mhurhangee/ep-ind-claims huggingface dataset:
Use of a compound of formula: wherein: - R represents -OH or -NH 2; - A 1 represents a straight divalent alkylene radical, having from 3 to 20, preferably from 3 to 12 carbon atoms, and optionally comprising at least one double bond, and/or optionally substituted by at least one hydroxyl or amine group; - A 2 represents a divalent alkylene radical, straight or branched, having from 3 to 20, preferably from 3 to 10 carbon atoms, and optionally comprising at least one double bond and/or optionally substituted by at least one hydroxyl or amine group; - X 1 and X 2 represent, independently of each other, -NH- or -O-; - A 3 represents a divalent alkylene radical, straight or branched, having from 1 to 10, preferably from 1 to 5 carbon atoms, and optionally comprising at least one double bond and/or optionally substituted by at least one hydroxyl or amine group; - Z represents a hydrogen or a group of formula (A'): wherein A 1, A 3 and R are as defined above in formula, wherein when X 1 and X 2 represent -O-, then R represents -NH 2, for the preparation of a polymer chosen among polyurethane, polyester and polyamide. - R represents -OH or -NH 2; - A 1 represents a straight divalent alkylene radical, having from 3 to 20, preferably from 3 to 12 carbon atoms, and optionally comprising at least one double bond, and/or optionally substituted by at least one hydroxyl or amine group; - A 2 represents a divalent alkylene radical, straight or branched, having from 3 to 20, preferably from 3 to 10 carbon atoms, and optionally comprising at least one double bond and/or optionally substituted by at least one hydroxyl or amine group; - X 1 and X 2 represent, independently of each other, -NH- or -O-; - A 3 represents a divalent alkylene radical, straight or branched, having from 1 to 10, preferably from 1 to 5 carbon atoms, and optionally comprising at least one double bond and/or optionally substituted by at least one hydroxyl or amine group; - Z represents a hydrogen or a group of formula (A'): wherein A 1, A 3 and R are as defined above in formula, wherein when X 1 and X 2 represent -O-, then R represents -NH 2, for the preparation of a polymer chosen among polyurethane, polyester and polyamide. wherein A 1, A 3 and R are as defined above in formula, wherein when X 1 and X 2 represent -O-, then R represents -NH 2, for the preparation of a polymer chosen among polyurethane, polyester and polyamide.
A method of etching one or more microstructures located within a process chamber, the method comprising the steps of: a) transforming an etching material within a sealed chamber (27; 49) from a first state into an etching material vapour; b) employing a carrier gas to the sealed chamber (27; 49) to transport the etching material vapour from the sealed chamber (27; 49) and thereafter supply the etching material vapour to the process chamber; and c) controlling the amount of etching material vapour within the process chamber by controlling a vacuum pumping rate from the process chamber, characterised in that a rate at which the etching material vapour is supplied to the process chamber is selected in response to a desired etch rate and a rate of removal of the etching material vapour from the process chamber. a) transforming an etching material within a sealed chamber (27; 49) from a first state into an etching material vapour; b) employing a carrier gas to the sealed chamber (27; 49) to transport the etching material vapour from the sealed chamber (27; 49) and thereafter supply the etching material vapour to the process chamber; and c) controlling the amount of etching material vapour within the process chamber by controlling a vacuum pumping rate from the process chamber,
Set of two units (1, 2), a first unit comprising a first cooling circuit portion and a second unit comprising a second cooling circuit portion, said cooling circuit portions being intended to form a fluid cooling circuit, each unit (1, 2) comprising a flat face comprising a respective cooling circuit portion opening (11, 12) and defining an interface of said cooling circuit, said cooling circuit portions being intended to be fluidically linked by a plane-plane contact between said flat faces, said openings (11, 12) being disposed substantially opposite one another, one of said openings (11, 12) forming an inlet of a cooling circuit portion and the other of said openings (11, 12) forming an outlet of a cooling circuit portion, wherein at least one of the openings (11, 12) also comprises a gap (20, 200) formed in the corresponding flat face and extending from said opening (11, 12) so that the periphery of said gap (20, 200) also encompasses the other of said openings (11, 12) when the flat faces are in plane-plane contact, allowing a fluidic linking of the two cooling circuit portions to be assured, including when the inlet and the outlet are misaligned, characterized in that said first unit and said second unit respectively comprise an electrical device.
