mhurhangee/ep-ind-claims huggingface dataset:
A fecal collection device comprising: a collection tube; and a retention cuff (50, 100, 120, 140, 150, 160, 190, 200, 220, 240, 250, 270, 280, 290, 300, 310, 322) coupled to one end of the collection tube, the retention cuff (50, 100, 120, 140, 150, 160, 190, 200, 220, 240, 250, 270, 280, 290, 300, 310, 322) having a non-inflatable body (70, 102, 162, 252) including a neck portion (72, 104, 122, 164, 228, 246, 256) coupled to the one end of the tube, a central opening (74, 110, 168, 226) through the neck portion (72, 104, 122, 164, 228, 246, 256) in axial flow communication with the collection tube, and an inflationless cuff wall having at least an annular cuff wall (76, 106, 124, 166, 210, 254) extending radially outward from the neck portion (72, 104, 122, 164, 228, 246, 256) and a side wall (78, 108, 126, 222, 244, 258, 272, 284, 294, 304, 316) that is angled in an axial direction away from the collection tube, the inflationless cuff wall surrounding the central opening (74, 110, 168, 226) and having an undeformed shape configured to direct collected fecal matter to the collection tube through the central opening(74, 110, 168, 226) characterized in the side wall (78, 108, 126, 222, 244, 258, 272, 284, 294, 304, 316) having a distal end that defines a perimeter outer edge of the inflationless cuff wall, the inflationless cuff wall gradually decreasing in thickness from the neck portion (72, 104, 122, 164, 228, 246, 256) to the distal end of the sidewall (78, 108, 126, 222, 244, 258, 272, 284, 294, 304, 316). a collection tube; and a retention cuff (50, 100, 120, 140, 150, 160, 190, 200, 220, 240, 250, 270, 280, 290, 300, 310, 322) coupled to one end of the collection tube, the retention cuff (50, 100, 120, 140, 150, 160, 190, 200, 220, 240, 250, 270, 280, 290, 300, 310, 322) having a non-inflatable body (70, 102, 162, 252) including a neck portion (72, 104, 122, 164, 228, 246, 256) coupled to the one end of the tube, a central opening (74, 110, 168, 226) through the neck portion (72, 104, 122, 164, 228, 246, 256) in axial flow communication with the collection tube, and an inflationless cuff wall having at least an annular cuff wall (76, 106, 124, 166, 210, 254) extending radially outward from the neck portion (72, 104, 122, 164, 228, 246, 256) and a side wall (78, 108, 126, 222, 244, 258, 272, 284, 294, 304, 316) that is angled in an axial direction away from the collection tube, the inflationless cuff wall surrounding the central opening (74, 110, 168, 226) and having an undeformed shape configured to direct collected fecal matter to the collection tube through the central opening(74, 110, 168, 226) characterized in the side wall (78, 108, 126, 222, 244, 258, 272, 284, 294, 304, 316) having a distal end that defines a perimeter outer edge of the inflationless cuff wall, the inflationless cuff wall gradually decreasing in thickness from the neck portion (72, 104, 122, 164, 228, 246, 256) to the distal end of the sidewall (78, 108, 126, 222, 244, 258, 272, 284, 294, 304, 316).
