mhurhangee/patent-ind-claim-en huggingface dataset:
An activity recording data processing apparatus , comprising: an acquisition unit configured to acquire data obtained for a series of activity and action estimation information on the series of activity, the action estimation information being associated with the data; a memory configured to storage a table that defines category of actions about the activity, the action estimation information and a basic unit as a minimum dividing width for each of the data that is suitable for the activity, an extraction unit configured to extract the data associated with the action estimation information in the table; a clustering unit configured to perform clustering of the data associated with the action estimation information in the table by calculating average and standard deviation of the data, dividing the data associated with the action estimation information in the table by a predetermined number and performing labeling of the divided data associated with the action estimation information in the table; and an estimating unit configured to estimate a power used for the series of activity based on the labelled data. a memory configured to storage a table that defines category of actions about the activity, the action estimation information and a basic unit as a minimum dividing width for each of the data that is suitable for the activity, an extraction unit configured to extract the data associated with the action estimation information in the table; a clustering unit configured to perform clustering of the data associated with the action estimation information in the table by calculating average and standard deviation of the data, dividing the data associated with the action estimation information in the table by a predetermined number and performing labeling of the divided data associated with the action estimation information in the table; and an estimating unit configured to estimate a power used for the series of activity based on the labelled data.
A surface cleaning apparatus , comprising: a housing comprising a recovery pathway W having a dirty inlet and a clean air outlet ; a suction source comprising a first motor in fluid communication with the dirty inlet; a first motor cooling pathway V comprising a first cooling air inlet in fluid communication with ambient air outside the housing and a cooling air outlet ; a second motor ; and a second motor cooling pathway B comprising a second cooling air inlet in fluid communication with ambient air outside the housing; characterized in that the second motor cooling pathway merges with the first motor cooling pathway upstream of the cooling air outlet, such that heated cooling air from the first and second motors merges within the first motor cooling pathway and is exhausted together through the cooling air outlet; and wherein the second motor cooling pathway is isolated from the recovery pathway. a housing comprising a recovery pathway W having a dirty inlet and a clean air outlet ; a suction source comprising a first motor in fluid communication with the dirty inlet; a first motor cooling pathway V comprising a first cooling air inlet in fluid communication with ambient air outside the housing and a cooling air outlet ; a second motor ; and a second motor cooling pathway B comprising a second cooling air inlet in fluid communication with ambient air outside the housing; characterized in that the second motor cooling pathway merges with the first motor cooling pathway upstream of the cooling air outlet, such that heated cooling air from the first and second motors merges within the first motor cooling pathway and is exhausted together through the cooling air outlet; and wherein the second motor cooling pathway is isolated from the recovery pathway.
Elongation sensor with at least one pseudo-elastic wire-shaped or band-shaped electrical conductor formed from a shape memory alloy, which is inserted in a substrate in a two and/or three-dimensional arrangement or is fixed on a substrate , wherein the shape memory alloy has a martensite starting temperature (M S ) of less than 10°C, characterized in that sections of the conductor for mechanical stabilization of a meander, spiral and/or helix form are connected with each other by means of a thread-shaped strut material by means of transverse struts of the thread-shaped strut material , wherein the strut material is connected with the conductor by means of sewing, stitching, knotting, weaving and/or knitting, or the strut material is thermoplastic and welded with the conductor .
A solid formulation for use in the treatment of disorders or diseases related to a mineral deficiency comprising i) a solid composition comprising or, alternatively, consisting of: - a mineral salt selected from the group comprising or, alternatively, consisting of magnesium (II), calcium (II), iron (III), zinc (II) or iodine mineral salts and mixtures thereof, - sucrose esters or sucresters E473, and - a lecithin, wherein said lecithin is a non-hydrolyzed lecithin and is in an amount of less than 1 % by weight, relative to the weight of the composition, and ii) pharmaceutically acceptable additives and excipients. wherein said formulation is in orally disintegrated form. i) a solid composition comprising or, alternatively, consisting of: - a mineral salt selected from the group comprising or, alternatively, consisting of magnesium (II), calcium (II), iron (III), zinc (II) or iodine mineral salts and mixtures thereof, - sucrose esters or sucresters E473, and - a lecithin, wherein said lecithin is a non-hydrolyzed lecithin and is in an amount of less than 1 % by weight, relative to the weight of the composition, and - a mineral salt selected from the group comprising or, alternatively, consisting of magnesium (II), calcium (II), iron (III), zinc (II) or iodine mineral salts and mixtures thereof, - sucrose esters or sucresters E473, and - a lecithin, wherein said lecithin is a non-hydrolyzed lecithin and is in an amount of less than 1 % by weight, relative to the weight of the composition, and ii) pharmaceutically acceptable additives and excipients.
