mhurhangee/patent-ind-claim-en huggingface dataset:
A strain gauge arrangement , in particular for an axle counter , comprising - at least one strain sensor element , in particular an optical fiber with a fiber Bragg grating (6a, FBG), - a carrier , to which the strain sensor element is fastened, and - a structure to be monitored, in particular a railroad track, to which the carrier is fastened, wherein at least a part of the carrier is kept in an elastically deformed state by the structure when the carrier is fastened to the structure , wherein the carrier is embodied with a first carrier piece (T1) and a second carrier piece (T2), which oppose one another in spaced apart fashion, wherein the strain sensor element is fastened to the first carrier piece (T1) with at least one first fixing point , to the second carrier piece (T2) with at least one second fixing point , and to neither the first nor the second carrier piece (T1, T2) with a central section between the fixing points , wherein the part of the carrier which is kept in an elastically deformed state by the structure when the carrier is fastened to the structure comprises a leaf spring element , characterized in that the following are formed on the leaf spring element : - a support element for support on the structure when the carrier is fastened to the structure , wherein, when the carrier is fastened to the structure , the support element pushes the leaf spring element upwardly away from the structure , as a result of which the leaf spring element is elastically deformed, and - a driver element for reaching behind the strain sensor element in the central section , wherein, following a detachment of the carrier from the structure , the leaf spring element springs back into an elastically non-deformed state and the driver element presses against the strain sensor element and impresses an elastic strain on the latter. - at least one strain sensor element , in particular an optical fiber with a fiber Bragg grating (6a, FBG), - a carrier , to which the strain sensor element is fastened, and - a structure to be monitored, in particular a railroad track, to which the carrier is fastened, wherein at least a part of the carrier is kept in an elastically deformed state by the structure when the carrier is fastened to the structure , - a support element for support on the structure when the carrier is fastened to the structure , wherein, when the carrier is fastened to the structure , the support element pushes the leaf spring element upwardly away from the structure , as a result of which the leaf spring element is elastically deformed, and - a driver element for reaching behind the strain sensor element in the central section , wherein, following a detachment of the carrier from the structure , the leaf spring element springs back into an elastically non-deformed state and the driver element presses against the strain sensor element and impresses an elastic strain on the latter.
A porous material comprising a porous structure in which a plurality of pores are formed, and comprising, as a framework of the porous structure, ZrO 2 particles and a dissimilar material being present on the surfaces of the ZrO 2 particles, such that the dissimilar material is present in the grain boundary of the ZrO 2 particles and around a point of contact made by the ZrO 2 particles which come in contact with each other, the dissimilar material including at least one selected from a first group, at least one selected from a second group, or both of the at least one selected from the first group and the at least one selected from the second group, wherein the first group is a group consisting of SiO 2 , TiO 2 , La 2 O 3 , Al 2 O 3 , SrCO 3 , Gd 2 O 3 , Nb 2 O 5 , Y 2 O 3 , and a complex oxide comprising two or more of these oxides, and the second group is a group consisting of SiO 2 , TiO 2 , La 2 O 3 , Al 2 O 3 , SrCO 3 , Gd 2 O 3 , Nb 2 O 5 , Y 2 O 3 , and a complex oxide, which comprises a) at least one selected from the group consisting of the complex oxide comprising two or more of these oxides, and b) ZrO 2 , wherein a content ratio of the dissimilar material is from 0.1 to 30 vol%. a) at least one selected from the group consisting of the complex oxide comprising two or more of these oxides, and b) ZrO 2 , wherein a content ratio of the dissimilar material is from 0.1 to 30 vol%.
Drive unit for a vehicle operated by muscular force, in particular a bicycle or an electrically power assisted cycle, with a housing , an electric motor with a stator and a rotor , a stator carrier , and electronics , wherein the stator carrier , the stator , the rotor , and the electronics are formed as a premountable unit such that the premounted unit can be mounted in the housing , characterized in that the rotor is mounted on the stator carrier only by means of just one rolling bearing .
