mhurhangee/patent-ind-claim-en huggingface dataset:
A parcel sack management system comprising: an intake ; a sack filling station ; a circulating track ; a sack closing station ; an empty sack replenisher ; a gathering conveyor configured to receive a parcel group at the intake and transport the parcel group to the sack filling station ; and a plurality of fill chutes that are transported along the circulating track , each fill chute configured to hold a sack ; wherein the parcel sack management system is configured to transfer parcels in the parcel group into a sack via a fill chute of the plurality of fill chutes when the fill chute is at the sack filling station ; and characterized in that the plurality of fill chutes are configured to continue to circulate along the circulating track to the sack filling station for filling empty sacks with parcel groups , to the sack closing station for closing the filled sacks and optionally for having the filled sacks removed at the sack closing station , and to the empty sack replenisher for being replenished with empty sacks . an intake ; a sack filling station ; a circulating track ; a sack closing station ; an empty sack replenisher ; a gathering conveyor configured to receive a parcel group at the intake and transport the parcel group to the sack filling station ; and a plurality of fill chutes that are transported along the circulating track , each fill chute configured to hold a sack ; wherein the parcel sack management system is configured to transfer parcels in the parcel group into a sack via a fill chute of the plurality of fill chutes when the fill chute is at the sack filling station ; and characterized in that the plurality of fill chutes are configured to continue to circulate along the circulating track to the sack filling station for filling empty sacks with parcel groups , to the sack closing station for closing the filled sacks and optionally for having the filled sacks removed at the sack closing station , and to the empty sack replenisher for being replenished with empty sacks .
A foam composed of an air layer and a bubble shell encapsulating the air layer, said bubble shell containing a non-ionic surfactant, a polyhydric alcohol having a hydrophobic end and a polyhydric alcohol having 2 to 6 carbon atoms in which hydroxyl groups are bonded to all the carbon atoms and, wherein the content of the polyhydric alcohol having a hydrophobic end and polyhydric alcohol polymer is from 1% to 40% by mass, and the content of the polyhydric alcohol having 2 to 6 carbon atoms in which hydroxyl groups are bonded to all the carbon atoms is from 1% to 30% by mass, wherein the bubble shell has a high light transmission region which is optically transparent and a low light transmission region which is less optically transparent than the high light transmission region, both regions being disposed so as to spread across a surface of the bubble shell in such a manner as to form an identifiable boundary therebetween, and when the foam is allowed to stand at 25°C, an area of the low light transmission region occupying the surface area of the bubble shell expands over time, and thus the entire surface of the bubble shell becomes occupied by the low light transmission region, and wherein the content of an thr ionic surfactant excluding phospholipids is 1% by mass or less in the foam. wherein the content of the polyhydric alcohol having a hydrophobic end and polyhydric alcohol polymer is from 1% to 40% by mass, and the content of the polyhydric alcohol having 2 to 6 carbon atoms in which hydroxyl groups are bonded to all the carbon atoms is from 1% to 30% by mass, wherein the bubble shell has a high light transmission region which is optically transparent and a low light transmission region which is less optically transparent than the high light transmission region, both regions being disposed so as to spread across a surface of the bubble shell in such a manner as to form an identifiable boundary therebetween, and when the foam is allowed to stand at 25°C, an area of the low light transmission region occupying the surface area of the bubble shell expands over time, and thus the entire surface of the bubble shell becomes occupied by the low light transmission region, and wherein the content of an thr ionic surfactant excluding phospholipids is 1% by mass or less in the foam.
A soot sensor system comprising: a soot sensor comprising: a substrate defining a first surface and a second surface opposing said first surface ; and a first and a second element each having at least one continuous loop of conductive material disposed on said first surface of said substrate , said first and said second elements each being configured to operate in a sense mode to sense accumulation of soot on at least said first surface of said substrate ; and a controller , wherein during a first time period of said sensing mode, said controller is configured to cause a first voltage potential to be applied to said first element that is greater than a second voltage potential applied to said second element , and wherein during a second time period of said sensing mode, said controller is configured to cause a third voltage potential to be applied to said second element that is greater than a fourth voltage potential applied to said first element ; characterized in that said controller is further configured to cause a first fixed voltage potential that is greater than a second fixed voltage potential and to cause a third fixed voltage potential that is greater than a fourth fixed voltage potential and the controller is configured to determine the appropriate voltage potential based, at least in part, on the temperature of the exhaust. a soot sensor comprising: a substrate defining a first surface and a second surface opposing said first surface ; and a first and a second element each having at least one continuous loop of conductive material disposed on said first surface of said substrate , said first and said second elements each being configured to operate in a sense mode to sense accumulation of soot on at least said first surface of said substrate ; and a substrate defining a first surface and a second surface opposing said first surface ; and a first and a second element each having at least one continuous loop of conductive material disposed on said first surface of said substrate , said first and said second elements each being configured to operate in a sense mode to sense accumulation of soot on at least said first surface of said substrate ; and a controller , wherein during a first time period of said sensing mode, said controller is configured to cause a first voltage potential to be applied to said first element that is greater than a second voltage potential applied to said second element , and wherein during a second time period of said sensing mode, said controller is configured to cause a third voltage potential to be applied to said second element that is greater than a fourth voltage potential applied to said first element ; characterized in that said controller is further configured to cause a first fixed voltage potential that is greater than a second fixed voltage potential and to cause a third fixed voltage potential that is greater than a fourth fixed voltage potential and the controller is configured to determine the appropriate voltage potential based, at least in part, on the temperature of the exhaust.
