermined limit values, wherein the cooling medium in the cooling circuit is cooled by a refrigerant circuit of an air-conditioning system, wherein the refrigerant circuit comprises a refrigerant compressor, wherein the refrigerant compressor can also be operated when the internal combustion engine is not in operation.
A dynamic random access memory device configured to keep a plurality of rows open, the dynamic random access memory device comprising: a memory array comprising data elements organized into rows and columns, each of the rows being addressable by a row address, each of the data elements in each of the rows being addressable by a column address; a set of row address buffers for holding a selected row address of a set of successive selected row addresses; a set of row data buffers for holding respective contents of selected rows corresponding to the set of successive selected row addresses; a row decoder coupled to at least one row address buffer and to the memory array for receiving the selected row address and for decoding the selected row address to access a selected row of the memory array; a multiplexer coupled to the set of row address buffers and coupled to the row decoder for selecting a row address being held in a selected one of the row address buffers and for providing the selected row address to the row decoder; an array of sense amplifiers coupled to the memory array and coupled to the set of row data buffers for reading the selected row and transmitting content of the selected row to one of the row data buffers, and for writing the content of the selected row back to the selected row; and a demultiplexer coupled to the array of sense amplifiers and the set of row data buffers for providing the content of the selected row from the array of sense amplifiers to the one of the row data buffers. a memory array comprising data elements organized into rows and columns, each of the rows being addressable by a row address, each of the data elements in each of the rows being addressable by a column address; a set of row address buffers for holding a selected row address of a set of successive selected row addresses; a set of row data buffers for holding respective contents of selected rows corresponding to the set of successive selected row addresses; a row decoder coupled to at least one row address buffer and to the memory array for receiving the selected row address and for decoding the selected row address to access a selected row of the memory array; a multiplexer coupled to the set of row address buffers and coupled to the row decoder for selecting a row address being held in a selected one of the row address buffers and for providing the selected row address to the row decoder; an array of sense amplifiers coupled to the memory array and coupled to the set of row data buffers for reading the selected row and transmitting content of the selected row to one of the row data buffers, and for writing the content of the selected row back to the selected row; and a demultiplexer coupled to the array of sense amplifiers and the set of row data buffers for providing the content of the selected row from the array of sense amplifiers to the one of the row data buffers.
A method of transmitting control information by an eNode B in a wireless communication system supporting carrier aggregation, the method comprising: configuring a component carrier type of each of a plurality of downlink component carriers, DL CCs, based on whether each of a plurality of the downlink component carriers supports an Relay-Physical Downlink Control Channel, R-PDCCH, corresponding to a relay dedicated downlink control channel; and transmitting, information on the configured type of each of a plurality of the downlink component carriers, to a relay node, wherein the method is characterized in that: the component carrier type comprises an R-PDCCH supportable type and an R-PDCCH non-supportable type, for an R-PDCCH supportable type component carrier, layer 1 control information or layer 2 control information is transmitted to the relay node via a Physical Downlink Control Channel, PDCCH, or the R-PDCCH, and for an R-PDCCH non-supportable type component carrier, the layer 1 control information or the layer 2 control information is transmitted to the relay node only via the PDCCH. configuring a component carrier type of each of a plurality of downlink component carriers, DL CCs, based on whether each of a plurality of the downlink component carriers supports an Relay-Physical Downlink Control Channel, R-PDCCH, corresponding to a relay dedicated downlink control channel; and transmitting, information on the configured type of each of a plurality of the downlink component carriers, to a relay node, wherein the method is characterized in that: the component carrier type comprises an R-PDCCH supportable type and an R-PDCCH non-supportable type, for an R-PDCCH supportable type component carrier, layer 1 control information or layer 2 control information is transmitted to the relay node via a Physical Downlink Control Channel, PDCCH, or the R-PDCCH, and for an R-PDCCH non-supportable type component carrier, the layer 1 control information or the layer 2 control information is transmitted to the relay node only via the PDCCH. the component carrier type comprises an R-PDCCH supportable type and an R-PDCCH non-supportable type, for an R-PDCCH supportable type component carrier, layer 1 control information or layer 2 control information is transmitted to the relay node via a Physical Downlink Control Channel, PDCCH, or the R-PDCCH, and for an R-PDCCH non-supportable type component carrier, the layer 1 control information or the layer 2 control information is transmitted to the relay node only via the PDCCH.
