mhurhangee/ep-ind-claims huggingface dataset:
A compound represented by Formula I: wherein R 1 is a C 1 -C 4 alkyl group; R 2 is selected from the group consisting of hydrogen, a C 1 -C 4 alkyl group optionally containing a hydroxyl group and a C 1 -C 4 alkenyl group optionally containing a hydroxyl group; R 3 is selected from the group consisting of hydrogen, a C 1 -C 4 alkyl group and - C R 4, wherein R 4 is selected from the group consisting of hydrogen and a C 1 -C 4 alkyl group; one of the dotted lines in the ring represents an optional carbon-carbon double bond; and the dotted line in the side chain represents an optional carbon-oxygen double bond, with the proviso that, when the optional carbon-oxygen double bond is present, R 3 is absent. R 1 is a C 1 -C 4 alkyl group; R 2 is selected from the group consisting of hydrogen, a C 1 -C 4 alkyl group optionally containing a hydroxyl group and a C 1 -C 4 alkenyl group optionally containing a hydroxyl group; R 3 is selected from the group consisting of hydrogen, a C 1 -C 4 alkyl group and - C R 4, wherein R 4 is selected from the group consisting of hydrogen and a C 1 -C 4 alkyl group; one of the dotted lines in the ring represents an optional carbon-carbon double bond; and the dotted line in the side chain represents an optional carbon-oxygen double bond, with the proviso that, when the optional carbon-oxygen double bond is present, R 3 is absent.
A dispenser for dispensing a sanitizing gel into toilet bowls, which dispenser comprises an applicator with a cylinder, and a piston which is adapted to slide within said cylinder, the cylinder containing a single dose of sanitizing gel which can be dispensed from the applicator by actuating said piston, said cylinder being provided in a downward region with a narrower region with a collar, said cylinder being coupled to said applicator whereby the narrower region and the corresponding collar engage said applicator, said applicator being provided in a downward region with a removable protective plug characterized in that a removable closure plug (6; 12) is provided in addition to the protective plug at the lower end of said applicator, which closure plug (6; 12) closes the cylinder in a downward region, said applicator being provided with a pair of wings (7, 8) adapted to be gripped by the fingers of a user.
A detergent composition comprising an α-sulfo fatty acid alkyl ester salt and a fragrance composition, wherein an amount of the α-sulfo fatty acid alkyl ester salt is from 1 to 30% by mass relative to a total mass of the detergent composition, the fragrance composition comprises a fragrance described below, an amount of the fragrance is from 0.07 to 0.5% by mass relative to a total mass of the detergent composition, an amount of the fragrance within the fragrance composition is at least 20% by mass relative to the total mass of the fragrance composition, and the fragrance is composed of at least one fragrance component selected from the group consisting of dihydromyrcenol, isobornyl acetate, α-hexyl cinnamic aldehyde, lilial, tetrahydrolinalool, amyl salicylate, verdox, vertenex, tricyclodecenyl acetate, tricyclodecenyl propionate, Iso E Super and habanolide.
An apparatus, comprising: a request-processing mechanism to determine a request for data or a service from a remote computer system, and to determine at least a routable prefix and a name suffix associated with the request; cryptography mechanism to determine an encryption key that corresponds to a session with the remote computer system, and encrypt the name suffix using the session encryption key; an Interest-processing mechanism to generate an Interest whose name includes the routable prefix, a session identifier for the session, and the encrypted name suffix, wherein the session identifier enables the remote computer system to generate a decryption key based on the session identifier, the decryption key being used by the remote computer system to decrypt the encrypted name suffix; and a communication mechanism to disseminate the Interest over a named-data network to send the request to the remote computer system. a request-processing mechanism to determine a request for data or a service from a remote computer system, and to determine at least a routable prefix and a name suffix associated with the request; cryptography mechanism to determine an encryption key that corresponds to a session with the remote computer system, and encrypt the name suffix using the session encryption key; an Interest-processing mechanism to generate an Interest whose name includes the routable prefix, a session identifier for the session, and the encrypted name suffix, wherein the session identifier enables the remote computer system to generate a decryption key based on the session identifier, the decryption key being used by the remote computer system to decrypt the encrypted name suffix; and a communication mechanism to disseminate the Interest over a named-data network to send the request to the remote computer system.
