mhurhangee/ep-ind-claims huggingface dataset:
An electronically functional yarn, comprising: a core; a sheath at least partially surrounding the core, wherein the sheath comprises one or more electronically non-functional windings; and an electronic circuit formed on the core, the circuit including three or more control lines and more than three diode-containing circuit elements controllable by the three or more control lines, each circuit element being controllable via a corresponding set of two of the three or more control lines. a core; a sheath at least partially surrounding the core, wherein the sheath comprises one or more electronically non-functional windings; and an electronic circuit formed on the core, the circuit including three or more control lines and more than three diode-containing circuit elements controllable by the three or more control lines, each circuit element being controllable via a corresponding set of two of the three or more control lines.
A vector operation core, comprising a first operation branch and a second operation branch; wherein the first operation branch comprises: input ends 1, 2, 3, multiplier 7, an either-or selector 9, negators 11, 12, a three-input adder 15 and an output end 17; and the second operation branch comprises: input ends 4, 5, 6, multiplier 8, an either-or selector 10, negators 13, 14, a three-input adder 16 and an output end 18; the negators 11, 12, 13, 14 are configured to control signs of output data of the negators 11, 12, 13, 14 respectively; wherein data of the input end 1 is input into one select input end of the either-or selector 9, data of the input ends 2, 3 is input into two input ends of the multiplier 7, and data outputted from the multiplier 7 is divided into two branches which are respectively input into input ends of the negators 11, 13 respectively; data of the input end 6 is input into one select input end of the either-or selector 10, data of the input ends 4, 5 is input into two input ends of the multiplier 8, and data outputted from the multiplier 8 is divided into two branches which are respectively input into input ends of the negators 12, 14; data outputted from the selector 9, negators 11, 12 is respectively input into three input ends of the adder 15; data outputted from selector 10, negators 13, 14 are respectively input into three input ends of the adder 16; data output from the adder 15 is divided into two branches which are respectively input into the output 17 and the other select input end of the selector 9; data output from the adder 16 is divided into two branches which are respectively input into the output 18 and the other select input end of the selector 10.
An ocular implant and delivery system comprising: a cannula comprising a distal cutting portion extending from a tip to a distal stop element, and a distal exit port (108, 402) adapted to be inserted into a Schlemm's canal (24, 104) portion of an eye; an ocular implant disposed within the cannula and comprising a plurality of openings through the implant; a pusher (126, 206, 306) disposed within the cannula and engaged with the ocular implant; and a proximal control operably connected to the pusher and adapted to be operated from exterior to an eye to move the implant when the distal exit port of the cannula is within the eye. a cannula comprising a distal cutting portion extending from a tip to a distal stop element, and a distal exit port (108, 402) adapted to be inserted into a Schlemm's canal (24, 104) portion of an eye; an ocular implant disposed within the cannula and comprising a plurality of openings through the implant; a pusher (126, 206, 306) disposed within the cannula and engaged with the ocular implant; and a proximal control operably connected to the pusher and adapted to be operated from exterior to an eye to move the implant when the distal exit port of the cannula is within the eye.
An energy storage device comprising: an electrode assembly; a case configured to store the electrode assembly, the case having a wall shaped as an oblong rectangle with a long side extending in an X-axis direction; a conductive member (140; 150) electrically connected to the electrode assembly; a first insulating member (120; 130) disposed between the wall of the case and the conductive member; and a projection protrudingly provided on the wall on an opposite side to the first insulating member (120; 130), wherein the projection protrudes toward an outside of the case, and wherein a recess is formed on the wall on an opposite side to the projection on a backside of the projection, the recess having a limiting portion and being formed as a long groove, wherein the first insulating member (120; 130) has a first engaging portion (120b; 130b) configured to engage with the limiting portion, wherein the projection and the recess are long in a transverse direction of the wall when viewed in a protruding direction, the transverse direction extending transverse to the X-axis direction, wherein the electrode assembly is formed by winding an electrode, and wherein the projection protrudes from the wall toward a direction which is opposite to the location of the electrode assembly and in a winding axis direction of the electrode assembly. an electrode assembly; a case configured to store the electrode assembly, the case having a wall shaped as an oblong rectangle with a long side extending in an X-axis direction; a conductive member (140; 150) electrically connected to the electrode assembly; a first insulating member (120; 130) disposed between the wall of the case and the conductive member; and a projection protrudingly provided on the wall on an opposite side to the first insulating member (120; 130), wherein the projection protrudes toward an outside of the case, and wherein a recess is formed on the wall on an opposite side to the projection on a backside of the projection, the recess having a limiting portion and being formed as a long groove, wherein the first insulating member (120; 130) has a first engaging portion (120b; 130b) configured to engage with the limiting portion, wherein the projection and the recess are long in a transverse direction of the wall when viewed in a protruding direction, the transverse direction extending transverse to the X-axis direction, wherein the electrode assembly is formed by winding an electrode, and wherein the projection protrudes from the wall toward a direction which is opposite to the location of the electrode assembly and in a winding axis direction of the electrode assembly.
