mhurhangee/ep-ind-claims huggingface dataset:
A treatment system comprising: a pair of openable/closable holding sections that has a heat generation section for applying thermal energy to be applied to a held living tissue; a signal output section configured to supply a drive signal to the heat generation section; a signal detection section configured to detect a current and a voltage of the drive signal; a signal extraction section configured to allow only a signal of a predetermined frequency band to pass from the drive signal detected by the signal detection section as an extracted signal; wherein the predetermined frequency band is 0.1 Hz or above and 20 Hz or below; a fault detection section configured to detect a precursory phenomenon of a fault of the heat generation section when the extracted signal reaches or exceeds a predetermined threshold; and a control section configured to perform control, when the fault detection section detects the precursory phenomenon, so as to reduce power of the drive signal supplied from the signal output section to the heat generation section. a pair of openable/closable holding sections that has a heat generation section for applying thermal energy to be applied to a held living tissue; a signal output section configured to supply a drive signal to the heat generation section; a signal detection section configured to detect a current and a voltage of the drive signal; a signal extraction section configured to allow only a signal of a predetermined frequency band to pass from the drive signal detected by the signal detection section as an extracted signal; wherein the predetermined frequency band is 0.1 Hz or above and 20 Hz or below; a fault detection section configured to detect a precursory phenomenon of a fault of the heat generation section when the extracted signal reaches or exceeds a predetermined threshold; and a control section configured to perform control, when the fault detection section detects the precursory phenomenon, so as to reduce power of the drive signal supplied from the signal output section to the heat generation section.
A control handle assembly for a backpack blower for controlling a start-stop and a speed of an axial fan assembly, the control handle assembly comprising a speed-adjusting unit, the speed-adjusting unit having: a fixing post; a speed-adjusting button rotating around the fixing post; a guiding mechanism for guiding the speed-adjusting button to rotate; a speed-adjusting switch; and a first control circuit; wherein the speed-adjusting button defines a first protrusion for connecting with the speed-adjusting switch during rotating, and wherein the first control circuit is configured to control the start-stop and the speed of the backpack blower when the first protrusion is in contact with the speed-adjusting switch, whereby the control handle assembly further comprises an extreme-speed unit for controlling the axial fan assembly to work at full power, and wherein the extreme-speed unit comprises an extreme-speed button, a micro switch and a second control circuit, and wherein the second control circuit controls the axial fan assembly to work at full power when the extreme-speed button is pressed to contact the micro switch. a fixing post; a speed-adjusting button rotating around the fixing post; a guiding mechanism for guiding the speed-adjusting button to rotate; a speed-adjusting switch; and a first control circuit; wherein the speed-adjusting button defines a first protrusion for connecting with the speed-adjusting switch during rotating, and wherein the first control circuit is configured to control the start-stop and the speed of the backpack blower when the first protrusion is in contact with the speed-adjusting switch, whereby the control handle assembly further comprises an extreme-speed unit for controlling the axial fan assembly to work at full power, and wherein the extreme-speed unit comprises an extreme-speed button, a micro switch and a second control circuit, and wherein the second control circuit controls the axial fan assembly to work at full power when the extreme-speed button is pressed to contact the micro switch.
A turbomachine component, comprising: a matrix material comprising a metal, the metal comprising a compound selected from the group consisting of titanium, a titanium alloy, stainless steel, carbon steel, cast iron, aluminum, aluminum alloy, and combinations thereof; and carbon nanotubes combined with the matrix material, so that a carbon nanotube composite is formed, characterized in that the carbon nanotube composite is made by combining the carbon nanotubes with a molten solution of the matrix material, the molten mixture being rotated such that the carbon nanotubes are concentrated about an inner or outer portion of a resulting carbon nanotube composite. a matrix material comprising a metal, the metal comprising a compound selected from the group consisting of titanium, a titanium alloy, stainless steel, carbon steel, cast iron, aluminum, aluminum alloy, and combinations thereof; and carbon nanotubes combined with the matrix material, so that a carbon nanotube composite is formed, characterized in that the carbon nanotube composite is made by combining the carbon nanotubes with a molten solution of the matrix material, the molten mixture being rotated such that the carbon nanotubes are concentrated about an inner or outer portion of a resulting carbon nanotube composite.