A method in a legacy device bridge (124; 302; 502; 508; 514; 608; 800; 1002; 1202) for controlling a legacy device (112, 114, 116, 118, 120, 122) via a network (102; 602) that communicates information in accordance with a packet-based communication protocol, wherein the legacy device (112, 114, 116, 118, 120, 122) is not adapted for communication in accordance with the packet-based communication protocol, comprising: receiving a command from a device (104; 604, 606) communicatively coupled to the network (102; 602), wherein said command is formatted in accordance with the packet-based communication protocol; converting said command into a format suitable for communication with the legacy device (112, 114, 116, 118, 120, 122); and transmitting said converted command to the legacy device (112, 114, 116, 118, 120, 122); extracting information, by using a probe, from an environment of the legacy device bridge to extrapolate a state of the legacy device (112, 114, 116, 118, 120, 122); and reporting said state of the legacy device (112, 114, 116, 118, 120, 122) to the device (104; 604, 606) communicatively coupled to the network (102; 602). receiving a command from a device (104; 604, 606) communicatively coupled to the network (102; 602), wherein said command is formatted in accordance with the packet-based communication protocol; converting said command into a format suitable for communication with the legacy device (112, 114, 116, 118, 120, 122); and transmitting said converted command to the legacy device (112, 114, 116, 118, 120, 122); extracting information, by using a probe, from an environment of the legacy device bridge to extrapolate a state of the legacy device (112, 114, 116, 118, 120, 122); and reporting said state of the legacy device (112, 114, 116, 118, 120, 122) to the device (104; 604, 606) communicatively coupled to the network (102; 602).
A directional tendency prediction method that comprises: determining a geometry-based relationship between a borehole curvature and at least one geometric parameter of a bottomhole assembly, BHA, having a BHA axis, at least a stabilizer, a bit, and an eccentering mechanism operating on at least one elastic component, the at least one geometric parameter of the BHA comprising a distance of the BHA axis to a baseline and having an unknown value; determining a force-balance-based relationship between the borehole curvature and the at least one geometric parameter, the force-balance-based relationship accounting for borehole curvature based on a sum of a bit tilt angle θt and a force-based side-cutting angle θs, the bit tilt angle θt being the angle between the baseline and the BHA axis, the side-cutting angle θs being the angle between the BHA axis and the borehole axis, the baseline extending from the BHA axis at the stabilizer to the BHA axis at the tip of the bit, and the BHA axis 508, baseline 502 and borehole axis all intersecting at the tip 506 of the bit to define the angles θs and θt; finding a consistent solution for both the geometry-based relationship and the force-balance-based relationship, the consistent solution associating a borehole curvature value with a setting of the eccentering mechanism; and employing said setting of the eccentering mechanism while drilling to achieve a borehole curvature having said borehole curvature value. determining a geometry-based relationship between a borehole curvature and at least one geometric parameter of a bottomhole assembly, BHA, having a BHA axis, at least a stabilizer, a bit, and an eccentering mechanism operating on at least one elastic component, the at least one geometric parameter of the BHA comprising a distance of the BHA axis to a baseline and having an unknown value; determining a force-balance-based relationship between the borehole curvature and the at least one geometric parameter, the force-balance-based relationship accounting for borehole curvature based on a sum of a bit tilt angle θt and a force-based side-cutting angle θs, the bit tilt angle θt being the angle between the baseline and the BHA axis, the side-cutting angle θs being the angle between the BHA axis and the borehole axis, the baseline extending from the BHA axis at the stabilizer to the BHA axis at the tip of the bit, and the BHA axis 508, baseline 502 and borehole axis all intersecting at the tip 506 of the bit to define the angles θs and θt; finding a consistent solution for both the geometry-based relationship and the force-balance-based relationship, the consistent solution associating a borehole curvature value with a setting of the eccentering mechanism; and employing said setting of the eccentering mechanism while drilling to achieve a borehole curvature having said borehole curvature value.
