mhurhangee/patent-ind-claim-en huggingface dataset:
A control device, in particular for a domestic appliance, wherein: - the control device comprises at least one front panel , - the control device comprises at least one button panel arranged behind the front panel , - the control device comprises at least one switch being responsive to touching a switchable area on a front side of the front panel by a user, - the switch includes at least one light source element arranged at a rear side of the button panel and provided for illuminating the rear side of the front panel , - the switch includes at least one reflector element arranged behind the button panel and the at least one light source element and provided for reflecting the light from the at least one light source element to the rear side of the button panel , and - the button panel includes at least one cut-out corresponding with one switchable area of the switch or with more switchable areas of neighboured switches , so that the light can pass through the cut-out and the front panel out of the control device, wherein, the reflector element is formed as a half-shell and includes a first reflecting zone and a second reflecting zone , wherein the first reflecting zone is flat and arranged behind the at least one light source element and the second reflecting zone is concave shaped and arranged behind the cut-out , and wherein at least one conductor track encloses the cut-out on a front side or rear side of the button panel , wherein the at least one conductor track is responsive to touching the switchable area in front of the cut-out. - the control device comprises at least one front panel , - the control device comprises at least one button panel arranged behind the front panel , - the control device comprises at least one switch being responsive to touching a switchable area on a front side of the front panel by a user, - the switch includes at least one light source element arranged at a rear side of the button panel and provided for illuminating the rear side of the front panel , - the switch includes at least one reflector element arranged behind the button panel and the at least one light source element and provided for reflecting the light from the at least one light source element to the rear side of the button panel , and - the button panel includes at least one cut-out corresponding with one switchable area of the switch or with more switchable areas of neighboured switches , so that the light can pass through the cut-out and the front panel out of the control device,
Wind turbine plant (S) comprising at least one rotor and a floating base , wherein the floating base comprises at least one buoyant hollow body , wherein a transformer station , but at least parts of a transformer station , are installed in the hollow bodies of the floating base , wherein a plurality of separately controllable circuit breakers (19.1, 19.2, ... , 19.n, 22) are arranged on the input side of the transformer station .
Method for fabricating and/or aligning an optical component , in particular a thin phase plate , within a beam path of an optical assembly , - wherein the optical component forms part of said optical assembly , and - wherein the optical assembly comprises at least one optical element that can receive light from or propagate light to said optical component along the beam path , wherein, - the optical component features an initially tunable freeform optical surface ; - the optical component is arranged in the optical assembly at its final location within the assembly ; - using an actuator , the freeform optical surface is tuned in-situ into a tuned shape according to an optimization goal, which may be a quantity to be maximized or a set of conditions to be optimized such as increasing the modulation transfer function of the overall assembly ; - the tuned shape of the freeform optical surface is fixed - to convert the freeform optical surface into a non-tunable frozen surface shape and thus - to transform the component into a passive optical component of the optical assembly . - wherein the optical component forms part of said optical assembly , and - wherein the optical assembly comprises at least one optical element that can receive light from or propagate light to said optical component along the beam path , wherein, - the optical component features an initially tunable freeform optical surface ; - the optical component is arranged in the optical assembly at its final location within the assembly ; - using an actuator , the freeform optical surface is tuned in-situ into a tuned shape according to an optimization goal, which may be a quantity to be maximized or a set of conditions to be optimized such as increasing the modulation transfer function of the overall assembly ; - the tuned shape of the freeform optical surface is fixed - to convert the freeform optical surface into a non-tunable frozen surface shape and thus - to transform the component into a passive optical component of the optical assembly . - to convert the freeform optical surface into a non-tunable frozen surface shape and thus - to transform the component into a passive optical component of the optical assembly .
Separation system , in particular grease separation system, comprising connecting nozzles and a separation container , which has a first and a second opening , to each of which a connecting nozzle is assigned, wherein the first opening has a first overflow level (A) and the second opening has a second overflow level (B), and one of the two connecting nozzles defines a first waste water level (C, D) due to its orientation when the connecting nozzle is attached to an opening and the other of the two connecting nozzles defines a second waste water level (C, D) due to its orientation when the connecting nozzle is attached to the other opening, wherein a connecting nozzle can be attached to one of the two openings in a position in which its waste-water level (C, D) is at a height which is different from the waste-water level (C, D) of the connecting nozzle attached to the other opening , and the waste water level (C, D) of said one nozzle differs from the overflow level (A, B) of the opening to which said nozzle is attached, characterized in that the first opening and the second opening comprise positioning means which determine the attachment of a connecting nozzle to the respective opening in a respective orientation in which the waste water level (C, D) of the connecting nozzle is approximately the same at both openings .