A transmission receiving device comprising: burst processing logic comprising: a buffer memory to store a received bit sequence recovered from a received upstream burst signal, the received bit sequence comprising a delimiter bit sequence; characterised by a delimiter memory to store an extracted delimiter bit sequence; and delimiter finding logic operable to: perform a pattern matching search to find a matching position of a pre-defined target bit sequence and a selected subsequence of fixed bits within the received bit sequence; find the delimiter bit sequence at a position in the received bit sequence, wherein the position is based on the found matching position and a known position of the fixed bits relative to the delimiter bit sequence; and store, in the delimiter memory, the found delimiter bit sequence as the extracted delimiter bit sequence. a buffer memory to store a received bit sequence recovered from a received upstream burst signal, the received bit sequence comprising a delimiter bit sequence; characterised by a delimiter memory to store an extracted delimiter bit sequence; and delimiter finding logic operable to: perform a pattern matching search to find a matching position of a pre-defined target bit sequence and a selected subsequence of fixed bits within the received bit sequence; find the delimiter bit sequence at a position in the received bit sequence, wherein the position is based on the found matching position and a known position of the fixed bits relative to the delimiter bit sequence; and store, in the delimiter memory, the found delimiter bit sequence as the extracted delimiter bit sequence. perform a pattern matching search to find a matching position of a pre-defined target bit sequence and a selected subsequence of fixed bits within the received bit sequence; find the delimiter bit sequence at a position in the received bit sequence, wherein the position is based on the found matching position and a known position of the fixed bits relative to the delimiter bit sequence; and store, in the delimiter memory, the found delimiter bit sequence as the extracted delimiter bit sequence.
A method of radio transmission in an Orthogonal Frequency Division Multiplex, OFDM, based cellular wireless radio transmission system wherein radio access equipment of said system connects to multiple geographically spread radio antennas (3, 4, 5) of a Distributed Antenna System, DAS, for transmitting to and receiving radio signals from user equipment (6, 7, 8, 9, 10) arranged for operating in said radio transmission system, the method comprising: - establishing transmit timings for radio transmission between said user equipment (6, 7, 8, 9, 10) and radio antennas (3, 4, 5) of said DAS, said transmit timings being defined as any information provided or measured from which data relevant to absolute propagation times of radio signals between said user equipment (6, 7, 8, 9, 10) and said radio antennas (3, 4, 5) of said DAS can be established, and - scheduling (71, 72) said radio transmission based on said established transmit timings wherein said scheduling is characterised by the steps of: - selecting a plurality of radio antennas (3, 4, 5) of said DAS for transmitting to and receiving radio signals from said user equipment (6, 7, 8, 9, 10), calculating adjust timings from said established transmit timings and a cyclic prefix, and operating each radio antenna of said DAS for transmitting to and receiving radio signals from said user equipment (6, 7, 8, 9, 10) with substantially equal adjust timings. - establishing transmit timings for radio transmission between said user equipment (6, 7, 8, 9, 10) and radio antennas (3, 4, 5) of said DAS, said transmit timings being defined as any information provided or measured from which data relevant to absolute propagation times of radio signals between said user equipment (6, 7, 8, 9, 10) and said radio antennas (3, 4, 5) of said DAS can be established, and - scheduling (71, 72) said radio transmission based on said established transmit timings wherein said scheduling is characterised by the steps of: - selecting a plurality of radio antennas (3, 4, 5) of said DAS for transmitting to and receiving radio signals from said user equipment (6, 7, 8, 9, 10), calculating adjust timings from said established transmit timings and a cyclic prefix, and operating each radio antenna of said DAS for transmitting to and receiving radio signals from said user equipment (6, 7, 8, 9, 10) with substantially equal adjust timings. - selecting a plurality of radio antennas (3, 4, 5) of said DAS for transmitting to and receiving radio signals from said user equipment (6, 7, 8, 9, 10), calculating adjust timings from said established transmit timings and a cyclic prefix, and operating each radio antenna of said DAS for transmitting to and receiving radio signals from said user equipment (6, 7, 8, 9, 10) with substantially equal adjust timings.
An exerciser, comprising a board, a frame, a swing rod, an upper foot rest, a lower foot rest and a resilient rope, the frame comprising a lengthwise beam, a vertical support, a front bottom bracket and a rear bottom bracket, a front end of the lengthwise beam being perpendicularly fixed to a central portion of the vertical support, an upper end of the vertical support being fixed to a central portion of the upper foot rest and a lower end of the vertical support being fixed to a central portion of the front bottom bracket, an upper end of the swing rod being articulated to an upper end of the vertical support and a lower end of the swing rod being fixed to a central portion of the lower foot rest, the resilient rope being connected between the swing rod and the vertical support, the board being fixed on the lengthwise beam of the frame, characterized in that: a rear end of the lengthwise beam is perpendicularly fixed to a central portion of the rear bottom bracket, the lengthwise beam and the vertical support forming a triangular support, an inner end of the resilient rope is fixed to a lower portion of the vertical support, a central portion of the resilient rope winds through a first pulley on an upper portion of the vertical support, a second pulley on the lower portion of the vertical support and a third pulley on the lower end of the swing rod, and an outer end of the resilient rope is connected to a central portion of the swing rod. a rear end of the lengthwise beam is perpendicularly fixed to a central portion of the rear bottom bracket, the lengthwise beam and the vertical support forming a triangular support, an inner end of the resilient rope is fixed to a lower portion of the vertical support, a central portion of the resilient rope winds through a first pulley on an upper portion of the vertical support, a second pulley on the lower portion of the vertical support and a third pulley on the lower end of the swing rod, and an outer end of the resilient rope is connected to a central portion of the swing rod.