A device for charging an electric vehicle, the device comprising: a plurality of base pads each pad comprising a charging coil configured to charge the electric vehicle; at least two vehicle pads on the vehicle, wherein a vehicle pad pitch represents the distance between the vehicle pads from center to center; a plurality of control units configured to selectively distribute power to one of the charging coils; a plurality of charging coil switches configured to selectively couple one of the charging coils to one of the control units, and characterized by: a center to center distance between any two base pads being less the vehicle pad pitch. a plurality of base pads each pad comprising a charging coil configured to charge the electric vehicle; at least two vehicle pads on the vehicle, wherein a vehicle pad pitch represents the distance between the vehicle pads from center to center; a plurality of control units configured to selectively distribute power to one of the charging coils; a plurality of charging coil switches configured to selectively couple one of the charging coils to one of the control units, and characterized by: a center to center distance between any two base pads being less the vehicle pad pitch.
A device-to-device, D2D, wireless communication method performed by a user equipment, UE, comprising: continuing D2D transmission by using a resource from a transmission resource pool allocated for mode 2 operation when switching from mode 1 operation to mode 2 operation, wherein the transmission resource pool is indicated in a physical device-to-device shared channel, PD2DSCH, transmitted by one or more other UE(s), in mode 1, an eNode B schedules resources to be used by the UE to transmit direct data and direct control information, and in mode 2, the UE on its own selects resources from resource pools to transmit direct data and direct control information. continuing D2D transmission by using a resource from a transmission resource pool allocated for mode 2 operation when switching from mode 1 operation to mode 2 operation, wherein the transmission resource pool is indicated in a physical device-to-device shared channel, PD2DSCH, transmitted by one or more other UE(s), in mode 1, an eNode B schedules resources to be used by the UE to transmit direct data and direct control information, and in mode 2, the UE on its own selects resources from resource pools to transmit direct data and direct control information.
A device for predicting an intradialytic parameter, that is blood pressure, and for the prospective ultrafiltration adaptation of the ultrafiltration rate, UF rate, as a function of the predicted blood pressure progress, wherein at least one learning algorithm and/or at least one neural network are provided, the device being configured to set the progress of the UF rate as a function of the blood pressure progress such that the UF rate is already being lowered before a sharp drop in the systolic blood pressure actually occurs, wherein the device is furthermore configured such that a subsequent, new rise in the blood pressure is also predicted in a prospective manner and the UF rate is again increased before the blood pressure actually sharply rises, comprising a memory device for storing patient-individual intradialytic parameters, laboratory parameters, and/or machine parameters, which can be used in the prognosis of the blood pressure during a dialysis treatment, and comprising a system which uses the prognosis of the blood pressure as an input and automatically takes countermeasures in the form of a UF rate reduction, wherein the device is configured to include blood pressures which have been measured during the therapy unit in the evaluation and recalculation of the prognosis carried out during the therapy unit to improve the prognosis quality.
