mhurhangee/ep-ind-claims huggingface dataset:
A wireless network coordinator comprising: a media access control unit which generates a beacon frame configuring a super frame comprising a plurality of channel time blocks (521, 531); a bandwidth management unit which sets a specific channel time block among the channel time blocks (521, 531) as a reserved period where a bandwidth allocation packet is transmitted or received; and a physical unit which transmits the beacon frame, which comprises reservation information on the setting by the bandwidth management unit, through a designated communication channel. the channel time blocks (521, 531) comprising: at least one reserved channel time block, each reserved channel time block initially corresponding to a time period to be allocated bandwidth to a specific station in the network; and an unreserved channel time block corresponding to a time period to be allocated bandwidth to a selected station through contention among the stations in the network, wherein the specific channel time block is a reserved channel time block, and the reserved period corresponds to a time period to be allocated bandwidth to a selected station through contention among the stations in the network. a media access control unit which generates a beacon frame configuring a super frame comprising a plurality of channel time blocks (521, 531); a bandwidth management unit which sets a specific channel time block among the channel time blocks (521, 531) as a reserved period where a bandwidth allocation packet is transmitted or received; and a physical unit which transmits the beacon frame, which comprises reservation information on the setting by the bandwidth management unit, through a designated communication channel. the channel time blocks (521, 531) comprising: at least one reserved channel time block, each reserved channel time block initially corresponding to a time period to be allocated bandwidth to a specific station in the network; and an unreserved channel time block corresponding to a time period to be allocated bandwidth to a selected station through contention among the stations in the network, wherein the specific channel time block is a reserved channel time block, and the reserved period corresponds to a time period to be allocated bandwidth to a selected station through contention among the stations in the network. at least one reserved channel time block, each reserved channel time block initially corresponding to a time period to be allocated bandwidth to a specific station in the network; and an unreserved channel time block corresponding to a time period to be allocated bandwidth to a selected station through contention among the stations in the network, wherein the specific channel time block is a reserved channel time block, and the reserved period corresponds to a time period to be allocated bandwidth to a selected station through contention among the stations in the network.
A manufacturing method for producing a layer of geometrically densely packed particles in an additive manufacturing method, comprising: a) providing a particle layer deposition arrangement comprising a first and a second half space, the first half space comprising a particle reservoir, and a partition separating the first half space from the second half space, and the partition being permeable for a dispersion medium and impermeable for particles dispersed in the dispersion medium; b) providing a particle dispersion comprising the dispersion medium and particles dispersed therein in the first half space, the particle dispersion being distributed substantially homogeneously in the first half space, the provision of the particle dispersion taking place directly in the first half space by introducing a directed flow of the dispersant into the particle reservoir; c) generating a pressure gradient between the first and second half spaces so that the pressure gradient in the first half space brings about a flow of the particle dispersion which is directed toward the partition; d) depositing a particle heap comprising geometrically densely packed particles on the partition by transporting dispersant into the second half space; and e) smoothing the particle heap by means of scraping and/or grinding so that particles of the particle heap are removed until the layer of geometrically densely packed particles on the partition has a uniform layer thickness. a) providing a particle layer deposition arrangement comprising a first and a second half space, the first half space comprising a particle reservoir, and a partition separating the first half space from the second half space, and the partition being permeable for a dispersion medium and impermeable for particles dispersed in the dispersion medium; b) providing a particle dispersion comprising the dispersion medium and particles dispersed therein in the first half space, the particle dispersion being distributed substantially homogeneously in the first half space, the provision of the particle dispersion taking place directly in the first half space by introducing a directed flow of the dispersant into the particle reservoir; c) generating a pressure gradient between the first and second half spaces so that the pressure gradient in the first half space brings about a flow of the particle dispersion which is directed toward the partition; d) depositing a particle heap comprising geometrically densely packed particles on the partition by transporting dispersant into the second half space; and e) smoothing the particle heap by means of scraping and/or grinding so that particles of the particle heap are removed until the layer of geometrically densely packed particles on the partition has a uniform layer thickness.