An ion exchanging apparatus, comprising: an outer vessel that has an inner space ; and an ion exchanger support (4; 34; 53) that separates at least a part of the inner space into an upper space and a lower space and that can support ion exchangers to be loaded in the upper space , wherein at least a part of an upper surface of the ion exchanger support (4; 34; 53) supports the ion exchangers , the ion exchanger support (4; 34; 53) having a flow path allowing water treated by the ion exchangers to flow into the lower space , the ion exchanger support (4;34; 53) having at least one screen (5; 35) that supports the ion exchangers and a screen support plate that supports the at least one screen (5; 35), characterized in that the screen (5; 35) includes wire members that are positioned apart from each other and that extend in one direction and support rods that extend to cross the wire members and that support the wire members , the ion exchanging apparatus further comprising air supply means that supplies an upward airflow to a plurality of points on the at least one screen (5; 35), wherein the air supply means includes an air supply nozzle that is provided on a side surface of the outer vessel and that is open at the lower space and a plurality of pipes that extend from the screen support plate to the lower space , wherein each of the pipes is connected to the screen (5; 35) and has an opening that is provided on a part of a side surface of the pipe , and lower ends of the pipes are located below lower end of the air supply nozzle . an outer vessel that has an inner space ; and an ion exchanger support (4; 34; 53) that separates at least a part of the inner space into an upper space and a lower space and that can support ion exchangers to be loaded in the upper space , wherein at least a part of an upper surface of the ion exchanger support (4; 34; 53) supports the ion exchangers , the ion exchanger support (4; 34; 53) having a flow path allowing water treated by the ion exchangers to flow into the lower space , the ion exchanger support (4;34; 53) having at least one screen (5; 35) that supports the ion exchangers and a screen support plate that supports the at least one screen (5; 35), characterized in that the screen (5; 35) includes wire members that are positioned apart from each other and that extend in one direction and support rods that extend to cross the wire members and that support the wire members , the ion exchanging apparatus further comprising air supply means that supplies an upward airflow to a plurality of points on the at least one screen (5; 35), wherein the air supply means includes an air supply nozzle that is provided on a side surface of the outer vessel and that is open at the lower space and a plurality of pipes that extend from the screen support plate to the lower space , wherein each of the pipes is connected to the screen (5; 35) and has an opening that is provided on a part of a side surface of the pipe , and lower ends of the pipes are located below lower end of the air supply nozzle .
A method of communications at a wireless device, comprising: receiving , at the wireless device, a first signal from a millimeter wave base station, the first signal beamformed on a plurality of beamforming vectors from a first codebook; scanning at least a portion of a plurality of antenna subarrays with a plurality of beamforming vectors from a subarray selection codebook to identify a quality of the first signal received at the portion of the plurality of antenna subarrays; wherein the subarray selection codebook comprises a codebook designed to mitigate near-field impairments; and selecting an antenna subarray from the scanned portion of the plurality of antenna subarrays based at least in part on the identified quality of the first signal. receiving , at the wireless device, a first signal from a millimeter wave base station, the first signal beamformed on a plurality of beamforming vectors from a first codebook; scanning at least a portion of a plurality of antenna subarrays with a plurality of beamforming vectors from a subarray selection codebook to identify a quality of the first signal received at the portion of the plurality of antenna subarrays; wherein the subarray selection codebook comprises a codebook designed to mitigate near-field impairments; and selecting an antenna subarray from the scanned portion of the plurality of antenna subarrays based at least in part on the identified quality of the first signal.
A method for determining parameters that can provide information on the state of a water distribution system comprising at least one duct capable of transporting water , the method comprising the following steps: - an import step (IMPORT) suitable for importing, to a computer (C), input values (VE) of at least one previously measured parameter of the water, recorded at at least one entry point of the water distribution system and over a recording period (Δt recording ) comprising at least one recording date (t recording ); - a selection step (SELECT) suitable for selecting at least one current point ; - an association step (ASSO) suitable for associating said current point with at least one entry point in the water distribution system ; - a determination step (DETER) suitable for determining a current value (VC) of said at least one parameter of the water at the current point from input values (VE) at said at least one entry point associated with the current point . - an import step (IMPORT) suitable for importing, to a computer (C), input values (VE) of at least one previously measured parameter of the water, recorded at at least one entry point of the water distribution system and over a recording period (Δt recording ) comprising at least one recording date (t recording ); - a selection step (SELECT) suitable for selecting at least one current point ; - an association step (ASSO) suitable for associating said current point with at least one entry point in the water distribution system ; - a determination step (DETER) suitable for determining a current value (VC) of said at least one parameter of the water at the current point from input values (VE) at said at least one entry point associated with the current point .