A rotating electrical machine, comprising: a stator that includes a stator core and a stator coil; a rotor that rotates with respect to the stator; a refrigerant supply port through which a cooling medium is supplied to a coil end protruding from the stator core; and a guide member, disposed along at least a part of the coil end, for causing the cooling medium supplied through the refrigerant supply port to flow along the coil end; characterized in that the stator coil is wound on a tooth of the stator core through a bobbin; a flange extending in a rotation axis direction of the rotor is formed at an axial end of the bobbin; and an end portion of the flange is bent in a radial direction of the rotor so as to form the guide member. a stator that includes a stator core and a stator coil; a rotor that rotates with respect to the stator; a refrigerant supply port through which a cooling medium is supplied to a coil end protruding from the stator core; and a guide member, disposed along at least a part of the coil end, for causing the cooling medium supplied through the refrigerant supply port to flow along the coil end; characterized in that the stator coil is wound on a tooth of the stator core through a bobbin; a flange extending in a rotation axis direction of the rotor is formed at an axial end of the bobbin; and an end portion of the flange is bent in a radial direction of the rotor so as to form the guide member.
A method for selecting a therapeutic treatment for a subject having heart failure comprising the steps of: (a) performing an assay to determine a level of galectin-3 in a biological sample from a subject having heart failure; (b) comparing the level of galectin-3 in the biological sample of (a) to a reference level of galectin-3; (c) identifying a subject having an elevated level of galectin-3 in the biological sample of (a) as compared to the reference level of galectin-3; (d) performing an assay to determine the level of soluble ST2 in a biological sample from the identified subject; (e) comparing the level of soluble ST2 in the biological sample of (d) to a reference level of soluble ST2; and (f) selecting inpatient treatment for an identified subject having an elevated level of soluble ST2 in the biological sample of (d) as compared to the reference level of soluble ST2, or selecting outpatient treatment for an identified subject having a non-elevated level of soluble ST2 in the biological sample of (d) as compared to the reference level of soluble ST2, wherein: the reference level of soluble ST2 falls within the range of 1.0 to 25 ng/mL; and the outpatient treatment comprises administration of a therapeutic agent selected from the group consisting of: nitrates, calcium channel blockers, diuretics, thrombolytic agents, digitalis, renin-angiotensin-aldosterone system (RAAS) modulating agents, and cholesterol-lowering agents. (a) performing an assay to determine a level of galectin-3 in a biological sample from a subject having heart failure; (b) comparing the level of galectin-3 in the biological sample of (a) to a reference level of galectin-3; (c) identifying a subject having an elevated level of galectin-3 in the biological sample of (a) as compared to the reference level of galectin-3; (d) performing an assay to determine the level of soluble ST2 in a biological sample from the identified subject; (e) comparing the level of soluble ST2 in the biological sample of (d) to a reference level of soluble ST2; and (f) selecting inpatient treatment for an identified subject having an elevated level of soluble ST2 in the biological sample of (d) as compared to the reference level of soluble ST2, or selecting outpatient treatment for an identified subject having a non-elevated level of soluble ST2 in the biological sample of (d) as compared to the reference level of soluble ST2, the reference level of soluble ST2 falls within the range of 1.0 to 25 ng/mL; and the outpatient treatment comprises administration of a therapeutic agent selected from the group consisting of: nitrates, calcium channel blockers, diuretics, thrombolytic agents, digitalis, renin-angiotensin-aldosterone system (RAAS) modulating agents, and cholesterol-lowering agents.
A method of arranging a bird having a body and two legs (21,22) in a position for being suspended from a shackle, said body having a breast and a back and each leg comprising a breast side, a back side, a thigh connected to the body at a hip joint, a drumstick connected to the thigh, a shank connected to the drumstick at a hock joint and a foot with digits, said method comprising the following sequence of steps: I) placing the body of the bird on a support surface with the breast side facing the support surface, II) inserting at least one spreading member (30,30a,30b) of a spreading mechanism between the legs of the bird, so that the breast side of at least one leg comes to rest on a contact surface of the spreading member, III) forcing the legs away from each other using the spreading mechanism, so that the distance between the hock joints becomes bigger than the distance between the hip joints in a direction perpendicular to the length direction of both legs. I) placing the body of the bird on a support surface with the breast side facing the support surface, II) inserting at least one spreading member (30,30a,30b) of a spreading mechanism between the legs of the bird, so that the breast side of at least one leg comes to rest on a contact surface of the spreading member, III) forcing the legs away from each other using the spreading mechanism, so that the distance between the hock joints becomes bigger than the distance between the hip joints in a direction perpendicular to the length direction of both legs.
