mhurhangee/ep-ind-claims huggingface dataset:
A latch for a door leaf of a motor vehicle including: - a set of control means, each control means being movable; - a set of opening levers (10A, 10B) of said door leaf, each lever (10A, 10B) being intended to allow the opening of the door leaf by a control means of the set of control means, each lever (10A, 10B) comprising a cam (11 A, 11 B) movable in rotation according to an axis of rotation and fastened to said control means at a fastening area so as to be driven in rotation during the displacement of the control means; - a blocking means configured to take an active blocking position in which said blocking means blocks an opening lever and a rest position in which said blocking means authorizes the movement of each opening lever (10A, 10B), - an elastic blocking return means configured to switch said blocking means from the rest position to the active blocking position, and - a trigger means configured to take a rest position in which said trigger means blocks the blocking means in its rest position and an active unblocking position in which said trigger releases said blocking means so that said blocking means switches from the rest position to the active blocking position, - the blocking means and an opening lever unblocked by the blocking means in the blocking position cooperating so as to bring the blocking means from the active blocking position to the rest position when said unblocked opening lever pivots towards the direction of the opening of the door leaf. - a set of control means, each control means being movable; - a set of opening levers (10A, 10B) of said door leaf, each lever (10A, 10B) being intended to allow the opening of the door leaf by a control means of the set of control means, each lever (10A, 10B) comprising a cam (11 A, 11 B) movable in rotation according to an axis of rotation and fastened to said control means at a fastening area so as to be driven in rotation during the displacement of the control means; - a blocking means configured to take an active blocking position in which said blocking means blocks an opening lever and a rest position in which said blocking means authorizes the movement of each opening lever (10A, 10B), - an elastic blocking return means configured to switch said blocking means from the rest position to the active blocking position, and - a trigger means configured to take a rest position in which said trigger means blocks the blocking means in its rest position and an active unblocking position in which said trigger releases said blocking means so that said blocking means switches from the rest position to the active blocking position, - the blocking means and an opening lever unblocked by the blocking means in the blocking position cooperating so as to bring the blocking means from the active blocking position to the rest position when said unblocked opening lever pivots towards the direction of the opening of the door leaf.
A tubular fillup and circulating tool, comprising: a body (10;76) having a passage (12;78) therethrough; a telescoping member mounted to said body for selective engagement with a tubular (20;90); characterised in that:- a seal (48;128) is provided internally of said telescoping member to engage the outside of the tubular (20;90), whereby application of internal pressure in the passage produces a force which acts to hold the seal against the tubular. a body (10;76) having a passage (12;78) therethrough; a telescoping member mounted to said body for selective engagement with a tubular (20;90); characterised in that:- a seal (48;128) is provided internally of said telescoping member to engage the outside of the tubular (20;90), whereby application of internal pressure in the passage produces a force which acts to hold the seal against the tubular.
An apparatus for treating a wound with negative pressure wound therapy, comprising: a stabilizing structure (5002, 5104, 6000, 6100, 6200, 6300, 6302, 8000, 10013) having an oculiform shape for insertion into a wound (101, 5100), the stabilizing structure configured to collapse more in a horizontal plane parallel to a length and a width of the stabilizing structure than in a vertical plane perpendicular to the horizontal plane, wherein the stabilizing structure comprises two extended sections (6120, 6220) extending in opposite directions along a longitudinal axis of the stabilizing structure and wherein each extended section extends beyond the outer edge of a virtual ellipse formed by the majority of the perimeter of the stabilizing structure along the longitudinal axis of the stabilizing structure.
A fouling-resistant system for the manufacture of a compound comprising: a reactant heating zone; and a distillation column in fluid communication with the reactant heating zone (16, 18); wherein the distillation column comprises a plurality of distillation trays for removing by-products from the compound, the plurality of distillation trays comprising a plurality of sieve trays and a plurality of baffle trays, at least 20% of the plurality of distillation trays are baffle trays arranged in a staggered configuration, each baffle tray contacts an opposing portion of an inner wall of the distillation column from a portion contacted by a baffle tray located above the baffle tray and below the baffle tray, and the baffle trays are disposed in a lower portion of the distillation column, and wherein a baffle tray occupies 55 to 90 percent of the cross-sectional area of the distillation column at its location in the distillation column. a reactant heating zone; and a distillation column in fluid communication with the reactant heating zone (16, 18); wherein the distillation column comprises a plurality of distillation trays for removing by-products from the compound, the plurality of distillation trays comprising a plurality of sieve trays and a plurality of baffle trays, at least 20% of the plurality of distillation trays are baffle trays arranged in a staggered configuration, each baffle tray contacts an opposing portion of an inner wall of the distillation column from a portion contacted by a baffle tray located above the baffle tray and below the baffle tray, and the baffle trays are disposed in a lower portion of the distillation column, and wherein a baffle tray occupies 55 to 90 percent of the cross-sectional area of the distillation column at its location in the distillation column.
