mhurhangee/ep-ind-claims huggingface dataset:
A cab for a construction machine, said cab comprising a door and a door opening and closing mechanism for opening and closing said door, said door opening and closing mechanism including a hollow tube having a hollow space therein and having a hole connecting said hollow space to outside, a shaft support portion attached to said hollow tube and having a pair of shafts protruding from both of side surfaces of the shaft support, respectively, facing each other in a width direction, a handle having a base portion including a pair of side portions that sandwich both of said side surfaces of the shaft support with the shaft support portion being disposed between said side portions and each have a recess receiving corresponding one of said pair of shafts, and a grip portion at an end on said outside of said base portion, said handle being movable in a direction in which said handle is pushed into said hollow space, and a restriction member having a pair of restriction portions being located on the outside of the pair of side portions in said width direction and restricting a movement of said base portion in said width direction between an end on the grip portion side of said shaft support portion and an end on the hollow space side of said base portion.
A glove with a sleeve comprising: a glove main body that comprises rubber as a principal component; and a cylindrical sleeve that comprises a thermoplastic resin as a principal component and is arranged to protrude from a cuff portion of the glove main body, characterized in that one end portion of the sleeve is arranged to overlap and bonded through a moisture-curing urethane-based hot melt adhesive to an external side of the cylindrical cuff portion of the glove main body; and the one end portion of the sleeve on a side to the glove main body is aligned with an end portion of an area with the moisture-curing urethane-based hot melt adhesive being applied, on a side to a fingertip of the glove main body; and the glove main body comprises a carboxyl group-containing acrylonitrile-butadiene rubber, the lower limit of the content of the carboxyl-group-containing acrylonitrile-butadiene rubber is 10% by mass. a glove main body that comprises rubber as a principal component; and a cylindrical sleeve that comprises a thermoplastic resin as a principal component and is arranged to protrude from a cuff portion of the glove main body, characterized in that one end portion of the sleeve is arranged to overlap and bonded through a moisture-curing urethane-based hot melt adhesive to an external side of the cylindrical cuff portion of the glove main body; and the one end portion of the sleeve on a side to the glove main body is aligned with an end portion of an area with the moisture-curing urethane-based hot melt adhesive being applied, on a side to a fingertip of the glove main body; and
A method of storing and recovering energy, in which an air liquefaction product (LAIR) is formed in an energy storage period and a fluid pressure stream is formed using at least a portion of the air liquefaction product (LAIR) in an energy recovery period and is expanded to perform work in at least one energy generation device (14, 17), wherein in the energy storage period the air liquefaction product (LAIR) is obtained as liquid medium by compression of air, operated with supply of energy, in an air conditioning device, if desired is stored in the cold state in a storage unit designed as a liquid storage means, and is sent to an evaporator unit in the energy storage period and wherein the air liquefaction product (LAIR) is expanded to perform work at least in the energy recovery period after a pressure increase as the fluid pressure stream in the at least one energy generation device (14, 17), wherein the fluid pressure stream is expanded in a first energy generation device and, upstream of this first energy generation device, is passed through a recuperator device in which heat energy abstracted from a flue gas stream fed to the recuperator device is injected into the fluid pressure stream, the flue gas stream being fed to the recuperator device from a fuel-fired second energy generation device, characterized in that the fluid pressure stream is expanded in a first expansion stage of the first energy generation device to a pressure of ≥ 10 bar, then a substream (25, 26) is branched off and fed to the fuel-fired second energy generation device.
Hydraulic door, gate or window drive having a drive housing and a valve, wherein the valve is arranged in a hydraulic duct of the hydraulic door, gate or window drive through which hydraulic fluid can flow, having a valve member which is axially displaceable in a valve bore of the valve, and having a throttle contour which comprises a plurality of outflow ducts on the inner circumference of the valve bore and which, in dependence on the axial displacement of the valve member relative to the valve bore are opened or closed to allow overflow of the hydraulic fluid and by means of which the throughflow of the overflowing hydraulic fluid can be regulated via an axial displacement of the valve member, the hydraulic door, gate or window drive comprising a sleeve which is inserted into a corresponding bore of the drive housing, and the valve bore being formed by the corresponding bore in the sleeve inserted into the drive housing, and the throttle contour being provided on the inner circumference of the sleeve, characterized in that the throttle contour comprises a plurality of outflow ducts distributed in the circumferential direction, a respective outflow duct of the throttle contour extending at least substantially in the axial direction in which the valve member is displaceable, and in that different outflow ducts have different flow cross sections in which the throttle contour comprises at least one outflow duct having a flow cross section which, at least in certain portions, becomes larger or smaller in a stepwise manner, and/or comprises at least one outflow duct having a flow cross section which, at least in certain portions, becomes continuously larger or continuously smaller in the axial direction.
