mhurhangee/patent-ind-claim-en huggingface dataset:
Hinge for furniture comprising a fixed part to be housed in a seat of a horizontal plane of the furniture structure, such as a base or a top , and a moving part to be housed in a seat of a door of the furniture, in order to operate the door for opening and closing by means of a movement mechanism comprising at least one lever connecting a pin placed on said fixed part of the hinge and a pin placed on said moving part , wherein the closing force of the door is determined by spring means of the hinge acting on a pusher of the hinge that exerts a thrust force on a rocker arm of the hinge , against which said lever of the door movement mechanism acts, whereby the hinge provides means for varying the distance of said spring means from a pivot pin of the rocker arm , in order to vary the lever arm and consequently the reaction force of the movement lever and therefore the closing force of the door, wherein said spring means and said pivot pin are both placed on said fixed part or on said movable part , characterized in that said means of regulating the closing force of the door comprise a drawer housing said spring means and pusher , which can translate to move towards and away from said pivot pin of the rocker arm .
A spray applicator comprising a support body having a plurality of contact surfaces and at least two nozzle bodies , each nozzle body being attached to one of the contact surfaces and having a spray slot for producing a spray jet fanned out perpendicularly to a central plane , and wherein the central planes intersect each other along a straight line , characterized in that the straight line extends outside the support body and the contact surfaces face the straight line and are offset from each other in the direction of the straight line .
A timepiece comprising a frame bearing a striking work mechanism which comprises: - a motor member kinematically linked with a striking work wheel , - a striking work hammer , - an anchor with two pallets engaged alternately with said striking work wheel and cooperating with said striking work hammer to make it oscillate between a first position striking a resonant member and a second position, and - a limiting spring defining said second position and the prestressing of which influences the duration of the ringing, wherein the anchor and the striking work hammer form a single striking work member mounted to pivot on the frame . - a motor member kinematically linked with a striking work wheel , - a striking work hammer , - an anchor with two pallets engaged alternately with said striking work wheel and cooperating with said striking work hammer to make it oscillate between a first position striking a resonant member and a second position, and - a limiting spring defining said second position and the prestressing of which influences the duration of the ringing,
A power conversion device comprising: a case ; a semiconductor module that is housed in the case; a smoothing capacitor that is disposed in parallel with the semiconductor module, that is fixed to the case by fixing bolts and that suppresses voltage fluctuations; and a high-voltage connection portion to which the semiconductor module and the smoothing capacitor are electrically connected, wherein locations at which the smoothing capacitor is fixed to the case by the fixing bolts correspond to capacitor fixing points , the capacitor fixing points are arranged at positions that avoid corner portions of the smoothing capacitor, and the smoothing capacitor has a bus bar , characterized in that the bus bar and the semiconductor module are electrically connected by fastening bolts at the high-voltage connection portion, locations at which the bus bar are fastened to the semiconductor module by the fastening bolts correspond to bus bar fastening points , the bus bar fastening points serve a dual purpose of an electrical connection and a capacitor fixation, and the bus bar fastening points are capacitor fixing points. a case ; a semiconductor module that is housed in the case; a smoothing capacitor that is disposed in parallel with the semiconductor module, that is fixed to the case by fixing bolts and that suppresses voltage fluctuations; and a high-voltage connection portion to which the semiconductor module and the smoothing capacitor are electrically connected, wherein locations at which the smoothing capacitor is fixed to the case by the fixing bolts correspond to capacitor fixing points , the capacitor fixing points are arranged at positions that avoid corner portions of the smoothing capacitor, and the smoothing capacitor has a bus bar , characterized in that the bus bar and the semiconductor module are electrically connected by fastening bolts at the high-voltage connection portion, locations at which the bus bar are fastened to the semiconductor module by the fastening bolts correspond to bus bar fastening points , the bus bar fastening points serve a dual purpose of an electrical connection and a capacitor fixation, and the bus bar fastening points are capacitor fixing points.
Gas distributor plate for a fuel cell , comprising a first distributing structure for distributing a fuel to a first electrode and a second distributing structure for distributing an oxidant to a second electrode , characterized in that at least two wire elements are provided in the second distributing structure , wherein said elements have bends and channels of varying widths are thereby formed between the wire elements within the second distributing structure , wherein the distributing structure is delimited by a dividing plate which is joined to the wire elements by an atomic-level join.