A method of compensating for differences between the operating frequency of a crystal oscillator of a central unit of a security monitoring system and a crystal oscillator of a node (114, 118, 125, 126) of the security monitoring system, the method comprising: tuning a receiver (230, 232, 234) of the central unit to a first frequency sub-channel of multiple frequency sub-channels that together make up a predetermined broader frequency channel; listening for a preamble from the node (114, 118, 125, 126) on the first frequency sub-channel; in the event that no valid preamble is received on the first frequency sub-channel within a predetermined period, tuning the receiver (230, 232, 234) to a second of the multiple frequency sub-channels and listening for a preamble from the node (114, 118, 125, 126) on the second frequency sub- channel; and repeating the tuning and listening process until a valid preamble is received or until all of the multiple frequency sub-channels have been used; in the event that a valid preamble is received on one of the multiple frequency sub-channels, listening for a synch word, and upon detection of a valid synch word causing a radio frequency transceiver (230, 232, 234) of the central unit to transmit an acknowledgement on a radio frequency within the predetermined frequency channel; detecting an offset between the radio frequency of the carrier on which the valid preamble was received and the centre frequency of the predetermined frequency channel; in the event that the offset exceeds a predetermined threshold, transmitting from the central unit information regarding the offset to enable the node (114, 118, 125, 126) to adjust the operating frequency of a transceiver of the node based on the information. listening for a preamble from the node (114, 118, 125, 126) on the first frequency sub-channel; in the event that no valid preamble is received on the first frequency sub-channel within a predetermined period, tuning the receiver (230, 232, 234) to a second of the multiple frequency sub-channels and listening for a preamble from the node (114, 118, 125, 126) on the second frequency sub- channel; and repeating the tuning and listening process until a valid preamble is received or until all of the multiple frequency sub-channels have been used; in the event that a valid preamble is received on one of the multiple frequency sub-channels, listening for a synch word, and upon detection of a valid synch word causing a radio frequency transceiver (230, 232, 234) of the central unit to transmit an acknowledgement on a radio frequency within the predetermined frequency channel; detecting an offset between the radio frequency of the carrier on which the valid preamble was received and the centre frequency of the predetermined frequency channel; in the event that the offset exceeds a predetermined threshold, transmitting from the central unit information regarding the offset to enable the node (114, 118, 125, 126) to adjust the operating frequency of a transceiver of the node based on the information.
A computer-implemented method comprising: receiving, by a host that comprises an intermediate processing system and a trusted execution environment, a request for remote attestation of a reference binary from a remote verifier, deploying the reference binary in the trusted execution environment based on the received request, calculating, with the trusted execution environment and in response to the remote attestation request, an original digital signature based on the reference binary; receiving, by the intermediate processing system, an original message from the trusted execution environment, the original message comprising the original digital signature authored by the trusted execution environment; computing, by the intermediate processing system, a proof of knowledge for the original digital signature; modifying, by the intermediate processing system, the original message by replacing the original digital signature with the proof of knowledge; and forwarding, by the intermediate processing system, the modified original message comprising the proof of knowledge to the remote verifier. receiving, by a host that comprises an intermediate processing system and a trusted execution environment, a request for remote attestation of a reference binary from a remote verifier, deploying the reference binary in the trusted execution environment based on the received request, calculating, with the trusted execution environment and in response to the remote attestation request, an original digital signature based on the reference binary; receiving, by the intermediate processing system, an original message from the trusted execution environment, the original message comprising the original digital signature authored by the trusted execution environment; computing, by the intermediate processing system, a proof of knowledge for the original digital signature; modifying, by the intermediate processing system, the original message by replacing the original digital signature with the proof of knowledge; and forwarding, by the intermediate processing system, the modified original message comprising the proof of knowledge to the remote verifier.
Refrigeration circuit (1a; 1c) comprising in the direction of flow of a circulating refrigerant: a compressor unit comprising at least one compressor (2a, 2b, 2c); a heat rejecting heat exchanger/gas cooler; a high pressure expansion device (6; 50); a receiver; an expansion device, in particular a normal cooling temperature expansion device; an evaporator, in particular a normal cooling temperature evaporator; and characterised by a low pressure gas-liquid-separation unit comprising at least two collecting containers (32, 34); wherein an outlet of the evaporator is fluidly connected to an inlet of a first collecting container; an inlet side of the compressor unit is fluidly connected to a gas outlet of the first collecting container; a liquid outlet of the first collecting container is fluidly connected via an inlet valve to an inlet of the second collecting container; and a liquid outlet of the second collecting container is fluidly connected via an outlet valve to the receiver. a compressor unit comprising at least one compressor (2a, 2b, 2c); a heat rejecting heat exchanger/gas cooler; a high pressure expansion device (6; 50); a receiver; an expansion device, in particular a normal cooling temperature expansion device; an evaporator, in particular a normal cooling temperature evaporator; and characterised by a low pressure gas-liquid-separation unit comprising at least two collecting containers (32, 34); wherein an outlet of the evaporator is fluidly connected to an inlet of a first collecting container; an inlet side of the compressor unit is fluidly connected to a gas outlet of the first collecting container; a liquid outlet of the first collecting container is fluidly connected via an inlet valve to an inlet of the second collecting container; and a liquid outlet of the second collecting container is fluidly connected via an outlet valve to the receiver.