A process for removal of plastics from a lipid material, the process comprising the steps of: a) heating the lipid material, b) adding water to the lipid material, wherein the amount of added water is 0.1% to 5% (wt%) wherein the added water does not comprise an acid, c) allowing efficient contact of water and lipids to enable impurities to transfer to water phase, d) separating the lipid material from step c) by centrifugation, settling, decanting or evaporating, e) subjecting the separated lipid material from step d) to a filtration step to remove solid impurities, f) optionally subjecting the lipid material from step d) or filtrate from step e) to a post treatment to thereby remove plastics in the lipid material. a) heating the lipid material, b) adding water to the lipid material, wherein the amount of added water is 0.1% to 5% (wt%) wherein the added water does not comprise an acid, c) allowing efficient contact of water and lipids to enable impurities to transfer to water phase, d) separating the lipid material from step c) by centrifugation, settling, decanting or evaporating, e) subjecting the separated lipid material from step d) to a filtration step to remove solid impurities, f) optionally subjecting the lipid material from step d) or filtrate from step e) to a post treatment
A service development method, comprising: a service development platform processing a service request of a user equipment, the UE dialing service access codes, and initiating the service request; the service development platform establishing a media channel with the UE; the service development platform loading a WEB page on a WEB browser according to the service request of the UE; the service development platform capturing data of the WEB page on the WEB browser and sending the captured data of the WEB page after encapsulation to the UE through the media channel; and the service development platform receiving key information of the UE through the media channel, and sending the key information of the UE to the WEB browser in manner of a windows message, so as to realize an operation on the WEB page; wherein, a plurality of WEB browsers run on the service development platform; the method further comprises: the service development platform allocating a media resource to the UE which initiates the service request, wherein the step of allocating comprises allocating an idle WEB browser to the UE; when establishing the media channel with the UE, the service development platform further negotiates an audio/video media type and an encoding type; and the data of the WEB page captured by the service development platform comprises audio/video data; after capturing the data of the WEB page, the service development platform encapsulates the captured data of the WEB page into an RTP package according to the negotiated audio/video media type and encoding type and then sends to the UE through the media channel.
Perfuming station for industrial laundry comprising a spray chamber, a conveyor belt configured to transport a stack of stacked garments and a PLC controller configured to control the operation of the perfuming station, wherein the spray chamber is provided with a plurality of nozzles (330R, 330L, 340R, 340L, 350R, 350L) each one of which is configured to be connected to at least one tank containing a respective perfumed fragrance, wherein said nozzles (330R, 330L, 340R, 340L, 350R, 350L) are arranged symmetrically to each other with respect to a longitudinal axis of advance of the conveyor belt and configured to spray said perfumed fragrance on exposed peripheral faces (520, 530, 540R, 540L, 550) of the stack transported on the conveyor belt.
Conductivly finished carbon fiber made up of carbon-fiber filaments with a metal coating, characterized in that - the carbon-fiber filaments comprise a preparation disposed on the metal coating, the preparation being based on at least one polymeric binder and comprising conductive nanoparticles, and that - the concentration of the metal coating is 8 to 25 wt % and the concentration of the conductive nanoparticles is 0.1 to 1 wt %, relative to the weight of the carbon fibers which are provided with the metal coating and the preparation. - the carbon-fiber filaments comprise a preparation disposed on the metal coating, the preparation being based on at least one polymeric binder and comprising conductive nanoparticles, and that - the concentration of the metal coating is 8 to 25 wt % and the concentration of the conductive nanoparticles is 0.1 to 1 wt %, relative to the weight of the carbon fibers which are provided with the metal coating and the preparation.