A data retransmission method, comprising: determining data to be retransmitted; retransmitting the data using a preset retransmission mode, wherein the preset retransmission mode comprises at least one of: retransmitting the data by using a Multi-Access signature, MA signature, indicated by a network side through a downlink control channel; and retransmitting the data by using an identifier, ID, of a terminal and the MA signature indicated by the network side through the downlink control channel; wherein determining the data to be retransmitted comprises: determining the data to be retransmitted according to an indication sent by the network side through the downlink control channel, wherein the indication comprises an ACK or an NACK; and characterized in that , determining the data to be retransmitted according to the ACK sent by the network side through the downlink control channel comprises: monitoring, at a preset resource position, a contention resolution ID from the network side, wherein the preset resource position is located after a resource where the ACK is received; and determining the data to be retransmitted according to the contention resolution ID or determining the data to be retransmitted according to the contention resolution ID and a Radio Link layer Control protocol, RLC, status report. determining data to be retransmitted; retransmitting the data using a preset retransmission mode, wherein the preset retransmission mode comprises at least one of: retransmitting the data by using a Multi-Access signature, MA signature, indicated by a network side through a downlink control channel; and retransmitting the data by using an identifier, ID, of a terminal and the MA signature indicated by the network side through the downlink control channel; wherein determining the data to be retransmitted comprises: determining the data to be retransmitted according to an indication sent by the network side through the downlink control channel, wherein the indication comprises an ACK or an NACK; and characterized in that , determining the data to be retransmitted according to the ACK sent by the network side through the downlink control channel comprises: monitoring, at a preset resource position, a contention resolution ID from the network side, wherein the preset resource position is located after a resource where the ACK is received; and determining the data to be retransmitted according to the contention resolution ID or determining the data to be retransmitted according to the contention resolution ID and a Radio Link layer Control protocol, RLC, status report.
A method for use with a packet network that includes a network node for transporting packets between first and second nodes under control of a controller node , the method comprising: sending (S610), by the controller node to the network node over the packet network, a packet-applicable instruction ; receiving, by the network node from the controller node, the instruction; and receiving (S301, S620), by the network node from the first node over the packet network, a unicast packet addressed only to the second node, wherein the packet comprises distinct header and non-header fields ; characterized in that: the method is for Deep Packet Inspection, DPI, the instruction includes one or more values associated with one or more bits of the header and non-header fields, and the method further comprising: checking , by the network node, if the packet satisfies the instruction by matching the one or more values with one or more bits of the header or non-header fields; responsive to the packet not satisfying the instruction, sending (S307), by the network node over the packet network, the packet only to the second node; and responsive to the packet satisfying the instruction, sending, by the network node over the packet network, the packet to the second node (S306, S302) and to the controller node. sending (S610), by the controller node to the network node over the packet network, a packet-applicable instruction ; receiving, by the network node from the controller node, the instruction; and receiving (S301, S620), by the network node from the first node over the packet network, a unicast packet addressed only to the second node, wherein the packet comprises distinct header and non-header fields ; characterized in that: the method is for Deep Packet Inspection, DPI, the instruction includes one or more values associated with one or more bits of the header and non-header fields, and the method further comprising: checking , by the network node, if the packet satisfies the instruction by matching the one or more values with one or more bits of the header or non-header fields; responsive to the packet not satisfying the instruction, sending (S307), by the network node over the packet network, the packet only to the second node; and responsive to the packet satisfying the instruction, sending, by the network node over the packet network, the packet to the second node (S306, S302) and to the controller node. checking , by the network node, if the packet satisfies the instruction by matching the one or more values with one or more bits of the header or non-header fields; responsive to the packet not satisfying the instruction, sending (S307), by the network node over the packet network, the packet only to the second node; and responsive to the packet satisfying the instruction, sending, by the network node over the packet network, the packet to the second node (S306, S302) and to the controller node.
A solid-state fuel battery, comprising an anode, a cathode spaced from the anode, and a hydrogen-cation conducting solid-state electrolyte disposed between the anode and the cathode, characterized in that a material of the solid-state electrolyte is a hydrogen-containing transition metal oxide having a structural formula of SrCoO x H y , wherein x is a numeric value in a range of 1 to 3, and y is a numeric value greater than 0 and smaller than or equal to 2.5.
