mhurhangee/ep-ind-claims huggingface dataset:
An elastic wiring comprising: an elastic tube; a conductor wire arranged within the tube; and fixing portions, each including a caulking member, that fix the conductor wire and the tube at both ends (10a, 10b) of the tube in the lengthwise direction, wherein the length of the conductor wire between the fixing portions when the tube is in an unextended state is longer than the length of the tube between the fixing portions, characterized in that: each of the caulking members comprises a male member and a female member; the male member comprises a first flat plate portion and a fitting convex portion that is provided on the first flat plate portion; the female member comprises a second flat plate portion and a fitting concave portion that is provided on the second flat plate portion; and the conductor wire and the tube are caulked by the first flat plate portion and the second flat plate portion in a state of the fitting convex portion and the fitting concave portion being fitted together. an elastic tube; a conductor wire arranged within the tube; and fixing portions, each including a caulking member, that fix the conductor wire and the tube at both ends (10a, 10b) of the tube in the lengthwise direction, wherein the length of the conductor wire between the fixing portions when the tube is in an unextended state is longer than the length of the tube between the fixing portions, characterized in that: each of the caulking members comprises a male member and a female member; the male member comprises a first flat plate portion and a fitting convex portion that is provided on the first flat plate portion; the female member comprises a second flat plate portion and a fitting concave portion that is provided on the second flat plate portion; and the conductor wire and the tube are caulked by the first flat plate portion and the second flat plate portion in a state of the fitting convex portion and the fitting concave portion being fitted together. each of the caulking members comprises a male member and a female member; the male member comprises a first flat plate portion and a fitting convex portion that is provided on the first flat plate portion; the female member comprises a second flat plate portion and a fitting concave portion that is provided on the second flat plate portion; and the conductor wire and the tube are caulked by the first flat plate portion and the second flat plate portion in a state of the fitting convex portion and the fitting concave portion being fitted together.
A method for determining a control channel resource, comprising: detecting (S110, S210), by a user equipment, UE, a downlink control channel that carries scheduling information of a downlink data channel and is sent by a base station, wherein the downlink control channel is formed by at least one control channel logical element, and the at least one control channel logical element corresponding to the UE is mapped to one antenna port, wherein the antenna port is a demodulation reference signal, DMRS, antenna port; acquiring (S120, S220), by the UE, antenna port information of a first antenna port corresponding to a first control channel logical element of a successfully detected downlink control channel, an offset, and sequence number information of the first control channel logical element, wherein the offset is user equipment specific; and determining (S130, S230), by the UE, a first control channel resource according to the sequence number information, the antenna port information and the offset, wherein the first control channel resource is used to feed back acknowledgment, ACK/non-acknowledgment, NACK, information with respect to a downlink data channel corresponding to the successfully detected downlink control channel. detecting (S110, S210), by a user equipment, UE, a downlink control channel that carries scheduling information of a downlink data channel and is sent by a base station, wherein the downlink control channel is formed by at least one control channel logical element, and the at least one control channel logical element corresponding to the UE is mapped to one antenna port, wherein the antenna port is a demodulation reference signal, DMRS, antenna port; acquiring (S120, S220), by the UE, antenna port information of a first antenna port corresponding to a first control channel logical element of a successfully detected downlink control channel, an offset, and sequence number information of the first control channel logical element, wherein the offset is user equipment specific; and determining (S130, S230), by the UE, a first control channel resource according to the sequence number information, the antenna port information and the offset, wherein the first control channel resource is used to feed back acknowledgment, ACK/non-acknowledgment, NACK, information with respect to a downlink data channel corresponding to the successfully detected downlink control channel.
A process for hydrocracking and hydroisomerizing a hydrocarbon stream comprising: hydrocracking a hydrocarbon feed stream over a first hydrocracking catalyst bed to provide a hydrocracked stream; hydroisomerizing said hydrocracked stream over a first hydroisomerization catalyst bed to provide a hydroisomerized stream, wherein the hydroisomerization process is conducted at a lower temperature than the hydrocracking process and at a lower temperature than the temperature of the hydrocracked stream; fractionating said hydroisomerized stream in a fractionation section to provide a first fractionated stream; cooling the first fractionated stream in a heat exchanger to inactivate the first hydroisomerization catalyst bed, and providing the first fractionated stream with a supplemental hydrogen stream; and recycling the first fractionated stream to said first hydroisomerization catalyst bed to quench said hydrocracked stream, wherein the first fractionated stream reduces the overall temperature of a combined stream comprising the hydrocracked stream, the supplemental hydrogen stream and the first fractionated stream. hydrocracking a hydrocarbon feed stream over a first hydrocracking catalyst bed to provide a hydrocracked stream; hydroisomerizing said hydrocracked stream over a first hydroisomerization catalyst bed to provide a hydroisomerized stream, wherein the hydroisomerization process is conducted at a lower temperature than the hydrocracking process and at a lower temperature than the temperature of the hydrocracked stream; fractionating said hydroisomerized stream in a fractionation section to provide a first fractionated stream; cooling the first fractionated stream in a heat exchanger to inactivate the first hydroisomerization catalyst bed, and providing the first fractionated stream with a supplemental hydrogen stream; and recycling the first fractionated stream to said first hydroisomerization catalyst bed to quench said hydrocracked stream, wherein the first fractionated stream reduces the overall temperature of a combined stream comprising the hydrocracked stream, the supplemental hydrogen stream and the first fractionated stream.