A sample tube rack (1; 1') for receiving at least one sample tube, the sample tube rack comprising: - an upper part comprising an upper surface, wherein at least one upper opening for receiving the sample tube is provided in the upper surface; - an intermediate part comprising an intermediate surface, wherein at least one intermediate opening for receiving the sample tube is provided in the intermediate surface; and - a lower part provided as a separable component, the lower part comprising a supporting surface, wherein at least one supporting position for supporting the sample tube is provided in the supporting surface; wherein the intermediate part is connected to both the upper part and the lower part such that the at least one upper opening is substantially aligned above the at least one intermediate opening and above the at least one supporting position for receiving the at least one sample tube, and wherein at least one gripping orifice is provided in a lateral side of the lower part, wherein the one gripping orifice is adapted to receive at least one finger of an adult user, and wherein the lateral side of the lower part comprises a full circumference of the at least one gripping orifice, characterized in that the gripping orifice is configured to enable lateral access into a carrying-space, wherein the carrying-space is arranged below the supporting surface and wherein the carrying-space is separated from the sample tubes by the supporting surface. - an upper part comprising an upper surface, wherein at least one upper opening for receiving the sample tube is provided in the upper surface; - an intermediate part comprising an intermediate surface, wherein at least one intermediate opening for receiving the sample tube is provided in the intermediate surface; and - a lower part provided as a separable component, the lower part comprising a supporting surface, wherein at least one supporting position for supporting the sample tube is provided in the supporting surface; wherein at least one gripping orifice is provided in a lateral side of the lower part, wherein the one gripping orifice is adapted to receive at least one finger of an adult user, and wherein the lateral side of the lower part comprises a full circumference of the at least one gripping orifice, characterized in that the gripping orifice is configured to enable lateral access into a carrying-space, wherein the carrying-space is arranged below the supporting surface and wherein the carrying-space is separated from the sample tubes by the supporting surface.
A data expansion reflector comprising: a wireless transceiver configured to transmit data to and receive data from at least one mobile terminal in a moving object; a processing circuitry configured to: couple to a backhaul network through a wire line communication link and to the at least one mobile terminal through a wireless communication link, communicate information between the at least one mobile terminal and the backhaul network, and determine at least one of a proximal distance to the moving object, a speed of movement of the moving object, and a direction of movement of the moving object; a power source configured to provide electrical energy to at least one of the processing circuitry and the wireless transceiver; and a housing comprising a road pavement marker including a raised reflective surface, the housing configured to contain the processing circuitry, the wireless transceiver, and the power source, and at least one of: a RADAR transceiver configured to transmit radio signals toward the moving object and receive return reflected signals from the object; and a camera configured to capture an image of the moving object. a wireless transceiver configured to transmit data to and receive data from at least one mobile terminal in a moving object; a processing circuitry configured to: couple to a backhaul network through a wire line communication link and to the at least one mobile terminal through a wireless communication link, communicate information between the at least one mobile terminal and the backhaul network, and determine at least one of a proximal distance to the moving object, a speed of movement of the moving object, and a direction of movement of the moving object; couple to a backhaul network through a wire line communication link and to the at least one mobile terminal through a wireless communication link, communicate information between the at least one mobile terminal and the backhaul network, and determine at least one of a proximal distance to the moving object, a speed of movement of the moving object, and a direction of movement of the moving object; a power source configured to provide electrical energy to at least one of the processing circuitry and the wireless transceiver; and a housing comprising a road pavement marker including a raised reflective surface, the housing configured to contain the processing circuitry, the wireless transceiver, and the power source, and at least one of: a RADAR transceiver configured to transmit radio signals toward the moving object and receive return reflected signals from the object; and a camera configured to capture an image of the moving object. a RADAR transceiver configured to transmit radio signals toward the moving object and receive return reflected signals from the object; and a camera configured to capture an image of the moving object.