A method for transmitting control information to a base station, BS, by a user equipment, UE, in a time division duplex, TDD, wireless communication system supporting aggregation of a plurality of serving cells including a primary cell and a secondary cell, the method comprising: receiving at least one of a physical downlink control channel, PDCCH, and a physical downlink shared channel, PDSCH, from the base station in a downlink subframe through at least one of the primary and secondary cells; and transmitting control information regarding the received PDCCH or PDSCH to the base station in an uplink subframe through a physical uplink control channel, PUCCH, on the primary cell or through a physical uplink shared channel, PUSCH, on the primary or secondary cell, and the primary cell is a cell on which PUCCH is transmitted, and the secondary cell is a cell other than the primary cell among the plurality of serving cells, characterized in that: when the primary and secondary cells are configured with different uplink-downlink, UL-DL, configurations, a timing relation between the downlink and uplink subframes is defined according to a reference UL-DL configuration, the reference UL-DL configuration is determined as an UL-DL configuration having a smallest number of uplink subframes from among the different UL-DL configurations. receiving at least one of a physical downlink control channel, PDCCH, and a physical downlink shared channel, PDSCH, from the base station in a downlink subframe through at least one of the primary and secondary cells; and transmitting control information regarding the received PDCCH or PDSCH to the base station in an uplink subframe through a physical uplink control channel, PUCCH, on the primary cell or through a physical uplink shared channel, PUSCH, on the primary or secondary cell, and the primary cell is a cell on which PUCCH is transmitted, and the secondary cell is a cell other than the primary cell among the plurality of serving cells, characterized in that: when the primary and secondary cells are configured with different uplink-downlink, UL-DL, configurations, a timing relation between the downlink and uplink subframes is defined according to a reference UL-DL configuration, the reference UL-DL configuration is determined as an UL-DL configuration having a smallest number of uplink subframes from among the different UL-DL configurations. when the primary and secondary cells are configured with different uplink-downlink, UL-DL, configurations, a timing relation between the downlink and uplink subframes is defined according to a reference UL-DL configuration, the reference UL-DL configuration is determined as an UL-DL configuration having a smallest number of uplink subframes from among the different UL-DL configurations.
A braid for a wire harness comprising: a plurality of element wire bundles, each of which is formed of a plurality of element wires, and the plurality of element wire bundles being braided into a tubular shape, wherein each of the plurality of element wire bundles includes a metal element wire that has electrical conductivity and serves as a core wire of each of the element wire bundles, a plurality of resin element wires that have abrasion resistance and that are disposed to surround the metal element wire, and a drain metal element wire that has electrical conductivity and that is disposed with the resin element wires and contacts with the metal element wire; and wherein the drain metal element wires in the plurality of element wire bundles contact to each other. a plurality of element wire bundles, each of which is formed of a plurality of element wires, and the plurality of element wire bundles being braided into a tubular shape, wherein each of the plurality of element wire bundles includes a metal element wire that has electrical conductivity and serves as a core wire of each of the element wire bundles, a plurality of resin element wires that have abrasion resistance and that are disposed to surround the metal element wire, and a drain metal element wire that has electrical conductivity and that is disposed with the resin element wires and contacts with the metal element wire; and wherein the drain metal element wires in the plurality of element wire bundles contact to each other.
Litter for a toilet for household pets, predominantly made of natural organic material, characterized by the following features: the litter contains uncompressed particles; the uncompressed particles are wooden particles in the form of cuboids or cubes or other geometric bodies; the proportion of uncompressed particles is 100%; the particles are produced by chopping or other cutting to achieve smooth, non-fibrous surfaces; the litter contains guar in flour form or another clumping agent; the litter contains an oil; the proportion of clumping agent is 0.1 to 13 wt.%, in relation to the total quantity of the litter; between 50 and 100% of all particles have a maximum extension of 1-6 mm. the litter contains uncompressed particles; the uncompressed particles are wooden particles in the form of cuboids or cubes or other geometric bodies; the proportion of uncompressed particles is 100%; the particles are produced by chopping or other cutting to achieve smooth, non-fibrous surfaces; the litter contains guar in flour form or another clumping agent; the litter contains an oil; the proportion of clumping agent is 0.1 to 13 wt.%, in relation to the total quantity of the litter; between 50 and 100% of all particles have a maximum extension of 1-6 mm.
