mhurhangee/patent-ind-claim-en huggingface dataset:
A retractable roof for a building having a supporting frame and a high structure extending vertically above the supporting frame, said retractable roof comprising: - at least one structure section including first and second panel structures, said first panel structure having a first proximal end being hingeably mountable on the supporting frame at a proximal hinge member and a first distal end hingeably connecting to a second proximal end of the second panel structure at a distal hinge member , a second distal end of said second panel structure being suspended to the high structure with a distal end cable connected to a distal motorized winch member ; - a tackle member connecting to both said first and second panel structures of said at least one structure section adjacent said first proximal end and said second distal end , respectively, and including a tackle wire forming a wire side of a triangular cross-sectional shape with said first and second panel structures; and - a winch mechanism connecting to the tackle member to control a wire length of the wire side . - at least one structure section including first and second panel structures, said first panel structure having a first proximal end being hingeably mountable on the supporting frame at a proximal hinge member and a first distal end hingeably connecting to a second proximal end of the second panel structure at a distal hinge member , a second distal end of said second panel structure being suspended to the high structure with a distal end cable connected to a distal motorized winch member ; - a tackle member connecting to both said first and second panel structures of said at least one structure section adjacent said first proximal end and said second distal end , respectively, and including a tackle wire forming a wire side of a triangular cross-sectional shape with said first and second panel structures; and - a winch mechanism connecting to the tackle member to control a wire length of the wire side .
An additive system for wood polymer composites comprising: at least one maleic anhydride grafted polymer coupling agent; at least one second coupling agent selected from among silane and siloxane; at least one peroxide crosslinking agent; and an amine compound. at least one maleic anhydride grafted polymer coupling agent; at least one second coupling agent selected from among silane and siloxane; at least one peroxide crosslinking agent; and an amine compound.
An actuation device comprising: a plurality of spatially distributed actuators , each actuator configured for interacting with a biological skin surface; a wireless power system to power the plurality of spatially distributed actuators ; and characterized by a wireless controller configured to receive operative command signals to control each of the plurality of spatially distributed actuators by electrically energizing a single actuator at a time with the other actuators in an off-state and cycling through all of the plurality of spatially distributed actuators, wherein the wireless controller is a near field communication, NFC, chip having a plurality of outputs, with each output electronically connected to an individual actuator ; switches independently controlled by the wireless controller , each switch electronically positioned between the NFC chip output and the individual actuator to provide the individual actuator with electrical energization at a switching frequency, wherein the switching frequency between actuators is faster than a mechanoreceptor reaction time for a mechanoreceptor that is positioned beneath the actuators during use, so that a simultaneous actuation of all the plurality of spatially distributed actuators is experienced by a user to whom the actuation device interfaces. a plurality of spatially distributed actuators , each actuator configured for interacting with a biological skin surface; a wireless power system to power the plurality of spatially distributed actuators ; and characterized by a wireless controller configured to receive operative command signals to control each of the plurality of spatially distributed actuators by electrically energizing a single actuator at a time with the other actuators in an off-state and cycling through all of the plurality of spatially distributed actuators, wherein the wireless controller is a near field communication, NFC, chip having a plurality of outputs, with each output electronically connected to an individual actuator ; switches independently controlled by the wireless controller , each switch electronically positioned between the NFC chip output and the individual actuator to provide the individual actuator with electrical energization at a switching frequency, wherein the switching frequency between actuators is faster than a mechanoreceptor reaction time for a mechanoreceptor that is positioned beneath the actuators during use, so that a simultaneous actuation of all the plurality of spatially distributed actuators is experienced by a user to whom the actuation device interfaces.
