mhurhangee/ep-ind-claims huggingface dataset:
Vehicle, wherein an exchanger element and a packing are assigned to the vehicle, in particular a passenger compartment and/or an engine bay of the vehicle, wherein the exchanger element comprises an exhaust air flow path and a supply air flow path, and wherein the exhaust air flow path and the feed air flow path are separated from one another by partition wall sections which have heat-transferring wall regions, wherein the exhaust air flow path forms a fluid connection from the interior of the vehicle, in particular from the passenger compartment or the engine bay, to the outer surroundings of the vehicle, and wherein the supply air flow path forms a fluid connection from the outer surroundings of the vehicle to a location on board the vehicle, in particular to the interior of the passenger compartment and/or the engine bay, wherein the exchanger element is embedded in a packing, whose outer surface shape is complementary to the inner dimensions of an installation space on board the vehicle, in particular in the passenger compartment and/or the engine bay, for the installation of the exchanger element.
A resonator array, which is suitable being used in an oscillator characterized in that said resonator array comprises; - at least two resonators, which are in the size of nanometers, and which are vertically arrayed; - at least one coupling membrane, which mechanically couples said resonators from their one ends, - at least one clamping element, which supports mechanical coupling by clamping said coupling membrane. - at least two resonators, which are in the size of nanometers, and which are vertically arrayed; - at least one coupling membrane, which mechanically couples said resonators from their one ends, - at least one clamping element, which supports mechanical coupling by clamping said coupling membrane.
A piston ring, including a steel material composition as the basic element thereof, characterized in that the steel material composition contains the following elements in the portions indicated relative to 100% by weight of the steel material composition: C: 0.5 - 1.2% by weight Cr: 0.2 - 20.0% by weight Fe: 49.0 - 97.1% by weight Mn: 0.1 - 3.0% by weight Mo: 0.1 - 3.0% by weight Nb: 0.0 - 7.0% by weight Si: 2.0 - 10.0% by weight Ti: 0.0 - 7.0% by weight V: 0.0 - 7.0% by weight W: 0.0 - 0.5% by weight B: max. 0.5% by weight Cu: max. 2.0% by weight Ni: max. 4.0% by weight P: max. 0.1% by weight Pb: max. 0.05% by weight S: max. 0.05% by weight Sn: max. 0.05% by weight wherein the sum of the portions of Nb, Ti, V and W is from 2.0 to 7.0% by weight, and wherein the steel material composition only contains elements selected from the group consisting of B, C, Cr, Cu, Fe, Mn, Mo, Nb, Ni, P, Pb, S, Si, Sn, Ti, V and W, and wherein the sum of these elements is equal to 100% by weight.
A medical tube and connector assembly configured to deliver respiratory gases to a patient comprising: a medical tube comprising a first elongate member and a second elongate member, the second elongate member comprising one or more wires:; a connector coupled to the end of the medical tube, wherein the connector comprises a body and a printed circuit board; wherein the second elongate member comprises a tail at an end of the medical tube, the tail comprising a flattened portion and an exposed portion, the one or more wires exposed in the exposed portion of the tail so as to form an electrical connection with the printed circuit board; and overmold material covering a juncture between the medical tube and the body. a medical tube comprising a first elongate member and a second elongate member, the second elongate member comprising one or more wires:; a connector coupled to the end of the medical tube, wherein the connector comprises a body and a printed circuit board; wherein the second elongate member comprises a tail at an end of the medical tube, the tail comprising a flattened portion and an exposed portion, the one or more wires exposed in the exposed portion of the tail so as to form an electrical connection with the printed circuit board; and overmold material covering a juncture between the medical tube and the body.
A method of estimating a pose of a surgical table comprising: reading one or more fiducial markers on a base of the surgical table with a camera mounted to a manipulator assembly adjacent the surgical table, the surgical table further including a substrate having a support surface, a support structure supporting the substrate, the support structure being movable such that the support surface is positionable along one or more degrees of freedom, wherein reading the one or more fiducial markers comprises reading at least one of the one or more fiducial markers before a surgical procedure; and determining the pose of the surgical table relative to the manipulator assembly based on reading the one or more fiducial markers with the camera. reading one or more fiducial markers on a base of the surgical table with a camera mounted to a manipulator assembly adjacent the surgical table, the surgical table further including a substrate having a support surface, a support structure supporting the substrate, the support structure being movable such that the support surface is positionable along one or more degrees of freedom, wherein reading the one or more fiducial markers comprises reading at least one of the one or more fiducial markers before a surgical procedure; and determining the pose of the surgical table relative to the manipulator assembly based on reading the one or more fiducial markers with the camera.