Reciprocating-piston compressor for a compressed-air supply system in a motor vehicle, with a cylinder head comprising a valve carrier plate and an inlet valve flap (18a, b) via which the one inlet chamber (14a, b) can be connected to a working space via multiple inlet channels (21a, b) in the valve carrier plate , and with a pressure-relief system (7a, b) which is integrated in the cylinder head and able to switch a pressure-relief channel (19a, b) in the valve carrier plate which connects the working space to a space in the cylinder head , wherein the pressure-relief system (7a, b) comprises a switch device (8a, b) and a flap (9a, b), and wherein the flap (9a, b) is attached to the valve carrier plate on the working space side and can be lifted from the valve carrier plate in order to open the pressure-relief channel (19a, b), wherein the flap (9a, b) can be lifted autonomously and/or controlled by the pressure-relief system (7a, b), characterized in that the pressure-relief channel is an air-conductive connection between the inlet chamber and the working space.
A method by an access terminal, AT, for facilitating wireless communication in a wireless network, comprising: employing at least one processor to analyze respective wireless signals of a serving base station of a serving cell and of a second wireless device within the wireless network; identifying wireless channel information pertaining to the serving base station from the analyzed signals; forwarding the wireless channel information to the second wireless device to facilitate generating a downlink wireless communication scheduling based on the channel information; employing at least one antenna to obtain a network assignment block, NAB, from the second wireless device , the NAB specifying the downlink wireless communication scheduling configured for a cell of the wireless network; and employing at least one antenna to transmit the downlink wireless communication scheduling to the serving base station or a non-serving cell of the wireless network to facilitate AT-directed scheduling of the wireless communication. employing at least one processor to analyze respective wireless signals of a serving base station of a serving cell and of a second wireless device within the wireless network; identifying wireless channel information pertaining to the serving base station from the analyzed signals; forwarding the wireless channel information to the second wireless device to facilitate generating a downlink wireless communication scheduling based on the channel information; employing at least one antenna to obtain a network assignment block, NAB, from the second wireless device , the NAB specifying the downlink wireless communication scheduling configured for a cell of the wireless network; and employing at least one antenna to transmit the downlink wireless communication scheduling to the serving base station or a non-serving cell of the wireless network to facilitate AT-directed scheduling of the wireless communication.
Capsule adapted for collecting an edible substance in an oxygen-sealed collection space (A), and comprising: - a first part of container type comprising a base wall and a sidewall developing along a circular alignment around a longitudinal central axis (B) thereby defining a general shape of frusto-conic type or similar, - a second part of lid type provided as a folio-like element and adapted so that confines said collection space (A) upstream thereof in oxygen-sealing manner, - a retention disposition provided as a folio-like element and adapted so that confines said collection space (A) downstream thereof in oxygen-sealing manner, whereby said base wall comprises: - a first base portion that develops from said sidewall inwards and along a direction non parallel with relation to said longitudinal central axis (B), and - a second base portion that projects in the central region of said base wall downstream, with a shape of tubular type or of frusto-conic type of circular cross-section, and is adapted for discharge of beverage flow that flows through said retention wall outwards of said capsule , characterized in that presents a filter element provided downstream of said retention disposition so that provides filtering of beverage flow downstream of said collection space (A) provided oxygen-sealed. - a first part of container type comprising a base wall and a sidewall developing along a circular alignment around a longitudinal central axis (B) thereby defining a general shape of frusto-conic type or similar, - a second part of lid type provided as a folio-like element and adapted so that confines said collection space (A) upstream thereof in oxygen-sealing manner, - a retention disposition provided as a folio-like element and adapted so that confines said collection space (A) downstream thereof in oxygen-sealing manner, whereby said base wall comprises: - a first base portion that develops from said sidewall inwards and along a direction non parallel with relation to said longitudinal central axis (B), and - a second base portion that projects in the central region of said base wall downstream, with a shape of tubular type or of frusto-conic type of circular cross-section, and is adapted for discharge of beverage flow that flows through said retention wall outwards of said capsule , - a first base portion that develops from said sidewall inwards and along a direction non parallel with relation to said longitudinal central axis (B), and - a second base portion that projects in the central region of said base wall downstream, with a shape of tubular type or of frusto-conic type of circular cross-section, and is adapted for discharge of beverage flow that flows through said retention wall outwards of said capsule , characterized in that presents a filter element provided downstream of said retention disposition so that provides filtering of beverage flow downstream of said collection space (A) provided oxygen-sealed.