Packaging system for a two-wheeler, in particular for a motorcycle , comprising a packaging device and a support body , wherein the packaging device extends in a longitudinal direction and a transverse direction oriented transversely and in particular perpendicularly to the longitudinal direction , the packaging device comprising: a base and two support parts , which support parts are spaced apart from one another in the transverse direction and stand on the base and extend in a vertical direction oriented transversely and in particular perpendicularly to the longitudinal direction and to the transverse direction , wherein a gap is located between the support parts , wherein the support parts , on the side thereof facing away from the base and at a distance therefrom, each comprise or form a support element for supporting the support body , which support body is arranged and held in a predetermined or predeterminable position on a wheel hub or axle of a wheel of the two-wheeler, wherein the support body is configured to rest on the respective support element of the support part and a supporting force of the support body is transferable to the base via the support part , characterized in that: - the support parts are made of a paper material, in particular of corrugated cardboard; - the support parts comprise a plurality of overlapping flat material layers positioned laterally next to one another in the transverse direction , wherein two or more adjacent material layers rest flatly against one another; - the support parts comprise a ramp element rising in the vertical direction , against and in particular on which the support body is configured to rest and is guideable in the longitudinal direction toward the support element ; and - the support parts comprise or form a flat supporting element and rest flatly on the base by means of the supporting element . - the support parts are made of a paper material, in particular of corrugated cardboard; - the support parts comprise a plurality of overlapping flat material layers positioned laterally next to one another in the transverse direction , wherein two or more adjacent material layers rest flatly against one another; - the support parts comprise a ramp element rising in the vertical direction , against and in particular on which the support body is configured to rest and is guideable in the longitudinal direction toward the support element ; and - the support parts comprise or form a flat supporting element and rest flatly on the base by means of the supporting element .
A method comprising: a. providing a polymeric structure comprising a length, a width and a thickness, wherein the length of the polymeric structure is greater than the width of the polymeric structure, wherein the polymeric structure comprises a crosslinked polymeric layer uniaxially oriented in the width direction at a draw ratio of at least 1.2:1; b. wrapping the polymeric structure around a first substrate at least two full circuits; c. positioning the polymeric structure at least partially into an aperture defined by a second substrate; and d. subjecting the polymeric structure to an elevated temperature above the transition temperature of the crosslinked polymeric layer and below the degradation temperature of the crosslinked polymeric layer and any other components present in the polymeric structure, thereby increasing the thickness of the polymeric structure and creating at least a partial joint between the first substrate and the second substrate. a. providing a polymeric structure comprising a length, a width and a thickness, wherein the length of the polymeric structure is greater than the width of the polymeric structure, wherein the polymeric structure comprises a crosslinked polymeric layer uniaxially oriented in the width direction at a draw ratio of at least 1.2:1; b. wrapping the polymeric structure around a first substrate at least two full circuits; c. positioning the polymeric structure at least partially into an aperture defined by a second substrate; and d. subjecting the polymeric structure to an elevated temperature above the transition temperature of the crosslinked polymeric layer and below the degradation temperature of the crosslinked polymeric layer and any other components present in the polymeric structure, thereby increasing the thickness of the polymeric structure and creating at least a partial joint between the first substrate and the second substrate.
Precipitated calcium carbonate particles being at least partially in the form of nanofibers or nanochain like agglomerates, wherein the nanofibers or nanochain like agglomerates are further aggregated to form microshells, and wherein the particles are at least partially coated with at least one coating agent, wherein the precipitated calcium carbonate particles that are at least partially coated with at least one coating agent are formable in a process which comprises a step of contacting precipitated calcium carbonate particles being at least partially in the form of nanofibres or nanochain like agglomerates with at least one coating agent, wherein the nanofibers or nanochain like agglomerates are further aggregated to form microshells wherein the process comprises: (a) precipitating calcium carbonate particles from a suspension comprising calcium hydroxide and water, which is termed milk of lime, under conditions providing precipitated calcium carbonate particles being at least partially in the form of the nanofibers or nanochain like agglomerates, wherein the suspension further comprises polyacrylic acid as a crystallization controller, wherein the polyacrylic acid is added before carbonation and wherein the polyacrylic acid is present in the milk of lime in an amount of 0.1 to 1wt%, and (b) contacting the particles of calcium carbonate obtained from step (a) with the at least one coating agent. (a) precipitating calcium carbonate particles from a suspension comprising calcium hydroxide and water, which is termed milk of lime, under conditions providing precipitated calcium carbonate particles being at least partially in the form of the nanofibers or nanochain like agglomerates, wherein the suspension further comprises polyacrylic acid as a crystallization controller, wherein the polyacrylic acid is added before carbonation and wherein the polyacrylic acid is present in the milk of lime in an amount of 0.1 to 1wt%, and (b) contacting the particles of calcium carbonate obtained from step (a) with the at least one coating agent.
