mhurhangee/patent-ind-claim-en huggingface dataset:
A control panel for an apparatus, in particular for a domestic appliance, wherein: - the control panel comprises at least one front panel including at least one cut-out , - the control panel comprises at least one inner panel including a peripheral rabbet , - the peripheral rabbet encloses at least partially the circumference of the inner panel , so that a smaller flat front portion and a bigger flat rear portion of said inner panel are formed, - the control panel comprises at least one support frame including at least one recess at its front side, - the support frame is connected to a rear side of the front panel , - characterized in that the inner panel is arranged, so that the flat front portion of the inner panel is received by the cut-out of the front panel , while the flat rear portion of the inner panel is received by the recess of the support frame , wherein the inner panel is fastened between the front panel and the support frame , by connecting the support frame to the rear side of the front panel so that no separate fixation of the inner panel is necessary. - the control panel comprises at least one front panel including at least one cut-out , - the control panel comprises at least one inner panel including a peripheral rabbet , - the peripheral rabbet encloses at least partially the circumference of the inner panel , so that a smaller flat front portion and a bigger flat rear portion of said inner panel are formed, - the control panel comprises at least one support frame including at least one recess at its front side, - the support frame is connected to a rear side of the front panel , - characterized in that the inner panel is arranged, so that the flat front portion of the inner panel is received by the cut-out of the front panel , while the flat rear portion of the inner panel is received by the recess of the support frame , wherein the inner panel is fastened between the front panel and the support frame , by connecting the support frame to the rear side of the front panel so that no separate fixation of the inner panel is necessary.
A lyophilized formulation comprising: a hepatic growth factor; trehalose; and one or more compounds selected from the group consisting of arginine, histidine, lysine, meglumine, glutamic acid, aspartic acid, proline, creatine, creatinine, tris(hydroxymethyl)aminomethane, and pharmaceutically acceptable salts thereof. a hepatic growth factor; trehalose; and one or more compounds selected from the group consisting of arginine, histidine, lysine, meglumine, glutamic acid, aspartic acid, proline, creatine, creatinine, tris(hydroxymethyl)aminomethane, and pharmaceutically acceptable salts thereof.
A method at a user equipment , UE, for transmitting on a Licensed-Assisted Access in Long Term Evolution, LAA-LTE, channel, comprising: determining a starting time for transmission on the LAA-LTE channel; determining a length of a hybrid preamble based on the starting time and based on a predetermined transmission time boundary; transmitting , subsequent to determining the length of the hybrid preamble, the hybrid preamble having the determined length; transmitting , subsequent to transmission of the hybrid preamble, a first Long Term Evolution, LTE, signal; receiving a transmission grant that grants a transmission of a second LTE signal, wherein the transmission grant includes an indication to transmit the second LTE signal without a preceding hybrid preamble; and in response to the indication, transmitting the second LTE signal without a preceding hybrid preamble; wherein the hybrid preamble is transmitted in a first subframe prior to the predetermined transmission time boundary, the first subframe comprising an LTE signal adapted to occupy only a subset of fewer than all orthogonal frequency-division multiplexing, OFDM, symbols in the first subframe, and wherein the hybrid preamble is transmitted during a time period corresponding to symbols not within the subset, the first LTE signal being transmitted in a second subframe after the predetermined transmission time boundary determining a starting time for transmission on the LAA-LTE channel; determining a length of a hybrid preamble based on the starting time and based on a predetermined transmission time boundary; transmitting , subsequent to determining the length of the hybrid preamble, the hybrid preamble having the determined length; transmitting , subsequent to transmission of the hybrid preamble, a first Long Term Evolution, LTE, signal; receiving a transmission grant that grants a transmission of a second LTE signal, wherein the transmission grant includes an indication to transmit the second LTE signal without a preceding hybrid preamble; and in response to the indication, transmitting the second LTE signal without a preceding hybrid preamble; wherein the hybrid preamble is transmitted in a first subframe prior to the predetermined transmission time boundary, the first subframe comprising an LTE signal adapted to occupy only a subset of fewer than all orthogonal frequency-division multiplexing, OFDM, symbols in the first subframe, and wherein the hybrid preamble is transmitted during a time period corresponding to symbols not within the subset, the first LTE signal being transmitted in a second subframe after the predetermined transmission time boundary
A system comprising: a user device and a computing device , the user device and the computing device being capable of communicating with each other; the user device comprising a light source for emitting light and a light receiver for receiving light so as to generate image data for an object which reflects light emitted by the light source and which is received by the light receiver, the user device being configured to perform pre-processing of the image data comprising creating a 3D triangular mesh image for the object from the image data and to transmit the pre-processed image data for the 3D triangular mesh image to the computing device ; and the computing device being configured to receive the pre-processed data for the 3D triangular mesh image from the user device and to model a surface of the object captured by the image data based on the received triangular mesh image data. a user device and a computing device , the user device and the computing device being capable of communicating with each other; the user device comprising a light source for emitting light and a light receiver for receiving light so as to generate image data for an object which reflects light emitted by the light source and which is received by the light receiver, the user device being configured to perform pre-processing of the image data comprising creating a 3D triangular mesh image for the object from the image data and to transmit the pre-processed image data for the 3D triangular mesh image to the computing device ; and the computing device being configured to receive the pre-processed data for the 3D triangular mesh image from the user device and to model a surface of the object captured by the image data based on the received triangular mesh image data.