A method for preparing a superabsorbent polymer, comprising: preparing a hydrogel polymer by performing thermal polymerization or photopolymerization on a monomer composition comprising a water-soluble ethylene-based unsaturated monomer and a polymerization initiator; drying the hydrogel polymer, pulverizing the dried polymer, and classifying the pulverized polymer into a fine powder having a particle diameter of 150 μm or less and a normal particle having a particle diameter of more than 150 μm to 850 μm or less; and preparing a fine powder reassembly by mixing the fine powder with water while stirring at a linear velocity of 6.5 to 14.5 m/s, followed by reassembling, wherein the water is added to the fine powder in two divisions or more in the mixing of the fine powder and water. preparing a hydrogel polymer by performing thermal polymerization or photopolymerization on a monomer composition comprising a water-soluble ethylene-based unsaturated monomer and a polymerization initiator; drying the hydrogel polymer, pulverizing the dried polymer, and classifying the pulverized polymer into a fine powder having a particle diameter of 150 μm or less and a normal particle having a particle diameter of more than 150 μm to 850 μm or less; and preparing a fine powder reassembly by mixing the fine powder with water while stirring at a linear velocity of 6.5 to 14.5 m/s, followed by reassembling, wherein the water is added to the fine powder in two divisions or more in the mixing of the fine powder and water.
A hinge device comprising: a bearing seat having a containing recess; a spherical joint rotatably disposed in the containing recess, the surface of the spherical joint having a plurality of positioning holes; a plurality of positioning pins disposed at the bearing seat, the positioning pins capable of sliding toward or away from the spherical joint and correspond to parts of the positioning holes respectively when the spherical joint rotates to a specific position relative to the bearing seat; and a retaining ring disposed at an opening of the containing recess of the bearing seat and surrounding the positioning pins, the retaining ring being against the positioning pins to allow the positioning pins to slide toward the spherical joint thus to be fastened in the corresponding positioning holes when the spherical joint rotates to the specific position relative to the bearing seat, characterized in that the retaining ring has a plurality of protrusions at the inner side, thereof, and that after being rotated by a specific angle relative to the bearing seat the retaining ring is positioned against the positioning pins by means of the protrusions. a bearing seat having a containing recess; a spherical joint rotatably disposed in the containing recess, the surface of the spherical joint having a plurality of positioning holes; a plurality of positioning pins disposed at the bearing seat, the positioning pins capable of sliding toward or away from the spherical joint and correspond to parts of the positioning holes respectively when the spherical joint rotates to a specific position relative to the bearing seat; and a retaining ring disposed at an opening of the containing recess of the bearing seat and surrounding the positioning pins, the retaining ring being against the positioning pins to allow the positioning pins to slide toward the spherical joint thus to be fastened in the corresponding positioning holes when the spherical joint rotates to the specific position relative to the bearing seat, characterized in that the retaining ring has a plurality of protrusions at the inner side, thereof, and that after being rotated by a specific angle relative to the bearing seat the retaining ring is positioned against the positioning pins by means of the protrusions.
Compound 5-({6-amino-2-[4-(5-chloro-2-cyanophenyl)-5-methoxy-2-oxopyridin-1 - yl]-3-methylhexanoyl}amino)pyrazolo[1,5- a]pyridine-3-carboxamide of the formula or one of the salts thereof, solvates thereof or solvates of the salts thereof.
Roof with at least two beams (1, 2), on which multiple slats (10, 20, 30) are each pivotably mounted about an axis of rotation, wherein the axes of rotation of the slats (10, 20, 30) extend from one beam (1, 2) to the other beam (2, 1), wherein the longitudinal extension of the slats (10, 20, 30) parallel to their axis of rotation is limited by the lateral ends (210, 220) of the slats (10, 20, 30), wherein the slats (10, 20, 30) can be pivoted by means of a drive from a closed position, in which the slats (10, 20, 30) form a closed roof surface, into, in particular, any desired open position, such that a section (11, 21, 31) of the slats is pivoted downwards out of the closed position and another section (12, 22, 32) of the slats is pivoted upwards out of the closed position, wherein the section (11, 21, 31) of the slats (10, 20, 30) tilting downwards when pivoting the slats (10, 20, 30) in the direction of rotation to the open position from the closed position of the slats (10, 20, 30) has a drainage channel (15, 25, 35), in each case, for draining rain water, wherein the drainage channel (15, 25, 35) has a slope in the direction of a lateral end (210, 220) of the slat (10, 20, 30) or that the drainage channel has two slope sections (211, 212) starting, in particular, from the center of the slat (10, 20, 30), in each case, in the direction of a lateral end (210, 220) of the slat (10, 20, 30), characterized in that the slope or slope sections (211, 212) in the drainage channel (15, 25, 35) are formed by an insert inserted in the drainage channel (15, 25, 35), in particular, a plastic insert.