An entity configuration method to be performed by a gNB-CU-User Plane, gNB-CU-UP, comprising: acquiring specified information for configuring each packet data convergence protocol, PDCP, entity for processing a data radio bearer (S402); and configuring the each PDCP entity according to the specified information (S404); wherein the specified information comprises protocol data unit, PDU, session information and user plane configuration information; wherein the user plane configuration information is information of user plane configuration of a PDU session establishment flow, and the user plane configuration information comprises configuration information of the each PDCP entity to be configured; wherein the configuration information of the each PDCP entity to be configured comprises at least one of: whether header compression is required for a PDCP used by the each PDCP entity to be configured, a discard timer of a PDCP service data unit, SDU, and radio link control, RLC, layer configuration information; and wherein the specified information is acquired through an Xn interface and the Xn interface is an interface between a gNB-CU-Control Plane, gNB-CU-CP, and the gNB-CU-User Plane, gNB-CU-UP. acquiring specified information for configuring each packet data convergence protocol, PDCP, entity for processing a data radio bearer (S402); and configuring the each PDCP entity according to the specified information (S404); wherein the specified information comprises protocol data unit, PDU, session information and user plane configuration information; wherein the user plane configuration information is information of user plane configuration of a PDU session establishment flow, and the user plane configuration information comprises configuration information of the each PDCP entity to be configured; wherein the configuration information of the each PDCP entity to be configured comprises at least one of: whether header compression is required for a PDCP used by the each PDCP entity to be configured, a discard timer of a PDCP service data unit, SDU, and radio link control, RLC, layer configuration information; and wherein the specified information is acquired through an Xn interface and the Xn interface is an interface between a gNB-CU-Control Plane, gNB-CU-CP, and the gNB-CU-User Plane, gNB-CU-UP.
A signal processing method, comprising: obtaining , by a signal forwarding device (A, B), first indication information, wherein the first indication information comprises a measurement parameter; performing , by the signal forwarding device (A, B) based on the measurement parameter, signal quality measurement on a received first uplink signal sent by a target user equipment, UE; sending , by the signal forwarding device (A, B), the signal quality measurement result to a base station; and if obtaining second indication information sent by the base station, further receiving , by the signal forwarding device (A, B), a second uplink signal sent by the target UE, and forwarding the second uplink signal to the base station, wherein the second indication information is sent by the base station to the signal forwarding device (A, B), after the base station determines, based on the signal quality measurement result, to allocate the target UE to the signal forwarding device (A, B) as subordinate UE; wherein the second indication information is comprised in a second downlink channel between the base station and the target UE, and the obtaining the first indication information or the second indication information by the signal forwarding device (A, B) comprises: monitoring the second downlink channel based on third indication information sent by the base station, to obtain the second indication information, wherein the third indication information carries identification information used to indicate the second downlink channel. obtaining , by a signal forwarding device (A, B), first indication information, wherein the first indication information comprises a measurement parameter; performing , by the signal forwarding device (A, B) based on the measurement parameter, signal quality measurement on a received first uplink signal sent by a target user equipment, UE; sending , by the signal forwarding device (A, B), the signal quality measurement result to a base station; and if obtaining second indication information sent by the base station, further receiving , by the signal forwarding device (A, B), a second uplink signal sent by the target UE, and forwarding the second uplink signal to the base station, wherein the second indication information is sent by the base station to the signal forwarding device (A, B), after the base station determines, based on the signal quality measurement result, to allocate the target UE to the signal forwarding device (A, B) as subordinate UE; wherein the second indication information is comprised in a second downlink channel between the base station and the target UE, and the obtaining the first indication information or the second indication information by the signal forwarding device (A, B) comprises: monitoring the second downlink channel based on third indication information sent by the base station, to obtain the second indication information, wherein the third indication information carries identification information used to indicate the second downlink channel.