A display device in which a display is received in a display cover , produced from a transparent material, to provide a clear view of the display, wherein the display cover formed in one piece covers the display , the display cover is provided with at least one guide groove for insertion of the display , and the display in the inserted position is held in a sprung manner by at least one spring arm latching behind the end of the display, characterised in that there is provision for a light-guiding plate to be received in the display cover , wherein grooves (301', 301", 302', 302") and holding devices (303', 303") are arranged on the display cover and are used to guide and receive a light-guiding plate .
Multiple drive for a heavy-load application, wherein the multiple drive comprises a plurality of drive trains and is configured such that, when the heavy-load application is started, individual drive trains are successively activated automatically in the course of a prescribed activation strategy, wherein the individual drive trains are activated in the course of the activation strategy in a way corresponding to a prescribed or prescribable activation scheme and an activation sequence defined there, characterized in that when the heavy-load application is started a number of times, different activation schemes are used in each case. wherein the individual drive trains are activated in the course of the activation strategy in a way corresponding to a prescribed or prescribable activation scheme and an activation sequence defined there, characterized in that when the heavy-load application is started a number of times, different activation schemes are used in each case.
A method for manufacturing a laminate , consisting of: forming a printed portion on a substrate ; forming a first adhesive composite layer comprising the printed portion and an adhesive portion by coating an adhesive composition such that the printed portion is embedded therein, followed by curing the adhesive composition; stacking a release film layer on an outermost surface of the laminate such that the first adhesive composite layer and the release film layer are sequentially stacked on the substrate; forming a second adhesive layer by coating the adhesive composition onto the other surface of the substrate , on which the printed portion is not formed, followed by curing the adhesive composition; and stacking a second release film on the other surface of the substrate, on which the printed portion is not formed, via the second adhesive layer , wherein the adhesive composition is coated onto the substrate and the printed portion such that the first adhesive composite layer has a flat upper surface, the adhesive portion exhibiting adhesion is formed by coating the adhesive composition, followed by curing the adhesive composition for 0.1 minutes to 10 minutes through irradiation with light having a wavelength of 180 nm to 400 nm. forming a printed portion on a substrate ; forming a first adhesive composite layer comprising the printed portion and an adhesive portion by coating an adhesive composition such that the printed portion is embedded therein, followed by curing the adhesive composition; stacking a release film layer on an outermost surface of the laminate such that the first adhesive composite layer and the release film layer are sequentially stacked on the substrate; forming a second adhesive layer by coating the adhesive composition onto the other surface of the substrate , on which the printed portion is not formed, followed by curing the adhesive composition; and stacking a second release film on the other surface of the substrate, on which the printed portion is not formed, via the second adhesive layer , wherein the adhesive composition is coated onto the substrate and the printed portion such that the first adhesive composite layer has a flat upper surface, the adhesive portion exhibiting adhesion is formed by coating the adhesive composition, followed by curing the adhesive composition for 0.1 minutes to 10 minutes through irradiation with light having a wavelength of 180 nm to 400 nm.
