mhurhangee/ep-ind-claims huggingface dataset:
Composition comprising: at least one cationic polyelectrolyte, at least one anionic compound at least one non-ionic surfactant and optionally, at least one liquid medium, wherein the composition is in the form of a colloid and the ratio of the net charge in component to the net charge in component is 1:10-10:1, wherein component constitutes 4-62 wt.-% based on the total mass of components, and, wherein component constitutes 15-85 wt.-% based on the total mass of components, and, and wherein component constitutes 20-80 wt.-% based on the total mass of components, and, and wherein component constitutes 40-80 wt.-% based on the total composition. at least one cationic polyelectrolyte, at least one anionic compound at least one non-ionic surfactant and optionally, at least one liquid medium, wherein the composition is in the form of a colloid and the ratio of the net charge in component to the net charge in component is 1:10-10:1, wherein component constitutes 4-62 wt.-% based on the total mass of components, and, wherein component constitutes 15-85 wt.-% based on the total mass of components, and, and wherein component constitutes 20-80 wt.-% based on the total mass of components, and, and wherein component constitutes 40-80 wt.-% based on the total composition. wherein the composition is in the form of a colloid and the ratio of the net charge in component to the net charge in component is 1:10-10:1, wherein component constitutes 4-62 wt.-% based on the total mass of components, and, wherein component constitutes 15-85 wt.-% based on the total mass of components, and, and wherein component constitutes 20-80 wt.-% based on the total mass of components, and, and wherein component constitutes 40-80 wt.-% based on the total composition.
Loading and removing device for loading to, and removing hams from, a seasoning frame, said loading and removing device comprising a plurality of loading and removing units for loading and removing hams, each loading and removing unit being arranged for loading and removing a ham, each loading and removing unit being provided with gripping means, characterized in that said gripping means is suitable for hooking laterally a portion of a shank of said ham, and in that said each loading and removing unit is further provided with supporting means comprising a pair of supporting arms connected by a crosspiece (38, 43) arranged for restingly supporting a lower zone of said ham, said loading and removing device for loading and removing hams further comprising actuating means configured for rotating said loading and removing units around a bar, said loading and removing device being configured for removing said hams from a resting surface of said conveying means on which said hams are restingly arranged by engaging said hams by means of said gripping means and of said supporting means, and rotating the hams by means of said actuating means in order to load said hams onto, and unload said hams from, said seasoning frame, said supporting arms of said pair of supporting arms being connected to a first end thereof by said crosspiece and being also connected to one another by a further crosspiece arranged for connecting two portions of opposite supporting arms that are arranged between said first ends and second ends of said supporting arms, said crosspiece and said further crosspiece being intended for restingly supporting said ham by interacting with respective portions of said lower zone during operations of loading or removing of hams.
A cutter assembly comprising:a blade holder having an elongated blade chamber defined along a longitudinal direction of the blade holder and an opening defined in one end of the blade holder and communicating with the blade chamber; and a blade moveably mounted in the blade chamber, characterized in that the cutter assembly further comprises: a limiting element mounted on the blade holder at a position adjacent to the opening and having a limiting segment extending into the blade chamber and abutting a side surface of the blade. a limiting element mounted on the blade holder at a position adjacent to the opening and having a limiting segment extending into the blade chamber and abutting a side surface of the blade.
Method for detecting an environment of a first sensor system, having the steps of: providing a temporal sequence of data from the first sensor system for detecting the environment; generating an input tensor with the temporal sequence of data from the first sensor system for a trained neural network, wherein the neural network was set up and trained to identify, based on the input tensor, at least one section of the environment for improving the detection of the environment by means of a second sensor system; generating a control signal, which is provided for the second sensor system, by means of an output signal from the trained neural network, in order to improve the detection of the environment by means of the second sensor system in the at least one section. providing a temporal sequence of data from the first sensor system for detecting the environment; generating an input tensor with the temporal sequence of data from the first sensor system for a trained neural network, wherein the neural network was set up and trained to identify, based on the input tensor, at least one section of the environment for improving the detection of the environment by means of a second sensor system; generating a control signal, which is provided for the second sensor system, by means of an output signal from the trained neural network, in order to improve the detection of the environment by means of the second sensor system in the at least one section.