System for extracting a fluid by suction, having: - a cabin monument for a vehicle, - a hose with a first fluid line , and - an adaptor with a connection housing which has a first fluid connection , with a handle and with a trigger unit arranged on or next to the latter, wherein the first fluid connection of the connection housing is configured for coupling to a first fluid counterpart connection , wherein the cabin monument has a controllable fluid main valve and a first control unit for controlling the fluid main valve , wherein a first inlet of the fluid main valve is configured for at least indirect coupling to a fluid suction source, wherein a first end of the hose is connected to the cabin monument in such a way that a corresponding first end of the first fluid line is fluidically connected at least indirectly to a first outlet of the fluid main valve , wherein a second end of the hose is connected to the adaptor in such a way that a corresponding second end of the first fluid line is fluidically connected at least indirectly to the first fluid connection , wherein the first control unit is configured for controlling the fluid main valve at least indirectly on the basis of a trigger signal brought about by the trigger unit . - a cabin monument for a vehicle, - a hose with a first fluid line , and - an adaptor with a connection housing which has a first fluid connection , with a handle and with a trigger unit arranged on or next to the latter, wherein the first fluid connection of the connection housing is configured for coupling to a first fluid counterpart connection , wherein the cabin monument has a controllable fluid main valve and a first control unit for controlling the fluid main valve , wherein a first inlet of the fluid main valve is configured for at least indirect coupling to a fluid suction source, wherein a first end of the hose is connected to the cabin monument in such a way that a corresponding first end of the first fluid line is fluidically connected at least indirectly to a first outlet of the fluid main valve , wherein a second end of the hose is connected to the adaptor in such a way that a corresponding second end of the first fluid line is fluidically connected at least indirectly to the first fluid connection , wherein the first control unit is configured for controlling the fluid main valve at least indirectly on the basis of a trigger signal brought about by the trigger unit .
A broom for surfaces comprising a frame provided with a mounting portion for mounting the broom to a self-powered vehicle and a plurality of bristles attached to the frame so as to protrude from the frame on the side opposite to said mounting portion, wherein the broom comprises: - at least one attaching bar rigidly attached to the frame on the side opposite to said mounting portion and provided with a plurality of pairs of through holes , and - a plurality of bundles of elongated elements , each elongated element having a substantially U-shaped major development line and comprising, along said major development line , a first and a second bending and being composed of a first stretch between said first bending and a first longitudinal end of the elongated element, a second stretch between said second bending and a second longitudinal end of the elongated element, and an intermediate stretch between said first and second bending, wherein each bundle of elongated elements is inserted in a respective pair of holes in such a way that, for each elongated element, said intermediate stretch is interposed between said attaching bar and said frame , and said first and second stretch pass through a respective hole of said pair of holes, and protrude from said attaching bar on the side opposite to said intermediate stretch, and so that said bristles are formed by said first and second stretches of the elongated elements, characterized in that a bundle of said intermediate stretches is in contact to said attaching bar and to said frame and is pressure-clamped between said frame and said attaching bar . - at least one attaching bar rigidly attached to the frame on the side opposite to said mounting portion and provided with a plurality of pairs of through holes , and - a plurality of bundles of elongated elements , each elongated element having a substantially U-shaped major development line and comprising, along said major development line , a first and a second bending and being composed of a first stretch between said first bending and a first longitudinal end of the elongated element, a second stretch between said second bending and a second longitudinal end of the elongated element, and an intermediate stretch between said first and second bending,
Field device used in automation engineering with at least two connection terminals to which a two-wire line or a four-wire line can be connected in such a way that a loop current can be fed to the field device via the connection terminals , wherein a safety unit is provided in the field device , said safety unit serving to ensure the electromagnetic compatibility and/or the explosion safety of the field device , wherein the safety unit is connected to each connection terminal via a line provided, in each case, in the field device, characterized in that at least one current transformer is provided in the field device , said current transformer being arranged around one of the lines , wherein the current transformer reads back the loop current at least in the one line between the safety unit or parts of the safety unit and the connection terminals , in a galvanically isolated manner, and wherein the current transformer sends back a value, which depends on the loop current , in the form of a read-out signal to a computing unit provided in the field device .
A processor comprising: a first core to execute instructions; and a power controller to control power consumption of the processor, the power controller including a hardware performance state controller to control a performance state of the first core autonomously to an operating system, wherein the hardware performance state controller is to calculate a target operating frequency for the performance state of the first core based at least in part on an energy performance preference hint received from the operating system, an average operating frequency of the first core and an average utilization value of the first core. a first core to execute instructions; and a power controller to control power consumption of the processor, the power controller including a hardware performance state controller to control a performance state of the first core autonomously to an operating system, wherein the hardware performance state controller is to calculate a target operating frequency for the performance state of the first core based at least in part on an energy performance preference hint received from the operating system, an average operating frequency of the first core and an average utilization value of the first core.