A brush seal assembly, comprising: a packing body that includes an insertion groove defined therein formed inward in a circumferential direction, the insertion groove being operable to be positioned between a rotating body (5, 6) and a fixed body (3, 4), the packing body further including insertion holes having openings defined therein disposed toward the insertion groove at different positions and in different directions; a brush seal part including a brush and a support member that supports the brush, the brush being operable to extend toward the rotating body (5, 6) when the brush is disposed in the insertion groove, characterised that it further comprises a thermal expansion member operable to adhere to a side of the support member and thermally expand in a circumferential direction of the packing body; and a plurality of fixing members operable to be inserted into the insertion holes, respectively, from an outside of the packing body to maintain a fixed state of the brush seal part in radial and circumferential directions of the packing body. a packing body that includes an insertion groove defined therein formed inward in a circumferential direction, the insertion groove being operable to be positioned between a rotating body (5, 6) and a fixed body (3, 4), the packing body further including insertion holes having openings defined therein disposed toward the insertion groove at different positions and in different directions; a brush seal part including a brush and a support member that supports the brush, the brush being operable to extend toward the rotating body (5, 6) when the brush is disposed in the insertion groove, characterised that it further comprises a thermal expansion member operable to adhere to a side of the support member and thermally expand in a circumferential direction of the packing body; and a plurality of fixing members operable to be inserted into the insertion holes, respectively, from an outside of the packing body to maintain a fixed state of the brush seal part in radial and circumferential directions of the packing body.
A glass composition comprising: from 65 mol.% to 70 mol.% SiO 2; from 9 mol.% to 14 mol.% Al 2 O 3; from 0 mol.% to 11 mol.% B 2 O 3; from 5 mol.% to less than 10 mol.% alkali oxide R 2 O, wherein R is at least one of Li, Na, and K; and from 7 mol.% to 11 mol.% of divalent oxide MO, wherein M is at least one of Mg, Ca, Ba, SrO and Zn, wherein an average coefficient of thermal expansion of a glass formed from the glass composition is less than or equal to 55x10 -7 /°C, a compressive stress in the glass composition is greater than or equal to 400 MPa following ion-exchange in a 100% KNO 3 salt bath at 410°C for 8 hours, and a liquidus viscosity greater than or equal to 35 kPoise. from 65 mol.% to 70 mol.% SiO 2; from 9 mol.% to 14 mol.% Al 2 O 3; from 0 mol.% to 11 mol.% B 2 O 3; from 5 mol.% to less than 10 mol.% alkali oxide R 2 O, wherein R is at least one of Li, Na, and K; and from 7 mol.% to 11 mol.% of divalent oxide MO, wherein M is at least one of Mg, Ca, Ba, SrO and Zn, wherein an average coefficient of thermal expansion of a glass formed from the glass composition is less than or equal to 55x10 -7 /°C, a compressive stress in the glass composition is greater than or equal to 400 MPa following ion-exchange in a 100% KNO 3 salt bath at 410°C for 8 hours, and a liquidus viscosity greater than or equal to 35 kPoise.
A fistula graft (20, 200) for treating a fistula (4, 5) having an opening in a first tissue wall, an opening in a second tissue wall, and a fistula tract extending therebetween, the fistula graft comprising: a cap (22, 204, 205) configured to contact tissue wall portions adjacent to the first tissue wall opening; an elongate graft body (113, 201) configured to fill at least a segment of the fistula tract and a retaining element (121, 209) coupled to the cap and passing through the elongate graft body, the retaining element configured to extend through the fistula tract, the cap (22, 204, 205) and graft body (113, 201) being retained in association with one another by the retaining element (121, 209), characterized by the elongate graft body comprising a folded or rolled intact sheet of a biological material receptive to tissue ingrowth of host cells and selected from the group consisting of: a cadaveric material from a human donor, and a heterograft material from a nonhuman donor. a cap (22, 204, 205) configured to contact tissue wall portions adjacent to the first tissue wall opening; an elongate graft body (113, 201) configured to fill at least a segment of the fistula tract and a retaining element (121, 209) coupled to the cap and passing through the elongate graft body, the retaining element configured to extend through the fistula tract, the cap (22, 204, 205) and graft body (113, 201) being retained in association with one another by the retaining element (121, 209), characterized by the elongate graft body comprising a folded or rolled intact sheet of a biological material receptive to tissue ingrowth of host cells and selected from the group consisting of: a cadaveric material from a human donor, and a heterograft material from a nonhuman donor.