A method for streaming video data of a video element embedded in a Web page, said video element being described in a manifest file, wherein the method comprises by a DASH client: - obtaining the manifest file from an address contained in the Web page, said manifest file describing a plurality of Representations, each Representation describing properties of a corresponding version of the video element; - building an internal memory representation of the obtained manifest file by: ∘ determining from an annotation associated with the video element embedded in the Web page, the expected usage of said video element, each expected usage being associated with a set of constraints comprising at least bounds on a suitable bitrate and a frame rate; ∘ obtaining the set of constraints associated with each expected usage; and ∘ annotating the internal memory representation of the manifest file by indicating, for each Representation of the video element, its compliance with said constraints associated with the determined expected usage; - determining a subset of Representations among the Representations of the internal memory representation that complies with the expected usage of said video element; and - streaming video data associated to a Representation of the subset. - obtaining the manifest file from an address contained in the Web page, said manifest file describing a plurality of Representations, each Representation describing properties of a corresponding version of the video element; - building an internal memory representation of the obtained manifest file by: ∘ determining from an annotation associated with the video element embedded in the Web page, the expected usage of said video element, each expected usage being associated with a set of constraints comprising at least bounds on a suitable bitrate and a frame rate; ∘ obtaining the set of constraints associated with each expected usage; and ∘ annotating the internal memory representation of the manifest file by indicating, for each Representation of the video element, its compliance with said constraints associated with the determined expected usage; ∘ determining from an annotation associated with the video element embedded in the Web page, the expected usage of said video element, each expected usage being associated with a set of constraints comprising at least bounds on a suitable bitrate and a frame rate; ∘ obtaining the set of constraints associated with each expected usage; and ∘ annotating the internal memory representation of the manifest file by indicating, for each Representation of the video element, its compliance with said constraints associated with the determined expected usage; - determining a subset of Representations among the Representations of the internal memory representation that complies with the expected usage of said video element; and - streaming video data associated to a Representation of the subset.
Structure for the stabilization and/or consolidation of a slope, comprising a rigid frame , retaining means mounted on said frame, and an anchoring rod , a first end of which is connected to said frame and a second, opposite end of which is intended to be immersed in the ground of the slope, characterized in that said frame comprises: - a central beam , provided with a seat for said first end of said anchoring rod ; - a first frame part , comprising a first plate and first frame arms connected to said first plate; - a second frame part , comprising a second plate and second frame arms connected to said second plate; said first plate of said first frame part and said second plate of said second frame part being connected to said central beam , on opposite sides thereof, by means of respective hinges , so that they are movable from a first, rest configuration to a second, operating configuration by rotating around said hinges (13a, 13b; 23a, 23b). - a central beam , provided with a seat for said first end of said anchoring rod ; - a first frame part , comprising a first plate and first frame arms connected to said first plate; - a second frame part , comprising a second plate and second frame arms connected to said second plate;
A liquid laundry detergent composition comprising: (i) from 50 to 80 wt.% of a linear alkyl benzene sulfonic acid surfactant; (ii) from 15 to 45 wt.% of an alkyl ether carboxylic acid surfactant of the following structure: R 1 -(OCH 2 CH 2 ) n -OCH 2 -COOH, wherein: R 1 is selected from saturated C 16 to C 22 linear or branched alkyl chains, preferably C 16 to C 18 linear alkyl chains, and wherein n is selected from 10 to 24; (iii) less than 10 wt.% water; (iv) from 0 to 20 wt.% non-ionic surfactant of the following structure R 2 -(OCH 2 CH 2 ) n -OH, wherein: R 2 is selected from saturated C 12 to C 22 linear or branched alkyl chains, preferably C 16 to C 18 linear alkyl chains, and wherein n is selected from 5 to 30, preferably 10 to 20; wherein the pH of the formulation is from 0.3 to 2.0; and wherein the weight ratio of linear alkyl benzene sulfonic acid surfactant to the alkyl ether carboxylic acid surfactant is from 1.5:1 to 5:1; and, wherein the pH of the formulation is that of a 1 wt.% solution of the liquid laundry detergent composition dissolved in demineralised water at 293K. (i) from 50 to 80 wt.% of a linear alkyl benzene sulfonic acid surfactant; (ii) from 15 to 45 wt.% of an alkyl ether carboxylic acid surfactant of the following structure: R 1 -(OCH 2 CH 2 ) n -OCH 2 -COOH, wherein: R 1 is selected from saturated C 16 to C 22 linear or branched alkyl chains, preferably C 16 to C 18 linear alkyl chains, and wherein n is selected from 10 to 24; (iii) less than 10 wt.% water; (iv) from 0 to 20 wt.% non-ionic surfactant of the following structure R 2 -(OCH 2 CH 2 ) n -OH, wherein: R 2 is selected from saturated C 12 to C 22 linear or branched alkyl chains, preferably C 16 to C 18 linear alkyl chains, and wherein n is selected from 5 to 30, preferably 10 to 20; wherein the weight ratio of linear alkyl benzene sulfonic acid surfactant to the alkyl ether carboxylic acid surfactant is from 1.5:1 to 5:1; and, wherein the pH of the formulation is that of a 1 wt.% solution of the liquid laundry detergent composition dissolved in demineralised water at 293K.
