mhurhangee/ep-ind-claims huggingface dataset:
Gaiter for sealing a brake device, comprising a frame and a supporting body which are connected to one another by way of a spring body, it being possible for the supporting body to be moved in all three spatial directions (x, y, z) with respect to the frame, the spring body being configured in such a way that the supporting body is more movable in a plane (x) parallel to the frame than in the plane (z) perpendicularly with respect to the frame, characterized in that the spring body has at least one circumferential depression and at least one circumferential elevation, as a result of which a complete and circumferential rolling fold is produced.
A wheel support device, comprising: a hub unit that includes a fixed ring that is fixed to a vehicle body-side member, a rotary ring to which a wheel is fitted, and rolling elements that are provided between the fixed ring and the rotary ring; and a joint that is provided on one side of the hub unit in an axial direction, and that has a torque transmission ring that transmits rotary torque to the rotary ring, wherein the rotary ring has an annular end face on one side in the axial direction, and has a tapered outer periphery on the end face, a diameter of the tapered outer periphery increasing toward the other side in the axial direction, the torque transmission ring has an annular end face on the other side in the axial direction, and has a tapered inner periphery on the end face, a diameter of the tapered inner periphery increasing toward the other side in the axial direction and the tapered inner periphery facing the tapered outer periphery of the rotary ring, and splines are formed in the tapered outer periphery of the rotary ring and splines are formed in the tapered inner periphery of the torque transmission ring, and the splines of the tapered outer periphery of the rotary ring and the splines of the tapered inner periphery of the torque transmission ring mesh with each other, characterized in that, the tapered outer periphery is formed only in a radially outer region of the end face of the rotary ring, and the tapered inner periphery is formed only in a radially outer region of the end face of the torque transmission ring. a hub unit that includes a fixed ring that is fixed to a vehicle body-side member, a rotary ring to which a wheel is fitted, and rolling elements that are provided between the fixed ring and the rotary ring; and a joint that is provided on one side of the hub unit in an axial direction, and that has a torque transmission ring that transmits rotary torque to the rotary ring, wherein the rotary ring has an annular end face on one side in the axial direction, and has a tapered outer periphery on the end face, a diameter of the tapered outer periphery increasing toward the other side in the axial direction, the torque transmission ring has an annular end face on the other side in the axial direction, and has a tapered inner periphery on the end face, a diameter of the tapered inner periphery increasing toward the other side in the axial direction and the tapered inner periphery facing the tapered outer periphery of the rotary ring, and splines are formed in the tapered outer periphery of the rotary ring and splines are formed in the tapered inner periphery of the torque transmission ring, and the splines of the tapered outer periphery of the rotary ring and the splines of the tapered inner periphery of the torque transmission ring mesh with each other, the tapered outer periphery is formed only in a radially outer region of the end face of the rotary ring, and the tapered inner periphery is formed only in a radially outer region of the end face of the torque transmission ring.
Flow-through tank for an optical device for the counting and/or differentiation of leucocytes in an automatic blood analysis apparatus, characterized in that in an analysis zone of the tank, the section of the tank has at least one transverse dimension comprised between 1 and 5 millimetres, said tank comprising an injector for injecting a sample flow, means for forming a sleeving flow around the sampling flow, this sampling flow being injected under pressure relative to the sleeving flow, this sleeving flow being passive as it does not stretch the sampling flow, and in that the width of the flow is dictated by the shape and the outlet section of the injector and this injector comprises an outlet orifice (323, 333) the diameter of which is comprised between 20 microns and 150 microns.
A cylinder assembly (1, 200) for a fluid-working machine, comprising a cylinder body, a first valve (9, 24) having a first valve member and a second, face-sealing annular valve (7,11) having a second, annular valve member; the body having a first end and a second end and comprising a cylinder (5, 208), a first valve seat and a second, face-sealing annular valve seat; the cylinder open to the first end and configured to receive a reciprocating piston (110, 210); the first valve seat extending around a cylinder axis extending between the first and second ends and comprising one or more first valve apertures, the or each first valve aperture extending through the body and in communication with the cylinder (5, 208) and providing a fluid pathway through the body; the second, annular valve seat comprising at least one annular sealing surface and a plurality of apertures for an annular valve (7,11), each aperture associated with a said sealing surface; wherein the apertures of the second, annular valve seat are arranged around the axis and in communication with the cylinder (5, 208), and provide a fluid pathway through the body; the first valve seat and the first valve member together forming the first valve; and characterised in that the second, annular valve seat and the second, annular valve member together form the second, face-sealing annular valve around the cylinder body.