Cable clamp for a cable of an elevator system, in particular for a support cable of an elevator system which is installed in a shaft of a building under construction, having a bearing unit which has a wedge mount, having a first bearing face and a second bearing face which is disposed at an angle to the first bearing face, and having a wedge-shaped clamping unit which is movable to-and-fro in the wedge mount between a clamping position and a releasing position wherein the cable clamp comprises a deflection unit and a first clamping region, which is disposed between a first clamping face and the first bearing face, and a second clamping region which is disposed between the second clamping face and the second bearing face, wherein the cable to be clamped is guidable between the two clamping regions (59, 60) and by means of the deflection unit is deflectable from the first clamping region to the second clamping region and wherein the two clamping faces (48, 49) are obliquely oriented in relation to one another, characterized in that, the wedge-shaped clamping unit has the first clamping face which is opposite the first bearing face and the second clamping face which is opposite the second bearing face
A method of transmitting and receiving a signal by a user equipment, UE, in a wireless communication system, the method comprising: performing a random access channel, RACH, procedure; receiving configuration information related to the UE based on the RACH procedure; detecting downlink control information, DCI, scheduling a single physical uplink shared channel, PUSCH, or multiple PUSCHs to be transmitted on a serving cell based on the configuration information; and transmitting the single PUSCH or the multiple PUSCHs on the serving cell based on the DCI, wherein the DCI is received based on an assumption that a payload size of the DCI is determined based on a larger of a number of information bits for scheduling the single PUSCH and a number of information bits for scheduling the multiple PUSCHs, wherein the DCI includes a codeblock group transmission information, CBGTI, field based on the scheduling of the single PUSCH, and wherein the DCI includes no CBGTI field based on the scheduling of the multiple PUSCHs, wherein the DCI includes a two-bit redundancy version, RV, field based on the scheduling of the single PUSCH, wherein the DCI includes an N-bit RV field based on the scheduling of the multiple PUSCHs, and the N bits are based on a maximum number of PUSCHs schedulable by the DCI, and wherein the number of information bits for scheduling the single PUSCH is based on the CBGTI field and two-bit the RV field, and the number of information bits for scheduling the multiple PUSCHs is based on no CBGTI field and the N-bit RV field. performing a random access channel, RACH, procedure; receiving configuration information related to the UE based on the RACH procedure; detecting downlink control information, DCI, scheduling a single physical uplink shared channel, PUSCH, or multiple PUSCHs to be transmitted on a serving cell based on the configuration information; and transmitting the single PUSCH or the multiple PUSCHs on the serving cell based on the DCI, wherein the DCI is received based on an assumption that a payload size of the DCI is determined based on a larger of a number of information bits for scheduling the single PUSCH and a number of information bits for scheduling the multiple PUSCHs, wherein the DCI includes a codeblock group transmission information, CBGTI, field based on the scheduling of the single PUSCH, and wherein the DCI includes no CBGTI field based on the scheduling of the multiple PUSCHs, wherein the DCI includes a two-bit redundancy version, RV, field based on the scheduling of the single PUSCH, wherein the DCI includes an N-bit RV field based on the scheduling of the multiple PUSCHs, and the N bits are based on a maximum number of PUSCHs schedulable by the DCI, and wherein the number of information bits for scheduling the single PUSCH is based on the CBGTI field and two-bit the RV field, and the number of information bits for scheduling the multiple PUSCHs is based on no CBGTI field and the N-bit RV field.
A rotor blade, comprising: a surface (34, 36) of the rotor blade; at least one main hole that extends through the surface (34, 36) and has a width and a length; and at least one leader hole that extends through the surface (34, 36) and has a length that is less than the length of the main hole and arranged spaced from and adjacent the main hole, the leader hole gradually increasing in width from a first end of the leader hole opposite the main hole to an opposed second end of the leader hole proximate the main hole to operatively gradually distribute stress in the leader and main holes and rotor blade and reduce an amount of the stress exerted therein, characterized in that the width of the leader hole closest to the main hole is substantially the width of the main hole, and in that the first end of the leader hole is directed toward an inboard end of the rotor blade and the main hole is arranged adjacent the leader hole opposite the inboard end. a surface (34, 36) of the rotor blade; at least one main hole that extends through the surface (34, 36) and has a width and a length; and at least one leader hole that extends through the surface (34, 36) and has a length that is less than the length of the main hole and arranged spaced from and adjacent the main hole, the leader hole gradually increasing in width from a first end of the leader hole opposite the main hole to an opposed second end of the leader hole proximate the main hole to operatively gradually distribute stress in the leader and main holes and rotor blade and reduce an amount of the stress exerted therein, characterized in that the width of the leader hole closest to the main hole is substantially the width of the main hole, and in that the first end of the leader hole is directed toward an inboard end of the rotor blade and the main hole is arranged adjacent the leader hole opposite the inboard end.
