mhurhangee/ep-ind-claims huggingface dataset:
A negative pressure wound therapy apparatus for promoting the healing of an exuding wound comprising: a wound dressing comprising a cover layer in the form of a flexible membrane for positioning over a wound to define a reservoir over the wound wherein the cover layer is formed from a moisture vapour permeable membrane and a conformable wound filler for positioning in the wound for absorbing and capturing wound exudate; a flexible conduit for wound exudate, extending from the reservoir to connect the wound dressing to a vacuum source and provide fluid communication between the reservoir and the vacuum source, comprising an outer sleeve defining a lumen wherein the outer sleeve is clear or translucent in color to permit visualization of wound fluid and wherein the outer sleeve is dimensioned to provide a generally flattened, planar or elliptical profile to the flexible conduit; and a fibrous core disposed within the lumen of the outer sleeve; wherein the flexible exudate conduit comprises a proximal end and a distal end, wherein the distal end is adapted for fluid connection with a vacuum source; and wherein the system further comprises a connection member or fitting at the distal end of the flexible exudate conduit configured to form a fluid and air tight connection between the flexible exudate conduit and the vacuum source and wherein the connection member or fitting comprises a check valve and/or filter. a wound dressing comprising a cover layer in the form of a flexible membrane for positioning over a wound to define a reservoir over the wound wherein the cover layer is formed from a moisture vapour permeable membrane and a conformable wound filler for positioning in the wound for absorbing and capturing wound exudate; a flexible conduit for wound exudate, extending from the reservoir to connect the wound dressing to a vacuum source and provide fluid communication between the reservoir and the vacuum source, comprising an outer sleeve defining a lumen wherein the outer sleeve is clear or translucent in color to permit visualization of wound fluid and wherein the outer sleeve is dimensioned to provide a generally flattened, planar or elliptical profile to the flexible conduit; and a fibrous core disposed within the lumen of the outer sleeve; wherein the flexible exudate conduit comprises a proximal end and a distal end, wherein the distal end is adapted for fluid connection with a vacuum source; and wherein the system further comprises a connection member or fitting at the distal end of the flexible exudate conduit configured to form a fluid and air tight connection between the flexible exudate conduit and the vacuum source and wherein the connection member or fitting comprises a check valve and/or filter.
Bearing component composed of an iron material comprising a running surface which is coated with a PVD/PACVD coating, characterized in that the PVD/PACVD coating has been applied directly to the iron material, a sol-gel corrosion protection layer is arranged on the PVD/PACVD coating, wherein the PVD-PACVD coating has pores into which the sol-gel corrosion protection layer projects and closes the pores, and side faces (S1, S2) of the bearing component have an electrochemical, chemical or autocatalytic layer.
A low-profile access port for subcutaneous placement in a patient, comprising: a body including: a conduit including an inlet port at a proximal end thereof; and a receiving cup in communication with the inlet port, the receiving cup concavely shaped to direct a catheter-bearing needle into the conduit via the inlet port, the receiving cup to be oriented substantially toward a skin surface when subcutaneously implanted within the patient, so as to have a substantially upward orientation; and a valve/seal assembly disposed in the conduit that enables passage of the catheter therethrough, wherein the conduit includes a first conduit portion and a second conduit portion, the second conduit portion positioned distal to and at an angled orientation with respect to the first conduit portion so as to prevent passage of the needle of the catheter-bearing needle while permitting passage of the catheter, and the second conduit portion is disposed at an angle less than about 37 degrees with respect to the first conduit portion, characterized in that the first conduit portion extends distally from the inlet port in an angled downward configuration to a bend, where the second conduit portion angles slightly upward and changes direction at the angle less than about 37 degrees. a conduit including an inlet port at a proximal end thereof; and a receiving cup in communication with the inlet port, the receiving cup concavely shaped to direct a catheter-bearing needle into the conduit via the inlet port, the receiving cup to be oriented substantially toward a skin surface when subcutaneously implanted within the patient, so as to have a substantially upward orientation; and a valve/seal assembly disposed in the conduit that enables passage of the catheter therethrough, wherein the conduit includes a first conduit portion and a second conduit portion, the second conduit portion positioned distal to and at an angled orientation with respect to the first conduit portion so as to prevent passage of the needle of the catheter-bearing needle while permitting passage of the catheter, and the second conduit portion is disposed at an angle less than about 37 degrees with respect to the first conduit portion, characterized in that the first conduit portion extends distally from the inlet port in an angled downward configuration to a bend, where the second conduit portion angles slightly upward and changes direction at the angle less than about 37 degrees.