A heater for an aerosol generation device, the heater comprising: a plurality of segments combined together to form an insertion portion into which an object-to-be-heated is inserted; one or more electrically conductive tracks printed on one surface of each of the plurality of segments and disposed toward the object-to-be-heated ; and an elastic member configured to surround at least a part of the plurality of segments , wherein the elastic member comprises a material having an elastic force in a direction of an inner surface of the elastic member , wherein each of the plurality of segments has a shape that is obtained by cutting a cylindrical structure into a plurality of parts, and wherein the plurality of segments include a rigid material. a plurality of segments combined together to form an insertion portion into which an object-to-be-heated is inserted; one or more electrically conductive tracks printed on one surface of each of the plurality of segments and disposed toward the object-to-be-heated ; and an elastic member configured to surround at least a part of the plurality of segments , wherein the elastic member comprises a material having an elastic force in a direction of an inner surface of the elastic member , wherein each of the plurality of segments has a shape that is obtained by cutting a cylindrical structure into a plurality of parts, and wherein the plurality of segments include a rigid material.
An apparatus comprising circuitry that implements an artificial neural network training algorithm that uses weight tying, wherein the circuitry is configured to compute a weight-tied weight matrix based on an index matrix and based on a value vector and to quantize the values of the value vector after updating the weight tying to the nearest power-of-two, according to the quantization scheme: x q = { s ⋅ 2 ⌊ b ⌋ b − ⌊ b ⌋ ≤ log 2 1 .5 s ⋅ 2 ⌈ b ⌉ b − ⌊ b ⌋ > log 2 1 .5 where s = sign( x ) and b = log 2 | x |, and where x is the value which is to be quantized and x q is the quantized value.
A method for making and using a seal for a turbine engine, the method comprising: separating two compressible cores (204a, b) with a spacer wherein one or both of the compressible cores (204a, b) each includes a rope seal; winding wires around the cores (204a, b) and the spacer ; forming substantially 'c' shaped or 'u' shaped backings about the wires to obtain a package of weld-free brush seal assemblies ; splitting the package to yield two brush seals ; installing a brush seal of the package in a slot of a blade outer air seal rail or a vane platform; and physically extracting the spacer from each of the two brush seals to remove the spacer . separating two compressible cores (204a, b) with a spacer wherein one or both of the compressible cores (204a, b) each includes a rope seal; winding wires around the cores (204a, b) and the spacer ; forming substantially 'c' shaped or 'u' shaped backings about the wires to obtain a package of weld-free brush seal assemblies ; splitting the package to yield two brush seals ; installing a brush seal of the package in a slot of a blade outer air seal rail or a vane platform; and physically extracting the spacer from each of the two brush seals to remove the spacer .
A system operable for anchoring of and into at least one corpus (COR) disposed distally in a conduit (BV), the system including a handling and manipulation shaft (HMA) and a stranded tube (ST) having a plurality of wound coiled threads and a longitudinal axis (X), the system being characterized by comprising: a tube tool (TT, CTT) associated with the stranded tube and navigated together therewith by the handling and manipulation shaft (HMA) into engagement with the corpus, the tube tool being configured to unwind a plurality of wound threads each as an unwound helically coiled thread by relative rotation against the stranded tube, and the unwound helically coiled threads of the stranded tube being configured for anchoring of and into the corpus with rotational corkscrew-like translation and rotation; wherein the stranded tube has a direction of winding and when rotated in the direction of winding to unwind wound coiled threads, each unwound thread rotate about a respective unwound thread longitudinal axis (x), and the tube tool is configured to unwind the unwound threads in rotation along an unwound thread longitudinal axis (x) which is disposed at an angle (α) relative to the longitudinal axis (X) of the stranded tube (ST), the tube tool has a plurality of tube tool thread ducts oriented at a duct angle (β) relative to the longitudinal axis (X) for control of the angle (α). a tube tool (TT, CTT) associated with the stranded tube and navigated together therewith by the handling and manipulation shaft (HMA) into engagement with the corpus, the tube tool being configured to unwind a plurality of wound threads each as an unwound helically coiled thread by relative rotation against the stranded tube, and the unwound helically coiled threads of the stranded tube being configured for anchoring of and into the corpus with rotational corkscrew-like translation and rotation; wherein the stranded tube has a direction of winding and when rotated in the direction of winding to unwind wound coiled threads, each unwound thread rotate about a respective unwound thread longitudinal axis (x), and the tube tool is configured to unwind the unwound threads in rotation along an unwound thread longitudinal axis (x) which is disposed at an angle (α) relative to the longitudinal axis (X) of the stranded tube (ST), the tube tool has a plurality of tube tool thread ducts oriented at a duct angle (β) relative to the longitudinal axis (X) for control of the angle (α).