An induction cooker comprising: a heating coil for induction-heating an object to be heated; a top plate for placing the object thereon, the top plate being placed above the heating coil; a controller for controlling a heat output of the heating coil; a power switch wherein the power switch is configured to disconnect a power to the induction cooker, wherein when the power switch is in an OFF state, the heating of the object is disabled, and when the power switch is turned on, a standby mode is established; a heating mode selection key (8; 28; 38) for allowing a user to select one control mode for heating the object between a manual heating mode in which the heat output is set by the user by using an output adjusting key and at least another control mode in which the heat output is controlled automatically without a need for the user to press any temperature control key; and a heating start key for starting to heat the object to be heated, wherein in the standby mode, the controller controls the heating coil to start heating the object only when the heating start key is operated after the heating mode selection key (8; 28; 38) is operated to select one of the control modes, and when the heating mode selection key (8; 28; 38) is operated in the standby mode, the mode is changed to a cooking menu selection mode, and when a predetermined time has elapsed in the cooking menu selection mode without a change in a selected control mode, the mode is changed to the standby mode, wherein the heating mode selection key (8; 28; 38) is always operated first in order to select a control mode. a heating coil for induction-heating an object to be heated; a top plate for placing the object thereon, the top plate being placed above the heating coil; a controller for controlling a heat output of the heating coil; a power switch wherein the power switch is configured to disconnect a power to the induction cooker, wherein when the power switch is in an OFF state, the heating of the object is disabled, and when the power switch is turned on, a standby mode is established; a heating mode selection key (8; 28; 38) for allowing a user to select one control mode for heating the object between a manual heating mode in which the heat output is set by the user by using an output adjusting key and at least another control mode in which the heat output is controlled automatically without a need for the user to press any temperature control key; and a heating start key for starting to heat the object to be heated, wherein in the standby mode, the controller controls the heating coil to start heating the object only when the heating start key is operated after the heating mode selection key (8; 28; 38) is operated to select one of the control modes, and when the heating mode selection key (8; 28; 38) is operated in the standby mode, the mode is changed to a cooking menu selection mode, and when a predetermined time has elapsed in the cooking menu selection mode without a change in a selected control mode, the mode is changed to the standby mode, wherein the heating mode selection key (8; 28; 38) is always operated first in order to select a control mode.
An azo-crosslinked polymer represented by Structure III wherein each of Π α and Π β is a polymeric radical having a backbone chain comprising fluoroalkylene repeat units optionally substituted by ether oxygen, and azo-crosslinked repeat units at a molar concentration in the range of a molar concentration of 0.5 to 50 mol-%; where x 1 and x 2 each independently is an integer in the range of 0 to 3; y 1 and y 2 each independently is an integer in the range of 0 to 6, and z 1 and z 2 each independently is an integer in the range of 0 to 3; R 1 = (CF 2) a CFR 2, where a is an integer in the range of 0 to 6, and R 2 is F or C 1-6 perfluoroalkyl optionally substituted by ether oxygen; R 1 ' = (CF 2) a' CFR 2 ' where a' is an integer in the range of 0 to 6, and R 2 ' is F or C 1-6 perfluoroalkyl optionally substituted by ether oxygen; and, R 3 and R 3 ' are each independently F or C 1-6 perfluoroalkyl optionally substituted by ether oxygen; with the proviso that y 1 and z 1 cannot both be zero; with the further proviso that y 2 and z 2 cannot both be zero; with the further proviso that no repeat unit in the backbone chain of said Π α and Π β polymeric radicals has more than two vinyl hydrogens attached thereto; and, with the further proviso that Π α and Π β can be the same or different.
A connector terminal that, when being fitted along a fitting axis with a counter connector terminal, said counter connector terminal having a flat plate shape having a top surface and a bottom surface, such that the connector terminal's contact points separately corresponding to the top surface and the bottom surface of the counter connector terminal come into contact with the top surface and the bottom surface of the counter connector terminal, establishes an electric connection with the counter connector terminal, the connector terminal comprising: one or more top side contact points (15A, 15B) each of which makes point contact with the top surface of the counter connector terminal; and exactly three bottom side contact points (14A to 14C) each of which makes point contact with the bottom surface of the counter connector terminal and which are not aligned in a straight line, wherein the one or more top side contact points (15A, 15B) do not overlap the three bottom side contact points (14A to 14C) when viewed in a direction perpendicular to the top surface of the counter connector terminal in a fitted state, characterised in that a position of a center of gravity as determined by arrangement positions of the one or more top side contact points (15A, 15B) coincides with a position of a center of gravity as determined by arrangement positions of the three bottom side contact points (14A to 14C) when viewed in the direction perpendicular to the top surface of the counter connector terminal in the fitted state. one or more top side contact points (15A, 15B) each of which makes point contact with the top surface of the counter connector terminal; and exactly three bottom side contact points (14A to 14C) each of which makes point contact with the bottom surface of the counter connector terminal and which are not aligned in a straight line, wherein the one or more top side contact points (15A, 15B) do not overlap the three bottom side contact points (14A to 14C) when viewed in a direction perpendicular to the top surface of the counter connector terminal in a fitted state, characterised in that a position of a center of gravity as determined by arrangement positions of the one or more top side contact points (15A, 15B) coincides with a position of a center of gravity as determined by arrangement positions of the three bottom side contact points (14A to 14C) when viewed in the direction perpendicular to the top surface of the counter connector terminal in the fitted state.
