mhurhangee/patent-ind-claim-en huggingface dataset:
A trigger suitable for being part of a trigger mechanism of small arms with projectiles, whereby the firearm has a handle that is able to be located so close to the trigger that a shooter holds the handle in their hand, and with a finger of the same hand is able to reach the trigger , which is triggered by pressing of their finger, whereby the trigger is able to be lever mounted or linearly mounted to the trigger mechanism , wherein the trigger consists of a fixed part of the trigger and a pivotal part of the trigger , whereby the fixed part of the trigger is able to be either lever mounted or linearly mounted to the remaining trigger mechanism , whereby the pivotal part of the trigger is pivotally mounted to the fixed part of the trigger and an axis of the pivotally mounting, around which the pivotal part is swinging, lies in a plane (P), which is defined by a longitudinal axis (A) of a trajectory of a projectile in the firearm and a longitudinal axis of the handle , whereby the axis of the pivotally mounting with respect to the longitudinal axis (A) is at an angle in one or another direction, which is less than 80 degrees, preferably the axis of the pivotally mounting is parallel to the longitudinal axis (A) of the trajectory of the projectile in the firearm, whereby the pivotal part of the trigger in its neutral position, when no force of the shooter's finger is applied to it, essentially extends in the plane (P), and the pivotal part of the trigger , when the force of the shooter's finger is applied to it, swings from its neutral position around the axis of the pivotally mounting outside the plane (P) by an angle of divergence (α), and wherein the pivotally mounting of the pivotal part to the fixed part of the trigger is configured with a screw with a nut and a bearing , whereby a longitudinal axis of the screw is simultaneously also the axis of the pivotally mounting and a hole is made through the fixed part and the pivotal part of the trigger , through which the screw with the nut is placed, that is integrated in the fixed part or the pivotal part of the trigger , and the bearing is placed between the fixed and the pivotal part of the trigger , which reduces friction between both parts, so that the pivotal part is able to move freely during its swinging motion and wherein said trigger further comprises a spring system that holds the pivotal part in its neutral position, when no force of the shooter's finger is applied, irrespective of the position of the firearm, and returns the pivotal part of the trigger to the neutral position, when the pressure of the finger on the pivotal part subsides, wherein an additional rotating plate is integrated in the pivotal part of the trigger , said additional rotating plate including a chamber , to which a rotating plug is inserted, and the rotating of which is enabled with bearings .
A method for producing low molecular weight polytetrafluoroethylene, comprising: irradiating high molecular weight polytetrafluoroethylene having a standard specific gravity, determined in conformity with ASTM D 4895, of 2.130 to 2.230, with ionizing radiation at an exposure dose of 30 to 2500 kGy to provide low molecular weight polytetrafluoroethylene having a melt viscosity of 1.0 × 10 2 to 7.0 × 10 5 Pa·s at 380°C, wherein the melt viscosity is a value determined by heating a 2g sample at 380°C for five minutes in advance and then keeping this sample at this temperature under a load of 0.7 MPa using a flow tester (Shimadzu Corp) and a 2φ-8L die in conformity with ASTM D1238; and irradiating the low molecular weight polytetrafluoroethylene with ionizing radiation at an exposure dose of 0.1 to 25 kGy such as to not decompose the low molecular weight polytetrafluoroethylene, wherein the irradiation temperature in step is 320°C or lower. irradiating high molecular weight polytetrafluoroethylene having a standard specific gravity, determined in conformity with ASTM D 4895, of 2.130 to 2.230, with ionizing radiation at an exposure dose of 30 to 2500 kGy to provide low molecular weight polytetrafluoroethylene having a melt viscosity of 1.0 × 10 2 to 7.0 × 10 5 Pa·s at 380°C, wherein the melt viscosity is a value determined by heating a 2g sample at 380°C for five minutes in advance and then keeping this sample at this temperature under a load of 0.7 MPa using a flow tester (Shimadzu Corp) and a 2φ-8L die in conformity with ASTM D1238; and irradiating the low molecular weight polytetrafluoroethylene with ionizing radiation at an exposure dose of 0.1 to 25 kGy such as to not decompose the low molecular weight polytetrafluoroethylene, wherein the irradiation temperature in step is 320°C or lower.
Fixed bearing for a steering gear, having a ball bearing which comprises an inner bearing shell , which is provided for receiving a pinion shaft of the steering gear, and an outer bearing shell , which is received in a bearing sleeve , wherein the inner bearing shell and the outer bearing shell each have at least one guide groove for receiving and guiding balls of the ball bearing , and having a pivot ring which has an outer ring and an inner ring which are connected pivotably by means of one or more torsion webs , wherein the inner ring is connected to the bearing sleeve , and the outer ring is provided for the mounting of the fixed bearing in a housing of the steering gear, characterized in that the inner bearing shell and/or the outer bearing shell comprises at least two shell parts , each of which forms a separate guide groove or a portion of a guide groove .