Housing of an electrical and/or electronic component , - comprising a first housing part , a second housing part and an interior for receiving at least one electrical and/or electronic element , - wherein the two housing parts are fastened to one another and bear against one another in a contact area which runs around in a closed manner along the interior in a circumferential direction of the housing , - wherein a pressure compensation labyrinth is formed in the contact area , which fluidically connects the interior with a surroundings of the housing , - wherein the pressure compensation labyrinth has a labyrinth channel , which extends in the circumferential direction of the contact area , which is fluidically connected to the interior via an interior opening and which is fluidically connected to the surroundings via an opening to the surroundings , which is arranged offset to the interior opening in the circumferential direction , characterised - in that the labyrinth channel extends in the circumferential direction only along part of the contact area between a first circumferential end and a second circumferential end , - in that the interior opening is arranged in the area of the first circumferential end of the labyrinth channel , while the opening to the surroundings is arranged in the area of the second circumferential end of the labyrinth channel . - comprising a first housing part , a second housing part and an interior for receiving at least one electrical and/or electronic element , - wherein the two housing parts are fastened to one another and bear against one another in a contact area which runs around in a closed manner along the interior in a circumferential direction of the housing , - wherein a pressure compensation labyrinth is formed in the contact area , which fluidically connects the interior with a surroundings of the housing , - wherein the pressure compensation labyrinth has a labyrinth channel , which extends in the circumferential direction of the contact area , which is fluidically connected to the interior via an interior opening and which is fluidically connected to the surroundings via an opening to the surroundings , which is arranged offset to the interior opening in the circumferential direction , characterised - in that the labyrinth channel extends in the circumferential direction only along part of the contact area between a first circumferential end and a second circumferential end , - in that the interior opening is arranged in the area of the first circumferential end of the labyrinth channel , while the opening to the surroundings is arranged in the area of the second circumferential end of the labyrinth channel .
A separation medium for electrophoresis within a surface-coated flow path, the separation medium comprising: hydroxypropylmethyl cellulose; and a sugar alcohol derived from monosaccharide or disaccharide, or a low-molecular-weight polysaccharide with a molecular weight of 80000 or less. hydroxypropylmethyl cellulose; and a sugar alcohol derived from monosaccharide or disaccharide, or a low-molecular-weight polysaccharide with a molecular weight of 80000 or less.
A multi-layered brazing sheet material having an aluminium core alloy layer provided with a first brazing clad layer material on one face of said aluminium core layer and an inter-layer inter-positioned between the aluminium core alloy layer and the first brazing clad layer material, wherein the core layer is made from an aluminium alloy comprising, in wt.%, up to 0.25% Si, up to 0.35% Fe, 0.7% to 1.1% Cu, 0.7% to 1.2% Mn, 0.1% to 0.4% Mg, up to 0.2% Cr, 0.04 to 0.25% Zr, 0.03 to 0.2% Ti, up to 0.15% Zn, balance aluminium and impurities, wherein the first brazing clad layer is made from an 4xxx-series aluminium alloy having 6% to 14% Si, up to 2% Mg, up to 0.7% Fe, up to 0.3% Mn, up to 0.25% Cu, up to 1% Zn, others each <0.05%, total <0.2%, remainder aluminium, and wherein the inter-layer is made from an 3xxx-series aluminium alloy comprising, in wt.%, up to 0.4% Si, up to 0.5% Fe, 0.40 to 0.75% Cu, 0.4% to 1.1% Mn, up to 0.04% Mg, up to 0.2% Cr, up to 0.25% Zr, up to 0.25% Ti, up to 0.3% Zn, balance aluminium and impurities.
A portable film application apparatus, comprising: a base , wherein a positioning station and a film sticking station are respectively disposed on two sides of the base ; a positioning seat , wherein the positioning seat is disposed on one end of the positioning station and is configured to lock a location of an electronic device; a film holder , wherein the film holder is disposed on one end of the film sticking station and is configured to lock a location of a film; a conveying device , wherein the conveying device is configured to slide the positioning seat back and forth between the positioning station and the film sticking station , to match the electronic device with a membrane; and a film detaching device , wherein the film detaching device is disposed on one end of the film sticking station and is configured to separate a release layer from the membrane. a base , wherein a positioning station and a film sticking station are respectively disposed on two sides of the base ; a positioning seat , wherein the positioning seat is disposed on one end of the positioning station and is configured to lock a location of an electronic device; a film holder , wherein the film holder is disposed on one end of the film sticking station and is configured to lock a location of a film; a conveying device , wherein the conveying device is configured to slide the positioning seat back and forth between the positioning station and the film sticking station , to match the electronic device with a membrane; and a film detaching device , wherein the film detaching device is disposed on one end of the film sticking station and is configured to separate a release layer from the membrane.