Headlamp for a two-wheeled vehicle, in particular a bicycle, comprising at least one housing and at least one light source arranged in the housing, wherein at least part of the housing consists of a material which is transparent to light, in particular visible light, and at least part of the housing is provided with a coating which is opaque to light, in particular visible light, wherein the opaque coating is removed from the housing in order to display a sign, such that the sign, in particular a logo , preferably a lettering, is illuminated by the at least one light source through the transparent material, characterized in that the coating comprises an opaque lacquering, in particular a lacquering which is opaque to visible light, in particular a black lacquering and a primer lacquering , and the coating, in particular the opaque lacquering , preferably and/or also the primer lacquering can be removed by a laser, wherein the transparent material of the housing is PMMA and a laser engraving is introduced into the transparent material of the housing.
Cutting machine for cutting foodstuff bars , having a knife which severs foodstuff slices from at least one foodstuff bar , said foodstuff slices being disposed so as to at least partially overlap so as to form a portion of a plurality of foodstuff slices , wherein a leaf from separating material is provided between at least two foodstuff slices , wherein the cutting machine has an unrolling device , said unrolling device providing the separating material for the disposal of the leaf between the two foodstuff slices and in particular injecting said material into the cutting region, wherein the unrolling device has a tape roll for providing separating material , and a delay unit , wherein the delay unit along the transporting movement of the separating material is disposed downstream of the tape roll , wherein the delay unit is configured for delaying a transporting movement of separating material which is unrolled from the unrolling device and is provided in a cutting region of a cutting machine , wherein the delay unit has a pressure-generating means for exerting pressure on the separating material , characterized in that the pressure-generating means comprises a suctioning means for suctioning the separating material by means of negative pressure.
A method of recovering pulp fibers from a used hygiene product which includes pulp fibers and a polymer absorbent material, comprising: a step of introducing the used hygiene product into a treatment tank with an ozone dissolved aqueous solution; and a step of treating the used hygiene product, decomposing the polymer absorbent material, lowering a molecular weight of the polymer absorbent material and making the polymer absorbent material dissolvable, while injecting water into the treatment tank by a first flow rate, discharging the aqueous solution from the treatment tank by a second flow rate, and introducing an ozone containing gas into the aqueous solution inside the treatment tank; wherein the first flow rate R 1 (unit: L / minute) and a volume V (unit: L) of the aqueous solution inside the treatment tank satisfy formula : 0.05 ≤ R 1 / V ≤ 0.2 and wherein a flow rate R O (unit: L / minute) of the ozone containing gas and a volume V (unit: L) of the aqueous solution inside the treatment tank satisfy formula : 0.5 ≤ R O / V ≤ 1.25 a step of introducing the used hygiene product into a treatment tank with an ozone dissolved aqueous solution; and a step of treating the used hygiene product, decomposing the polymer absorbent material, lowering a molecular weight of the polymer absorbent material and making the polymer absorbent material dissolvable, while injecting water into the treatment tank by a first flow rate, discharging the aqueous solution from the treatment tank by a second flow rate, and introducing an ozone containing gas into the aqueous solution inside the treatment tank; wherein the first flow rate R 1 (unit: L / minute) and a volume V (unit: L) of the aqueous solution inside the treatment tank satisfy formula : 0.05 ≤ R 1 / V ≤ 0.2 and wherein a flow rate R O (unit: L / minute) of the ozone containing gas and a volume V (unit: L) of the aqueous solution inside the treatment tank satisfy formula : 0.5 ≤ R O / V ≤ 1.25
Sensor support assembly comprising a frame member adapted to be fixed on a vehicle structure and a sensor support member adapted to be inserted in a hollow defined in the frame member , said hollow defining a longitudinal axis (X) along which the support member can switch from a normal position (P1) to a collapse position (P2) when an axial force (F1) applied on the support member exceeds a predetermined threshold (F0), characterized by the support member being substantially outside the hollow in the normal position (P1) and substantially inside the hollow in the collapse position (P2), the support member being guided during said displacement between side faces of the hollow and side faces of the support member.
Regenerated cellulosic molded body , in particular manufactured according to a lyocell method or a viscose method, which comprises elastane, wherein the elastane is incorporated in the molded body , wherein the elastane originates at least partially from residues of the manufacture of clothing and/or used clothes, wherein the regenerated cellulosic molded body comprises at least one further foreign substance, which originates from residues of the manufacture of clothing and/or used clothes. wherein the elastane is incorporated in the molded body , wherein the elastane originates at least partially from residues of the manufacture of clothing and/or used clothes, wherein the regenerated cellulosic molded body comprises at least one further foreign substance, which originates from residues of the manufacture of clothing and/or used clothes.