A filtration system comprising: a filtration chamber, a filtration-element housed within the filtration chamber, wherein the filtration-element comprises a body of the filtration-element, a common valve comprising a valve housing in fluid communication with the filtration chamber, with a source of fluid to be filtered, and with evacuation port for backflush fluid, through three respective openings in the valve housing, characterized in that the common valve, the filtration chamber, and a tube segment connecting therebetween, are mutually configured to provide for an uninterrupted bend-free flow-channel extending at least from exteriorly to an inlet opening of the common valve, to the body of the filtration-element whenever the common valve is in a filtration mode of operation. a filtration chamber, a filtration-element housed within the filtration chamber, wherein the filtration-element comprises a body of the filtration-element, a common valve comprising a valve housing in fluid communication with the filtration chamber, with a source of fluid to be filtered, and with evacuation port for backflush fluid, through three respective openings in the valve housing, characterized in that the common valve, the filtration chamber, and a tube segment connecting therebetween, are mutually configured to provide for an uninterrupted bend-free flow-channel extending at least from exteriorly to an inlet opening of the common valve, to the body of the filtration-element whenever the common valve is in a filtration mode of operation.
A micellar nanocomplex comprising a micelle and an agent encapsulated within said micelle, said micelle comprising a polymer-flavonoid conjugate, wherein said polymer is a hydrophilic polymer bonded to the B ring of said flavonoid.
System having a base and at least one work station which has an ECM module for electrochemically machining a workpiece, wherein the ECM module comprises: a frame (4, 54); and an electrode arrangement having at least one electrode (60, 160) which comprises a first surface work region (60a, 160a) and a second surface work region (60b, 160b) and is mechanically connected to the frame, and a drive (6, 56, 156) for driving this electrode (60, 160), which drive is attached to the frame; a workpiece holder (310, 311) for detachably attaching the workpiece (2, 51, 52); and a positioning device for moving the workpiece holder (310, 311) and the module (1, 50) relative to one another, wherein the positioning device comprises a main body (312, 313), characterized in that both the, in particular rotatably mounted, workpiece holder (310, 311) and the rotatably mounted ECM module are mounted on the main body (312, 313) so as to be movable linearly, in particular vertically or horizontally. a frame (4, 54); and an electrode arrangement having at least one electrode (60, 160) which comprises a first surface work region (60a, 160a) and a second surface work region (60b, 160b) and is mechanically connected to the frame, and a drive (6, 56, 156) for driving this electrode (60, 160), which drive is attached to the frame; a workpiece holder (310, 311) for detachably attaching the workpiece (2, 51, 52); and a positioning device for moving the workpiece holder (310, 311) and the module (1, 50) relative to one another, wherein the positioning device comprises a main body (312, 313),
Method of continuously dissolving cellulose carbamate in an alkaline aqueous phase to form a solution, comprising the steps of - providing cellulose carbamate; - mixing the cellulose carbamate with an aqueous alkaline solution to form a mixture; - producing from said mixture a solution of said cellulose carbamate in an alkaline aqueous phase; and - recovering the cellulose carbamate containing aqueous phase wherein the step of producing the solution is carried out by conducting the mixture through a mixing zone of a continuously operated kneader type dissolving reactor at a mixing speed of 10-500 rpm at a temperature of 10 degrees Celsius or less. - providing cellulose carbamate; - mixing the cellulose carbamate with an aqueous alkaline solution to form a mixture; - producing from said mixture a solution of said cellulose carbamate in an alkaline aqueous phase; and - recovering the cellulose carbamate containing aqueous phase
A surgical system comprising: (a) a surgical instrument comprising: i. a body, ii. a shaft extending from the body, and iii. an end effector at a distal end of the shaft; and iv. a sensor configured to sense a temperature at the end effector; (b) a transmitter configured to wirelessly transmit a signal, and (c) a set of safety glasses comprising a wireless port, characterized in that: the signal is associated with the temperature sensed by the temperature sensor at the end effector, the wireless port is configured to receive the signal from the transmitter, an overlaid display of the end effector is positioned on the safety glasses when worn by a surgeon using the end effector of the surgical instrument during a surgical procedure, and the overlaid display is configured to change color to indicate a change in end effector temperature status based on the received signal. (a) a surgical instrument comprising: i. a body, ii. a shaft extending from the body, and iii. an end effector at a distal end of the shaft; and iv. a sensor configured to sense a temperature at the end effector; i. a body, ii. a shaft extending from the body, and iii. an end effector at a distal end of the shaft; and iv. a sensor configured to sense a temperature at the end effector; (b) a transmitter configured to wirelessly transmit a signal, and (c) a set of safety glasses comprising a wireless port, characterized in that: the signal is associated with the temperature sensed by the temperature sensor at the end effector, the wireless port is configured to receive the signal from the transmitter, an overlaid display of the end effector is positioned on the safety glasses when worn by a surgeon using the end effector of the surgical instrument during a surgical procedure, and the overlaid display is configured to change color to indicate a change in end effector temperature status based on the received signal. the signal is associated with the temperature sensed by the temperature sensor at the end effector, the wireless port is configured to receive the signal from the transmitter, an overlaid display of the end effector is positioned on the safety glasses when worn by a surgeon using the end effector of the surgical instrument during a surgical procedure, and the overlaid display is configured to change color to indicate a change in end effector temperature status based on the received signal.