An impedance matching device for matching RF supply side impedance to load side impedance, comprising a variable reactor having a main winding and a control winding, being wound around a core, and rendering inductance to be variable according to variation of a generated magnetic field that is generated by control current passing through the control winding, and a control current forming part configured to apply a control current to the control winding to perform impedance matching by inductance variation in the variable reactor according to the control current, wherein, the control current forming part comprises an operation part configured to input a control target value and a feedback value for impedance matching and configured to calculate a control variable; and a control current generator configured to generate the control current at a current amplitude determined on the basis of an amplitude of the control variable; wherein the operation part is configured to provide the control variable as an AC signal having amplitude oscillations between positive and negative polarities and configured so that the control variable converges to a control settled value that settles a deviation component obtained by amplifying the difference between the control target value and the feedback value for impedance matching, and the control current generator is configured to generate the control current having a current direction determined on the basis of whether the AC signal has positive or negative polarity; and wherein, the operation part configures a double loop control, comprising; a first arithmetic circuit constituting a major loop on the basis of a difference between the control target value for impedance matching and the feedback value for impedance matching, and computing the control variable according to the major loop, and a second arithmetic circuit constituting a minor loop on the basis of a difference between the control variable of the first arithmetic circuit and a feedback value of the control current, and computing an amplitude of the control variable by the minor loop, so as to obtain a control current command, and the control current generator is configured to switch current directions of the control current on the basis of positive and negative properties of the control variable, and to generate the control current whose amplitude is determined on the basis of the control current command.
A middle- or large-sized battery pack including a plurality of unit cells (100, 101, 102) electrically connected with each other, wherein the battery pack is constructed in a structure in which a heat transfer medium flows through gaps defined between the unit cells for controlling the overall temperature of the battery pack to be within a predetermined temperature range for the optimum operation of the battery pack; each unit cell is provided at the outer surface thereof, at which the heat transfer medium is brought into contact with each unit cell, with a phase transformation layer containing a phase transformation material for minimizing individual temperature difference between the unit cells; and characterised in that the battery pack is constructed in a structure in which the unit cells are stacked one on another while the unit cells are spaced a predetermined distance from each other to form a plurality of battery groups (GA, GB, GC, and the battery groups are arranged in lateral direction, and the outer surfaces of the battery groups are surrounded by a pack case; the unit cells are mounted in each upper and lower open-type cartridge while the unit cells are arranged in the lateral direction, and the cartridges are stacked one on another to construct the battery pack; the cartridge comprises a pair of frame members (220, 222), which can be coupled with each other, and the unit cells are located in cell partition walls of the frame members while the frame members are separated from each other, and are then securely fixed at the cell partition walls of the frame members after the frame members are coupled with each other; and the unit cell has an electrode tap, which is electrically connected to that of the neighboring unit cell via a bus bar located at the upper part of the cartridge.
A linear compressor comprising - a shell which affixes, internally, a cylinder defining a compression chamber in whose interior is provided a piston; - a linear electric motor having a fixed part internally affixed to the shell and a movable part reciprocating in relation to the fixed part; - an actuating means affixed to the movable part of the linear electric motor, to be driven by said movable part in a reciprocating movement; - a coupling means coupling the actuating means to the piston, so that said coupling means, said actuating means and said piston are displaced, as a resonant movable assembly, in a reciprocating movement, during the operation of the compressor; - a supporting elastic means connecting the actuating means to the shell and presenting a radial rigidity for radially supporting the lateral loads actuating on the assembly defined by the movable part of the linear electric motor and by the actuating means, and for compensating axial misalignments between said movable and fixed parts of the linear electric motor, resulting from the effects of said lateral loads, said supporting elastic means presenting an axial rigidity, adapted for the desired displacement of the piston and the actuating means; characterised in that - the coupling means is an elastic means, and in that the supporting elastic means, connecting the actuating means to the shell, presents an axial rigidity adapted for said actuating means and piston to be displaced, in a reciprocating movement and in phase opposition, during the compressor operation. - a shell which affixes, internally, a cylinder defining a compression chamber in whose interior is provided a piston; - a linear electric motor having a fixed part internally affixed to the shell and a movable part reciprocating in relation to the fixed part; - an actuating means affixed to the movable part of the linear electric motor, to be driven by said movable part in a reciprocating movement; - a coupling means coupling the actuating means to the piston, so that said coupling means, said actuating means and said piston are displaced, as a resonant movable assembly, in a reciprocating movement, during the operation of the compressor; - a supporting elastic means connecting the actuating means to the shell and presenting a radial rigidity for radially supporting the lateral loads actuating on the assembly defined by the movable part of the linear electric motor and by the actuating means, and for compensating axial misalignments between said movable and fixed parts of the linear electric motor, resulting from the effects of said lateral loads, said supporting elastic means presenting an axial rigidity, adapted for the desired displacement of the piston and the actuating means; characterised in that - the coupling means is an elastic means, and in that the supporting elastic means, connecting the actuating means to the shell, presents an axial rigidity adapted for said actuating means and piston to be displaced, in a reciprocating movement and in phase opposition, during the compressor operation.
