mhurhangee/ep-ind-claims huggingface dataset:
A valve for a fluid delivery system, comprising: a valve seat comprising a fluid inlet, a fluid outlet, and a conical well having an opening, a beveled surface, and a bottom; and a valve membrane (102, 600) comprising a conical portion having a base and a tip, the conical portion configured to fit within the conical well of the valve seat, the valve membrane (102, 600) configured to fluidly connect the fluid inlet to the fluid outlet when in an undeformed position and fluidly disconnect the fluid inlet from the fluid outlet when in a radially deformed position, wherein, in the undeformed position, a wall of the conical portion is spaced apart from the beveled surface by a clearance to fluidly connect the fluid inlet to the fluid outlet, and in the deformed position, the tip of the valve membrane (102, 600) touches the bottom of the conical well such that the conical portion of valve membrane (102, 600) is radially expanded and the conical portion touches the beveled surface to close the clearance. a valve seat comprising a fluid inlet, a fluid outlet, and a conical well having an opening, a beveled surface, and a bottom; and a valve membrane (102, 600) comprising a conical portion having a base and a tip, the conical portion configured to fit within the conical well of the valve seat, the valve membrane (102, 600) configured to fluidly connect the fluid inlet to the fluid outlet when in an undeformed position and fluidly disconnect the fluid inlet from the fluid outlet when in a radially deformed position, wherein, in the undeformed position, a wall of the conical portion is spaced apart from the beveled surface by a clearance to fluidly connect the fluid inlet to the fluid outlet, and in the deformed position, the tip of the valve membrane (102, 600) touches the bottom of the conical well such that the conical portion of valve membrane (102, 600) is radially expanded and the conical portion touches the beveled surface to close the clearance.
An ignition-quenching cover configured to quench an ignition event in a combustible environment triggered by an ignition source associated with a fastener stack, the ignition-quenching cover comprising: a porous body that is gas permeable and that has pores sized to quench ignition in the combustible environment; and a cover attachment feature configured to mate with a fastener attachment feature of the fastener stack; wherein the ignition-quenching cover is configured to cover the fastener stack, wherein the fastener stack is associated with a potential ignition source that may produce the ignition event in the combustible environment; and wherein the porous body includes one or more porous elements, wherein each porous element independently is a mass of sintered polymer particles, a salt-templated polymer, an inverse-cast polymer, a mesh, a woven fabric, a non-woven fabric, or a felt fabric, wherein the porous body is flexible and includes a seam at a tip of the ignition-quenching cover, and wherein the porous body is formed by sealing an open-topped porous body with the seam. a porous body that is gas permeable and that has pores sized to quench ignition in the combustible environment; and a cover attachment feature configured to mate with a fastener attachment feature of the fastener stack; wherein the ignition-quenching cover is configured to cover the fastener stack, wherein the fastener stack is associated with a potential ignition source that may produce the ignition event in the combustible environment; and wherein the porous body includes one or more porous elements, wherein each porous element independently is a mass of sintered polymer particles, a salt-templated polymer, an inverse-cast polymer, a mesh, a woven fabric, a non-woven fabric, or a felt fabric, wherein the porous body is flexible and includes a seam at a tip of the ignition-quenching cover, and wherein the porous body is formed by sealing an open-topped porous body with the seam.
A room-temperature stable injectable solution for veterinary use comprising from 2.5 to 7.5 (w/v) of Carprofen (6-chloro-α-methyl-carbazole-2-acetic acid), and from greater than 2 to 12% (w/v) of a poloxamer, 1 to 20% (w/v) arginine, and water q.s. for injection.
A method for Internet Protocol Multimedia Subsystem, IMS, registration, the method being applied to a terminal, the method comprising: determining, by the terminal, whether a network side supports an IMS service; acquiring, by the terminal, according to an IMS Access Point Name, APN, an address for the IMS registration if the network side supports the IMS service; performing, by the terminal, the IMS registration according to the acquired address for the IMS registration; and initiating, by the terminal, if the IMS registration fails, an IMS re-registration; characterized in that initiating, by the terminal, if the IMS registration fails, the IMS re-registration comprises: initiating the IMS re-registration if a number of times that the IMS registration is performed is below a first preset threshold; and re-acquiring, if the number of times that the IMS registration is performed reaches the first preset threshold, an address for an IMS registration, and initiating the IMS registration according to the re-acquired address for the IMS registration. determining, by the terminal, whether a network side supports an IMS service; acquiring, by the terminal, according to an IMS Access Point Name, APN, an address for the IMS registration if the network side supports the IMS service; performing, by the terminal, the IMS registration according to the acquired address for the IMS registration; and initiating, by the terminal, if the IMS registration fails, an IMS re-registration; characterized in that initiating, by the terminal, if the IMS registration fails, the IMS re-registration comprises: initiating the IMS re-registration if a number of times that the IMS registration is performed is below a first preset threshold; and re-acquiring, if the number of times that the IMS registration is performed reaches the first preset threshold, an address for an IMS registration, and initiating the IMS registration according to the re-acquired address for the IMS registration. initiating the IMS re-registration if a number of times that the IMS registration is performed is below a first preset threshold; and re-acquiring, if the number of times that the IMS registration is performed reaches the first preset threshold, an address for an IMS registration, and initiating the IMS registration according to the re-acquired address for the IMS registration.