Mesenchymal stem cells (MSCs) for use in the treatment of a tumor, wherein said treatment comprises the combined administration of said MSCs with an anti-tumor immunotherapy, wherein said immunotherapy comprises administration of T cells and/or natural killer cells, and wherein said MSCs are not genetically modified.
Arrangement of battery modules, which comprise a plurality of battery cells, in a vehicle in a space between a lower plate and an upper plate of a body assembly, characterised in that at least two adjacent battery modules each comprise sliding faces along which the two adjacent battery modules can move relative to one another, together with a change in their position in the space between the two plates (20, 18) of the body assembly, as a result of an application of force, the battery modules being triangular-prism-shaped and a base of each of the prisms facing the lower plate and the upper plate in an alternating manner and the sliding faces being provided by side faces of the triangular prisms that are adjacent to the base.
Flexible pipe body for transporting production fluids, comprising: a first armour layer (130, 140) formed from a helical winding of a metal wire element; a further armour layer (140, 150) formed from a helical winding of a further metal wire element; and at least one intermediate layer (160, 170, 180) between the first and further armour layers, said intermediate layer comprising a helically wound electrically insulating tape element and a helically wound electrically conductive tape element, whereby there is at least a partial overlap of tape windings (800, 810); and each winding of the electrically conductive tape element in an intermediate layer bridges and thereby electrically connects metallic windings of an underlying first armour layer (130, 140) with metallic windings of an overlying further armour layer (140, 150). a first armour layer (130, 140) formed from a helical winding of a metal wire element; a further armour layer (140, 150) formed from a helical winding of a further metal wire element; and at least one intermediate layer (160, 170, 180) between the first and further armour layers, said intermediate layer comprising a helically wound electrically insulating tape element and a helically wound electrically conductive tape element, whereby there is at least a partial overlap of tape windings (800, 810); and each winding of the electrically conductive tape element in an intermediate layer bridges and thereby electrically connects metallic windings of an underlying first armour layer (130, 140) with metallic windings of an overlying further armour layer (140, 150).
Method for improving the washing action of less-delicate laundry to be washed in a washing machine having a laundry drum, which is intermittently driven with alternating directions of rotation during the washing and rinsing process, wherein in one phase the laundry drum in the one direction of rotation (+) is accelerated to a first rotational speed significantly above the settling speed, wherein the nominal value of the first rotational speed is selected such that the items of laundry disposed on the drum shell are compressed and can fall back into the interior of the drum unhindered when the rotational speed is reduced, in other words at the first rotational speed, the peripheral speed of the laundry drum is greater than or equal to 3.7 m/s, and in the other direction of rotation (-) the laundry drum is accelerated to a second rotational speed significantly below the settling speed, wherein the peripheral speed of the laundry drum at the second rotational speed is less than or equal to 1.0 m/s, within the washing and/or rinsing process the laundry drum in at least one further phase in both directions of rotation (+ and -) is accelerated to rotational speeds with a high mechanical washing action, at which the peripheral speed of the laundry drum at the speed for high mechanical washing action lies in the interval between 1.1 to 1.6 m/s and that these phases (A and B) within the washing and/or rinsing process follow one another at least once, characterised in that immediately after the drum has come to rest, the laundry drum is accelerated from a first rotational speed to a second rotational speed in the other direction of rotation (-) and that the nominal value of the second rotational speed has a magnitude at which, during rotation of the laundry drum in the other direction of rotation, items of laundry dropping off from the outer surface fall into the interior drum area which is enlarged by compressing the items of laundry.