A method of intersection access by an ego vehicle (1000, 1300, 1500, 1604), comprising: determining a braking distance for the ego vehicle based upon vehicle external sensors (100, 200, 1102), vehicle internal sensors (110, 210, 1104), vehicle capabilities (120, 220, 1106), or external V2X input (130, 230, 1108), or a combination thereof; sending, from the ego vehicle to a roadside unit, RSU, a first message, wherein the first message comprises an identification data element for the ego vehicle or a vehicle type or a vehicle priority or a combination thereof and a braking distance data element for the ego vehicle; receiving, from the RSU a second message comprising one or more instructions with respect to intersection access by the ego vehicle, based at least in part upon the braking distance for the ego vehicle; and controlling the intersection access by the ego vehicle in response to the one or more instructions received from the RSU. determining a braking distance for the ego vehicle based upon vehicle external sensors (100, 200, 1102), vehicle internal sensors (110, 210, 1104), vehicle capabilities (120, 220, 1106), or external V2X input (130, 230, 1108), or a combination thereof; sending, from the ego vehicle to a roadside unit, RSU, a first message, wherein the first message comprises an identification data element for the ego vehicle or a vehicle type or a vehicle priority or a combination thereof and a braking distance data element for the ego vehicle; receiving, from the RSU a second message comprising one or more instructions with respect to intersection access by the ego vehicle, based at least in part upon the braking distance for the ego vehicle; and controlling the intersection access by the ego vehicle in response to the one or more instructions received from the RSU.
A flowmeter for metering the flow rate of a fluid circulating in a plant, comprising: an elongated internally hollow body, provided with an inlet opening, a turbine in said body with a permanent magnet fitted to said turbine, and a magnetic sensor laterally located on said elongated body, characterised in that said elongated internally hollow body comprises a closed end portion with a conical seat provided inside of the closed end portion, said elongated internally hollow body comprises at least a side opening as outlet opening, said turbine is axially movable in said elongated internally hollow body because of the flow to be measured, said turbine being of the Kaplan type and comprising a turbine body or runner provided at one end with blades connected by a ring and at the other end with a self-centring front conical pin suitable to cooperate with a conical seat in a closed end portion of said hollow body, said self-centring front conical pin carries said permanent magnet, whereby said permanent magnet is located in said closed end portion, a guide blades assembly which is located between said inlet opening and said turbine body, the latter having a pin suitable to engage a hole in the guide blades assembly, the latter comprising blades peripherically connected by a ring and a dome-shaped baffle adapted to dissipate the kinetic energy acquired by the fluid and to reduce its speed.
An automotive thermoplastic resin composition, comprising: an aliphatic polyamide resin, comprising 1 wt% to 20 wt% of polyamide 6; and 30 wt% to 70 wt% of polyamide 66; the automotive thermoplastic resin composition further comprising: 0.1 wt% to 1 wt% of a first chelating agent comprising at least one of a carboxylic acid or a salt thereof and an amino group; 0.1 wt% to 5 wt% of a second chelating agent comprising a C 1 to C 10 (excluding carbon atoms in a carboxyl group) aliphatic polycarboxylic acid having 2 to 4 carboxyl groups; and fillers, wherein the amounts in wt% are based on the total weight of the polyamide 6, the polyamide 66, the first chelating agent, the second chelating agent and the fillers, wherein a weight ratio of the polyamide 6 to the polyamide 66 ranges from 1:2 to 1:25. an aliphatic polyamide resin, comprising 1 wt% to 20 wt% of polyamide 6; and 30 wt% to 70 wt% of polyamide 66; 1 wt% to 20 wt% of polyamide 6; and 30 wt% to 70 wt% of polyamide 66; the automotive thermoplastic resin composition further comprising: 0.1 wt% to 1 wt% of a first chelating agent comprising at least one of a carboxylic acid or a salt thereof and an amino group; 0.1 wt% to 5 wt% of a second chelating agent comprising a C 1 to C 10 (excluding carbon atoms in a carboxyl group) aliphatic polycarboxylic acid having 2 to 4 carboxyl groups; and 0.1 wt% to 1 wt% of a first chelating agent comprising at least one of a carboxylic acid or a salt thereof and an amino group; 0.1 wt% to 5 wt% of a second chelating agent comprising a C 1 to C 10 (excluding carbon atoms in a carboxyl group) aliphatic polycarboxylic acid having 2 to 4 carboxyl groups; and fillers, wherein the amounts in wt% are based on the total weight of the polyamide 6, the polyamide 66, the first chelating agent, the second chelating agent and the fillers, wherein a weight ratio of the polyamide 6 to the polyamide 66 ranges from 1:2 to 1:25.