An information feedback method, the method being applied to a first user equipment and comprising: determining a feedback resource of sidelink channel state information according to set time information; sending, to a second user equipment, the sidelink channel state information based on the feedback resource, wherein the set time information comprises a set time window; and determining the feedback resource of the sidelink channel state information according to the set time information comprises: in response to grant information of a physical sidelink shared channel, PSSCH, existing within the set time window, determining the feedback resource of the sidelink channel state information according to the grant information; and in response to the grant information of the PSSCH not existing within the set time window, re-acquiring the feedback resource of the sidelink channel state information, wherein re-acquiring the feedback resource of the sidelink channel state information comprises: triggering a scheduling request, and acquiring a feedback resource on a sidelink indicated by a serving node. determining a feedback resource of sidelink channel state information according to set time information; sending, to a second user equipment, the sidelink channel state information based on the feedback resource, wherein the set time information comprises a set time window; and determining the feedback resource of the sidelink channel state information according to the set time information comprises: in response to grant information of a physical sidelink shared channel, PSSCH, existing within the set time window, determining the feedback resource of the sidelink channel state information according to the grant information; and in response to the grant information of the PSSCH not existing within the set time window, re-acquiring the feedback resource of the sidelink channel state information, wherein re-acquiring the feedback resource of the sidelink channel state information comprises: triggering a scheduling request, and acquiring a feedback resource on a sidelink indicated by a serving node. in response to grant information of a physical sidelink shared channel, PSSCH, existing within the set time window, determining the feedback resource of the sidelink channel state information according to the grant information; and in response to the grant information of the PSSCH not existing within the set time window, re-acquiring the feedback resource of the sidelink channel state information, wherein re-acquiring the feedback resource of the sidelink channel state information comprises: triggering a scheduling request, and acquiring a feedback resource on a sidelink indicated by a serving node.
A method of fibre optic sensing comprising: interrogating an optical fibre deployed in an area of interest with optical radiation wherein at least part of the optical fibre is mechanically coupled to at least a first element (202; 803) responsive, in use, to electromagnetic fields; applying a varying electric current so as to induce a varying force on said first element; and characterised by: analysing optical radiation backscattered from within said optical fibre to determine a measurement signal indicative of a variation in the backscattered radiation corresponding with said electric current applied; and analysing said measurement signal to determine a mechanical impedance of the environment in which the optical fibre is deployed. interrogating an optical fibre deployed in an area of interest with optical radiation wherein at least part of the optical fibre is mechanically coupled to at least a first element (202; 803) responsive, in use, to electromagnetic fields; applying a varying electric current so as to induce a varying force on said first element; and characterised by: analysing optical radiation backscattered from within said optical fibre to determine a measurement signal indicative of a variation in the backscattered radiation corresponding with said electric current applied; and analysing said measurement signal to determine a mechanical impedance of the environment in which the optical fibre is deployed.