A stent graft comprising a stent body and a graft fixed on the stent body, the stent body being divided into a plurality of stent sections along a center axis of the stent graft, each stent section extending around the center axis by one circle, wherein each stent section is formed by connecting a plurality of wave rods end to end in a wavy structure, the stent body consists of a small diameter section, a transition section and a large diameter section along the center axis, and the transition section connects the small diameter section with the large diameter section, characterized in that a distance between adjacent stent sections in the transition section is larger than a distance between adjacent stent sections in the small diameter section, and is smaller than a distance between adjacent stent sections in the large diameter section, and wherein an edge height of each stent section in the transition section is larger than an edge height of each stent section in the small diameter section, and is smaller than an edge height of each stent section in the large diameter section.
An adaptor top for a cartridge having an annular bead at a distal end, wherein a seal is held in place on the bead by a ferrule, the adaptor top comprising: a main body having a proximal end, a distal end, and a bore that receives the cartridge, wherein the main body further comprises an outer thread configured for receiving a threaded needle hub, wherein the main body is provided with a pass through near the distal end sized and configured so that, when the adapter top is placed over the ferrule the pass through exposes a portion of the ferrule of the cartridge and provides access to at least a portion of the pierceable seal, and a retention feature (408, 410) on the main body suitable for snapping under the bead of the cartridge for securing the adaptor top to the cartridge, characterized in that the retention feature includes at least one fastening mechanism comprising a pair of hinged or flexible arms integral with the main body at the proximal end, wherein the arms (408, 410) are configured to snap under the bead of the cartridge to lock the adaptor top to the cartridge. a main body having a proximal end, a distal end, and a bore that receives the cartridge, wherein the main body further comprises an outer thread configured for receiving a threaded needle hub, wherein the main body is provided with a pass through near the distal end sized and configured so that, when the adapter top is placed over the ferrule the pass through exposes a portion of the ferrule of the cartridge and provides access to at least a portion of the pierceable seal, and a retention feature (408, 410) on the main body suitable for snapping under the bead of the cartridge for securing the adaptor top to the cartridge, characterized in that the retention feature includes at least one fastening mechanism comprising a pair of hinged or flexible arms integral with the main body at the proximal end, wherein the arms (408, 410) are configured to snap under the bead of the cartridge to lock the adaptor top to the cartridge.
A method of manufacturing a display device, the method comprises the subsequent steps of: providing a display panel comprising a thin film transistor and a pixel electrode by scribing a mother substrate; disposing a polarizing layer having a planar area larger than that of the display panel on one surface of the display panel; and cutting the polarizing layer using a cutting laser beam and simultaneously polishing a side of the display panel such that a corresponding side of the polarizing layer and the side of the display panel are coplanar to each other, applying a conductive paste onto the side of the display panel and patterning the conductive paste using a patterning laser. providing a display panel comprising a thin film transistor and a pixel electrode by scribing a mother substrate; disposing a polarizing layer having a planar area larger than that of the display panel on one surface of the display panel; and cutting the polarizing layer using a cutting laser beam and simultaneously polishing a side of the display panel such that a corresponding side of the polarizing layer and the side of the display panel are coplanar to each other, applying a conductive paste onto the side of the display panel and patterning the conductive paste using a patterning laser.
A method for accessing a signal value of an FPGA during runtime, comprising the steps of loading an FPGA hardware configuration to the FPGA, executing the FPGA hardware configuration on the FPGA, requesting a signal value of the FPGA, transferring state data from a functional level of the FPGA into a configuration memory in the configuration level thereof, reading the state data from the configuration memory as readback data, and determining the signal value from the readback data, characterized in that the signal value is distributed over a plurality of registers of the FPGA, and the contents of the registers in the readback data are processing jointly in order to determine the signal value.
A method for a handover to a circuit switched domain, wherein the method comprises: selecting, by a mobility management entity, MME, a first mobile switching center, MSC, capable of both circuit switched fallback, CSFB, and single radio voice call continuity, SRVCC, for a user equipment, UE, in a combined attach procedure of the UE; and selecting, by the MME, if a location service of a circuit switched, CS, domain triggers an SRVCC procedure for the UE when the UE has a voice over Internet Protocol, VOIP, service in progress, the MSC capable of both CSFB and SRVCC for the UE in the SRVCC procedure, so that the UE, after being handed over to the CS domain, accesses the MSC and implements the location service of the CS domain. selecting, by a mobility management entity, MME, a first mobile switching center, MSC, capable of both circuit switched fallback, CSFB, and single radio voice call continuity, SRVCC, for a user equipment, UE, in a combined attach procedure of the UE; and selecting, by the MME, if a location service of a circuit switched, CS, domain triggers an SRVCC procedure for the UE when the UE has a voice over Internet Protocol, VOIP, service in progress, the MSC capable of both CSFB and SRVCC for the UE in the SRVCC procedure, so that the UE, after being handed over to the CS domain, accesses the MSC and implements the location service of the CS domain.