A heat exchanger, in particular a charge air cooler or exhaust gas cooler for an internal combustion engine of a motor vehicle, having a first box, a first base, a second box which is arranged spaced apart from this first box, a second base and a plurality of pipes by means of which the first box and the second box are fluidically connected, and having a chamber through which a coolant can flow and which is arranged between the two boxes (2, 3) and through which a plurality or all of these pipes, by means of which the two boxes (2, 3) are fluidically connected, run and the bases (10', 11) are provided with one or more through openings for receiving the pipes, wherein at least one base has a border which points away from the pipes toward the outside and is provided with a first step and a second step, wherein the border is arranged essentially in the edge region of the base, and the second step is arranged in the region of the first step, offset toward the outside from the first step, wherein this at least one base has a third step with an upper edge, wherein the upper edge lies in a plane with the first step, wherein at least one box (2, 3) or a wall section of the same box (2, 3) extends into the second step of this base, the base has, on its side facing away from the box (2, 3), at least a first profiling elevation, in particular a first profiling elevation which runs around in the outer edge region of the base and on a side of at least one base which faces away from the box (2, 3), a base cut-out is formed which extends from the first profiling elevation of the base to the interior of the base.
A method for requesting uplink resources of a subscriber station in a communication system, the method comprising: receiving, from a base station, a first Code Division Multiple Access, CDMA,_Allocation_IE message comprising information of a first uplink bandwidth allocated for transmission of a ranging request, RNG-REQ, message; fragmentizing the RNG-REQ message into plural fragmented RNG-REQ messages based on the allocated first uplink bandwidth, if the allocated first uplink bandwidth does not accommodate size of the RNG-REQ message; transmitting, to the base station using the first uplink bandwidth, a first fragmented RNG-REQ message including a piggybacked bandwidth request extended header, PBREH, or a bandwidth request header without station identifier, STID, for requesting an additional uplink bandwidth for transmission of a fragmented remaining RNG-REQ message; receiving, from the base station, a second CDMA_Allocation_IE message comprising information of the additional uplink bandwidth based on a random access identifier, RAID, used for allocation of the first uplink bandwidth; confirming the additional uplink bandwidth using the RAID; transmitting, to the base station using the additional uplink bandwidth, the fragmented remaining RNG-REQ message; and receiving, from the base station, a ranging response, RNG-RSP, message. receiving, from a base station, a first Code Division Multiple Access, CDMA,_Allocation_IE message comprising information of a first uplink bandwidth allocated for transmission of a ranging request, RNG-REQ, message; fragmentizing the RNG-REQ message into plural fragmented RNG-REQ messages based on the allocated first uplink bandwidth, if the allocated first uplink bandwidth does not accommodate size of the RNG-REQ message; transmitting, to the base station using the first uplink bandwidth, a first fragmented RNG-REQ message including a piggybacked bandwidth request extended header, PBREH, or a bandwidth request header without station identifier, STID, for requesting an additional uplink bandwidth for transmission of a fragmented remaining RNG-REQ message; receiving, from the base station, a second CDMA_Allocation_IE message comprising information of the additional uplink bandwidth based on a random access identifier, RAID, used for allocation of the first uplink bandwidth; confirming the additional uplink bandwidth using the RAID; transmitting, to the base station using the additional uplink bandwidth, the fragmented remaining RNG-REQ message; and receiving, from the base station, a ranging response, RNG-RSP, message.