An insulating material for a coil, the insulating material being configured to be placed between a stator core and a coil, the insulating material being configured to insulate the coil from the stator core, the insulating material comprising: an insulating sheet made of an insulating material; a stator-core-side expansive additive layer laminated on a surface of the insulating sheet, the surface being opposed to the stator core, in a state where the insulating sheet is placed between the stator core and the coil, the stator-core-side expansive additive layer including a first foam material configured to foam by heating; and a coil-side expansive additive layer laminated on a surface of the insulating sheet, the surface being opposed to the coil, in a state where the insulating sheet is placed between the stator core and the coil, the coil-side expansive additive layer including a second foam material configured to foam by heating, characterized in that the first foam material and the second foam material have such foaming characteristics that their respective foaming rates increase from respective foaming starting temperatures (T0_s, T0_c) toward respective peak temperatures (Tp_s, Tp_c) along with temperature rises, and the foaming rates decrease after the peak temperatures (Tp_s, Tp_c) and in that the foaming characteristic of the first foam material is shifted to a cold side relative to the foaming characteristic of the second foam material. an insulating sheet made of an insulating material; a stator-core-side expansive additive layer laminated on a surface of the insulating sheet, the surface being opposed to the stator core, in a state where the insulating sheet is placed between the stator core and the coil, the stator-core-side expansive additive layer including a first foam material configured to foam by heating; and a coil-side expansive additive layer laminated on a surface of the insulating sheet, the surface being opposed to the coil, in a state where the insulating sheet is placed between the stator core and the coil, the coil-side expansive additive layer including a second foam material configured to foam by heating, characterized in that the first foam material and the second foam material have such foaming characteristics that their respective foaming rates increase from respective foaming starting temperatures (T0_s, T0_c) toward respective peak temperatures (Tp_s, Tp_c) along with temperature rises, and the foaming rates decrease after the peak temperatures (Tp_s, Tp_c) and in that the foaming characteristic of the first foam material is shifted to a cold side relative to the foaming characteristic of the second foam material.
A method of correcting imbalance of a tire comprising a step of forming a black coated layer on the inner surface of the tire at the point of lightest weight of the tire so as to reduce the imbalance of the tire, wherein the black coated layer is formed by applying a black paint containing carbon black, characterized in that the black paint is a water-soluble paint further comprising a resin, the black paint has a specific gravity of 1.00 to 1.10, the length in the tire circumferential direction of the black coated layer is in a range from 15 to 70 degrees in terms of the angle (θ) around the tire rotational axis (i), and the angle (α) formed between the bisector of the angle (θ) and a straight line passing through the point of lightest weight and the rotational axis (i) of the tire is not more than 15 degrees. wherein the black coated layer is formed by applying a black paint containing carbon black, characterized in that the black paint is a water-soluble paint further comprising a resin, the black paint has a specific gravity of 1.00 to 1.10, the length in the tire circumferential direction of the black coated layer is in a range from 15 to 70 degrees in terms of the angle (θ) around the tire rotational axis (i), and the angle (α) formed between the bisector of the angle (θ) and a straight line passing through the point of lightest weight and the rotational axis (i) of the tire is not more than 15 degrees.
A vehicle comprising: a group of actuators comprising a group of fluidic oscillators (310, 702, 704, 706) and a group of exit ports (210, 620, 622, 624) in a structure of the vehicle; a group of compressor units located in the structure, wherein the group of compressor units is connected to the group of actuators, increases a pressure of a fluid to form a pressurized fluid, and sends the pressurized fluid to the group of actuators, wherein the pressurized fluid flows through the group of fluidic oscillators (310, 702, 704, 706), which are configured to shape the flow of the pressurized fluid out of the group of exit ports (210, 620, 622, 624) to form vortexes, wherein the pressurized fluid flowing out of the group of exit ports (210, 620, 622, 624) to form the vortexes actively controls a fluid flow relative to the structure of the vehicle; and a group of inlets, wherein the group of inlets is connected to the group of compressor units and supplies the fluid to the group of compressor units, wherein the group of inlets is located in a group of locations on the vehicle such that the group of inlets actively controls the fluid flow relative to the vehicle when drawing the fluid, enabling an improved aerodynamic performance of the vehicle. a group of actuators comprising a group of fluidic oscillators (310, 702, 704, 706) and a group of exit ports (210, 620, 622, 624) in a structure of the vehicle; a group of compressor units located in the structure, wherein the group of compressor units is connected to the group of actuators, increases a pressure of a fluid to form a pressurized fluid, and sends the pressurized fluid to the group of actuators, wherein the pressurized fluid flows through the group of fluidic oscillators (310, 702, 704, 706), which are configured to shape the flow of the pressurized fluid out of the group of exit ports (210, 620, 622, 624) to form vortexes, wherein the pressurized fluid flowing out of the group of exit ports (210, 620, 622, 624) to form the vortexes actively controls a fluid flow relative to the structure of the vehicle; and a group of inlets, wherein the group of inlets is connected to the group of compressor units and supplies the fluid to the group of compressor units, wherein the group of inlets is located in a group of locations on the vehicle such that the group of inlets actively controls the fluid flow relative to the vehicle when drawing the fluid, enabling an improved aerodynamic performance of the vehicle.