mhurhangee/ep-ind-claims huggingface dataset:
A robot having a hollow arm (12; 13), at least one linear object, and an installing device, with the hollow arm (12; 13) having a base end portion, with the hollow arm (12, 13) having a hollow extending in an extension direction in which the hollow arm (12; 13) extends, and with the installing device comprising: a connection member which is disposed at said base end portion of said hollow arm (12; 13) having said hollow and to which the at least one linear object passing through the hollow is connected; and a linear motion support supporting the connection member slidably in the extension direction relative to the hollow arm, wherein a leading end portion of the hollow arm (12; 13) is rotatable about a rotation axis of the hollow arm (12; 13) extending in the extension direction, wherein the linear object is a hose or a cable, and characterised in that the connection member comprises a rotatable support supporting the linear object rotatably about an axis parallel to the rotation axis. a connection member which is disposed at said base end portion of said hollow arm (12; 13) having said hollow and to which the at least one linear object passing through the hollow is connected; and a linear motion support supporting the connection member slidably in the extension direction relative to the hollow arm, wherein a leading end portion of the hollow arm (12; 13) is rotatable about a rotation axis of the hollow arm (12; 13) extending in the extension direction, wherein the linear object is a hose or a cable, and characterised in that the connection member comprises a rotatable support supporting the linear object rotatably about an axis parallel to the rotation axis.
A method of performing a random access procedure at a user equipment in a wireless communication system, the method comprising: transmitting a random access preamble to a base station; receiving a random access response included in a data region of a specific subframe from the base station; and transmitting an uplink message to the base station based on uplink grant included in the random access response, wherein, if the data region is set to be transmitted through multiple layers based on a UE-specific reference signal and the specific subframe is a Multicast Broadcast Single Frequency Network (MBSFN) subframe, the data region is demodulated based on the UE-specific reference signal on the assumption that the data region is transmitted via a predetermined antenna port using a single-antenna transmission scheme. transmitting a random access preamble to a base station; receiving a random access response included in a data region of a specific subframe from the base station; and transmitting an uplink message to the base station based on uplink grant included in the random access response, wherein, if the data region is set to be transmitted through multiple layers based on a UE-specific reference signal and the specific subframe is a Multicast Broadcast Single Frequency Network (MBSFN) subframe, the data region is demodulated based on the UE-specific reference signal on the assumption that the data region is transmitted via a predetermined antenna port using a single-antenna transmission scheme.
A power controlling method for controlling the transmission power of each user terminal (110-1, 110-2) paired into virtual MIMO transmission, the method comprising the steps of: determining the transmission power of each user terminal (110-1, 110-2) that makes the sum of the transmission power of each user terminal (110-1, 110-2) minimum under the case that a specific index for each user terminal (110-1, 110-2) meets a required threshold value; and feedbacking the determined transmission power of each user terminal (110-1, 110-2) to each user terminal (110-1, 110-2), wherein the step of determining the transmission power of each user terminal (110-1, 110-2) that makes the sum of the transmission power of each user terminal (110-1, 110-2) minimum comprises: determining the arrival power of each user terminal (110-1, 110-2) that makes the sum of the arrival power of each user terminal (110-1, 110-2) minimum under the case that the specific index for each user terminal (110-1, 110-2) meets a required threshold value; and determining the transmission power of each user terminal (110-1, 110-2) according to the above-determined arrival power of each user terminal (110-1, 110-2) and the path loss experienced by each user terminal (110-1, 110-2). determining the transmission power of each user terminal (110-1, 110-2) that makes the sum of the transmission power of each user terminal (110-1, 110-2) minimum under the case that a specific index for each user terminal (110-1, 110-2) meets a required threshold value; and feedbacking the determined transmission power of each user terminal (110-1, 110-2) to each user terminal (110-1, 110-2), wherein the step of determining the transmission power of each user terminal (110-1, 110-2) that makes the sum of the transmission power of each user terminal (110-1, 110-2) minimum comprises: determining the arrival power of each user terminal (110-1, 110-2) that makes the sum of the arrival power of each user terminal (110-1, 110-2) minimum under the case that the specific index for each user terminal (110-1, 110-2) meets a required threshold value; and determining the transmission power of each user terminal (110-1, 110-2) according to the above-determined arrival power of each user terminal (110-1, 110-2) and the path loss experienced by each user terminal (110-1, 110-2).