An apparatus for aerating a pasty product, the apparatus comprising a housing extending in a longitudinal direction, said housing comprising an inlet for the pasty product to be aerated and an outlet for the aerated product, and, within the housing , at least a first set of a rotor and a stator and a second set of a rotor and a stator , wherein each set of a rotor and a stator has complementary toothed rims oppositely orientated in the longitudinal direction, said apparatus comprising a drive shaft , the rotors of each set of a rotor and a stator being coupled to said drive shaft, said apparatus further comprising a gas injector for injecting, upstream of the first set of a rotor and a stator , a gas into the pasty product to be aerated, wherein the apparatus further comprises an intermediate mixing chamber provided in the housing between the first and the second sets of a rotor and a stator , and a secondary product introduction means which protrudes into the intermediate mixing chamber so as to issue into said intermediate mixing chamber . the apparatus comprising a housing extending in a longitudinal direction, said housing comprising an inlet for the pasty product to be aerated and an outlet for the aerated product, and, within the housing , at least a first set of a rotor and a stator and a second set of a rotor and a stator , wherein each set of a rotor and a stator has complementary toothed rims oppositely orientated in the longitudinal direction, said apparatus comprising a drive shaft , the rotors of each set of a rotor and a stator being coupled to said drive shaft, said apparatus further comprising a gas injector for injecting, upstream of the first set of a rotor and a stator , a gas into the pasty product to be aerated, wherein the apparatus further comprises an intermediate mixing chamber provided in the housing between the first and the second sets of a rotor and a stator , and a secondary product introduction means which protrudes into the intermediate mixing chamber so as to issue into said intermediate mixing chamber .
A method for wireless communications by a receiving device, comprising: receiving multiple codewords from a transmitting device in a first period, wherein each codeword of the multiple codewords is transmitted using a different set of one or more demodulation reference signal, DMRS, ports of a plurality of different sets of DMRS ports; determining , for one or more retransmitted codewords of the multiple codewords, a set of DMRS ports used for the one or more retransmitted codewords, wherein the determination is based, at least in part, on whether DMRS time domain bundling is configured; and processing the one or more retransmitted codewords in a second period based on the determination, wherein: the first and second periods comprise different scheduling units, and when the DMRS time domain bundling is configured, the DMRS time domain bundling indicates that the receiving device is to assume that a same precoder is used for the multiple codewords and the one or more retransmitted codewords that use a same DMRS port in the different scheduling units. receiving multiple codewords from a transmitting device in a first period, wherein each codeword of the multiple codewords is transmitted using a different set of one or more demodulation reference signal, DMRS, ports of a plurality of different sets of DMRS ports; determining , for one or more retransmitted codewords of the multiple codewords, a set of DMRS ports used for the one or more retransmitted codewords, wherein the determination is based, at least in part, on whether DMRS time domain bundling is configured; and processing the one or more retransmitted codewords in a second period based on the determination, wherein: the first and second periods comprise different scheduling units, and when the DMRS time domain bundling is configured, the DMRS time domain bundling indicates that the receiving device is to assume that a same precoder is used for the multiple codewords and the one or more retransmitted codewords that use a same DMRS port in the different scheduling units. the first and second periods comprise different scheduling units, and when the DMRS time domain bundling is configured, the DMRS time domain bundling indicates that the receiving device is to assume that a same precoder is used for the multiple codewords and the one or more retransmitted codewords that use a same DMRS port in the different scheduling units.
A light controller for controlling a lighting system, where said lighting system comprises a number of light emitting devices; said light controller comprises: • a memory adapted to store a number of control commands associated with at least one of said light emitting devices; • a communication interface adapted to send said control commands to said light emitting devices; • a processor adapted to send said control commands to said number of light emitting devices using said communication interface; • user input interface adapted to receive user input from an user; wherein said input interface comprises: • a first slide controller positionable between a minimum position and a maximum position, said first slide controller can be positioned at positions between said minimum position and said maximum position; • a second slide controller positionable between a minimum position, and a maximum position, said second slide controller can be positioned at positions between said minimum position and said maximum position; characterized in that said input interface further comprises: a locking mechanism adapted to fix said first slide controller and said second slide controller in relation to each other, such that movement of at least one of said first slide controller or said second slide controller forces the other slide controller to perform a corresponding movement; and at least one encoder , said at least one encoder being adapted to shift the parametric values provided by said first slide controller and said second slide controller in relation to each other. • a memory adapted to store a number of control commands associated with at least one of said light emitting devices; • a communication interface adapted to send said control commands to said light emitting devices; • a processor adapted to send said control commands to said number of light emitting devices using said communication interface; • user input interface adapted to receive user input from an user; • a first slide controller positionable between a minimum position and a maximum position, said first slide controller can be positioned at positions between said minimum position and said maximum position; • a second slide controller positionable between a minimum position, and a maximum position, said second slide controller can be positioned at positions between said minimum position and said maximum position; a locking mechanism adapted to fix said first slide controller and said second slide controller in relation to each other, such that movement of at least one of said first slide controller or said second slide controller forces the other slide controller to perform a corresponding movement; and at least one encoder , said at least one encoder being adapted to shift the parametric values provided by said first slide controller and said second slide controller in relation to each other.