A method of tracking mail in a postal sorting system comprising a first network of sorting machines with a first unique identification protocol for uniquely identifying the mailpieces in the machines, and a second network of sorting machines with a second unique identification protocol for uniquely identifying the mailpieces in the machines, in which method the first network produces first dated tracking data as a certain mailpiece is passing through the sorting machines of the first network, this first dated data being associated with a first unique mailpiece identifier (Id_Tag Post OUT) generated using the first protocol, and the second network produces second dated tracking data as said certain mailpiece is passing through the sorting machines of the second network, this second dated data being associated with a second unique mailpiece identifier (Id_Tag Post IN) generated using the second protocol, said method being characterized in that, in a data-processing unit, said dated data associated with said first and second unique mailpiece identifiers (Id_Tag Post OUT, Id_Tag Post IN) is retrieved for the purposes of measuring a time characteristic of the journey of said certain mailpiece through the first and second networks (1, 2) of the postal sorting system, and in that, in the data-processing unit, a match is established between said first and second unique mailpiece identifiers (Id_Tag Post OUT, Id_Tag Post IN)via digital images of said certain mailpiece.
An electrode construct comprising: an active material-containing layer comprising a sodium-containing titanium composite oxide having a crystal structure belonging to a space group Cmca, a space group Fmmm, or both the space group Cmca and the space group Fmmm; and characterized by a sodium ion-blocking layer disposed on a surface of the active material-containing layer and containing a material impermeable to sodium ions, wherein the material impermeable to sodium ions comprises a monoclinic titanium dioxide. an active material-containing layer comprising a sodium-containing titanium composite oxide having a crystal structure belonging to a space group Cmca, a space group Fmmm, or both the space group Cmca and the space group Fmmm; and characterized by a sodium ion-blocking layer disposed on a surface of the active material-containing layer and containing a material impermeable to sodium ions, wherein the material impermeable to sodium ions comprises a monoclinic titanium dioxide.
An unmanned aerial vehicle comprising: a memory; a sensor unit configured to sense the unmanned aerial vehicle or a surrounding object; a camera configured to take an image; a moving unit configured to generate power to move the unmanned aerial vehicle; and a processor operably connected to the memory, the sensor unit, the camera and the moving unit, wherein the processor is configured to: control the moving unit to allow the unmanned aerial vehicle to hover at a first position, determine whether a user makes contact with the unmanned aerial vehicle, control the moving unit to return the unmanned aerial vehicle to hover at the first location when the unmanned aerial vehicle is moved from the first location to the second location by an external force with an acceleration change above a specified range while the contact is maintained, and control the moving unit to allow the unmanned aerial vehicle to hover at a second location when the unmanned aerial vehicle is moved from a first location to the second location by an external force with an acceleration change within the specified range while the contact is maintained. a memory; a sensor unit configured to sense the unmanned aerial vehicle or a surrounding object; a camera configured to take an image; a moving unit configured to generate power to move the unmanned aerial vehicle; and a processor operably connected to the memory, the sensor unit, the camera and the moving unit, wherein the processor is configured to: control the moving unit to allow the unmanned aerial vehicle to hover at a first position, determine whether a user makes contact with the unmanned aerial vehicle, control the moving unit to return the unmanned aerial vehicle to hover at the first location when the unmanned aerial vehicle is moved from the first location to the second location by an external force with an acceleration change above a specified range while the contact is maintained, and control the moving unit to allow the unmanned aerial vehicle to hover at a second location when the unmanned aerial vehicle is moved from a first location to the second location by an external force with an acceleration change within the specified range while the contact is maintained. control the moving unit to allow the unmanned aerial vehicle to hover at a first position, determine whether a user makes contact with the unmanned aerial vehicle, control the moving unit to return the unmanned aerial vehicle to hover at the first location when the unmanned aerial vehicle is moved from the first location to the second location by an external force with an acceleration change above a specified range while the contact is maintained, and control the moving unit to allow the unmanned aerial vehicle to hover at a second location when the unmanned aerial vehicle is moved from a first location to the second location by an external force with an acceleration change within the specified range while the contact is maintained.