A method for manufacturing an optical fiber grating that includes first and second gratings that configure an optical resonator, the method comprising: forming the first grating by radiating ultraviolet light to an optical fiber so that a irradiation intensity Z satisfies the following Equation 1: Z ≤ Δλ s / x + 0.04556 Y 2 + 1.2225 Y / 0.05625 Y 2 + 1.6125 Y where, Z represents an irradiation intensity (mJ/mm 2) of the ultraviolet light, Δλs represents the maximum shift amount of a reflection center wavelength of the first grating that is allowed as long as reflection wavelengths of the first grating and second grating overlap each other, x represents a shift amount of the reflection center wavelength per temperature change of 1 °C (nm/°C) in the first grating, and Y represents an intensity of the wave guided light reflected by the optical fiber grating. forming the first grating by radiating ultraviolet light to an optical fiber so that a irradiation intensity Z satisfies the following Equation 1: Z ≤ Δλ s / x + 0.04556 Y 2 + 1.2225 Y / 0.05625 Y 2 + 1.6125 Y where, Z represents an irradiation intensity (mJ/mm 2) of the ultraviolet light, Δλs represents the maximum shift amount of a reflection center wavelength of the first grating that is allowed as long as reflection wavelengths of the first grating and second grating overlap each other, x represents a shift amount of the reflection center wavelength per temperature change of 1 °C (nm/°C) in the first grating, and Y represents an intensity of the wave guided light reflected by the optical fiber grating.
A process for manufacturing a thermoset polymer foam, comprising the steps of - subjecting a reaction mixture comprising surfactant and a prepolymer to an agitation step, the prepolymer being obtained by polymerisation of a combination of polyol monomers and polycarboxylic acid monomers, of hydroxycarboxylic acid monomers, or of a combination of polyol monomers and polycarboxylic acid monomers and hydroxycarboxylic acid monomers, the prepolymer having an extent of polymerisation between 0.1 and 0.8, the extent of polymerisation being measured as described in the description, and - subjecting the reaction mixture thus obtained to a curing step in the absence of agitation, to obtain a thermoset polymer foam, wherein the surfactant comprises an ampholytic surfactant, the total surfactant concentration being in the range of 0.1-6 wt.%. - subjecting a reaction mixture comprising surfactant and a prepolymer to an agitation step, the prepolymer being obtained by polymerisation of a combination of polyol monomers and polycarboxylic acid monomers, of hydroxycarboxylic acid monomers, or of a combination of polyol monomers and polycarboxylic acid monomers and hydroxycarboxylic acid monomers, the prepolymer having an extent of polymerisation between 0.1 and 0.8, the extent of polymerisation being measured as described in the description, and - subjecting the reaction mixture thus obtained to a curing step in the absence of agitation, to obtain a thermoset polymer foam,
A computer-implemented method, comprising: matching, by one or more processors, a communication to a first subset of a plurality of templates using a forward index, wherein each template of the plurality of templates represents content shared among a cluster of communications sent by a known legitimate entity, and wherein the forward index is indexed on one or more addresses affiliated with trustworthy entities associated with the respective templates; matching, by one or more of the processors, the communication to a second subset of the plurality of templates using a reverse index, wherein the reverse index is indexed on content of the plurality of templates; determining, by one or more of the processors, that there is no intersection between the first subset and the second subset; classifying, by one or more of the processors based on the determining, the communication as a phishing attempt; and discarding or re-routing, by one or more of the processors, the communication based on the classifying. matching, by one or more processors, a communication to a first subset of a plurality of templates using a forward index, wherein each template of the plurality of templates represents content shared among a cluster of communications sent by a known legitimate entity, and wherein the forward index is indexed on one or more addresses affiliated with trustworthy entities associated with the respective templates; matching, by one or more of the processors, the communication to a second subset of the plurality of templates using a reverse index, wherein the reverse index is indexed on content of the plurality of templates; determining, by one or more of the processors, that there is no intersection between the first subset and the second subset; classifying, by one or more of the processors based on the determining, the communication as a phishing attempt; and discarding or re-routing, by one or more of the processors, the communication based on the classifying.