A method of manufacturing a plurality of optical elements comprising the steps of: - providing a substrate; - providing a tool (1, 1') comprising, on a replication side, a plurality of replication sections, each replication section defining a surface structure of one of the optical elements, the tool further comprising at least one contact spacer portion, the contact spacer portion protruding, on the replication side, further than an outermost feature of the replication sections; - aligning the tool (1, 1') and the substrate with respect to each other and bringing the tool and a first side (10.1; 10.2) of the substrate together, with replication material between the tool and the substrate, the contact spacer portion contacting the first side of the substrate, and thereby causing the spacer portion to adhere to the first side of the substrate, thereby producing a substrate-tool-assembly; - dislocating the substrate-tool-assembly to a hardening station (53; 57); - causing the replication material to harden at the hardening station; and - separating the tool from the substrate with the hardened replication material adhering to the substrate. - providing a substrate; - providing a tool (1, 1') comprising, on a replication side, a plurality of replication sections, each replication section defining a surface structure of one of the optical elements, the tool further comprising at least one contact spacer portion, the contact spacer portion protruding, on the replication side, further than an outermost feature of the replication sections; - aligning the tool (1, 1') and the substrate with respect to each other and bringing the tool and a first side (10.1; 10.2) of the substrate together, with replication material between the tool and the substrate, the contact spacer portion contacting the first side of the substrate, and thereby causing the spacer portion to adhere to the first side of the substrate, thereby producing a substrate-tool-assembly; - dislocating the substrate-tool-assembly to a hardening station (53; 57); - causing the replication material to harden at the hardening station; and - separating the tool from the substrate with the hardened replication material adhering to the substrate.
An electric bed, comprising a bed body, a plurality of bed planks, a wake-up device, a clock and a main control box, the main control box being electrically connected to the wake-up device and the clock and adapted to store a wake-up time, wherein the electric bed further comprises a monitoring module comprising a processing module and a sensor, wherein: the sensor is electrically connected to the processing module, and is adapted to monitor whether a user has left the bed; if the sensor monitors the user has not left the bed, the processing module activates the wake-up device when the wake-up time on the clock is due according to the stored wake-up time; and if the sensor monitors that the user has left the bed, the processing module does not activate the wake-up device when the wake-up time on the clock is due.
A construction module (10, 20, 30, 40, 60) forming an assembly for bearing a building comprising side posts (13, 23, 33, 43, 63), linked to one another by crossbars, characterized in that it comprises notches (11, 21, 31, 41, 61) made in said side posts (13, 23, 33, 43, 63) and distributed on said side posts on either side of a horizontal axis of symmetry, in that two central notches, surrounding said axis of symmetry, are formed in such a way that their separation allows the passage of two forks of a forklift truck, and in that crossbars (15, 65) are positioned on the axis of said central notches and have a depth equivalent to the depth of the module minus the depth of said notches (11, 21, 31, 41, 61).
A composition comprising at least one biodegradable polymer, an androgen receptor agonist and a bisphosphonate or pharmaceutically acceptable salt thereof, wherein said composition is a composition for local administration to bone and wherein the amount of said bisphosphonate or salt thereof is between 0.1 μg and 1 mg and the amount of said androgen receptor agonist is between 1 μg and 10 mg of testosterone or a derivative thereof or an equipotent amount of an androgen receptor agonist other than testosterone.
Device for securing a step ladder in a raised position, wherein the device comprises a main body, a latch which is linearly moveable with respect to the main body, and a spring arranged between the main body and the latch, wherein the device is a monolith, wherein the latch is guided by at least one guide surface of the main body when the spring is loaded, characterised in that the latch is not guided by the main body when the spring is not loaded.
A method for reading at least one attribute stored in an ID token (106, 106'), wherein the ID token is assigned to a user, said method comprising the following steps: - authenticating the user to the ID token, - authenticating a first computer system to the ID token via a network, - following successful authentication of the user and the first computer system to the ID token, granting the first computer system read access to the at least one attribute stored in the ID token via the network, comprising the following further steps: i. signing the at least one attribute read from the ID token by the first computer system, ii. transmitting the signed attribute from the first computer system to a second computer system. - authenticating the user to the ID token, - authenticating a first computer system to the ID token via a network, - following successful authentication of the user and the first computer system to the ID token, granting the first computer system read access to the at least one attribute stored in the ID token via the network, comprising the following further steps: i. signing the at least one attribute read from the ID token by the first computer system, ii. transmitting the signed attribute from the first computer system to a second computer system. i. signing the at least one attribute read from the ID token by the first computer system, ii. transmitting the signed attribute from the first computer system to a second computer system.
A method of forming an abrasive nickel-based alloy on a turbine blade tip, comprising: producing or obtaining a metal powder that is mixed with a carbon powder to form a carbon-enriched metal powder, wherein the metal powder comprises a refractory element; and bonding the carbon-enriched metal powder to the turbine blade tip, wherein the step of bonding comprises raising the temperature of the carbon-enriched metal powder past its melting point, thereby causing the carbon to combine with the refractory elements to form abrasive carbide particles. producing or obtaining a metal powder that is mixed with a carbon powder to form a carbon-enriched metal powder, wherein the metal powder comprises a refractory element; and bonding the carbon-enriched metal powder to the turbine blade tip, wherein the step of bonding comprises raising the temperature of the carbon-enriched metal powder past its melting point, thereby causing the carbon to combine with the refractory elements to form abrasive carbide particles.