An apparatus for an inferior vena cava filter delivery or retrieval, the apparatus comprising: an elongate sleeve or catheter, and an elongate shaft received within the sleeve, the shaft having a flexible distal extension comprising a braid (32, 200) folded back into two braid layers (32, 32', 202, 204) at a first fold (38, 210), the two layers folded-back inwardly at a second fold (36, 212) and heatset such that the first fold (38, 210) forms a proximal opening of a funnel and the second fold (36, 212) forms a distal opening of the funnel, the distal opening being larger than the proximal opening; wherein the proximal opening is sized to receive and pass an enlarged end of the inferior vena cava filter there through and the apparatus is adapted such that the enlarged end of the inferior vena cava filter is securable within a pocket in the funnel and the inferior vena cava filter is retrievable from the vasculature with the apparatus by advancing the sleeve or a catheter over the distal extension. an elongate sleeve or catheter, and an elongate shaft received within the sleeve, the shaft having a flexible distal extension comprising a braid (32, 200) folded back into two braid layers (32, 32', 202, 204) at a first fold (38, 210), the two layers folded-back inwardly at a second fold (36, 212) and heatset such that the first fold (38, 210) forms a proximal opening of a funnel and the second fold (36, 212) forms a distal opening of the funnel, the distal opening being larger than the proximal opening; wherein the proximal opening is sized to receive and pass an enlarged end of the inferior vena cava filter there through and the apparatus is adapted such that the enlarged end of the inferior vena cava filter is securable within a pocket in the funnel and the inferior vena cava filter is retrievable from the vasculature with the apparatus by advancing the sleeve or a catheter over the distal extension.
An asymmetric energy absorber, comprising: an upper wall and a lower wall defining crush lobes; a flange, wherein the lower wall is between the flange and the upper wall; a base extending between the lower wall and the flange, wherein the flange extends from a first side of the base in the direction of the crush lobes; a rib extending from a second side of the base in the opposite direction of the crush lobes, wherein the rib also extends adjacent to the base; and wherein a generally triangular section is formed by the upper wall extending from an upper wall first end toward the lower wall to a joining area; characterised in that the rib has a triangular design, and in that the flange is undulating. an upper wall and a lower wall defining crush lobes; a flange, wherein the lower wall is between the flange and the upper wall; a base extending between the lower wall and the flange, wherein the flange extends from a first side of the base in the direction of the crush lobes; a rib extending from a second side of the base in the opposite direction of the crush lobes, wherein the rib also extends adjacent to the base; and wherein a generally triangular section is formed by the upper wall extending from an upper wall first end toward the lower wall to a joining area; characterised in that the rib has a triangular design, and in that the flange is undulating.
A neuromodulation system, comprising: a plurality of electrical terminals configured for being coupled to a respective plurality of electrodes; modulation output circuitry configured for being placed either in a high-energy consumption mode in which first electrical modulation energy is delivered through a timing channel to a first set of the electrodes at a relatively high energy level during a first time period or a low-energy consumption mode in which second electrical modulation energy is delivered through the same timing channel to a second set of the electrodes at a relatively low energy level during a second time period; memory configured for storing a user-inputted modulation energy delivery schedule to define time intervals including the first time period for operating in the high-energy consumption mode to deliver the first electrical modulation energy and other time intervals including the second time period for operating in the low-energy consumption mode to deliver the second electrical modulation energy; and control circuitry (52, 56, 76, 84) configured for transitioning the modulation output circuitry between the high-energy consumption mode and the low-energy consumption mode in accordance with the modulation energy delivery schedule. a plurality of electrical terminals configured for being coupled to a respective plurality of electrodes; modulation output circuitry configured for being placed either in a high-energy consumption mode in which first electrical modulation energy is delivered through a timing channel to a first set of the electrodes at a relatively high energy level during a first time period or a low-energy consumption mode in which second electrical modulation energy is delivered through the same timing channel to a second set of the electrodes at a relatively low energy level during a second time period; memory configured for storing a user-inputted modulation energy delivery schedule to define time intervals including the first time period for operating in the high-energy consumption mode to deliver the first electrical modulation energy and other time intervals including the second time period for operating in the low-energy consumption mode to deliver the second electrical modulation energy; and control circuitry (52, 56, 76, 84) configured for transitioning the modulation output circuitry between the high-energy consumption mode and the low-energy consumption mode in accordance with the modulation energy delivery schedule.