A syringe driving apparatus comprising: a housing to which a syringe is attachable, the housing having a front end, a back end and a compartment between the front end and the back end, the compartment is configured to receive a plunger of the syringe therein; a driving member disposed in the compartment, the driving member being movable relative to the housing between the front end and the back end; a resilient member connected to the housing and the driving member, wherein movement of the driving member towards the back end deforms the resilient member to store potential energy in the resilient member, and upon release of the potential energy, the resilient member moves the driving member towards the front end to press the plunger to expel medicine out of the syringe characterized in that the driving member includes a casing and a slider rotatably coupled to the casing, the casing being rotatably and slidably coupled to the housing, the slider being slidably coupled to the housing, wherein the resilient member is a spiral spring having an inner end connected to the slider and an outer end connected to the casing, wherein movement of the slider along an axial direction of the housing towards the back end causes the casing to rotate to wind the spiral spring to store potential energy in the spiral spring, and upon release of the potential energy, the spiral spring unwinds to move the casing along an axial direction towards the front end to press the plunger. a housing to which a syringe is attachable, the housing having a front end, a back end and a compartment between the front end and the back end, the compartment is configured to receive a plunger of the syringe therein; a driving member disposed in the compartment, the driving member being movable relative to the housing between the front end and the back end; a resilient member connected to the housing and the driving member, wherein movement of the driving member towards the back end deforms the resilient member to store potential energy in the resilient member, and upon release of the potential energy, the resilient member moves the driving member towards the front end to press the plunger to expel medicine out of the syringe
Radio-frequency communication system for aircraft, comprising at least one radio-frequency transceiver device (2, 3, 4) able to transmit and receive data according to a VDL mode 3 standard, characterised in that said radio-frequency transceiver device (2, 3, 4) is also able to receive status information for a radio-frequency communication of said radio-frequency transceiver device (2, 3, 4), status information relative to the state of the radio connection of the radio-frequency transceiver device (2, 3, 4) and at least the possibility of transmitting on a selected frequency, in that said system comprises, in addition, a man/machine interface which displays at least one piece of configuration information of said radio-frequency transceiver device (2, 3, 4), which is relative to the communication capacity of the radio-frequency transceiver device (2, 3, 4), and in that said first man/machine interface also displays at least one of the said pieces of status information of the radio-frequency communication of said radio-frequency transceiver device (2, 3, 4).
A method for notifying emergency conditions by a telematics terminal in a vehicle, comprising: sensing (S10; S20) an occurrence of an abnormal event; transmitting audio signals received through a microphone to the server in the occurrence of the abnormal event; determining if audio signals input through the microphone match with a preset frequency band of a passenger's voice and recognizing the audio signals input through the microphone as a passenger's voice; determining (S12; S22; S32; S35) whether a camera activating event has occurred or not based on determining whether the audio signals input through the microphone match with a preset frequency band of a passenger's voice; activating (S13; S23; S33) the camera in the vehicle based on a result of the determination; and transmitting (S14; S24; S35) images captured by the camera to a server. sensing (S10; S20) an occurrence of an abnormal event; transmitting audio signals received through a microphone to the server in the occurrence of the abnormal event; determining if audio signals input through the microphone match with a preset frequency band of a passenger's voice and recognizing the audio signals input through the microphone as a passenger's voice; determining (S12; S22; S32; S35) whether a camera activating event has occurred or not based on determining whether the audio signals input through the microphone match with a preset frequency band of a passenger's voice; activating (S13; S23; S33) the camera in the vehicle based on a result of the determination; and transmitting (S14; S24; S35) images captured by the camera to a server.
A bicycle handlebar structure comprising: a handlebar including a horizontal bar and two arcuately curved grip bars extending from two sides of the horizontal bar, any a central portion of the horizontal bar connectine with a handlebar stem, the horizontal bar having two slots defined on two sides of a bottom surface thereof so as to accommodate at least one cable, and each slot having an opening formed therein and two shoulders arranged on two ends of the opening; two fixing members characterised in that each fixing member being in a sheet shape and including four ribs extending outwardly from two ends of two peripheral sides thereof, and each rib has a concaved portion defined on an outer side thereof, wherein each fixing member has four concaved portions defined on four outer sides of four ribs so as to retain with the two shoulders of each slot. a handlebar including a horizontal bar and two arcuately curved grip bars extending from two sides of the horizontal bar, any a central portion of the horizontal bar connectine with a handlebar stem, the horizontal bar having two slots defined on two sides of a bottom surface thereof so as to accommodate at least one cable, and each slot having an opening formed therein and two shoulders arranged on two ends of the opening; two fixing members characterised in that each fixing member being in a sheet shape and including four ribs extending outwardly from two ends of two peripheral sides thereof, and each rib has a concaved portion defined on an outer side thereof, wherein each fixing member has four concaved portions defined on four outer sides of four ribs so as to retain with the two shoulders of each slot.