A terminal apparatus comprising: a receiver (201, 202, 203), which, in operation, (i) is configured to receive control information, and (ii) is configured to receive data that is mapped by a base station to subcarrier blocks selected from among a plurality of subcarrier blocks, into which a frequency band is divided; and a decoder, which, in operation, is configured to decode the control information and the data, characterized in that the receiver (201, 202, 203) is configured to receive the control information that is mapped by the base station to a predetermined subcarrier block among the plurality of subcarrier blocks; the data is mapped according to selected frequency hopping patterns for each of the subcarrier blocks and the control information is mapped according to predetermined frequency hopping patterns that are different from the selected frequency hopping patterns; and the control information is mapped such that the control information is frequency hopped within the predetermined subcarrier block. a receiver (201, 202, 203), which, in operation, (i) is configured to receive control information, and (ii) is configured to receive data that is mapped by a base station to subcarrier blocks selected from among a plurality of subcarrier blocks, into which a frequency band is divided; and a decoder, which, in operation, is configured to decode the control information and the data, characterized in that the receiver (201, 202, 203) is configured to receive the control information that is mapped by the base station to a predetermined subcarrier block among the plurality of subcarrier blocks; the data is mapped according to selected frequency hopping patterns for each of the subcarrier blocks and the control information is mapped according to predetermined frequency hopping patterns that are different from the selected frequency hopping patterns; and the control information is mapped such that the control information is frequency hopped within the predetermined subcarrier block.
An auto-injector comprising: a syringe carrier adapted to contain a syringe, the syringe carrier having a ramp member (7.1) with a first ramp (7.2) and a second ramp (7.3); and a chassis including a resilient beam having a beam head (2.1) adapted to engage the ramp member (7.1), wherein the carrier is slidably arranged in the chassis, wherein the first ramp (7.2) is adapted to deflect the beam head (2.1) in a radial direction relative to the chassis when the syringe carrier moves in a first direction relative to the chassis, characterized in that the second ramp (7.3) is adapted to deflect the beam head (2.1) in a tangential direction relative to the chassis when the syringe carrier moves in a second direction relative to the chassis. a syringe carrier adapted to contain a syringe, the syringe carrier having a ramp member (7.1) with a first ramp (7.2) and a second ramp (7.3); and a chassis including a resilient beam having a beam head (2.1) adapted to engage the ramp member (7.1), wherein the carrier is slidably arranged in the chassis, wherein the first ramp (7.2) is adapted to deflect the beam head (2.1) in a radial direction relative to the chassis when the syringe carrier moves in a first direction relative to the chassis, characterized in that the second ramp (7.3) is adapted to deflect the beam head (2.1) in a tangential direction relative to the chassis when the syringe carrier moves in a second direction relative to the chassis.
A load handling device for lifting and moving containers stacked in a storage system, the storage system comprising: a first set of parallel rails or tracks and a second set of parallel rails or tracks extending substantially perpendicularly to the first set of rails or tracks to form a grid comprising a plurality of grid spaces; a plurality of stacks of containers located beneath the rails or tracks and arranged such that each stack occupies a footprint of a single grid space, the load handling device being adapted to move laterally on the rails or tracks above the stacks, the load handling device comprising a wheel assembly, the wheel assembly comprising a first set of wheels for engaging with the first set of rails or tracks to guide movement of the device in a first direction and a second set of wheels for engaging with the second set of rails or tracks to guide movement of the device in a second direction, wherein the load handling device further comprises a container receiving space located above the rails or tracks in use, the load handling device further comprises a plurality of vehicle modules, the vehicle modules comprising container lifting means arranged to lift a corresponding number of containers as vehicle modules in to the container receiving space from a corresponding number of stacks, characterized in that the load handling device is configured such that it is capable of lifting a plurality of containers from a plurality of stacks in a single operation.
A method for data transmission, wherein the method comprises: determining, by a base station, a first time period in which an end moment of a first control channel is located in a first transmission time interval, TTI, wherein the first TTI comprises at least two time periods and the first time period is one of the at least two time periods, and start moments of data channels corresponding to control channels that end in each of the at least two time periods are located in different TTIs; sending, by the base station to user equipment in the first TTI, control information carried on the first control channel, wherein the control information is configured to schedule a first data channel corresponding to the first control channel; determining, by the base station a second TTI in which a start moment of the first data channel is located based on a correspondence between the first time period occupied by the first control channel in the first TTI and the second TTI in which the start moment of the first data channel corresponding to the first control channel is located; exchanging (350, 360), by the base station, data of the first data channel with the user equipment in the second TTI. determining, by a base station, a first time period in which an end moment of a first control channel is located in a first transmission time interval, TTI, wherein the first TTI comprises at least two time periods and the first time period is one of the at least two time periods, and start moments of data channels corresponding to control channels that end in each of the at least two time periods are located in different TTIs; sending, by the base station to user equipment in the first TTI, control information carried on the first control channel, wherein the control information is configured to schedule a first data channel corresponding to the first control channel; determining, by the base station a second TTI in which a start moment of the first data channel is located based on a correspondence between the first time period occupied by the first control channel in the first TTI and the second TTI in which the start moment of the first data channel corresponding to the first control channel is located; exchanging (350, 360), by the base station, data of the first data channel with the user equipment in the second TTI.