A method for aging remaining lifetime of a link state protocol data packet, comprising: acquiring, by an ISIS-supported device, a remaining lifetime of a link state protocol data packet in an ISIS network; inserting, by the ISIS-supported device, the remaining lifetime into a time roulette; and aging, by the ISIS-supported device, the remaining lifetime with rotation of the time roulette; characterized by inserting the remaining lifetime into the time roulette comprising: creating time roulettes with different second levels; and inserting, according to a highest digit of the remaining lifetime, the remaining lifetime into a time roulette with a second level corresponding to the highest digit; wherein when the remaining lifetime corresponds to time roulette with different second levels, aging the remaining lifetime with the rotation of the time roulette comprising: after the time roulette, into which the remaining lifetime is inserted, expires, judging whether the aged remaining lifetime is zero; and when a judging result is that the aged remaining lifetime is not zero, inserting the remaining lifetime into a time roulette of a lower second level to perform time aging process, wherein the lower second level is one level lower than a second level of the time roulette into which the remaining lifetime is inserted; and repeating the judging process and the time aging process in sequence until aged remaining lifetime is zero acquiring, by an ISIS-supported device, a remaining lifetime of a link state protocol data packet in an ISIS network; inserting, by the ISIS-supported device, the remaining lifetime into a time roulette; and aging, by the ISIS-supported device, the remaining lifetime with rotation of the time roulette; characterized by inserting the remaining lifetime into the time roulette comprising: creating time roulettes with different second levels; and inserting, according to a highest digit of the remaining lifetime, the remaining lifetime into a time roulette with a second level corresponding to the highest digit; wherein when the remaining lifetime corresponds to time roulette with different second levels, aging the remaining lifetime with the rotation of the time roulette comprising: after the time roulette, into which the remaining lifetime is inserted, expires, judging whether the aged remaining lifetime is zero; and when a judging result is that the aged remaining lifetime is not zero, inserting the remaining lifetime into a time roulette of a lower second level to perform time aging process, wherein the lower second level is one level lower than a second level of the time roulette into which the remaining lifetime is inserted; and repeating the judging process and the time aging process in sequence until aged remaining lifetime is zero
A signal processor configured to: receive a first analog signal; convert the first analog signal into a digital signal; transmit the digital signal across an electrical barrier; characterized in that the signal processor is further configured to: generate a pulse width modulation signal based on the digital signal; scale the pulse width modulation signal based on a difference between a first analog signal encoding utilized at an input of the signal processor and a second analog signal encoding utilized at an output of the signal processor; and convert the scaled pulse width modulation signal into a second analog signal. receive a first analog signal; convert the first analog signal into a digital signal; transmit the digital signal across an electrical barrier; characterized in that the signal processor is further configured to: generate a pulse width modulation signal based on the digital signal; scale the pulse width modulation signal based on a difference between a first analog signal encoding utilized at an input of the signal processor and a second analog signal encoding utilized at an output of the signal processor; and convert the scaled pulse width modulation signal into a second analog signal. generate a pulse width modulation signal based on the digital signal; scale the pulse width modulation signal based on a difference between a first analog signal encoding utilized at an input of the signal processor and a second analog signal encoding utilized at an output of the signal processor; and convert the scaled pulse width modulation signal into a second analog signal.
Electric actuating apparatus for use in the sanitary sector, having: a) a flexible, transparent carrier plate which has, on a surface facing towards the user, at least one control panel which has to be touched by the user for the purpose of triggering a function; b) at least one sensor (11, 12) which is arranged on the surface of the carrier plate facing away from the user and which responds to the touching of the control panel and generates a corresponding electrical output signal; wherein c) the sensor (11, 12) is a force sensor or distance sensor which rests, with one surface, against the end face of a projection (7, 8); d) there is provided opposite the control panel, on the surface of the carrier plate facing away from the user, a depression (5, 6) in said carrier plate which surrounds the projection (7, 8), either completely or at least predominantly, in the form of a ring, in which projection the carrier plate has a greater wall thickness than in the region of the depression (5, 6); and e) the depression (5, 6) is filled with a sealing compound which has greater elasticity than the material of which the carrier plate consists. a) a flexible, transparent carrier plate which has, on a surface facing towards the user, at least one control panel which has to be touched by the user for the purpose of triggering a function; b) at least one sensor (11, 12) which is arranged on the surface of the carrier plate facing away from the user and which responds to the touching of the control panel and generates a corresponding electrical output signal; wherein c) the sensor (11, 12) is a force sensor or distance sensor which rests, with one surface, against the end face of a projection (7, 8); d) there is provided opposite the control panel, on the surface of the carrier plate facing away from the user, a depression (5, 6) in said carrier plate which surrounds the projection (7, 8), either completely or at least predominantly, in the form of a ring, in which projection the carrier plate has a greater wall thickness than in the region of the depression (5, 6); and e) the depression (5, 6) is filled with a sealing compound which has greater elasticity than the material of which the carrier plate consists.
An organoruthenium compound for a chemical vapor deposition raw material, comprising dodecacarbonyl triruthenium represented by the following chemical formula, wherein the concentration of iron (Fe) is 1 ppm or less.