A catalyst for preparing chloroethylene by cracking 1,2-dichloroethane, wherein the catalyst comprises a carrier and a nitrogen-containing carbon material as an active component of the catalyst; and the nitrogen-containing carbon material is loaded on the carrier; the carrier is at least one selected from inorganic porous materials, wherein the inorganic porous material is at least one selected from the group consisting of silicon oxide, aluminum oxide, titanium oxide, and zirconium oxide; in the nitrogen-containing carbon material, a nitrogen element is doped in the carbon material in a form of covalent bond, wherein the mass percentage of the nitrogen element in the nitrogen-containing carbon material is in a range from 0.1 % to 20%. in the nitrogen-containing carbon material, a nitrogen element is doped in the carbon material in a form of covalent bond, wherein the mass percentage of the nitrogen element in the nitrogen-containing carbon material is in a range from 0.1 % to 20%.
A method for mapping and controlling network-enabled appliances with a control device , the method comprising: collecting spatial information in three dimensions with at least one sensor of the control device being moved within an environment; receiving registration signals from network-enabled appliances in the environment; associating each network-enabled appliance with a respective three-dimensional, 3D, position in the environment based on the spatial information; registering each network-enabled appliance with the control device to create a registration log; generating a digital map of the environment from the spatial information; placing a representation of each network-enabled appliance on the digital map based on the respective 3D position; generating a spatially aware rule set that applies to one or more rooms within the environment based upon the spatial information and the registration log, wherein rules are chosen from among a plurality of pre-programmed rules stored in a memory based on comparing conditions of the network enabled appliance , said conditions including types and threshold distances of the network enabled appliance , with the detected configuration of the network-enabled appliances as determined by the spatial information and registration log; detecting a trigger event; and in response to the trigger event, commanding the network-enabled appliances within the room or rooms according to the spatially aware rule set. collecting spatial information in three dimensions with at least one sensor of the control device being moved within an environment; receiving registration signals from network-enabled appliances in the environment; associating each network-enabled appliance with a respective three-dimensional, 3D, position in the environment based on the spatial information; registering each network-enabled appliance with the control device to create a registration log; generating a digital map of the environment from the spatial information; placing a representation of each network-enabled appliance on the digital map based on the respective 3D position; generating a spatially aware rule set that applies to one or more rooms within the environment based upon the spatial information and the registration log, wherein rules are chosen from among a plurality of pre-programmed rules stored in a memory based on comparing conditions of the network enabled appliance , said conditions including types and threshold distances of the network enabled appliance , with the detected configuration of the network-enabled appliances as determined by the spatial information and registration log; detecting a trigger event; and in response to the trigger event, commanding the network-enabled appliances within the room or rooms according to the spatially aware rule set.
A chilled beam system, comprising a supply and exhaust air terminal device comprising: a supply air chamber into which supply air is led through at least one supply air opening from a supply air duct, wherein the supply air chamber is arranged in the first end of the chilled beam; and an exhaust air chamber through which exhaust air is led from a room space into an exhaust air duct through at least one exhaust air opening, wherein the exhaust air chamber is arranged in the second end of the chilled beam and separated from the supply air chamber ; characterized in that the air terminal device further comprises: an adjusting device configured to adjust the at least one supply air opening and the at least one exhaust air opening; and an actuator for displacing the adjusting device , whereby, when in use, displacing the adjusting device causes the air flow to be obstructed through the at least one supply air opening and through the at least one exhaust air opening. a supply air chamber into which supply air is led through at least one supply air opening from a supply air duct, wherein the supply air chamber is arranged in the first end of the chilled beam; and an exhaust air chamber through which exhaust air is led from a room space into an exhaust air duct through at least one exhaust air opening, wherein the exhaust air chamber is arranged in the second end of the chilled beam and separated from the supply air chamber ; characterized in that the air terminal device further comprises: an adjusting device configured to adjust the at least one supply air opening and the at least one exhaust air opening; and an actuator for displacing the adjusting device , whereby, when in use, displacing the adjusting device causes the air flow to be obstructed through the at least one supply air opening and through the at least one exhaust air opening. an adjusting device configured to adjust the at least one supply air opening and the at least one exhaust air opening; and an actuator for displacing the adjusting device , whereby, when in use, displacing the adjusting device causes the air flow to be obstructed through the at least one supply air opening and through the at least one exhaust air opening.