An electrical connector (11; 111; 211; 311; 411) comprising: a base member (14; 114; 214; 314; 414); first (23; 123; 223; 323; 423) and second (38; 138; 238; 338; 438) legs extending outwardly from said base member (14; 114; 214; 314; 414); first recesses (26, 41; 126, 141; 226, 241; 326, 341; 426, 441) defined by said first (23; 123; 223; 323; 423) and second (38; 138; 238; 338; 438) legs for receiving a support (13; 113; 213; 313; 413), said first (26, 41; 126, 141; 226, 241; 326, 341; 426, 441) recesses extending inwardly from first sides (24, 39; 124, 139; 224, 239; 324, 339; 424, 439) of said first (23; 123; 223; 323; 423) and second (38; 138; 238; 338; 438) legs.; second recesses (27, 42; 127, 142; 227, 242; 327, 342; 427, 442) extending inwardly from second (25, 40; 125, 140; 225, 240; 325, 340; 425, 440) sides of said first (23; 123; 223; 323; 423) and second (38; 138; 238; 338; 438) legs; and a plurality of oppositely disposed grooves (32-37; 132-137; 232-237; 332-337; 432-437) formed in said second recesses (27, 42; 127, 142; 227, 242; 327, 342; 427, 442), at least two pairs of said oppositely disposed grooves (32-37; 132-137; 232-237; 332-337; 432-437) having different sizes for receiving various conductor sizes. a base member (14; 114; 214; 314; 414); first (23; 123; 223; 323; 423) and second (38; 138; 238; 338; 438) legs extending outwardly from said base member (14; 114; 214; 314; 414); first recesses (26, 41; 126, 141; 226, 241; 326, 341; 426, 441) defined by said first (23; 123; 223; 323; 423) and second (38; 138; 238; 338; 438) legs for receiving a support (13; 113; 213; 313; 413), said first (26, 41; 126, 141; 226, 241; 326, 341; 426, 441) recesses extending inwardly from first sides (24, 39; 124, 139; 224, 239; 324, 339; 424, 439) of said first (23; 123; 223; 323; 423) and second (38; 138; 238; 338; 438) legs.; second recesses (27, 42; 127, 142; 227, 242; 327, 342; 427, 442) extending inwardly from second (25, 40; 125, 140; 225, 240; 325, 340; 425, 440) sides of said first (23; 123; 223; 323; 423) and second (38; 138; 238; 338; 438) legs; and a plurality of oppositely disposed grooves (32-37; 132-137; 232-237; 332-337; 432-437) formed in said second recesses (27, 42; 127, 142; 227, 242; 327, 342; 427, 442), at least two pairs of said oppositely disposed grooves (32-37; 132-137; 232-237; 332-337; 432-437) having different sizes for receiving various conductor sizes.
Food treatment appliance, having - a thermally insulated food treatment chamber, - at least one first microwave generation facility for treating food in the food treatment chamber by introducing microwaves with an associated microwave frequency of 902 MHz or more into the food treatment chamber, - a second function unit for treating food in the food treatment chamber in the form of a low-frequency generation facility (5, 11) for introducing waves with a frequency of less than 902 MHz into the food treatment chamber, - a refrigeration unit, - at least one detector (12, 13) for detecting a portion of the microwave radiation and/or the low-frequency waves used in the food treatment chamber as well as - an evaluation facility, which is designed to reduce the introduction of lower-frequency waves of less than 902 MHz and increase the introduction of microwaves of 902 MHz or more automatically based on portion. - a thermally insulated food treatment chamber, - at least one first microwave generation facility for treating food in the food treatment chamber by introducing microwaves with an associated microwave frequency of 902 MHz or more into the food treatment chamber, - a second function unit for treating food in the food treatment chamber in the form of a low-frequency generation facility (5, 11) for introducing waves with a frequency of less than 902 MHz into the food treatment chamber, - a refrigeration unit, - at least one detector (12, 13) for detecting a portion of the microwave radiation and/or the low-frequency waves used in the food treatment chamber as well as - an evaluation facility, which is designed to reduce the introduction of lower-frequency waves of less than 902 MHz and increase the introduction of microwaves of 902 MHz or more automatically based on portion.