A key-integrated LCD panel, comprising: a transistor substrate; a color filter substrate being laid on one face of the transistor substrate; a first conductor being arranged on one face of the transistor substrate facing toward the CF substrate and carrying a first-level signal; and a second conductor being arranged on one face of the CF substrate facing toward the transistor substrate and carrying a second-level signal; the second conductor meeting the first conductor without contacting with the first conductor, and a key district being formed at a position at where the first and the second conductor meet each other; and wherein when the key district is touched, the first and the second conductor electrically contact with each other and the signal level at one of the first and the second conductor will change. a transistor substrate; a color filter substrate being laid on one face of the transistor substrate; a first conductor being arranged on one face of the transistor substrate facing toward the CF substrate and carrying a first-level signal; and a second conductor being arranged on one face of the CF substrate facing toward the transistor substrate and carrying a second-level signal; the second conductor meeting the first conductor without contacting with the first conductor, and a key district being formed at a position at where the first and the second conductor meet each other; and wherein when the key district is touched, the first and the second conductor electrically contact with each other and the signal level at one of the first and the second conductor will change.
Assembly for use in a system for generating energy in streaming water having a mean streaming direction, comprising at least two interconnected blades (2,3,4,5), wherein each of the blades (2,3,4,5) has a conical cross section having an apex, wherein a second blade extends at a distance from a first blade in a direction of the normal on the apex of the first blade, wherein the second blade further extends staggered in a direction perpendicular to said normal and wherein each of the normals on the apices of the blades extend substantially parallel to the mean streaming direction, when in use and in a working position, wherein the assembly further comprises a propeller, buoyant body or jet arranged for making at least part of said assembly float.
Use of a laminated polyester film comprising a polyester film; a first coating layer formed by applying a coating solution which comprises polyvinyl alcohol, an oxazoline compound and at least one resin selected from the group consisting of a polyester resin, an acrylic resin and a urethane resin, on one surface of the polyester film; and a second coating layer formed on the other surface of the polyester film which comprises at least one resin selected from the group consisting of a polyester resin, an acrylic resin and a urethane resin, for protecting a polarizing plate.
A slab track adjustment device including: a rail support portion for supporting a rail; at least two height adjustment apertures (22, 24) for receiving height adjustment spindles (110, 111) to adjust the effective vertical position of the rail support portion; a lateral adjustment means 40 to adjust the horizontal position of the rail support portion; characterised in that the adjustment device further includes a removable locking piece which includes a peg and an upstanding prong; the rail support portion includes an aperture located in a side face of the rail support portion; wherein the rail support portion is engageable with the foot of the rail by attaching the locking piece to the rail support portion by sliding the peg into aperture so that the upstanding prong of the locking piece encircles the outer edge of the foot of the rail so that the adjustment device can hang from the foot of the rail during the process of installing the adjustment device. a rail support portion for supporting a rail; at least two height adjustment apertures (22, 24) for receiving height adjustment spindles (110, 111) to adjust the effective vertical position of the rail support portion; a lateral adjustment means 40 to adjust the horizontal position of the rail support portion; characterised in that the adjustment device further includes a removable locking piece which includes a peg and an upstanding prong; the rail support portion includes an aperture located in a side face of the rail support portion; wherein the rail support portion is engageable with the foot of the rail by attaching the locking piece to the rail support portion by sliding the peg into aperture so that the upstanding prong of the locking piece encircles the outer edge of the foot of the rail so that the adjustment device can hang from the foot of the rail during the process of installing the adjustment device.
A functionalised particle for use in a method of diagnosis in vivo, wherein the particle has a first optical spectral signature in a first structural configuration of the particle, and a second optical spectral signature in a second structural configuration of the particle, wherein the particle comprises a dielectric core and a dielectric coating around the core, wherein the method comprises tracking or detecting a change from the first optical spectral signature to the second optical spectral signature of the particle using spectroscopic optical coherence tomography, wherein the functionalised particle is in the first structural configuration when the core and coating are intact, and wherein the functionalised particle is in the second structural configuration when the core is intact and the coating is degraded, or the first structural configuration of the particle comprises the particle in an un-swollen or swollen state and the second structural configuration of the particle comprises the particle in a corresponding swollen or un-swollen state. wherein the method comprises tracking or detecting a change from the first optical spectral signature to the second optical spectral signature of the particle using spectroscopic optical coherence tomography, wherein the functionalised particle is in the first structural configuration when the core and coating are intact, and wherein the functionalised particle is in the second structural configuration when the core is intact and the coating is degraded, or the first structural configuration of the particle comprises the particle in an un-swollen or swollen state and the second structural configuration of the particle comprises the particle in a corresponding swollen or un-swollen state.