A method for verifying a trip for a user and a trip provider, the method comprising: receiving, from a client device (110A, 110B), a data sample for a set of sensors of the client device (110A, 110B), the data sample being associated with the trip for the user and the trip provider; generating a test embedding (302, 303, 323) for the data sample, the test embedding using a plurality of latent dimensions that represent at least a portion of the data sample; generating a reference embedding (304, 402, 403) for other trips having one or more same characteristics as the test embedding (302, 303, 323); determining a similarity score between the test embedding (302, 303, 323) and the reference embedding (304, 402, 403) by comparing each one of the plurality of latent dimensions of the test embedding (302, 303, 323) and a corresponding latent dimension of the reference embedding (304, 402, 403), wherein the test embedding and the reference embedding are generated using a model trained to infer latent variables based at least in part on feature vectors derived from data samples captured for trips, wherein the plurality of latent dimensions correspond to the inferred latent variables; determining, in response to the similarity score exceeding a threshold score, that the trip provider and the user both traveled along at least a portion of a route of the trip; and determining an amount of compensation to be provided from the user to the trip provider for the trip using at least the portion of the route. receiving, from a client device (110A, 110B), a data sample for a set of sensors of the client device (110A, 110B), the data sample being associated with the trip for the user and the trip provider; generating a test embedding (302, 303, 323) for the data sample, the test embedding using a plurality of latent dimensions that represent at least a portion of the data sample; generating a reference embedding (304, 402, 403) for other trips having one or more same characteristics as the test embedding (302, 303, 323); determining a similarity score between the test embedding (302, 303, 323) and the reference embedding (304, 402, 403) by comparing each one of the plurality of latent dimensions of the test embedding (302, 303, 323) and a corresponding latent dimension of the reference embedding (304, 402, 403), wherein the test embedding and the reference embedding are generated using a model trained to infer latent variables based at least in part on feature vectors derived from data samples captured for trips, wherein the plurality of latent dimensions correspond to the inferred latent variables; determining, in response to the similarity score exceeding a threshold score, that the trip provider and the user both traveled along at least a portion of a route of the trip; and determining an amount of compensation to be provided from the user to the trip provider for the trip using at least the portion of the route.
A method for improving quality of a bovine semen sample, comprising: providing (i) an insoluble carrier carrying at least one ligand, or (ii) at least one ligand and an insoluble carrier carrying at least one molecule capable of binding to the at least one ligand, wherein said ligand is an anti-rabbit IgG or a binding fragment thereof; contacting the semen sample and said insoluble carrier carrying at least one ligand or said at least one ligand and insoluble carrier carrying at least molecule capable of binding to the at least one ligand to provide a bound unhealthy sperm cell population and an unbound sperm cell population; and separating the bound sperm cell population from the unbound sperm cell population, wherein said insoluble carrier comprises a plurality of magnetic beads and the bound sperm cell population is separated from the unbound sperm cell population by magnetic separation. providing (i) an insoluble carrier carrying at least one ligand, or (ii) at least one ligand and an insoluble carrier carrying at least one molecule capable of binding to the at least one ligand, wherein said ligand is an anti-rabbit IgG or a binding fragment thereof; contacting the semen sample and said insoluble carrier carrying at least one ligand or said at least one ligand and insoluble carrier carrying at least molecule capable of binding to the at least one ligand to provide a bound unhealthy sperm cell population and an unbound sperm cell population; and separating the bound sperm cell population from the unbound sperm cell population, wherein said insoluble carrier comprises a plurality of magnetic beads and the bound sperm cell population is separated from the unbound sperm cell population by magnetic separation.
A computer readable medium containing executable program instructions for automatic resizing of an image in a document for display across a network, the executable program instructions including instructions for: 1. serving the document across the network in response to a request for the document from the client document browser, the document containing instructions for a client document browser to a. display the image within a component in the document, b. resize the component upon resizing of the client document browser, and c. determine a size of the image to be requested from a server d. request a resized version of the image of the determined size from the server upon resizing of the client document browser; 2. in response to the request for the resized version of the image from the client document browser, retrieving from memory or generating the resized version of the image in the server; 3. serving the resized version of the image across the network. 1. serving the document across the network in response to a request for the document from the client document browser, the document containing instructions for a client document browser to a. display the image within a component in the document, b. resize the component upon resizing of the client document browser, and c. determine a size of the image to be requested from a server d. request a resized version of the image of the determined size from the server upon resizing of the client document browser; a. display the image within a component in the document, b. resize the component upon resizing of the client document browser, and c. determine a size of the image to be requested from a server d. request a resized version of the image of the determined size from the server upon resizing of the client document browser; 2. in response to the request for the resized version of the image from the client document browser, retrieving from memory or generating the resized version of the image in the server; 3. serving the resized version of the image across the network.
A core discharge device for discharging a core from a cast material, the core being a sand core containing a binder that contains water glass, the device comprising: a humidified gas supply device that supplies humidified gas, to which humidity has been added, to the sand core inside a cast molded article, characterized by: a droplet removing device configured to remove droplets from the humidified gas before the humidified gas is supplied to the core. a humidified gas supply device that supplies humidified gas, to which humidity has been added, to the sand core inside a cast molded article, characterized by: a droplet removing device configured to remove droplets from the humidified gas before the humidified gas is supplied to the core.