An avionic data communication method comprising: establishing a plurality of available channels using a channel controller; establishing a quality of service for each of the plurality of available channels using the channel controller; selecting one of the plurality of available channels using the channel controller such that the quality of service of the selected channel is not less than the quality of service of another channel within the plurality of available channels; selecting a type of data for transmission, wherein the type of data has an associated cost-of-transmission that does not exceed a cost-of-transmission threshold for the selected channel, and wherein the cost-of-transmission threshold changes in response to changes in position of an aircraft relative to a ground-based system; and communicating said type of data using the selected channel. establishing a plurality of available channels using a channel controller; establishing a quality of service for each of the plurality of available channels using the channel controller; selecting one of the plurality of available channels using the channel controller such that the quality of service of the selected channel is not less than the quality of service of another channel within the plurality of available channels; selecting a type of data for transmission, wherein the type of data has an associated cost-of-transmission that does not exceed a cost-of-transmission threshold for the selected channel, and wherein the cost-of-transmission threshold changes in response to changes in position of an aircraft relative to a ground-based system; and communicating said type of data using the selected channel.
A process for drying resinous materials, comprising: delivering, by way of a plurality of resin channels, resin fluid comprising polymer and solvent into at least first and second steam channels having within a flow of steam, the first and second steam channels each receiving resin fluid from a plurality of resin channels, the first and second steam channels each being received by a stage 1 manifold, the steam and resin being delivered under conditions so as to separate at least some of the solvent from the resin fluid, wherein the steam is delivered under a steam pressure of 689 to 1447 kPa; and collecting at least some of the polymer that is in the form of particulate from the resin fluid. delivering, by way of a plurality of resin channels, resin fluid comprising polymer and solvent into at least first and second steam channels having within a flow of steam, the first and second steam channels each receiving resin fluid from a plurality of resin channels, the first and second steam channels each being received by a stage 1 manifold, the steam and resin being delivered under conditions so as to separate at least some of the solvent from the resin fluid, wherein the steam is delivered under a steam pressure of 689 to 1447 kPa; and collecting at least some of the polymer that is in the form of particulate from the resin fluid.
Manually actuatable device (1, 15, 30) for applying a self-adhesive sheet as structural seal to an in particular horizontal roof surface or building surface, having a sheet roller, which carries a wrapping of the sheet and is releasably connected to a receptacle (5, 16), and having at least one press-on roller (7, 8) which is arranged upstream of the sheet roller in the advancing direction and intended for transmitting a press-on force to the sheet applied to the roof surface or the building surface, wherein the device (1, 15, 30) has a winding-up roller for the protective film which is to be separated from the sheet prior to the application to the roof surface or building surface, and the winding-up roller can be driven in a rotationally movable manner during the advancing movement of the device (1, 15, 30), characterized in that the sheet roller and the winding-up roller bear circumferentially against one another, with the result that the rotary movement of the sheet roller is transmitted directly to the winding-up roller by a direct frictional engagement between the variable circumference of the sheet roller and the variable circumference of the winding-up roller, and, during the advancing movement of the device (1, 15, 30), the winding-up roller can be driven in a rotationally movable manner with a variable constantly changing ratio of the advancing speed to the rotational speed of the winding-up roller in that, on account of the advancing movement of the device (1, 15) relative to the roof surface or building surface, the winding-up roller can be driven in a rotationally movable manner, in dependence on the advancing travel of the device (1, 15), with a constantly decreasing rotational speed ratio between the advancing rate and the rotational speed of the winding-up roller.
An airbag device for a saddle-type vehicle comprising: a box-shaped retainer that is provided in front of a seat for a rider, the retainer has a cover member attached to the top of the retainer; a cylindrically formed inflator that is housed in the retainer; and an airbag that is housed in the retainer, is inflated by means of a gas discharged from the inflator and is deployed in front of the rider, characterized in that the inflator is disposed oriented in a front-rear direction of the vehicle toward which an axis of the inflator is oriented, and the retainer comprises a deflection part that deflects the gas discharged from the inflator that is housed in the retainer at downstream of the inflator into the airbag from a flow in a left-right direction to a flow in an upward direction. a box-shaped retainer that is provided in front of a seat for a rider, the retainer has a cover member attached to the top of the retainer; a cylindrically formed inflator that is housed in the retainer; and an airbag that is housed in the retainer, is inflated by means of a gas discharged from the inflator and is deployed in front of the rider, characterized in that the inflator is disposed oriented in a front-rear direction of the vehicle toward which an axis of the inflator is oriented, and the retainer comprises a deflection part that deflects the gas discharged from the inflator that is housed in the retainer at downstream of the inflator into the airbag from a flow in a left-right direction to a flow in an upward direction.