A method for creating a cargo carrying assembly, the method comprising: providing a mold having a base and a perimeter defining an internal volume; attaching a first coupling and a second coupling to the base; attaching standoffs to the base, wherein the standoffs are attached to the bottom of an insert structure (145, 149); pouring a liquid platform material into the mold; hardening the liquid platform material to form a recess (153, 155) around the standoffs and the insert structure to form a cargo carrying platform; removing the cargo carrying platform from the mold and removing the insert structure from the cargo carrying platform; characterised by attaching a first automatic guided vehicle, AGV, having a first pair of wheels to the first coupling; and attaching a pair of wheels to the second coupling. providing a mold having a base and a perimeter defining an internal volume; attaching a first coupling and a second coupling to the base; attaching standoffs to the base, wherein the standoffs are attached to the bottom of an insert structure (145, 149); pouring a liquid platform material into the mold; hardening the liquid platform material to form a recess (153, 155) around the standoffs and the insert structure to form a cargo carrying platform; removing the cargo carrying platform from the mold and removing the insert structure from the cargo carrying platform; characterised by attaching a first automatic guided vehicle, AGV, having a first pair of wheels to the first coupling; and attaching a pair of wheels to the second coupling.
Extruder comprising an working unit having a cylinder and at least one extruder screw which is arranged in the said cylinder such that it can be removed, a motor and a gear unit which is separated from the motor by means of a clutch and which drives the extruder screw, wherein the extruder screw is releasably connected to the gear unit, and also a control device which controls the operation of the motor or at least of a further device which, in particular, is provided on the working unit or is associated with the working unit, characterized in that at least one information element which identifies the extruder screw and which, during or after insertion of the extruder screw into the cylinder or connection to the gear unit, can be automatically acquired by means of a sensor element, is provided on the extruder screw, wherein the control device controls the operation of the motor or of the further device (6, 26) depending on the acquired information, wherein the information element contains an item of information pertaining to whether it is a compact screw or an extruder screw having screw elements which are pushed onto a screw shaft, and wherein, depending on the acquired information, the control device is designed to control a frequency inverter for setting a torque which is supplied by the motor and/or the motor rotation speed, and also the clutch, which is implemented as a clutch which can be switched over at the cut-out torque, depending on the acquired information in order to track the cut-out torque.
A motor vehicle, preferably a commercial motor vehicle, more preferably a truck, comprising: an environmental sensing device for monitoring an environment of the motor vehicle; characterized by an adjustment device configured to adjust, preferably pivot, a field of view of the environmental sensing device depending on a strength of an air flow against the motor vehicle, preferably during travel of the motor vehicle. an environmental sensing device for monitoring an environment of the motor vehicle; characterized by an adjustment device configured to adjust, preferably pivot, a field of view of the environmental sensing device depending on a strength of an air flow against the motor vehicle, preferably during travel of the motor vehicle.
An electromagnetic interference EMI shielding gasket comprising: a gasket body (1; 5) formed of an electrically conductive polymeric material, the gasket body (1; 5) having at least one surface with a plurality of projections (2; 6) extending from said surface, said projections (2; 6) being spaced apart from each other defining a space there between; and a coating (4; 7) applied to at least a portion of the surface of the gasket body, the coating (4; 7) filling at least a portion of the space, characterized in that the electrically conductive polymeric material of the gasket body (1; 5) is an electrically conductive elastomeric polymeric material, wherein the gasket body (1; 5) is elastomeric, and the coating (4; 7) is an electrically nonconductive gel coating. a gasket body (1; 5) formed of an electrically conductive polymeric material, the gasket body (1; 5) having at least one surface with a plurality of projections (2; 6) extending from said surface, said projections (2; 6) being spaced apart from each other defining a space there between; and a coating (4; 7) applied to at least a portion of the surface of the gasket body, the coating (4; 7) filling at least a portion of the space, characterized in that the electrically conductive polymeric material of the gasket body (1; 5) is an electrically conductive elastomeric polymeric material, wherein the gasket body (1; 5) is elastomeric, and the coating (4; 7) is an electrically nonconductive gel coating.
A composition for demulsifying an emulsion comprising water and oil, the composition comprising: a cationic alkyl ammonium halide surfactant and an amphoteric betaine surfactant; wherein the cationic alkyl ammonium halide surfactant comprises n-octyl trimethyl ammonium bromide. a cationic alkyl ammonium halide surfactant and an amphoteric betaine surfactant; wherein the cationic alkyl ammonium halide surfactant comprises n-octyl trimethyl ammonium bromide.