A semiconductor element of a solid-state imaging device, the semiconductor element comprising: a charge-transfer path defined in a semiconductor region, configured to transfer signal charges; a pair of first field-control electrodes (42a, 42b) laminated via an insulating film on the semiconductor region so as to sandwich the charge-transfer path in between, in a planar pattern, along a direction orthogonal to a transfer direction of the signal charges, and a pair of second field-control electrodes (43a, 43b) arranged separately from and adjacently to the first field-control electrodes, respectively, along the transfer direction, and laminated via the insulating film on the semiconductor region, so as to sandwich the charge-transfer path in between, in the planar pattern, along the direction orthogonal to the transfer direction, wherein field-control voltages, which differ from each other, are applied to the first and second field-control electrodes, and a depleted potential in the charge-transfer path is changed, thereby controlling a movement of the signal charges transferring in the semiconductor region. a charge-transfer path defined in a semiconductor region, configured to transfer signal charges; a pair of first field-control electrodes (42a, 42b) laminated via an insulating film on the semiconductor region so as to sandwich the charge-transfer path in between, in a planar pattern, along a direction orthogonal to a transfer direction of the signal charges, and a pair of second field-control electrodes (43a, 43b) arranged separately from and adjacently to the first field-control electrodes, respectively, along the transfer direction, and laminated via the insulating film on the semiconductor region, so as to sandwich the charge-transfer path in between, in the planar pattern, along the direction orthogonal to the transfer direction, wherein field-control voltages, which differ from each other, are applied to the first and second field-control electrodes, and a depleted potential in the charge-transfer path is changed, thereby controlling a movement of the signal charges transferring in the semiconductor region.
An imaging apparatus, comprising: a light source that is configured to emit coherent light to image an object comprising a fluid; an optical apparatus that is configured to optically process light from the object, the optical apparatus having a numerical aperture; an imager that is configured to receive the light optically processed by the optical apparatus; and circuitry configured to obtain speckle data based on the light received by the imager and control the numerical aperture of the optical apparatus based on the speckle data; the said apparatus is characterized in that the circuitry is configured to control the numerical aperture of the optical apparatus to increase a difference between speckle data of the fluid and speckle data of a non-fluid. a light source that is configured to emit coherent light to image an object comprising a fluid; an optical apparatus that is configured to optically process light from the object, the optical apparatus having a numerical aperture; an imager that is configured to receive the light optically processed by the optical apparatus; and circuitry configured to obtain speckle data based on the light received by the imager and control the numerical aperture of the optical apparatus based on the speckle data; the said apparatus is characterized in that the circuitry is configured to control the numerical aperture of the optical apparatus to increase a difference between speckle data of the fluid and speckle data of a non-fluid.
Sealing sheet for installation between a wall and a ceramic tiling in a wet cell, comprising a water-impermeable support layer, on the wall side of which an adhesive layer is arranged and on the room side of which an adhesion mediating structure is arranged, wherein an edge strip on the room side of the support layer is adapted to be bonded to the adhesive layer of another sealing sheet, by the edge strip having no adhesion mediating structure.
A compound of formula: or a pharmaceutically acceptable salt thereof, wherein W 1-4 and R 1-3 are each independently selected from hydrogen and C 1-3 alkyl groups and wherein at least one of R 1-3 is not hydrogen or wherein W 1-4 and R 1 are each independently selected from hydrogen and C 1-3 alkyl groups and wherein R 2 and R 3 are such that they form together one of the following groups: -CH 2 -, -CH 2 CH 2 -, or -CH 2 -CH 2 -CH 2 -. or a pharmaceutically acceptable salt thereof, wherein W 1-4 and R 1-3 are each independently selected from hydrogen and C 1-3 alkyl groups and wherein at least one of R 1-3 is not hydrogen or wherein W 1-4 and R 1 are each independently selected from hydrogen and C 1-3 alkyl groups and wherein R 2 and R 3 are such that they form together one of the following groups: -CH 2 -, -CH 2 CH 2 -, or -CH 2 -CH 2 -CH 2 -.
A method for lubricating a transmission having an electric or a hybrid-electric motor, the method comprising: lubricating a transmission having an electric or a hybrid-electric motor with a lubricant; the lubricant including a poly(meth)acrylate copolymer and a solvent system including a base oil component blended with a branched diester component, the solvent system having 10 to 50 weight percent of the branched diester component; the base oil component including one or more oils selected from Group I to Group V base oils; and the poly(meth)acrylate copolymer has a weight average molecular weight of 50,000 g/mol or less and is derived from C1 to C4 linear or branched short chain alkyl (meth)acrylates and C12 to C20 linear or branched long chain alkyl (meth)acrylates; and wherein the lubricant has an electrical conductivity measured per ASTM D2624-15 at 75°C of 80,000 pS/m or less and a thermal conductivity measured per ASTM D7896-14 at 80°C of 134 mW/m*K or more; wherein the lubricating composition includes 5 to 40 weight percent of the branched diester and 2.5 to 17.5 weight percent of the copolymer viscosity index improver; wherein the branched diester component is a reaction product of one or more dicarboxylic acids having an internal carbon chain length of 6 to 10 carbons and one or more alcohols having a branched carbon chain length of 6 to 12 carbons; wherein if a Group V oil is used as a base oil component of the solvent system, said Group V oil does not contain the branched diester component of the solvent system. lubricating a transmission having an electric or a hybrid-electric motor with a lubricant; the lubricant including a poly(meth)acrylate copolymer and a solvent system including a base oil component blended with a branched diester component, the solvent system having 10 to 50 weight percent of the branched diester component; the base oil component including one or more oils selected from Group I to Group V base oils; and the poly(meth)acrylate copolymer has a weight average molecular weight of 50,000 g/mol or less and is derived from C1 to C4 linear or branched short chain alkyl (meth)acrylates and C12 to C20 linear or branched long chain alkyl (meth)acrylates; and wherein the lubricant has an electrical conductivity measured per ASTM D2624-15 at 75°C of 80,000 pS/m or less and a thermal conductivity measured per ASTM D7896-14 at 80°C of 134 mW/m*K or more; wherein the lubricating composition includes 5 to 40 weight percent of the branched diester and 2.5 to 17.5 weight percent of the copolymer viscosity index improver; wherein the branched diester component is a reaction product of one or more dicarboxylic acids having an internal carbon chain length of 6 to 10 carbons and one or more alcohols having a branched carbon chain length of 6 to 12 carbons; wherein if a Group V oil is used as a base oil component of the solvent system, said Group V oil does not contain the branched diester component of the solvent system.