A fiber layered body comprising: an extra-fine fiber layer which comprises thermoplastic elastomeric fibers and has an average fiber diameter of less than 10 μm; and a non-extra-fine fiber layer which comprises fibers having an average fiber diameter of 10 to 30 μm and is adjacent to the extra-fine fiber layer; and the fiber layered body is obtained by making a part of the fibers constituting the extra-fine fiber layer to enter into the non-extra-fine fiber layer at the time of bonding the extra-fine fiber layer with the non-extra-fine fiber layer, and by making the fibers constituting the extra-fine fiber layer to be substantially melted in contact to the interface with the non-extra-fine fiber layer, and having: a peeling strength as measured as set out in the description between the extra-fine fiber layer and the non-extra-fine fiber layer of 0.40 N/5cm or higher, and a surface unevenness as measured as set out in the description relative to a thickness of the fiber layered body of 40% or less. an extra-fine fiber layer which comprises thermoplastic elastomeric fibers and has an average fiber diameter of less than 10 μm; and a non-extra-fine fiber layer which comprises fibers having an average fiber diameter of 10 to 30 μm and is adjacent to the extra-fine fiber layer; and the fiber layered body is obtained by making a part of the fibers constituting the extra-fine fiber layer to enter into the non-extra-fine fiber layer at the time of bonding the extra-fine fiber layer with the non-extra-fine fiber layer, and by making the fibers constituting the extra-fine fiber layer to be substantially melted in contact to the interface with the non-extra-fine fiber layer, and having: a peeling strength as measured as set out in the description between the extra-fine fiber layer and the non-extra-fine fiber layer of 0.40 N/5cm or higher, and a surface unevenness as measured as set out in the description relative to a thickness of the fiber layered body of 40% or less. a peeling strength as measured as set out in the description between the extra-fine fiber layer and the non-extra-fine fiber layer of 0.40 N/5cm or higher, and a surface unevenness as measured as set out in the description relative to a thickness of the fiber layered body of 40% or less.
A method for making a roof covering for a building, wherein the building includes a roof support, in which method - a layer of determined thickness of an insulating material is fastened to the roof support in such a way as to form an upper face of insulating material, characterized in that the insulating material has a compressive strength σ10 ≥ 50 kPa, - the upper face of the insulating material is covered with bituminous corrugated plates (3, 3', 3") made of cellulose fibres arranged with their respective adjacent edges overlapping, the corrugated plates (3, 3', 3") having corrugation crests separated by corrugation troughs, - the corrugated plates (3, 3', 3") are fastened to the insulating material by anchoring screws (6, 8), the anchoring screws (6, 8) being positioned in such a way as to pass through the crests of the corrugations, the anchoring screws (6, 8) having a shaft (61, 81) with a helical thread (62, 82), the shaft (61, 81) being topped with a head (60, 80) whose diameter is greater than that of the barrel without thread, and - covering elements are installed on the corrugated plates (3, 3', 3") in order to form an outer face of the covering. - a layer of determined thickness of an insulating material is fastened to the roof support in such a way as to form an upper face of insulating material, characterized in that the insulating material has a compressive strength σ10 ≥ 50 kPa, - the upper face of the insulating material is covered with bituminous corrugated plates (3, 3', 3") made of cellulose fibres arranged with their respective adjacent edges overlapping, the corrugated plates (3, 3', 3") having corrugation crests separated by corrugation troughs, - the corrugated plates (3, 3', 3") are fastened to the insulating material by anchoring screws (6, 8), the anchoring screws (6, 8) being positioned in such a way as to pass through the crests of the corrugations, the anchoring screws (6, 8) having a shaft (61, 81) with a helical thread (62, 82), the shaft (61, 81) being topped with a head (60, 80) whose diameter is greater than that of the barrel without thread, and - covering elements are installed on the corrugated plates (3, 3', 3") in order to form an outer face of the covering.
An intraosseous access device, comprising: a device body, a trocar needle included with the device body; an intraosseous catheter removably disposed on the trocar needle, the device body configured to enable a user of the access device to manually insert a distal tip of the trocar needle through a skin surface of a body of a patient to an external surface of a bone of the patient; and an advancement mechanism configured to selectively and distally advance the trocar needle and intraosseous catheter into an internal portion of the bone of the patient after the distal tip of the trocar needle has been inserted to the external surface of the bone, wherein the intraosseous catheter includes a hub and a cannula, the cannula being slidable with respect to the hub so as to enable a longitudinal length of the intraosseous catheter to be adjusted. a device body, a trocar needle included with the device body; an intraosseous catheter removably disposed on the trocar needle, the device body configured to enable a user of the access device to manually insert a distal tip of the trocar needle through a skin surface of a body of a patient to an external surface of a bone of the patient; and an advancement mechanism configured to selectively and distally advance the trocar needle and intraosseous catheter into an internal portion of the bone of the patient after the distal tip of the trocar needle has been inserted to the external surface of the bone, wherein the intraosseous catheter includes a hub and a cannula, the cannula being slidable with respect to the hub so as to enable a longitudinal length of the intraosseous catheter to be adjusted.