A projection display comprising a light source, a reflective image generator configured to represent partial pictures in a two-dimensional distribution of subareas of the reflective image generator, each partial picture comprising a plurality of pixels, a projection optics arrangement having a two-dimensional arrangement of optical projection elements each being configured to project an associated subarea of the image generator onto an image plane, so that images of the partial pictures superimpose within the image plane to form an overall picture, and a beam splitter arranged within an optical path between the reflective image generator and the two-dimensional arrangement of optical projection elements, on the one hand, and within the optical path between the light source and the two-dimensional distribution of subareas, on the other hand, so that light of the light source passes through the beam splitter onto the two-dimensional distribution of subareas, and the projection of the two-dimensional distribution of subareas leads through the beam splitter.
A cable wrapping structure comprising a main cable comprising many metal wires bundled in parallel to one another and a wrapping wire (2, 3) with a substantially C-shaped cross-section spirally wound around an outer circumference of said main cable, said cable wrapping structure comprises a first layer, at a condition where an open side of said substantially C-shaped cross-section is directed outward of a radial direction of said main cable and wound wire parts of said wrapping wire are adjacent to one another, and a second layer, wherein said wrapping wire is spirally wound on said first layer at a condition, where said open side of said substantially C-shaped cross-section is directed inward of said radial direction of said main cable, wound wire parts of said wrapping wire are adjacent to one another, and wound wire parts adjacent to each other of the wrapping wire in the first layer and wound wire parts adjacent to each other of the wrapping wire in the second layer are maintained at a condition of tight contact with each other in the axial direction of the main cable and wound wrapping wire of said second layer is displaced substantially by a half pitch relative to wound wrapping wire of said first layer in an axial direction of said main cable, and said cable wrapping structure is configured such that an inside surface of an arm portion of said substantially C-shaped cross-section of said wound wrapping wire of said first layer and an inside surface of an arm portion of said substantially C-shaped cross-section of said wound wrapping wire of said second layer, both formed obliquely relative to said radial direction of said main cable, interlock to each other in said axial direction of said main cable.
A mobile drive unit for transporting inventory, comprising: a drive module, the drive module operable to position the mobile drive unit underneath an inventory holder; and a docking head operable to: couple to the inventory holder when the mobile drive unit is positioned beneath the inventory holder and the docking head is raised, wherein the mobile drive unit is operable to disengage a braking mechanism of the inventory holder when the mobile drive unit is coupled with the inventory holder; and decouple from the inventory holder when the docking head is lowered; and wherein the drive module is operable to move the mobile drive unit and, when the inventory holder is coupled to the mobile drive unit, move the inventory holder. a drive module, the drive module operable to position the mobile drive unit underneath an inventory holder; and a docking head operable to: couple to the inventory holder when the mobile drive unit is positioned beneath the inventory holder and the docking head is raised, wherein the mobile drive unit is operable to disengage a braking mechanism of the inventory holder when the mobile drive unit is coupled with the inventory holder; and decouple from the inventory holder when the docking head is lowered; and couple to the inventory holder when the mobile drive unit is positioned beneath the inventory holder and the docking head is raised, wherein the mobile drive unit is operable to disengage a braking mechanism of the inventory holder when the mobile drive unit is coupled with the inventory holder; and decouple from the inventory holder when the docking head is lowered; and wherein the drive module is operable to move the mobile drive unit and, when the inventory holder is coupled to the mobile drive unit, move the inventory holder.
A machine for making absorbent sanitary articles which comprise an absorbent pad in turn comprising more absorbent materials (8a, 8b, 9a); the absorbent pad comprising at least one discrete layers of superabsorbent polymer material; the unit comprising at least one metering system, for metering the superabsorbent polymer material defining the discrete layer of the absorbent pad, comprising at least one metering device and one feeding duct connected to the metering device at the outfeed of the metering device itself; the unit comprising a forming drum by which the absorbent pads are formed; the machine comprising a line for feeding at least one continuous web of impermeable material and at least one unit for forming and applying a succession of absorbent pads along the continuous web of impermeable material; the machine being characterized in that it comprises a device for detecting the absorbent pad mounted along the feed line downstream of the unit for forming and applying the absorbent pad; the detecting device comprising at least one microwave resonator configured to detect the density profile, or weight profile, or both the profiles of superabsorbent polymer materials (8b, 9a) defining the discrete layers; the density profile, or weight profile, or both defining the position of the discrete layer of superabsorbent polymer material (8b, 9a) inside the absorbent pad; the feeding duct comprising, along at least one stretch of it, an intermittent valve defining valve means being driven by an actuator unit; the machine comprising a control and drive unit connected to the detecting device; the device for detecting the absorbent pad sending the position of the discrete layer of superabsorbent polymer material to the control and drive unit; the control and drive unit comparing the position detected by the detecting device with a reference position and calculating the deviation of the detected position from the reference position; the control and drive unit being configured to drive the actuator unit in order to bring the valve means into phase with the rotation of the forming drum as a function of that deviation.