A wiping method for wiping a nozzle surface of a liquid discharge head, comprising: relatively moving the liquid discharge head and a wiper impregnated with a cleaning fluid , the cleaning fluid containing a lactone compound in an amount of 5% by mass or more, wherein the wiper includes: a first layer configured to contact the nozzle surface, having a thickness of t1; and one or more layers other than the first layer , having a total thickness of t2, wherein t1 is smaller than t2, wherein a void ratio of the first layer is smaller than a void ratio of at least one of said one or more layers other than the first layer , and the void ratio of each one of the layers is given by the following formula: void ratio = 1 − apparent density true density . relatively moving the liquid discharge head and a wiper impregnated with a cleaning fluid , the cleaning fluid containing a lactone compound in an amount of 5% by mass or more, wherein the wiper includes: a first layer configured to contact the nozzle surface, having a thickness of t1; and one or more layers other than the first layer , having a total thickness of t2, a first layer configured to contact the nozzle surface, having a thickness of t1; and one or more layers other than the first layer , having a total thickness of t2, wherein t1 is smaller than t2, wherein a void ratio of the first layer is smaller than a void ratio of at least one of said one or more layers other than the first layer , and the void ratio of each one of the layers is given by the following formula: void ratio = 1 − apparent density true density .
A flame resistant fabric for aviation airbags, said flame resistant fabric comprising: a polyester fiber substrate treated with a first flame retardant, a polyurethane coating, wherein said polyurethane coating is applied to said polyester fiber substrate treated with said first flame retardant, wherein said polyester fiber substrate comprises a plurality of 555.56 dtex (500 denier) - 96 filament polyester fibers, and said polyester fiber substrate comprises a plain weave pattern at a count in a range of about 49 to 53 fibers per 2.54 cm (inch) by about 49 to 53 fibers per 2.54 cm (inch) of said polyester fiber substrate, whereby said first flame retardant comprises a phosphate-phosphonate compound. a polyester fiber substrate treated with a first flame retardant, a polyurethane coating, wherein said polyurethane coating is applied to said polyester fiber substrate treated with said first flame retardant, wherein said polyester fiber substrate comprises a plurality of 555.56 dtex (500 denier) - 96 filament polyester fibers, and said polyester fiber substrate comprises a plain weave pattern at a count in a range of about 49 to 53 fibers per 2.54 cm (inch) by about 49 to 53 fibers per 2.54 cm (inch) of said polyester fiber substrate, whereby said first flame retardant comprises a phosphate-phosphonate compound.
Security label , having a plurality of layers comprising - a laser-writable layer with black aluminum oxide, wherein the laser-writable layer has an upper side and a lower side which are arranged opposite one another and face away from one another, - at least one transparent protective layer , which is arranged in front of the laser-writable layer as seen in a first direction , in order to protect the laser-writable layer from external influences, wherein the first direction faces from the top side to the bottom side , and - a contrast layer , which is arranged behind the laser-writable layer as seen in the first direction , wherein at least one of the plurality of layers is formed as a breakage layer of a brittle plastic film in order to cause destruction of the at least one breakage layer and of the laser-writable layer , and optionally of one or more interposed layers, in the event of manipulation or detachment of the security label affixed to a substrate , and wherein the contrast layer is designed as a breakage layer , characterized in that at least one further layer is arranged between the laser-writable layer and the contrast layer , wherein the at least one further layer comprises at least one partial release lacquer layer , and in that the brittle plastic film of the at least one breakage layer has an elongation at break of less than 20%, preferably less than 15%, particularly preferably less than 10%. - a laser-writable layer with black aluminum oxide, wherein the laser-writable layer has an upper side and a lower side which are arranged opposite one another and face away from one another, - at least one transparent protective layer , which is arranged in front of the laser-writable layer as seen in a first direction , in order to protect the laser-writable layer from external influences, wherein the first direction faces from the top side to the bottom side , and - a contrast layer , which is arranged behind the laser-writable layer as seen in the first direction , wherein at least one of the plurality of layers is formed as a breakage layer of a brittle plastic film in order to cause destruction of the at least one breakage layer and of the laser-writable layer , and optionally of one or more interposed layers, in the event of manipulation or detachment of the security label affixed to a substrate , and wherein the contrast layer is designed as a breakage layer , characterized in that at least one further layer is arranged between the laser-writable layer and the contrast layer , wherein the at least one further layer comprises at least one partial release lacquer layer , and in that the brittle plastic film of the at least one breakage layer has an elongation at break of less than 20%, preferably less than 15%, particularly preferably less than 10%.