An assembly press for producing insulating glass elements with at least two parallel panes (1,2), which are connected together by means of at least one spacer, arranged between adjacent panes (1,2), comprising two press elements (4,5), which are arranged opposite each other and which define a working chamber between each other, wherein the spacing between them is adjustable in a first direction, in order to press together the panes (1,2), located in the working chamber, to form the insulating glass element; and a conveying device for transporting the panes (1,2) into the working chamber to a working position and out of the said working chamber in a second direction, which is perpendicular to the first direction; wherein the conveying device has at least two drivable conveying elements (7a,7b), each having a support means (8a,8b) for supporting the lower face of at least one of the at least two panes (1,2) during transport of the same in a respective transport plane and which are adjustable, independently of each other, in such a way that the transport planes, defined by the support means (8a,8b), are located at different positions in a third direction, which is perpendicular to the first direction and the second direction, characterized in that at least one of the press elements (4,5) is adjustable in the third direction, which is perpendicular to the first direction and the second direction.
Disengaging unit with an angular ball bearing actuated by tensile force, comprising an inner bearing ring and an outer bearing ring and also rolling bodies guided between the bearing rings (1, 2), the angular ball bearing being axially supported radially movably in a rotationally fixed outer component surrounding the angular ball bearing on the outside, characterized in that the inner bearing ring is axially supported on both sides on the rotationally fixed outer component, and the outer bearing ring is axially supported on an inner rotatable component surrounded at least partially by the outer bearing ring, the inner bearing ring being supported on the outer component so as to be radially displaceable to a limited extent in relation to the outer component.
Self-propelled construction machine with an undercarriage which has front and rear - in the working direction - wheels or travelling gears (4A, 4B), a machine frame which is borne by the undercarriage, a working means for constructing structures on the ground or for altering the ground in a specified working region, a control unit for controlling the construction machine, characterised in that the construction machine furthermore has: a means for generating predictive object signals which are characteristic of the position of objects lying in a portion of the ground which lies in the working direction in front of the working region of the working means, and a signal processing means which processes the predictive object signals, which means is configured such that during the advance of the construction machine object signals relating to the working region of the working means are obtained from the predictive object signals, these signals being characteristic of the position of the objects in a portion of the ground relating to the working region of the working means. a means for generating predictive object signals which are characteristic of the position of objects lying in a portion of the ground which lies in the working direction in front of the working region of the working means, and a signal processing means which processes the predictive object signals, which means is configured such that during the advance of the construction machine object signals relating to the working region of the working means are obtained from the predictive object signals, these signals being characteristic of the position of the objects in a portion of the ground relating to the working region of the working means.
An apparatus comprising: an insulation blanket including: an outer layer; an insulation layer disposed in the outer layer; and a first fastener disposed in the insulation layer, the outer layer and the insulation layer forming a first channel, the first fastener being adapted to receive, via the first channel, a first portion of a vehicle compartment frame to sealingly couple the insulation layer and the outer layer of the insulation blanket to the vehicle compartment frame; wherein the insulation layer and the first fastener disposed in the insulation layer are enclosed in the outer layer; wherein the first fastener comprises a unitary structure comprising a first leg, a second leg opposite the first leg, and a middle portion extending between the first leg and the second leg; and wherein the first leg and the second leg are configured to clamp a portion of the insulation blanket to the vehicle compartment frame. an outer layer; an insulation layer disposed in the outer layer; and a first fastener disposed in the insulation layer, the outer layer and the insulation layer forming a first channel, the first fastener being adapted to receive, via the first channel, a first portion of a vehicle compartment frame to sealingly couple the insulation layer and the outer layer of the insulation blanket to the vehicle compartment frame; wherein the insulation layer and the first fastener disposed in the insulation layer are enclosed in the outer layer; wherein the first fastener comprises a unitary structure comprising a first leg, a second leg opposite the first leg, and a middle portion extending between the first leg and the second leg; and wherein the first leg and the second leg are configured to clamp a portion of the insulation blanket to the vehicle compartment frame.