A positive electrode active material comprising: a solid solution lithium-containing transition metal oxide represented by a compositional formula Li 1.5 [Ni a Co b Mn c [Li] d]O 3 ···· wherein in formula, Li is lithium, Ni is nickel, Co is cobalt, Mn is manganese and O represents oxygen while a, b, c and d satisfy the relations of 0<a<1.4, 0≤b<1.4, 0<c<1.4, 0.1≤d≤0.4, a+b+c+d=1.5, and 1.1≤a+b+c≤1. 4; and a lithium-containing transition metal oxide represented by a compositional formula Li 1.0 Ni a' Co b' Mn c' O 2 ···· wherein in formula, Li is lithium, Ni is nickel, Co is cobalt, Mn is manganese and O represents oxygen while a', b' and c' satisfy the relations of 0<a'<1.0, 0<b'<1.0, 0<c'<1.0, and a'+b'+c'=1.0. a solid solution lithium-containing transition metal oxide represented by a compositional formula Li 1.5 [Ni a Co b Mn c [Li] d]O 3 ···· wherein in formula, Li is lithium, Ni is nickel, Co is cobalt, Mn is manganese and O represents oxygen while a, b, c and d satisfy the relations of 0<a<1.4, 0≤b<1.4, 0<c<1.4, 0.1≤d≤0.4, a+b+c+d=1.5, and 1.1≤a+b+c≤1. 4; and a lithium-containing transition metal oxide represented by a compositional formula Li 1.0 Ni a' Co b' Mn c' O 2 ···· wherein in formula, Li is lithium, Ni is nickel, Co is cobalt, Mn is manganese and O represents oxygen while a', b' and c' satisfy the relations of 0<a'<1.0, 0<b'<1.0, 0<c'<1.0, and a'+b'+c'=1.0.
A method for obtaining a fermented product of Lactobacillus casei or paracasei species, said species being characterized by comprising in their DNA genome DNA sequences identical to SEQ ID No 2 to 5, characterized by: a) growing an inoculum of Lactobacillus strain as defined above in a suitable culture medium, at a temperature ranging from 4 to 40°C, to have a biomass and allowing fermentation of said biomass to proceed for 12 to 36 hours, preferably for about 24 hours, to get a fermented biomass, and b) centrifuging said fermented biomass to get a pellet fermented biomass and a first fermented product; c) incubating said pellet fermented biomass into a minimum solution, preferably comprising a lactate salt, and allowing further fermentation for 12 to 36 hours, preferably for about 24 hours, to get a further fermented biomass; d) separating said further fermented biomass from a second fermented product by centrifugation. a) growing an inoculum of Lactobacillus strain as defined above in a suitable culture medium, at a temperature ranging from 4 to 40°C, to have a biomass and allowing fermentation of said biomass to proceed for 12 to 36 hours, preferably for about 24 hours, to get a fermented biomass, and b) centrifuging said fermented biomass to get a pellet fermented biomass and a first fermented product; c) incubating said pellet fermented biomass into a minimum solution, preferably comprising a lactate salt, and allowing further fermentation for 12 to 36 hours, preferably for about 24 hours, to get a further fermented biomass; d) separating said further fermented biomass from a second fermented product by centrifugation.
A method of determining the effectiveness of a therapy to preserve β cell function in a subject who has Type 1 diabetes mellitus comprising: selecting a subject who has Type 1 diabetes mellitus undergoing said therapy, and (i) measuring the CD4 central memory (CD45RO+CD62L+) T-cell subpopulation in a sample from said subject, and evaluating the effectiveness of the therapy, wherein a low or decreasing CD4 central memory T-cell level during said therapy indicates effective therapy; or (ii) measuring the CD4 central memory (CD45RO+CD62L+) T-cell subpopulation and measuring the CD4 T-cell naive (CD45RO-CD62L+) subpopulation in a sample from said subject, and evaluating the effectiveness of the therapy, wherein a high or increasing ratio of the CD4 T-cell naive to CD4 central memory T-cell subpopulation during said therapy indicates effective therapy. (i) measuring the CD4 central memory (CD45RO+CD62L+) T-cell subpopulation in a sample from said subject, and evaluating the effectiveness of the therapy, wherein a low or decreasing CD4 central memory T-cell level during said therapy indicates effective therapy; or (ii) measuring the CD4 central memory (CD45RO+CD62L+) T-cell subpopulation and measuring the CD4 T-cell naive (CD45RO-CD62L+) subpopulation in a sample from said subject, and evaluating the effectiveness of the therapy, wherein a high or increasing ratio of the CD4 T-cell naive to CD4 central memory T-cell subpopulation during said therapy indicates effective therapy.