A method of determining state-of-charge (SOC) of a battery, the method comprising: performing SOC calibration by changing the SOC of the battery over a portion of a full SOC range following a known open circuit voltage vs. state-of-charge, V OC -SOC profile, wherein changing the SOC comprises partially, but not completely, charging or discharging the energy storage system following the known V OC -SOC profile; determining a V OC value; and estimating SOC of the battery based upon the V OC value and the known V OC -SOC profile; characterised in that : changing the SOC further comprises operating the battery with a series of micro-cycles, which simulate elevator operation, comprising both charging and discharging; wherein the series of micro-cycles are produced by operation of a regenerative drive of an elevator system; and in that the method further comprises: synchronizing the changing of SOC with a traffic profile of the elevator system; and wherein determining a V OC value occurs during an open circuit of short time duration by counteracting prior SOC changing trend to enhance voltage relaxation dynamics through regulating the battery usage with a reference to the traffic profile. performing SOC calibration by changing the SOC of the battery over a portion of a full SOC range following a known open circuit voltage vs. state-of-charge, V OC -SOC profile, wherein changing the SOC comprises partially, but not completely, charging or discharging the energy storage system following the known V OC -SOC profile; determining a V OC value; and estimating SOC of the battery based upon the V OC value and the known V OC -SOC profile; characterised in that : changing the SOC further comprises operating the battery with a series of micro-cycles, which simulate elevator operation, comprising both charging and discharging; wherein the series of micro-cycles are produced by operation of a regenerative drive of an elevator system; and in that the method further comprises: synchronizing the changing of SOC with a traffic profile of the elevator system; and wherein determining a V OC value occurs during an open circuit of short time duration by counteracting prior SOC changing trend to enhance voltage relaxation dynamics through regulating the battery usage with a reference to the traffic profile.
Method for controlling a sorting mechanism that is designed to convey piece goods which are to be sorted and are conveyed on a conveyor path laterally out of the conveyor path by means of coordinated tilting movements of conveyor path segments (1a-f) which can be tilted transversely to the conveyor path and to transfer the piece goods from a first tilted conveyor path segment (1a-f) to a second tilted conveyor path segment (1a-1f); characterised in that a first actuator (4a-f) for tilting the first conveyor path segment (1a-f) is actuated by a first segment controller (7a-f), and a second actuator (4a-f) for tilting the second conveyor path segment (1b-f) is actuated by a second segment controller (7a-7f); and wherein the method comprises that the first segment controller (7a-7f) and the second segment controller (7a-7f) communicate with each other in order to transfer the piece goods from the first tilted conveyor path segment (7a-7f) to the second tilted conveyor path segment (7a-7f), wherein each of the conveyor path segments (1a-f) is controlled by a separate segment controller (7a-f) in each case, wherein the segment controllers (7a-f) communicate with each other in order to coordinate the coordinated tilting movements. a first actuator (4a-f) for tilting the first conveyor path segment (1a-f) is actuated by a first segment controller (7a-f), and a second actuator (4a-f) for tilting the second conveyor path segment (1b-f) is actuated by a second segment controller (7a-7f); and wherein the method comprises that the first segment controller (7a-7f) and the second segment controller (7a-7f) communicate with each other in order to transfer the piece goods from the first tilted conveyor path segment (7a-7f) to the second tilted conveyor path segment (7a-7f), wherein each of the conveyor path segments (1a-f) is controlled by a separate segment controller (7a-f) in each case, wherein the segment controllers (7a-f) communicate with each other in order to coordinate the coordinated tilting movements.
A left atrial appendage occlusion device comprising: (i) an occluder disk , configured to substantially prevent blood from at least one of entering and exiting the left atrial appendage; (ii) a middle portion that includes a coiled element , wherein the coiled element connects to the occluder disk , has a substantially constant cross section and allows for at least one of variable length, variable orientation, and varied angles of the occlusion device ; and (iii) a first anchoring element that connects to the coiled element characterized in that the first anchoring element includes scalloped edges that are configured to anchor the occlusion device to inner walls of the left atrial appendage and reduce the risk of one of penetration and perforation of walls of the left atrial appendage. (i) an occluder disk , configured to substantially prevent blood from at least one of entering and exiting the left atrial appendage; (ii) a middle portion that includes a coiled element , wherein the coiled element connects to the occluder disk , has a substantially constant cross section and allows for at least one of variable length, variable orientation, and varied angles of the occlusion device ; and (iii) a first anchoring element that connects to the coiled element characterized in that the first anchoring element includes scalloped edges that are configured to anchor the occlusion device to inner walls of the left atrial appendage and reduce the risk of one of penetration and perforation of walls of the left atrial appendage.