A surface enhanced luminescence sensing system comprising an activatable SEL sensor stage and a diffusion stimulator; the activatable SEL sensor stage comprising: (i) a substrate; (ii) cation metal-based material masses supported by the substrate; (iii) diffusion barriers separating and isolating the cation metal-based masses; and (iv) dielectric capping layer over the cation metal-based material masses to inhibit oxidation of the cation metal-based material masses, wherein the dielectric capping layer is formed from a material or a group of materials that (a) block or resist diffusion of the cation metal-based material of masses when the cation metal-based material masses are not stimulated, and (b) offer accelerated diffusion of the cation metal-based material masses in response to the cation metal-based material masses being stimulated; and wherein the diffusion stimulator is arranged to selectively apply the stimulus to selected ones of the cation metal-based material masses underlying the dielectric capping layer in use, thereby activating said stage by accelerating the diffusion of the selected cation metal-based material masses through the capping layer. (i) a substrate; (ii) cation metal-based material masses supported by the substrate; (iii) diffusion barriers separating and isolating the cation metal-based masses; and (iv) dielectric capping layer over the cation metal-based material masses to inhibit oxidation of the cation metal-based material masses, (a) block or resist diffusion of the cation metal-based material of masses when the cation metal-based material masses are not stimulated, and (b) offer accelerated diffusion of the cation metal-based material masses in response to the cation metal-based material masses being stimulated;
Method of preparing a filter element absorptive for cesium (Cs), the method comprising the procedures of: 1) Modification of a substrate material, comprising: adding 1-10 % per weight of ammonium phosphomolybdate and 1-3 % per weight of a coupling agent, selected from methyl methacrylate and styrene, to a substrate material, selected from polypropylene and polyethersulfone, heating to a temperature in the range of 160 to 220°C and mixing evenly so that the substrate material is modified by ammonium phosphomolybdate; 2) Melt blowing and molding of the filter element, comprising: spinning the material prepared in 1) through a 5 μm micropore by a melt blowing method to yield a spinned filament, and forming the spinned filament to an absorptive filter element; 3) Coating of the filter element, comprising: coating ammonium phosphomolybdate on the surface of the absorptive filter element prepared in 2) so that the coated ammonium phosphomolybdate is modified by the ammonium phosphomolybdate inside the substrate material; 4) Stabilization and aging treatment of the filter element: tempering the filter element for 3 to 12 h at a temperature in the range of 80 to 120 °C. 1) Modification of a substrate material, comprising: adding 1-10 % per weight of ammonium phosphomolybdate and 1-3 % per weight of a coupling agent, selected from methyl methacrylate and styrene, to a substrate material, selected from polypropylene and polyethersulfone, heating to a temperature in the range of 160 to 220°C and mixing evenly so that the substrate material is modified by ammonium phosphomolybdate; adding 1-10 % per weight of ammonium phosphomolybdate and 1-3 % per weight of a coupling agent, selected from methyl methacrylate and styrene, to a substrate material, selected from polypropylene and polyethersulfone, heating to a temperature in the range of 160 to 220°C and mixing evenly so that the substrate material is modified by ammonium phosphomolybdate; 2) Melt blowing and molding of the filter element, comprising: spinning the material prepared in 1) through a 5 μm micropore by a melt blowing method to yield a spinned filament, and forming the spinned filament to an absorptive filter element; spinning the material prepared in 1) through a 5 μm micropore by a melt blowing method to yield a spinned filament, and forming the spinned filament to an absorptive filter element; 3) Coating of the filter element, comprising: coating ammonium phosphomolybdate on the surface of the absorptive filter element prepared in 2) so that the coated ammonium phosphomolybdate is modified by the ammonium phosphomolybdate inside the substrate material; coating ammonium phosphomolybdate on the surface of the absorptive filter element prepared in 2) so that the coated ammonium phosphomolybdate is modified by the ammonium phosphomolybdate inside the substrate material; 4) Stabilization and aging treatment of the filter element: tempering the filter element for 3 to 12 h at a temperature in the range of 80 to 120 °C. tempering the filter element for 3 to 12 h at a temperature in the range of 80 to 120 °C.