A rotary body , the rotary body being a cup holder, with a shaft-support structure for said rotary body , the shaft-support structure comprising: a bearing portion disposed to a base member ; and a fulcrum shaft disposed to the rotary body and supported by the bearing portion in a rotatable manner, the rotary body being rotatable with respect to the base member about the fulcrum shaft to a first position and a second position, the shaft-support structure comprising: a slit disposed to the bearing portion and opened in a direction away from the base member; and characterized by a restricting member disposed at a position facing the slit in such a way as to cover the slit, wherein the rotary body is configured in such a way that, when a load exceeding a predetermined level and directed away from the base member is exerted on the rotary body , the fulcrum shaft moves in a direction in which the fulcrum shaft disengages from inside the bearing portion through the slit and, by the fulcrum shaft having moved pressing the restricting member from inside and the restricting member moving in a direction separating from the bearing portion, the fulcrum shaft disengages from the bearing portion, wherein the rotary body is adapted for a folding table mounted on a backrest of a seat for a vehicle. a slit disposed to the bearing portion and opened in a direction away from the base member; and characterized by a restricting member disposed at a position facing the slit in such a way as to cover the slit, wherein the rotary body is configured in such a way that, when a load exceeding a predetermined level and directed away from the base member is exerted on the rotary body , the fulcrum shaft moves in a direction in which the fulcrum shaft disengages from inside the bearing portion through the slit and, by the fulcrum shaft having moved pressing the restricting member from inside and the restricting member moving in a direction separating from the bearing portion, the fulcrum shaft disengages from the bearing portion, wherein the rotary body is adapted for a folding table mounted on a backrest of a seat for a vehicle.
A dispensing cap comprising: a base having a dispensing channel and configured to be attached to a bottle neck of a bottle , the base having a receptacle ; a base piston element disposed in the base and movable between a first position and a second position such that as fluid disposed in the bottle is forced toward the dispensing channel to dispense the fluid at least a portion of the fluid engages the base piston element and moves the base piston element toward the second position; and a cartridge disposable in the receptacle of the base , wherein the base piston element is configured to drive a cartridge piston element of the cartridge as the base piston element is moved from the first position toward the second position. a base having a dispensing channel and configured to be attached to a bottle neck of a bottle , the base having a receptacle ; a base piston element disposed in the base and movable between a first position and a second position such that as fluid disposed in the bottle is forced toward the dispensing channel to dispense the fluid at least a portion of the fluid engages the base piston element and moves the base piston element toward the second position; and a cartridge disposable in the receptacle of the base , wherein the base piston element is configured to drive a cartridge piston element of the cartridge as the base piston element is moved from the first position toward the second position.
Seating furniture cushion arrangement , in particular for an office or conference chair, comprising a seat or rest structure and a seating furniture cushion , the seat cushion having a base body , which is formed shell-like as a negative shape of the seat or rest structure and has on its edge an inwardly curved undercut , and a cushion body , which is formed integrally on the base body and arranged on a face of the base body remote from the undercut , the base body being formed so as to be positively attachable to the seat or rest structure , by peripherally engaging the seat or rest structure from behind with the undercut , in such a way that the cushion body, when attached, is arranged on the seat or rest structure as a seat or rest cushion. comprising a seat or rest structure and a seating furniture cushion , the seat cushion having a base body , which is formed shell-like as a negative shape of the seat or rest structure and has on its edge an inwardly curved undercut , and a cushion body , which is formed integrally on the base body and arranged on a face of the base body remote from the undercut , the base body being formed so as to be positively attachable to the seat or rest structure , by peripherally engaging the seat or rest structure from behind with the undercut , in such a way that the cushion body, when attached, is arranged on the seat or rest structure as a seat or rest cushion.