A servomotor system , comprising: an enclosure ; a motor stator and rotor disposed in the enclosure; a motor brake disposed in the enclosure and configured to selectively brake the rotor from rotation; a brake control switch disposed in the enclosure and coupled to the motor brake for selectively providing power to the motor brake for selectively engaging and/or disengaging the brake; an input/output circuit disposed in the enclosure and coupled to the brake control switch for applying control signals to the brake control switch, the brake control switch being configured to selectively engage and/or disengage the brake in response to the control signals; circuitry external to the enclosure configured to apply brake signals to the input/output circuit for control of the brake, the circuitry external to the enclosure comprising a servo drive configured to provide power to the stator; characterised in that the servomotor system further comprises: a source of power within the enclosure, wherein the input/output circuit and the brake control switch are coupled to the source of power; and a connector to electrically couple the stator and the input/output circuit to the power source. an enclosure ; a motor stator and rotor disposed in the enclosure; a motor brake disposed in the enclosure and configured to selectively brake the rotor from rotation; a brake control switch disposed in the enclosure and coupled to the motor brake for selectively providing power to the motor brake for selectively engaging and/or disengaging the brake; an input/output circuit disposed in the enclosure and coupled to the brake control switch for applying control signals to the brake control switch, the brake control switch being configured to selectively engage and/or disengage the brake in response to the control signals; circuitry external to the enclosure configured to apply brake signals to the input/output circuit for control of the brake, the circuitry external to the enclosure comprising a servo drive configured to provide power to the stator; characterised in that the servomotor system further comprises: a source of power within the enclosure, wherein the input/output circuit and the brake control switch are coupled to the source of power; and a connector to electrically couple the stator and the input/output circuit to the power source. a source of power within the enclosure, wherein the input/output circuit and the brake control switch are coupled to the source of power; and a connector to electrically couple the stator and the input/output circuit to the power source.
An oxide superconducting bulk magnet comprising a plurality of columnar oxide superconducting bulk materials , each of the columnar oxide superconducting bulk materials having a structure of a single-crystal form RE 1 Ba 2 Cu 3 O y (RE is one or more elements selected from Y or rare earth elements, where 6.8≤y≤7.1) in which RE 2 BaCuO 5 is dispersed and comprising a top surface, a bottom surface, and side surfaces, the columnar oxide superconducting bulk materials being combined together, wherein each of bulk material units comprises the oxide superconducting bulk material and a bulk material reinforcing member arranged so as to cover side surfaces of the oxide superconducting bulk material, the bulk material units being arranged so as to face the same direction and contacting each other to form an assembly, wherein side surfaces of the assembly are covered by an assembly side surface reinforcing member , wherein the assembly side surface reinforcing member is thicker than the bulk material reinforcing members, wherein said bulk material reinforcing member has a thickness of 5.0 mm or less, wherein a top surface and a bottom surface of the assembly are respectively covered by an assembly top reinforcing member and an assembly bottom reinforcing member , and wherein the assembly side surface reinforcing member, the assembly top reinforcing member, and the assembly bottom reinforcing member are joined into an integral unit. wherein each of bulk material units comprises the oxide superconducting bulk material and a bulk material reinforcing member arranged so as to cover side surfaces of the oxide superconducting bulk material, the bulk material units being arranged so as to face the same direction and contacting each other to form an assembly, wherein side surfaces of the assembly are covered by an assembly side surface reinforcing member , wherein the assembly side surface reinforcing member is thicker than the bulk material reinforcing members, wherein said bulk material reinforcing member has a thickness of 5.0 mm or less, wherein a top surface and a bottom surface of the assembly are respectively covered by an assembly top reinforcing member and an assembly bottom reinforcing member , and wherein the assembly side surface reinforcing member, the assembly top reinforcing member, and the assembly bottom reinforcing member are joined into an integral unit.
Device for the automated operation of a zip fastener comprising at least one electromotive drive and mechanical drive bodies for moving the device for opening and closing a zip fastener, characterized in that - the device is formed from two housing halves , which surround a zip slider with or without an operating tab arranged thereon on the zip fastener , - wherein these housing halves are connected to one another in an articulated manner by means of a connecting joint in such a way - that they can be opened for arranging on a zip slider and closed again for later operation on the zip fastener, - wherein the housing halves are pressed against one another by way of a compression spring between the housing halves at the jointed connection . - the device is formed from two housing halves , which surround a zip slider with or without an operating tab arranged thereon on the zip fastener , - wherein these housing halves are connected to one another in an articulated manner by means of a connecting joint in such a way - that they can be opened for arranging on a zip slider and closed again for later operation on the zip fastener, - wherein the housing halves are pressed against one another by way of a compression spring between the housing halves at the jointed connection .