A dust collection apparatus comprising: a frame body defining an air inlet and an exhaust outlet; and a dust blocking component attached to the frame body at the exhaust outlet; wherein the dust blocking component is arranged to allow an airflow passing through, and the combination of the frame body and the dust blocking component defines a dust collection cavity therein; and wherein the frame body comprises an at least partially flexible and/or elastic material, and wherein the frame body comprises a first frame portion arranged to couple with a second frame portion, characterized in that the first frame portion and the second frame portion being coupled by at least one of gluing, welding, heating and sewing. a frame body defining an air inlet and an exhaust outlet; and a dust blocking component attached to the frame body at the exhaust outlet; wherein the dust blocking component is arranged to allow an airflow passing through, and the combination of the frame body and the dust blocking component defines a dust collection cavity therein; and wherein the frame body comprises an at least partially flexible and/or elastic material, and wherein the frame body comprises a first frame portion arranged to couple with a second frame portion, characterized in that the first frame portion and the second frame portion being coupled by at least one of gluing, welding, heating and sewing.
A self-testing duct environment detector system, comprising: a first portion to be mounted outside of a duct, the first portion having a detector housing with a space therein, the space having a detector (116, 415) with a sensing chamber and a self-testing sensing apparatus therein, wherein the self-testing sensing apparatus is configured to determine whether a rate of airflow through the sensing chamber is above a threshold rate; and a second portion and third portion each configured to extend into the duct, wherein the second portion has at least one inlet aperture formed therein and wherein the third portion has at least on outlet aperture therein; and wherein the self-testing sensing apparatus includes a particulate generator that generates particulate into the sensing chamber (116, 416). a first portion to be mounted outside of a duct, the first portion having a detector housing with a space therein, the space having a detector (116, 415) with a sensing chamber and a self-testing sensing apparatus therein, wherein the self-testing sensing apparatus is configured to determine whether a rate of airflow through the sensing chamber is above a threshold rate; and a second portion and third portion each configured to extend into the duct, wherein the second portion has at least one inlet aperture formed therein and wherein the third portion has at least on outlet aperture therein; and wherein the self-testing sensing apparatus includes a particulate generator that generates particulate into the sensing chamber (116, 416).
An internal combustion engine having a crankcase in which a crankshaft is rotatably mounted in bearings comprising bearing covers, a connecting rod that supports at least one piston being hinged to the crankshaft, wherein the piston is movable inside of a cylinder that is covered by a cylinder head, thereby forming a combustion chamber, and gas exchange valves are arranged in the cylinder head, the gas exchange valves being actuated by at least one camshaft which is connected, by means of a gear mechanism, to a crankshaft gear which is arranged on the crankshaft, wherein a mass balancing gear mechanism having two balancing shafts is present, characterized in that the mass balancing gear mechanism is arranged in a gear mechanism frame attached to the crankcase below the crankshaft and is driven by the crankshaft gear arranged on the crankshaft by way of an intermediate gear arranged next to the crankshaft gear, and wherein the intermediate gear is arranged on the main bearing cover.
Respirator valve, comprising: - a body provided with a disc; - an adjustment knob attached to said body; - a cylindrical spring positioned between said adjustment knob and the disc of the body; and - a conical spring also placed between said adjustment knob and the disc of the body, characterized in that the body and the adjustment knob are made of a first sterilizable material and the cylindrical and conical springs (3, 4) are made of a second sterilizable material, and in that the respirator valve also comprises a safety ring positioned around the coupling zone between the adjustment knob and the body. - a body provided with a disc; - an adjustment knob attached to said body; - a cylindrical spring positioned between said adjustment knob and the disc of the body; and - a conical spring also placed between said adjustment knob and the disc of the body, characterized in that the body and the adjustment knob are made of a first sterilizable material and the cylindrical and conical springs (3, 4) are made of a second sterilizable material, and in that the respirator valve also comprises a safety ring positioned around the coupling zone between the adjustment knob and the body.
Master cylinder for a regulated braking system having at least one piston (3, 4, 50), which is movable in a housing, the piston (4, 50) being made of plastic, and which is sealed off by means of a sealing element (7, 8) arranged in an annular groove (5, 6) of the housing from a pressure chamber (15, 16), which can be connected to an unpressurized replenishment chamber (17, 18) by means of control passages (19, 20, 51) formed in the piston (3, 4, 50), characterized in that the control passages (20, 51) of at least one of the pistons (4, 50) have a control edge (34, 52) formed parallel to a piston end face (36, 53).