Rotary module (3, 4) for the rotatable positioning of a component, in particular in a handling device or an assembly device, with a) a base part with a mounting option for mounting the rotary module (3, 4), b) a rotary part with a mounting option for mounting the component on the rotary module (3, 4), the rotary part being rotatable relative to the base part, and c) a rotary bushing (24, 25; 26) for passing lines (27, 28, 29) between the base part and the rotary part, c1) said rotary bushing (24, 25; 26) receiving a forward conduit that conducts a fluid from said base part to said rotary part, c2) the rotary bushing (24, 25; 26) also receiving a return conduit which returns the fluid from the rotary part to the base part allowing material circulation of the fluid through the rotary bushing (24, 25; 26), characterized in that d) a valve unit is attached to the rotary part, e) the valve unit is connected on the input side to the fluid lines (27, 28) coming from the base part and has a plurality of independently controllable fluid connections on the output side, and f) the number of independently controllable fluid connections of the valve unit is greater than the number of fluid lines (27, 28) coming from the base part. a) a base part with a mounting option for mounting the rotary module (3, 4), b) a rotary part with a mounting option for mounting the component on the rotary module (3, 4), the rotary part being rotatable relative to the base part, and c) a rotary bushing (24, 25; 26) for passing lines (27, 28, 29) between the base part and the rotary part, c1) said rotary bushing (24, 25; 26) receiving a forward conduit that conducts a fluid from said base part to said rotary part, c2) the rotary bushing (24, 25; 26) also receiving a return conduit which returns the fluid from the rotary part to the base part allowing material circulation of the fluid through the rotary bushing (24, 25; 26), characterized in that c1) said rotary bushing (24, 25; 26) receiving a forward conduit that conducts a fluid from said base part to said rotary part, c2) the rotary bushing (24, 25; 26) also receiving a return conduit which returns the fluid from the rotary part to the base part allowing material circulation of the fluid through the rotary bushing (24, 25; 26), d) a valve unit is attached to the rotary part, e) the valve unit is connected on the input side to the fluid lines (27, 28) coming from the base part and has a plurality of independently controllable fluid connections on the output side, and f) the number of independently controllable fluid connections of the valve unit is greater than the number of fluid lines (27, 28) coming from the base part.
A transmission apparatus comprising: a processing unit configured to variably set at least any of a number of subcarriers or a number of subsymbols included in a unit resource including one or more subcarriers or one or more subsymbols, and set a value of a filter coefficient that is applied, the value being obtained by sampling a prototypical filter at a predetermined interval from a predetermined position on a frequency axis, wherein the predetermined position is different in accordance with whether the number of subsymbols included in the unit resource is an even number or an odd number.
A power tool comprising: a housing; a motor being disposed in the housing for outputting rotary power; an output shaft having an accommodating hole in the axial direction for holding a tool bit; a transmission mechanism being disposed between the motor and the output shaft for transmitting rotary power from the motor to the output shaft; a cartridge including several chambers for holding the tool bit; a connecting member being disposed in the housing and capable of moving axially relative to the housing between a working position where the connecting member passes through one of the several chambers and to accommodate the tool bit in the chamber to the output shaft, and a release position where the connecting member exits and separates from one of the several chambers; and an operating member movably arranged on the housing; characterized in that: the power tool further includes an automatic shifting means for adjusting the position of the cartridge in response to the movement of the operating member, when the connecting member is in the release position, the cartridge is movable from a first position where one chamber is axially corresponding to the output shaft to a second positon wherein another chamber is axially corresponds to the output shaft. a housing; a motor being disposed in the housing for outputting rotary power; an output shaft having an accommodating hole in the axial direction for holding a tool bit; a transmission mechanism being disposed between the motor and the output shaft for transmitting rotary power from the motor to the output shaft; a cartridge including several chambers for holding the tool bit; a connecting member being disposed in the housing and capable of moving axially relative to the housing between a working position where the connecting member passes through one of the several chambers and to accommodate the tool bit in the chamber to the output shaft, and a release position where the connecting member exits and separates from one of the several chambers; and an operating member movably arranged on the housing; characterized in that: the power tool further includes an automatic shifting means for adjusting the position of the cartridge in response to the movement of the operating member, when the connecting member is in the release position, the cartridge is movable from a first position where one chamber is axially corresponding to the output shaft to a second positon wherein another chamber is axially corresponds to the output shaft.