A multiwall tubing assembly for fluid delivery to a bearing system, comprising: a first tube defining an inner fluid passage configured to carry a first fluid; a second tube disposed around the first tube and defining an outer fluid passage between the first tube and the second tube, the outer fluid passage configured to carry a second fluid; and a fitting coupled to the first tube and the second tube, the fitting comprising: an inner portion fluidly coupled to the inner fluid passage and configured to carry the first fluid, and an outer portion disposed around the inner portion and fluidly coupled to the outer fluid passage, the outer portion configured to carry the second fluid, wherein the fitting is configured to fluidly isolate the first fluid from the second fluid, characterised in that the multiwall tubing assembly further comprises a third tube disposed around the second tube and defining a chamber between the second tube and the third tube. a first tube defining an inner fluid passage configured to carry a first fluid; a second tube disposed around the first tube and defining an outer fluid passage between the first tube and the second tube, the outer fluid passage configured to carry a second fluid; and a fitting coupled to the first tube and the second tube, the fitting comprising: an inner portion fluidly coupled to the inner fluid passage and configured to carry the first fluid, and an outer portion disposed around the inner portion and fluidly coupled to the outer fluid passage, the outer portion configured to carry the second fluid, wherein the fitting is configured to fluidly isolate the first fluid from the second fluid, characterised in that the multiwall tubing assembly further comprises a third tube disposed around the second tube and defining a chamber between the second tube and the third tube. an inner portion fluidly coupled to the inner fluid passage and configured to carry the first fluid, and an outer portion disposed around the inner portion and fluidly coupled to the outer fluid passage, the outer portion configured to carry the second fluid, wherein the fitting is configured to fluidly isolate the first fluid from the second fluid, characterised in that the multiwall tubing assembly further comprises a third tube disposed around the second tube and defining a chamber between the second tube and the third tube.
A drive assembly for rotating a first structure about a first axis at a first angular velocity (Ω) and rotating a second structure coaxially with the first structure at a second angular velocity (2Ω) comprising: a drive motor for rotating the first structure at the first angular velocity (Ω); a stationary gear mounted coaxially with the first structure; and a drive linkage comprising a shaft secured to the first structure so as to be rotatable therewith, the shaft being operatively connected on a first end to the stationary gear so that the shaft is rotated about its axis as the first structure is rotated relative to the stationary gear by the drive motor, the shaft being operatively connected on a second end to the second structure so that when the shaft is rotated, the shaft rotates the second structure, characterized in that the first structure comprises a first arm and a second arm, the second structure being rotatably secured to the first arm and the first arm being pivotably connected to the second arm, and the shaft being flexible to accommodate the pivoting of the first arm to the second arm. a drive motor for rotating the first structure at the first angular velocity (Ω); a stationary gear mounted coaxially with the first structure; and a drive linkage comprising a shaft secured to the first structure so as to be rotatable therewith, the shaft being operatively connected on a first end to the stationary gear so that the shaft is rotated about its axis as the first structure is rotated relative to the stationary gear by the drive motor, the shaft being operatively connected on a second end to the second structure so that when the shaft is rotated, the shaft rotates the second structure, characterized in that the first structure comprises a first arm and a second arm, the second structure being rotatably secured to the first arm and the first arm being pivotably connected to the second arm, and the shaft being flexible to accommodate the pivoting of the first arm to the second arm.