A termination floor forced deceleration device of an elevator, which has a car disposed elevatably in a shaft of the elevator, and an overspeed monitoring section which outputs a braking instruction for decelerating the car in the case where the speed of the car lying at a position within a predetermined distance from the terminal of the shaft is not lower than a predetermined speed set in advance, comprising: an actuation plate provided on the car; two position detection sensors which are arranged side by side along the rising/lowering path of the car in the shaft and detect the actuation plate; and a consistency check circuit (18, 19) which reverses an output from itself, based on the outputs of both of the two position detection sensors, in the case where the outputs of both of the two position detection sensors are consistent with each other, wherein the overspeed monitoring section, based on the output from the consistency check circuit (18, 19), recognizes whether or not the car lies at the position within the predetermined distance from the terminal of the shaft, characterized in that the consistency check circuit (18, 19) produces the output such that the overspeed monitoring section recognizes that the car lies at the position within the predetermined distance from the terminal of the shaft in the case where the output telling that the actuation plate has been detected is produced from at least one of both of the two position detection sensors and the outputs of both of the two position detection sensors are not consistent with each other. an actuation plate provided on the car; two position detection sensors which are arranged side by side along the rising/lowering path of the car in the shaft and detect the actuation plate; and a consistency check circuit (18, 19) which reverses an output from itself, based on the outputs of both of the two position detection sensors, in the case where the outputs of both of the two position detection sensors are consistent with each other, wherein the overspeed monitoring section, based on the output from the consistency check circuit (18, 19), recognizes whether or not the car lies at the position within the predetermined distance from the terminal of the shaft, characterized in that the consistency check circuit (18, 19) produces the output such that the overspeed monitoring section recognizes that the car lies at the position within the predetermined distance from the terminal of the shaft in the case where the output telling that the actuation plate has been detected is produced from at least one of both of the two position detection sensors and the outputs of both of the two position detection sensors are not consistent with each other.
A micromechanical particle manipulation device, formed on a surface of a fabrication substrate, comprising: a microfabricated, movable member formed on the substrate, and having a first diverting surface, wherein the movable member moves from a first position to a second position in response to a force applied to the movable member, wherein the motion is substantially in a plane parallel to the surface of the substrate; a sample channel formed in the substrate and through which a fluid flows, the fluid including target particles and non-target material, wherein the flow in the inlet channel is substantially parallel to the surface; a sort output channel into which the microfabricated member diverts the target particles and a waste output channel into which the non-target material flows, and wherein the flow in waste output channel is substantially orthogonal to the plane; and a sheath fluid inlet in fluid communication with the sample channel; and a focusing element coupled to the sheath fluid inlet, which is configured to urge the target particles into a particular portion of the sample channel. a microfabricated, movable member formed on the substrate, and having a first diverting surface, wherein the movable member moves from a first position to a second position in response to a force applied to the movable member, wherein the motion is substantially in a plane parallel to the surface of the substrate; a sample channel formed in the substrate and through which a fluid flows, the fluid including target particles and non-target material, wherein the flow in the inlet channel is substantially parallel to the surface; a sort output channel into which the microfabricated member diverts the target particles and a waste output channel into which the non-target material flows, and wherein the flow in waste output channel is substantially orthogonal to the plane; and a sheath fluid inlet in fluid communication with the sample channel; and a focusing element coupled to the sheath fluid inlet, which is configured to urge the target particles into a particular portion of the sample channel.
A system for fabricating a composite part on a tool, the system comprising: one or more Zone 1 component stations configured to place components on a first zone of the tool; one or more Zone 1 preform stations configured to place preforms on the first zone of the tool; one or more Zone 1 skin stations configured to place one or more skin layers on the first zone of the tool; one or more Zone 2 component stations configured to place the components on a second zone of the tool; one or more Zone 2 preform stations configured to place the preforms on the second zone of the tool; and one or more Zone 2 skin stations configured to place the one or more skin layers on the second zone of the tool. one or more Zone 1 component stations configured to place components on a first zone of the tool; one or more Zone 1 preform stations configured to place preforms on the first zone of the tool; one or more Zone 1 skin stations configured to place one or more skin layers on the first zone of the tool; one or more Zone 2 component stations configured to place the components on a second zone of the tool; one or more Zone 2 preform stations configured to place the preforms on the second zone of the tool; and one or more Zone 2 skin stations configured to place the one or more skin layers on the second zone of the tool.