A waterproof manifold electromagnetic valve, comprising: a manifold including, on an upper surface thereof, a plurality of first valve mount portions, or each of which three electromagnetic valves are arranged side by side at a predetermined inter-valve distance apart from each other, or a plurality of second valve mount portions, on each of which two electromagnetic valves are arranged side by side at the inter-valve distance apart from each other, or including at least one of the first valve mount portions and at least one of the second valve mount portions, and electromagnetic valves at end portions of valve mount portions (20A, 20B) adjacent to each other being spaced an inter-mount-portion distance larger than the inter-valve distance apart from each other; waterproof covers (70A, 70B) attached to the respective valve mount portions (20A, 20B) of the manifold to each collectively cover the three or two electromagnetic valves mounted on the corresponding valve mount portion (20A, 20B); and wherein a gap is formed between adjacent waterproof covers (70A, 70B), and the gap has such a size that is larger than the inter-valve distance, and smaller than the inter-mount-portion distance, and that allows a surface of the manifold to be exposed to an outside through the gap. a manifold including, on an upper surface thereof, a plurality of first valve mount portions, or each of which three electromagnetic valves are arranged side by side at a predetermined inter-valve distance apart from each other, or a plurality of second valve mount portions, on each of which two electromagnetic valves are arranged side by side at the inter-valve distance apart from each other, or including at least one of the first valve mount portions and at least one of the second valve mount portions, and electromagnetic valves at end portions of valve mount portions (20A, 20B) adjacent to each other being spaced an inter-mount-portion distance larger than the inter-valve distance apart from each other; waterproof covers (70A, 70B) attached to the respective valve mount portions (20A, 20B) of the manifold to each collectively cover the three or two electromagnetic valves mounted on the corresponding valve mount portion (20A, 20B); and wherein a gap is formed between adjacent waterproof covers (70A, 70B), and the gap has such a size that is larger than the inter-valve distance, and smaller than the inter-mount-portion distance, and that allows a surface of the manifold to be exposed to an outside through the gap.
A service provision method in an Internet Protocol Multimedia Subsystem, IMS, network, comprising the steps of: transmitting a service request message from a first user terminal to a second user terminal for requesting a service, wherein the service request message comprises global identifiers, IDs, allocated to the first user terminal and the second user terminal; transmitting a service response message from the second user terminal to the user first terminal; and establishing a service session between the first user terminal and the second user terminal, when the service response message is received by the first user terminal, wherein the global IDs are a combination of a network ID allocated to an IMS gateway in an IMS registration process and a unique device ID of a respective user terminal. transmitting a service request message from a first user terminal to a second user terminal for requesting a service, wherein the service request message comprises global identifiers, IDs, allocated to the first user terminal and the second user terminal; transmitting a service response message from the second user terminal to the user first terminal; and establishing a service session between the first user terminal and the second user terminal, when the service response message is received by the first user terminal, wherein the global IDs are a combination of a network ID allocated to an IMS gateway in an IMS registration process and a unique device ID of a respective user terminal.
A compressing device comprising: a compressor that includes a compressing unit (6, 9) for compressing a gas; and a heat exchanger, wherein the heat exchanger includes: a cooling unit (10, 12) that cools the gas compressed by the compressing unit (6, 8); a connection path that connects the compressing unit (6, 8) to the cooling unit (10, 12); and characterized by a connection path branch portion that is branched from a part of the connection path, the connection path branch portion including an attachment portion to which an instrumentation device is directly attached and which is provided in a first surface of the heat exchanger, the first surface being different from a second surface facing the compressor. a compressor that includes a compressing unit (6, 9) for compressing a gas; and a heat exchanger, a cooling unit (10, 12) that cools the gas compressed by the compressing unit (6, 8); a connection path that connects the compressing unit (6, 8) to the cooling unit (10, 12); and characterized by a connection path branch portion that is branched from a part of the connection path, the connection path branch portion including an attachment portion to which an instrumentation device is directly attached and which is provided in a first surface of the heat exchanger, the first surface being different from a second surface facing the compressor.
Patient support device that is connectable to a positioning system, such as a multi-joint robot, the patient support device comprising: a patient support region, comprising a front area which defines a support plane for supporting and/or contacting a patient and an underside area substantially facing away from the front area; and a coupling region that is configured to be coupled to the positioning system, wherein the support plane at least partially extends between the coupling region and the underside area, wherein the coupling region and patient support region are connected by a connecting region, characterized in that the connecting region comprises an upright central section, a top section and a lower section, wherein the central section extends at an angle to the support plane and is connected to the coupling region by way of the top section, the top section extends for the most part in parallel to the support plane, and the lower section extends largely in parallel to the support plane and merges into the central section, such that the connecting region defines an overall C-shape. a patient support region, comprising a front area which defines a support plane for supporting and/or contacting a patient and an underside area substantially facing away from the front area; and a coupling region that is configured to be coupled to the positioning system, wherein the support plane at least partially extends between the coupling region and the underside area, wherein the coupling region and patient support region are connected by a connecting region, characterized in that the connecting region comprises an upright central section, a top section and a lower section, wherein the central section extends at an angle to the support plane and is connected to the coupling region by way of the top section, the top section extends for the most part in parallel to the support plane, and the lower section extends largely in parallel to the support plane and merges into the central section, such that the connecting region defines an overall C-shape.