A wireless communication device comprising: an Orthogonal Frequency Division Multiplexing, OFDM, signal generation section that generates an OFDM signal in which at least one of plural resource units obtained by channel band division is set as a control information resource unit for transmitting control information, wherein in order to indicate to a reception-side wireless communication device that receives the OFDM signal, the Basic Service Set, BSS, to which the wireless communication device belongs, the OFDM signal is generated by the OFDM signal generation section such that a different position of the control information resource unit among the plural resource units indicates a different one of a plurality of Basic Service Sets, BSSs, to which the wireless communication device belongs. an Orthogonal Frequency Division Multiplexing, OFDM, signal generation section that generates an OFDM signal in which at least one of plural resource units obtained by channel band division is set as a control information resource unit for transmitting control information, wherein in order to indicate to a reception-side wireless communication device that receives the OFDM signal, the Basic Service Set, BSS, to which the wireless communication device belongs, the OFDM signal is generated by the OFDM signal generation section such that a different position of the control information resource unit among the plural resource units indicates a different one of a plurality of Basic Service Sets, BSSs, to which the wireless communication device belongs.
An optically variable element for arrangement on a data carrier such as an object of value, wherein the optically variable element has a first phase with a first fluid comprising a magnetically orientable pigment having a first coloring and a second phase with a second fluid that is configured to be magnetically non-orientable and has a second coloring, wherein an optically variable capsule surrounds the first phase and the second phase, characterized in that the first and second phases have different surface tension and form an emulsion.
A protective cover for a car seat for use in protection of car seats in the process of manufacturing or servicing, characterized in that it has a back part made from antistatic polypropylene, spunbond and non woven, with gram weight from 10g/m 2 to 100 g/m 2, and a part, which is intended to be placed on the seating part of a seat, made from antistatic polypropylene with gram weight from 10 g/m 2 to 100 g/m 2 and an anti-slip polyethylene film having a thickness between 10 and 100 μm.
Pallet intended to be secured to an object in order to make said object easier to handle, said pallet being formed in two identical portions (14, 15), which are secured to one another at an interface plane delimiting a main internal channel, each of the portions (14, 15) being rectangular in shape, the two portions (14, 15) being superimposed on one another such that the resulting thickness of the pallet corresponds to the sum of the two thicknesses of the two portions (14, 15) and such that the width and the length of said pallet correspond to the width and the length of a portion (14, 15), respectively, each portion (14, 15) having a recess extending over its entire width and over a fraction of its length, so that, once assembled, the two portions (14, 15) delimit the main internal channel, characterized in that each portion (14, 15) has a second recess extending over part of its width and over part of its length, so that, once assembled, the two portions (14, 15) delimit a secondary internal channel extending in a direction that is perpendicular to the main channel and opening into the latter and at an edge of the pallet.
A hydraulic pump assembly for a vehicle, comprising an electrical motor, a hydraulic pump driven by the electrical motor, and a centrifugal regulator in connection with a pressure overflow valve connected to the oil outlet of the hydraulic pump, characterized in that the pump assembly further comprises at least two input check valves (110, 112) and at least two output check valves (114, 116) arranged such that a first pressure outlet port is formed when the motor is rotating in a first direction, and a second pressure outlet port is formed when the motor is rotating in an opposite direction, wherein the first pressure outlet port departs from a position on a first hydraulic line being pressurized by the hydraulic pump when the motor rotates in the first direction, the position being located between one input check valve and one output check valve, and wherein the second pressure outlet port departs from a position on a second hydraulic line being pressurized by the hydraulic pump when the motor rotates in the second direction located between another input check valve and another output check valve.
A method for forwarding data performed by a small cell in a wireless communication system, wherein the small cell and a macro evolved NodeB, eNB, are involved in dual connectivity of a user equipment, UE, the method comprising: receiving an indication which indicates stopping serving a small cell service from the macro eNB; and upon receiving the indication, starting to forward data to the macro eNB, characterized in that the indication is received via an X2 end marker. receiving an indication which indicates stopping serving a small cell service from the macro eNB; and upon receiving the indication, starting to forward data to the macro eNB, characterized in that the indication is received via an X2 end marker.