A method for detecting one or more target sequences in a sample by amplification, the method comprising: a) providing an aqueous composition comprising: i) one or more forward oligonucleotide primers having a 5' region which is a tag sequence and a 3' region specific for a target sequence; ii) a reverse oligonucleotide primer, such that a forward and the reverse primer operably form a primer pair; iii) one or more probes having a reporter label and a quencher label, each probe comprising a sequence having at least 90% identity to the tag sequence of a forward oligonucleotide primer; and iv) one or more enhancer oligonucleotide primers comprising a sequence having at least 90% identity to the sequence of a probe; b) incubating the primers and probes with the sample and at least a polymerase; and c) performing polymerase chain reaction on the sample to generate tagged nucleic acids, whereby the probe(s) can bind the tagged nucleic acids. a) providing an aqueous composition comprising: i) one or more forward oligonucleotide primers having a 5' region which is a tag sequence and a 3' region specific for a target sequence; ii) a reverse oligonucleotide primer, such that a forward and the reverse primer operably form a primer pair; iii) one or more probes having a reporter label and a quencher label, each probe comprising a sequence having at least 90% identity to the tag sequence of a forward oligonucleotide primer; and iv) one or more enhancer oligonucleotide primers comprising a sequence having at least 90% identity to the sequence of a probe; i) one or more forward oligonucleotide primers having a 5' region which is a tag sequence and a 3' region specific for a target sequence; ii) a reverse oligonucleotide primer, such that a forward and the reverse primer operably form a primer pair; iii) one or more probes having a reporter label and a quencher label, each probe comprising a sequence having at least 90% identity to the tag sequence of a forward oligonucleotide primer; and iv) one or more enhancer oligonucleotide primers comprising a sequence having at least 90% identity to the sequence of a probe; b) incubating the primers and probes with the sample and at least a polymerase; and c) performing polymerase chain reaction on the sample to generate tagged nucleic acids, whereby the probe(s) can bind the tagged nucleic acids.
An apparatus of a User Equipment, UE, (102, 300), the apparatus comprising: memory; and processing circuitry (305, 310), configured to: select, from a plurality of short transmission time intervals, TTIs, a short TTI for a vehicle-to-vehicle, V2V, sidelink transmission by the UE, characterised in that: the short TTIs occur within a legacy TTI, wherein the short TTIs are allocated for V2V sidelink transmissions by non-legacy UEs and the legacy TTI is allocated for V2V sidelink transmissions by legacy UEs; encode, for transmission in accordance with the legacy TTI, a legacy physical sidelink control channel, PSCCH, to indicate, to legacy UEs, the V2V sidelink transmission by the UE; and encode, for transmission in accordance with the selected short TTI, a short PSCCH, sPSCCH, to indicate, to non-legacy UEs, the V2V sidelink transmission by the UE, wherein the memory is configured to store information that identifies the selected short TTL memory; and processing circuitry (305, 310), configured to: select, from a plurality of short transmission time intervals, TTIs, a short TTI for a vehicle-to-vehicle, V2V, sidelink transmission by the UE, characterised in that: the short TTIs occur within a legacy TTI, wherein the short TTIs are allocated for V2V sidelink transmissions by non-legacy UEs and the legacy TTI is allocated for V2V sidelink transmissions by legacy UEs; encode, for transmission in accordance with the legacy TTI, a legacy physical sidelink control channel, PSCCH, to indicate, to legacy UEs, the V2V sidelink transmission by the UE; and encode, for transmission in accordance with the selected short TTI, a short PSCCH, sPSCCH, to indicate, to non-legacy UEs, the V2V sidelink transmission by the UE, the short TTIs occur within a legacy TTI, wherein the short TTIs are allocated for V2V sidelink transmissions by non-legacy UEs and the legacy TTI is allocated for V2V sidelink transmissions by legacy UEs; encode, for transmission in accordance with the legacy TTI, a legacy physical sidelink control channel, PSCCH, to indicate, to legacy UEs, the V2V sidelink transmission by the UE; and encode, for transmission in accordance with the selected short TTI, a short PSCCH, sPSCCH, to indicate, to non-legacy UEs, the V2V sidelink transmission by the UE, wherein the memory is configured to store information that identifies the selected short TTL