An apparatus for manufacturing glass containers comprising: a first conveyor that carries multiple rows of glass containers, a second conveyor that carries a sequence of the glass containers in uniform spaced relationship for subsequent processing; a deadplate interposed between the first conveyor and the second conveyor; a transfer head mounted above the dead plate and the first conveyor and movable between the deadplate and the first conveyor for transferring glass containers from the first conveyor to the deadplate and depositing the containers on the deadplate, the transfer head receiving glass containers in a row on the first conveyor and positioning the containers of the row on the deadplate in uniform spaced relationship; and a pusher bar movably mounted over the deadplate for pushing the glass containers deposited on the deadplate by the transfer head onto the second conveyor in uniform spaced relationship, wherein the multiple rows of glass containers carried by the first conveyor are not in uniform spaced relationship, and the transfer head has uniformly spaced pockets for receiving glass containers in a row. a first conveyor that carries multiple rows of glass containers, a second conveyor that carries a sequence of the glass containers in uniform spaced relationship for subsequent processing; a deadplate interposed between the first conveyor and the second conveyor; a transfer head mounted above the dead plate and the first conveyor and movable between the deadplate and the first conveyor for transferring glass containers from the first conveyor to the deadplate and depositing the containers on the deadplate, the transfer head receiving glass containers in a row on the first conveyor and positioning the containers of the row on the deadplate in uniform spaced relationship; and a pusher bar movably mounted over the deadplate for pushing the glass containers deposited on the deadplate by the transfer head onto the second conveyor in uniform spaced relationship, wherein the multiple rows of glass containers carried by the first conveyor are not in uniform spaced relationship, and the transfer head has uniformly spaced pockets for receiving glass containers in a row.
A method of producing a high octane alkylate from ethylene and isobutane comprising: (a) reacting ethylene and isobutane under catalytic conversion conditions, and wherein said ethylene and isobutane are contacted with a (i) first catalytic material comprising a dimerization catalyst and a material which promotes regeneration of said dimerization catalyst and (ii) a second catalytic material comprising an alkylation catalyst, wherein said first catalytic material and said second catalytic material are separate and distinct from each other; and wherein the first and second catalytic materials are admixed physically with each other, such that particles or pellets of the first catalytic material and particles or pellets of the second catalytic material are contained in the same catalyst bed, and (b) recovering a high octane alkylate from step (a), and (c) regenerating said first catalytic material, wherein said regenerating of said first catalytic material comprises contacting said first catalytic material with hydrogen, wherein said dimerization catalyst comprises a metal and a support for said metal, said metal is selected from the group consisting of nickel, palladium, chromium, vanadium, iron, cobalt, ruthenium, rhodium, copper, silver, rhenium, molybdenum, tungsten, and manganese, said support for said metal is silica/alumina, and said alkylation catalyst is a zeolite, and wherein said material which promotes regeneration of said dimerization catalyst is a hydrogenation catalyst, wherein said hydrogenation catalyst is selected from the group consisting of platinum, and nickel. (a) reacting ethylene and isobutane under catalytic conversion conditions, and wherein said ethylene and isobutane are contacted with a (i) first catalytic material comprising a dimerization catalyst and a material which promotes regeneration of said dimerization catalyst and (ii) a second catalytic material comprising an alkylation catalyst, wherein said first catalytic material and said second catalytic material are separate and distinct from each other; and wherein the first and second catalytic materials are admixed physically with each other, such that particles or pellets of the first catalytic material and particles or pellets of the second catalytic material are contained in the same catalyst bed, and (b) recovering a high octane alkylate from step (a), and (c) regenerating said first catalytic material, wherein said regenerating of said first catalytic material comprises contacting said first catalytic material with hydrogen,