An untethered apparatus for measuring properties along a subterranean well, the untethered apparatus comprising: a housing (105, 110, 205, 210); one or more sensors (175, 225, 230) configured to measure data along the subterranean well, the data comprising one or more physical, chemical, geological, or structural properties along the subterranean well or the dynamics of the apparatus; one or more processors configured to read the one or more sensors measuring the data and to store the measured data, wherein the one or more processors comprises instructions defining measurement parameters for the one or more sensors of the untethered apparatus within the subterranean well; a transmitter (245, 250) configured to transmit the measured data to a receiver arranged external to the subterranean well; a controller configured to control a buoyancy of the untethered apparatus to control a position of the untethered apparatus along the subterranean well; a weight (145, 240); and a weight securing means for securing and releasing the weight to and from the untethered apparatus to change the buoyancy of the untethered apparatus, wherein the weight securing means includes an electro-permanent magnet (155, 160, 235), and a magnetic flux switching device that includes a coil of wire that is energizable to switch a flux of the electro- permanent magnet between two stable paths, to control the connection between the weight and the exterior surface of the housing (105, 110) of the device. a housing (105, 110, 205, 210); one or more sensors (175, 225, 230) configured to measure data along the subterranean well, the data comprising one or more physical, chemical, geological, or structural properties along the subterranean well or the dynamics of the apparatus; one or more processors configured to read the one or more sensors measuring the data and to store the measured data, wherein the one or more processors comprises instructions defining measurement parameters for the one or more sensors of the untethered apparatus within the subterranean well; a transmitter (245, 250) configured to transmit the measured data to a receiver arranged external to the subterranean well; a controller configured to control a buoyancy of the untethered apparatus to control a position of the untethered apparatus along the subterranean well; a weight (145, 240); and a weight securing means for securing and releasing the weight to and from the untethered apparatus to change the buoyancy of the untethered apparatus, an electro-permanent magnet (155, 160, 235), and a magnetic flux switching device that includes a coil of wire that is energizable to switch a flux of the electro- permanent magnet between two stable paths, to control the connection between the weight and the exterior surface of the housing (105, 110) of the device.
Resistance temperature sensor with a first temperature sensor element and a second temperature sensor element, said first temperature sensor element having a first measuring section and said second temperature sensor element having a second measuring section, wherein the first and second measuring sections are on a substrate, characterized in that the substrate has an anisotropic thermal expansion with at least two expansion directions (a, c) that differ from one another, and wherein a projection of the first measuring section onto the expansion directions (a) is different from a projection of the second measuring section onto the expansion directions (c).
A lock for a door, in particular a self-locking door lock, with a lock casing, in which at least one locking element is supported in a mobile manner and movable between a position protruding from the lock casing and a position retracted into the lock casing, a mechanism incorporated into the lock casing, which mechanism includes a guiding element movable within the lock casing, which element may be brought into a locking state and into a release state, wherein in the locking state, the guiding element prevents a movement of the locking element from the protruding position into the retracted position, in the release state allows for a movement of the locking element into the retracted position, wherein the lock includes a safety device, which may be brought into an arresting location and into a release location, wherein in the arresting location, the safety device is in operative connection with the guiding element in such a way that a movement of the guiding element into the arresting state is prevented, and in that in the release location, the safety device is free from the operative connection to the guiding element such that the safety device allows for a movement of the guiding element into the locking state, wherein the transfer of the safety device into the release location is realized via a magnetic, in particular a permanent magnetic and/or electro-magnetic force action, which acts upon the safety device, wherein in the protruding position of the locking element, a transfer of the safety device into the release location is prevented.