A juicer, comprising: an inlet for receiving food items to be juiced; a juice extracting arrangement for providing extracted juice; the juicer being characterized by : a centrifuge unit for receiving the extracted juice and performing centrifuging to separate a juice component of the extracted juice from a foam component of the extracted juice, wherein the centrifuge unit has an output gate for allowing the passage of the juice component; and an outlet from which the juice component is delivered. an inlet for receiving food items to be juiced; a juice extracting arrangement for providing extracted juice; the juicer being characterized by : a centrifuge unit for receiving the extracted juice and performing centrifuging to separate a juice component of the extracted juice from a foam component of the extracted juice, wherein the centrifuge unit has an output gate for allowing the passage of the juice component; and an outlet from which the juice component is delivered. a centrifuge unit for receiving the extracted juice and performing centrifuging to separate a juice component of the extracted juice from a foam component of the extracted juice, wherein the centrifuge unit has an output gate for allowing the passage of the juice component; and an outlet from which the juice component is delivered.
An industrial truck comprising a tread apparatus provided near to a driver's platform , comprising a remote control via which one or more functions of the vehicle can be controlled, and comprising a controller that can switch a remote-control mode on and off, wherein vehicle functions can be controlled by means of the remote control during the remote-control mode, characterized in that the tread apparatus is equipped with a personal switch , in response to the actuation of which the controller switches off the remote-control mode.
Method for performing a leak-tightness test on a test object in a foil chamber which has at least one flexible wall region , the method comprising the following steps: introducing the test object into the foil chamber, using a gas or gas component contained in the test object as test gas for the leak-tightness test, evacuating the foil chamber to a pressure lower than the test gas pressure within the test object and lower than atmospheric pressure, introducing a carrier gas into the foil chamber into the region outside the test object, and measuring the test gas concentration of the gas mixture that forms in the foil chamber in the region outside the test object. introducing the test object into the foil chamber, using a gas or gas component contained in the test object as test gas for the leak-tightness test, evacuating the foil chamber to a pressure lower than the test gas pressure within the test object and lower than atmospheric pressure, introducing a carrier gas into the foil chamber into the region outside the test object, and measuring the test gas concentration of the gas mixture that forms in the foil chamber in the region outside the test object.
Low boron content culinary cooking glass composition comprising, by weight, SiO 2 +Al 2 O 3 more than 73.0%, CaO+MgO at least 8.0%, SiO 2 from 70.0 to 78.0%, Na 2 O from 8.0 to 12.0%, CaO from 4.0 to 8.0%, Al 2 O 3 less than 5.0%, MgO from 3.0 to 11.0%, K 2 O less than 2.0%, SrO less than 5.0%, SO 3 less than 0.25% and B 2 O 3 less than 0.20%, having a glass transition temperature Tg less than 700°C, preferably less than 640°C, a coefficient of expansion less than 75.0 10 -7 K -1 and a specific thermal stress less than 0.75 MPa/K.
Electrical plug connector comprising: - a clamp portion extending along a longitudinal axis (A) and being arranged at a first end of the electrical plug connector for receiving and clamping an electrical cable ; wherein the clamp portion comprises: - a clamp housing delimiting an inner space for receiving the electrical cable ; - a clamp ring being controllable between a receiving configuration at which the clamp portion is adapted to receive the electrical cable and a clamping configuration at which the clamp ring is configured to exert a clamping force on the electrical cable ; - an actuation ring coupled to the clamp housing and configured to control the clamp ring between the receiving configuration and the clamping configuration; and - a bayonet locking device associated to the clamp housing and the actuation ring and configured to secure the actuation ring on the clamp housing ; the electrical plug connector being characterized in further comprising: - an cover ring being rotatable around the longitudinal axis (A) and being arranged such to surround at least a section of the actuation ring carrying at least a portion of the bayonet device ; and - a locking device for locking the cover ring in a locked configuration at which the cover ring is secured onto the clamp housing ; wherein the locking device is configured to be activated at least upon rotation of the cover ring around the longitudinal axis (A). - a clamp portion extending along a longitudinal axis (A) and being arranged at a first end of the electrical plug connector for receiving and clamping an electrical cable ; - a clamp housing delimiting an inner space for receiving the electrical cable ; - a clamp ring being controllable between a receiving configuration at which the clamp portion is adapted to receive the electrical cable and a clamping configuration at which the clamp ring is configured to exert a clamping force on the electrical cable ; - an actuation ring coupled to the clamp housing and configured to control the clamp ring between the receiving configuration and the clamping configuration; and - a bayonet locking device associated to the clamp housing and the actuation ring and configured to secure the actuation ring on the clamp housing ; - an cover ring being rotatable around the longitudinal axis (A) and being arranged such to surround at least a section of the actuation ring carrying at least a portion of the bayonet device ; and - a locking device for locking the cover ring in a locked configuration at which the cover ring is secured onto the clamp housing ;