An organophilic clay comprising a smectite-type clay ion exchanged with quaternary ammonium ions, wherein at least 75 mol-% of said quaternary ammonium ions are bis-(2-hydroxypropyl)-dimethylammonium fatty acid esters and at least 90 % of the fatty acid moieties of said bis-(2-hydroxypropyl)-dimethylammonium fatty acid esters have a structure RC(O) with group R being a linear alkyl or alkenyl group containing from 9 to 21 carbon atoms.
A core for a high-frequency transformer, having a shape formed by winding an Fe-based nanocrystalline alloy ribbon produced by a single-roll process with an insulating layer interposed, the Fe-based nanocrystalline alloy ribbon having a roll contact surface and a free surface , wherein the free surface of the Fe-based nanocrystalline alloy ribbon has dispersed thereon crater-like projections with a concave , and characterised in that the projections each have a top part that is ground and blunted.
Trailer coupling for a towing vehicle , in particular a car, for attaching a trailer to the towing vehicle , with a coupling device (11a-11f) which includes a ball carrier and a coupling ball (15a-15g) mounted at a free end of the ball carrier for rotatable bearing of a coupling seating of a tow ball coupling of the trailer , wherein an inner surface of the coupling seating is able to slide on a ball surface of the coupling ball (15a-15g), and with a sensor array to detect an angle of rotation of the tow ball coupling relative to the ball carrier , wherein the trailer coupling has a rotary driving device (31a-31g) which has at least one rotary driving body (30a-30g) protruding in a contact position (K) from the ball surface and which is rotatably mounted on the coupling device (11a-11f) relative to the ball surface and has a rotary driving surface designed for frictional and/or form-fitting and/or force-fitting rotary driving contact with the inner surface of the coupling seating , and wherein the sensor array is designed to detect an angle of rotation of the rotary driving body or bodies (30a-30g) relative to the ball carrier , wherein the rotary driving body (30a-30g) is not provided or designed to penetrate the coupling seating of the tow ball coupling and remains on the trailer coupling when the tow ball coupling is uncoupled.
. Thermomechanical treatment process for the production of heavy plate from a raw material to increase the toughness, more particular low-temperature toughness, of the heavy plate , in which the heavy plate is heated, partially and finally formed by rolling and cooled down at an accelerated rate compared to a cool-down at ambient temperature, wherein the heavy plate heated for partial forming to above Ac3 temperature is coooled accelerated after its final forming, characterized in that the heavy plate is between partial and final forming is cooled down to below Ar3 temperature and then inductively heated to above Ac3 temperature, wherin a heavy plate with a steel alloy having: 0.02 to 0.1 mass% (C) carbon, 1.0 to 2.0 mass% (Mn) manganese, 0 to 0.1 mass% (V) vanadium and (Ti) titanium and (Nb) niobium, 0 to 1.0 mass% (Cr) chromium and (Mo) molybdenum, 0 to 1.0 mass% (Cu) copper and (Ni) nickel, 0 to 0.003 mass% (B) boron, a CEIIW value of 0.2 to 0.7 mass%, residual impurities and (Fe) iron, is used. 0.02 to 0.1 mass% (C) carbon, 1.0 to 2.0 mass% (Mn) manganese, 0 to 0.1 mass% (V) vanadium and (Ti) titanium and (Nb) niobium, 0 to 1.0 mass% (Cr) chromium and (Mo) molybdenum, 0 to 1.0 mass% (Cu) copper and (Ni) nickel, 0 to 0.003 mass% (B) boron, a CEIIW value of 0.2 to 0.7 mass%, residual impurities and (Fe) iron,