Assembly for an axial-flow turbomachine, in particular for a compressor (4; 6) of an axial-flow turbomachine, the assembly comprising: - a first annular row of first blades of the stator extending radially in the axial flow; - a second annular row of second blades of the stator with controlled orientation which extend radially in the axial flow, the second row of blades being disposed upstream of the first row of blades; - an integral outer ferrule on which the first blades and the second blades are mounted; and - a rotor with a third annular row of third blades disposed between the first blades and the second blades; and an inner ferrule mounted at the inner ends of the second blades, said inner ferrule having a continuity of circular material, the inner ferrule being axially divided into elements (60; 62) each having a continuity of circular material, characterized in that at least one of the elements (60; 62) cooperates with the rotor in a sealed manner by means of rubbing strips. - a first annular row of first blades of the stator extending radially in the axial flow; - a second annular row of second blades of the stator with controlled orientation which extend radially in the axial flow, the second row of blades being disposed upstream of the first row of blades; - an integral outer ferrule on which the first blades and the second blades are mounted; and - a rotor with a third annular row of third blades disposed between the first blades and the second blades;
A circumferentially revolving water outflowing device comprising a main body, an upper cover, a lower cover, a water outflowing assembly, and a revolving swing, wherein the main body is provided with a water inlet, and the water inlet is in communication with a water inflowing cavity, the water inflowing cavity is provided therein with an impeller, a speed reduction duplex gear, and an output gear, an axial end face of the impeller is provided with a driving gear configured to rotate synchronously with the impeller, the driving gear is engaged with a main gear of the speed reduction duplex gear, a pinion of the speed reduction duplex gear is engaged with the output gear, the output gear is provided at an axial center portion thereof with a first rotating shaft configured to rotate synchronously with the output gear, and the first rotating shaft extends out of the lower cover through the water inflowing cavity, and is fixedly connected with one end of the revolving swing; the water outflowing assembly comprises a water outflowing seat and a water outflowing nozzle, and the revolving swing is configured to drive, when driven by the output gear, the water outflowing assembly to revolve, characterised in that the upper cover and the lower cover are respectively covered on an upper end face and a lower end face of the main body, internally forming the water inflowing cavity, and wherein the water outflowing nozzle is covered on the water outflowing seat, forming a water outflowing cavity internally, wherein a cylindrical boss is provided at a middle portion of an upper end face of the water outflowing seat, the boss extends into the water inflowing cavity through the lower cover, the boss is provided at an axial center portion thereof with a water inflowing passage running through two ends of the boss, a second rotating shaft is provided at an axial center portion of the water inflowing passage, an outer cylindrical wall of the second rotating shaft and an inner wall of the water inflowing passage are connected to form one piece through rib plates provided at intervals in a circumferential direction, and an upper end of the second rotating shaft passes through the lower cover and is rotationally connected with the main body; and wherein other end of the revolving swing is rotationally connected with the upper end face of the water outflowing seat.
A method of calculating blood flow in an organ of a subject using output radiofrequency signals transmitted to the organ and input radiofrequency signals received from the organ, the method comprising determining a phase shift of the input radiofrequency signals relative to the output radiofrequency signal; and using said phase shift to calculate the blood flow in the organ; characterized in that said calculation is based on a linear relationship between said phase shift and the blood flow.
A device for coating a substrate of particles by means of cathode sputtering using a movable substrate dish tilted relative to the horizontal plane, characterized in that the substrate dish is loosely arranged in a tilted plate that is rotatable about an axis of rotation and has a side wall, wherein an outer wall of the substrate dish is intermittently in contact with the inner side of the side wall of the plate.
Food processor comprising an agitated vessel, and a drive for an agitator inside the agitated vessel, the agitated vessel preferably being heatable, furthermore an inner surface of the agitated vessel being provided with a non-stick coating, characterised in that the inner surface of the agitated vessel is provided with a non-stick coating only above a vertical vessel wall portion located in the region of the agitator.
A separator for an electrochemical device comprising a porous substrate, wherein the porous substrate comprises polyethylene and polypropylene; the porous substrate satisfies the following conditions a) - c), when it is pressurized at 40°C from 0.04 N to 1 N at a rate of 0.25 N/min and depressurized from 1 N to 0.04 N at the same rate: a) a compressibility of 15% or less when the pressure reaches 1 N, b) a maximum compressibility of 18% or less within the above-defined pressure range, and c) a permanent strain of 13% or less; the porous substrate has a porosity of 45% or less determined based on ASTM D-2873; and the polyethylene has a weight average molecular weight (Mw) of 300,000-500,000, wherein the porous substrate comprises polypropylene in an amount of less than 5 wt% based on 100 wt% of the porous substrate.