A manufacturing device of an optical fiber grating writing a grating (G) in a core of an optical fiber (FB) by irradiating the optical fiber with laser light, the device comprising: a fixing device configured to fix the optical fiber to at least one of a first position located more on an upstream side and a second position located more on a downstream side in a conveyance direction (D1) of the optical fiber than a laser light irradiating position of the optical fiber in a case of writing the grating; a feeder having a movable portion capable of linearly reciprocating in the conveyance direction, wherein the feeder is configured to feed a predetermined length of the optical fiber in the conveyance direction in a case where a fixed state of the optical fiber by the fixing device is released, characterized in that the feeder further comprises: an irradiator attached to the movable portion and configured to emit laser light, a fixed portion having a guide extending in the conveyance direction, the movable portion being capable of reciprocating along the guide; and a holder attached to the movable portion , wherein the holder is configured to hold the optical fiber when the movable portion is moved in the conveyance direction, and is configured not to hold the optical fiber when the movable portion is moved in the direction opposite the conveyance direction while laser light is emitted from the irradiator to a phase mask (M) arranged at the irradiating position so as to scan the phase mask. a fixing device configured to fix the optical fiber to at least one of a first position located more on an upstream side and a second position located more on a downstream side in a conveyance direction (D1) of the optical fiber than a laser light irradiating position of the optical fiber in a case of writing the grating; a feeder having a movable portion capable of linearly reciprocating in the conveyance direction, wherein the feeder is configured to feed a predetermined length of the optical fiber in the conveyance direction in a case where a fixed state of the optical fiber by the fixing device is released, an irradiator attached to the movable portion and configured to emit laser light, a fixed portion having a guide extending in the conveyance direction, the movable portion being capable of reciprocating along the guide; and a holder attached to the movable portion , wherein the holder is configured to hold the optical fiber when the movable portion is moved in the conveyance direction, and is configured not to hold the optical fiber when the movable portion is moved in the direction opposite the conveyance direction while laser light is emitted from the irradiator to a phase mask (M) arranged at the irradiating position so as to scan the phase mask.
A polycarbonate-ABS based alloy resin composition, comprising: (a) 40 to 70 % by weight of a polycarbonate resin; (b) 5 to 35 % by weight of a copolymer prepared by polymerizing a conjugated diene rubber having an average particle diameter of 0.6 to 1.5 μm, an aromatic vinyl compound, and a vinyl cyanide compound; (c) 5 to 20 % by weight of a copolymer prepared by polymerizing a conjugated diene rubber having an average particle diameter of 0.2 μm or more and less than 0.6 μm, an aromatic vinyl compound, and a vinyl cyanide compound; (d) 5 to 20 % by weight of a copolymer prepared by polymerizing a conjugated diene rubber having an average particle diameter of 0.1 to 0.3 μm, an aromatic vinyl compound, and a (meth)acrylate compound; and (e) 5 to 40 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer, wherein the average particle diameter is measured by means of a particle size analyzer, as described in the present specification. (a) 40 to 70 % by weight of a polycarbonate resin; (b) 5 to 35 % by weight of a copolymer prepared by polymerizing a conjugated diene rubber having an average particle diameter of 0.6 to 1.5 μm, an aromatic vinyl compound, and a vinyl cyanide compound; (c) 5 to 20 % by weight of a copolymer prepared by polymerizing a conjugated diene rubber having an average particle diameter of 0.2 μm or more and less than 0.6 μm, an aromatic vinyl compound, and a vinyl cyanide compound; (d) 5 to 20 % by weight of a copolymer prepared by polymerizing a conjugated diene rubber having an average particle diameter of 0.1 to 0.3 μm, an aromatic vinyl compound, and a (meth)acrylate compound; and (e) 5 to 40 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer, wherein the average particle diameter is measured by means of a particle size analyzer, as described in the present specification.