A method of extracting one or more components of a raw material by using citrus fruit(s) as the raw material which comprises the following steps: preliminarily freezing the raw material at a temperature higher than the freezing temperature before the step of freezing the raw material; freezing the raw material; grinding the frozen matter at a controlled temperature; and dipping the ground matter in an alcohol having an alcohol concentration from 30% to 60% to extract one or more components of the raw material; and wherein the controlled temperature is not higher than the brittle temperature of limonene and/or citrus fruit essential oil; and the average grain size of the ground matter is 1 μm to 200 μm; wherein the term "brittle temperature" means the temperature at which the frozen matter rapidly becomes brittle - i.e. fragile and easily breakable - at a low temperature, and the brittle temperature is determined by plotting the sample center temperature versus the breaking load and the temperature at which the breaking load shows the most remarkable lowering is referred to as the brittle temperature. preliminarily freezing the raw material at a temperature higher than the freezing temperature before the step of freezing the raw material; freezing the raw material; grinding the frozen matter at a controlled temperature; and dipping the ground matter in an alcohol having an alcohol concentration from 30% to 60% to extract one or more components of the raw material; and wherein the controlled temperature is not higher than the brittle temperature of limonene and/or citrus fruit essential oil; and the average grain size of the ground matter is 1 μm to 200 μm; wherein the term "brittle temperature" means the temperature at which the frozen matter rapidly becomes brittle - i.e. fragile and easily breakable - at a low temperature, and the brittle temperature is determined by plotting the sample center temperature versus the breaking load and the temperature at which the breaking load shows the most remarkable lowering is referred to as the brittle temperature.
A method for producing coated lithium-nickel composite oxide particles comprising: preparing a resin solution for coating by dissolving a conductive polymer into a good solvent that dissolves the conductive polymer; adding a poor solvent that does not dissolve the conductive polymer, and has a boiling point higher than that of the good solvent, into the resin solution for coating; adding the lithium-nickel composite oxide particles into the resin solution for coating to prepare a slurry; and coating the lithium-nickel composite oxide particles with the conductive polymer by removing the good solvent from the slurry; wherein the conductive polymer has a structure in which a double bond and a single bond are alternately arranged in a molecular structure, doped with an acceptor molecule or a donor molecule. preparing a resin solution for coating by dissolving a conductive polymer into a good solvent that dissolves the conductive polymer; adding a poor solvent that does not dissolve the conductive polymer, and has a boiling point higher than that of the good solvent, into the resin solution for coating; adding the lithium-nickel composite oxide particles into the resin solution for coating to prepare a slurry; and coating the lithium-nickel composite oxide particles with the conductive polymer by removing the good solvent from the slurry;
Back-contact back-sheet for a photovoltaic module comprising back-contact solar cells, said back-contact back-sheet comprising an outer face facing the air-side of a respective photovoltaic module and an inner face opposite said outer face and exposed towards the inside of said respective photovoltaic module, said back-contact back-sheet comprising: a substrate having an outer surface substantially coincident with said outer face of said back-contact back-sheet and an inner surface opposite said outer surface and exposed towards the inside of said photovoltaic module, a layer of an electrically conductive material adapted to be formed as a connecting circuit to the electrodes of said solar cells, said layer of electrically conductive material comprising a lower surface facing said inner surface of said substrate and an upper surface opposite said lower surface, one or more through-holes such as to bring into communication said upper surface of said conductive layer with said outer face of said back-contact back-sheet, wherein at least one of said through-holes lies within an indented region of said back-contact back-sheet and wherein said indented region comprises a portion of said connecting circuit so that said portion of said connecting circuit defines a cavity facing the inside of said photovoltaic module. a substrate having an outer surface substantially coincident with said outer face of said back-contact back-sheet and an inner surface opposite said outer surface and exposed towards the inside of said photovoltaic module, a layer of an electrically conductive material adapted to be formed as a connecting circuit to the electrodes of said solar cells, said layer of electrically conductive material comprising a lower surface facing said inner surface of said substrate and an upper surface opposite said lower surface, one or more through-holes such as to bring into communication said upper surface of said conductive layer with said outer face of said back-contact back-sheet, wherein at least one of said through-holes lies within an indented region of said back-contact back-sheet and wherein said indented region comprises a portion of said connecting circuit so that said portion of said connecting circuit defines a cavity facing the inside of said photovoltaic module.