A device used for establishing a transjugular intrahepatic portosystemic shunt quickly by locating a portal vein in a liver for receiving the shunt comprising: an elongated hollow curved outer guide (K); an outer handle (A) having an inner lumen (E) and a first luer lock (D), the outer handle (A) attached at a proximal end of the outer guide (K), the outer guide (K) in flow communication with the inner lumen (E) and the first luer lock (D); an elongated hollow curved inner needle (J); a hub (F) having a second luer lock (I), the hub (F) attached at a proximal end of the inner needle (J), the inner needle (J) in flow communication with the second luer lock (I); wherein the inner needle (J) is slidingly received through the first luer lock (D) and into the outer guide (K) through the inner lumen (E); wherein the inner needle (J) is configured to rotate within the outer guide (K) by manipulation of the hub (F); wherein a distal tip of the inner needle (J) is deployed out of and beyond a distal tip of the outer guide (K), the distal tip of the inner needle (J) configured to be advanced into the parenchyma of the liver to locate the portal vein; and wherein the outer handle (A) has finger grips (B) along its inferior edge to allow an operator to torque the outer guide, the device further comprising finger winglets (C) on the outer handle (A) to assist in deployment of the inner needle (J). an elongated hollow curved outer guide (K); an outer handle (A) having an inner lumen (E) and a first luer lock (D), the outer handle (A) attached at a proximal end of the outer guide (K), the outer guide (K) in flow communication with the inner lumen (E) and the first luer lock (D); an elongated hollow curved inner needle (J); a hub (F) having a second luer lock (I), the hub (F) attached at a proximal end of the inner needle (J), the inner needle (J) in flow communication with the second luer lock (I); wherein the inner needle (J) is slidingly received through the first luer lock (D) and into the outer guide (K) through the inner lumen (E); wherein the inner needle (J) is configured to rotate within the outer guide (K) by manipulation of the hub (F); wherein a distal tip of the inner needle (J) is deployed out of and beyond a distal tip of the outer guide (K), the distal tip of the inner needle (J) configured to be advanced into the parenchyma of the liver to locate the portal vein; and wherein the outer handle (A) has finger grips (B) along its inferior edge to allow an operator to torque the outer guide, the device further comprising finger winglets (C) on the outer handle (A) to assist in deployment of the inner needle (J).
A method for uplink channel estimation in time domain, the method comprising: transmitting, by a base station, downlink signals to a user equipment; estimating, by the user equipment, downlink channel based on the received downlink signals; the method being characterized by : feeding back, by the user equipment, channel tap positions to the base station; and estimating, by the base station, uplink channel in time domain based on the channel tap positions and pilots transmitted by the user equipment. transmitting, by a base station, downlink signals to a user equipment; estimating, by the user equipment, downlink channel based on the received downlink signals; the method being characterized by : feeding back, by the user equipment, channel tap positions to the base station; and estimating, by the base station, uplink channel in time domain based on the channel tap positions and pilots transmitted by the user equipment. feeding back, by the user equipment, channel tap positions to the base station; and estimating, by the base station, uplink channel in time domain based on the channel tap positions and pilots transmitted by the user equipment.
A polynucleotide in which an N-terminal region of a transcriptional intermediary factor 1 gamma (TIF1γ) gene is codon-optimized, wherein the polynucleotide comprises a nucleic acid sequence of SEQ ID NO: 2.
A gamma-butyrolactone composition, comprising: gamma-butyrolactone; and a nitrogen-containing compound, wherein the content of the gamma-butyrolactone is 99.0% by mass or more, the nitrogen-containing compound is succinic acid diamide, and the total content of the nitrogen-containing compound is 0.1 ppm by mass to 1,000 ppm by mass as converted to a nitrogen atom. gamma-butyrolactone; and a nitrogen-containing compound, wherein the content of the gamma-butyrolactone is 99.0% by mass or more, the nitrogen-containing compound is succinic acid diamide, and the total content of the nitrogen-containing compound is 0.1 ppm by mass to 1,000 ppm by mass as converted to a nitrogen atom.