A core network selection method carried out by user equipment, UE, for network slicing, the method comprising: obtaining first dedicated core network DCN information from an access network device, wherein the first DCN information comprises information about at least one DCN that can be accessed by the access network device; selecting a to-be-accessed DCN from the at least one DCN according to the first DCN information; and sending information about the to-be-accessed DCN to the access network device, so that the access network device determines a core network device according to the information about the to-be-accessed DCN; characterized in that the first DCN information comprises a type of the at least one DCN; the selecting a to-be-accessed DCN from the at least one DCN according to the first DCN information comprises: selecting, from the at least one DCN, a DCN whose type matches a service type of the UE, as the to-be-accessed DCN; and the sending information about the to-be-accessed DCN to the access network device, so that the access network device determines a core network device according to the information about the to-be-accessed DCN comprises: sending the type of the to-be-accessed DCN to the access network device, so that the access network device determines the core network device according to the type of the to-be-accessed DCN. obtaining first dedicated core network DCN information from an access network device, wherein the first DCN information comprises information about at least one DCN that can be accessed by the access network device; selecting a to-be-accessed DCN from the at least one DCN according to the first DCN information; and sending information about the to-be-accessed DCN to the access network device, so that the access network device determines a core network device according to the information about the to-be-accessed DCN; characterized in that the first DCN information comprises a type of the at least one DCN; the selecting a to-be-accessed DCN from the at least one DCN according to the first DCN information comprises: selecting, from the at least one DCN, a DCN whose type matches a service type of the UE, as the to-be-accessed DCN; and the sending information about the to-be-accessed DCN to the access network device, so that the access network device determines a core network device according to the information about the to-be-accessed DCN comprises: sending the type of the to-be-accessed DCN to the access network device, so that the access network device determines the core network device according to the type of the to-be-accessed DCN. selecting, from the at least one DCN, a DCN whose type matches a service type of the UE, as the to-be-accessed DCN; and the sending information about the to-be-accessed DCN to the access network device, so that the access network device determines a core network device according to the information about the to-be-accessed DCN comprises: sending the type of the to-be-accessed DCN to the access network device, so that the access network device determines the core network device according to the type of the to-be-accessed DCN.
Method for producing extruded honeycomb catalysts for nitrogen oxide reduction according to the selective catalytic reduction (SCR) method in exhaust gases from motor vehicles, the method comprising: (a) extruding an active carrier in honeycomb form with a plurality of channels through which the exhaust gas flows during operation, the active carrier comprising 10 to 50 vol.% of a first SCR catalytically active component and the rest being formed of catalytically inactive components, such as binders and fillers, and a clay, aluminium oxide or kaolin component which is neutral with respect to the extrusion process , and (b) applying a washcoat coating comprising a second SCR catalytically active component to the extruded body, wherein identical active carriers are provided and coated with different washcoats, wherein the first SCR catalytically active component and the second SCR catalytically active component are each independently selected from the group consisting of: (i) vanadium catalyst with vanadium as catalytically active component; (ii) mixed-oxide catalyst with one or more oxides, in particular those of transition metals or lanthanides as catalytically active component; and (iii) an Fe- or a Cu-zeolite catalyst. (a) extruding an active carrier in honeycomb form with a plurality of channels through which the exhaust gas flows during operation, the active carrier comprising 10 to 50 vol.% of a first SCR catalytically active component and the rest being formed of catalytically inactive components, such as binders and fillers, and a clay, aluminium oxide or kaolin component which is neutral with respect to the extrusion process , and (b) applying a washcoat coating comprising a second SCR catalytically active component to the extruded body, (i) vanadium catalyst with vanadium as catalytically active component; (ii) mixed-oxide catalyst with one or more oxides, in particular those of transition metals or lanthanides as catalytically active component; and (iii) an Fe- or a Cu-zeolite catalyst.
A welding torch comprising a non-consumable electrode and a gas lens of a lattice structure that straightens a shielding gas, wherein the gas lens has a three-dimensional mesh lattice structure, in which a plurality of first and second beams are joined in a three-dimensional manner, the gas lens having a thickness in the axial direction of the non-consumable electrode , the axial direction being considered as a vertical direction, and the gas lens has a structure in which mesh sheets , each formed by joining a plurality of said first beams in a planar manner, are stacked in the thickness direction with different phases, characterized in that lattice points of the stacked mesh sheets are joined by a said second beam that is oblique to the vertical direction. wherein the gas lens has a three-dimensional mesh lattice structure, in which a plurality of first and second beams are joined in a three-dimensional manner, the gas lens having a thickness in the axial direction of the non-consumable electrode , the axial direction being considered as a vertical direction, and the gas lens has a structure in which mesh sheets , each formed by joining a plurality of said first beams in a planar manner, are stacked in the thickness direction with different phases, characterized in that lattice points of the stacked mesh sheets are joined by a said second beam that is oblique to the vertical direction.
Hydroxyapatite based-compound comprising Ca 9 FeH(PO 4 ) 7 and α-Fe 2 O 3 in hematite form, for use in a method for protecting the skin against UV radiation.
A wiper device for a small and curved surface, in particular a spherical surface , of an optical element at least partly arranged within a housing , preferably provided by or attached to a motor vehicle, comprising : at least one elongate wiper element with two ends; two drive units to which the ends of the wiper element are attached such that the wiper element can be moved on the surface of the optical element by means of the two drive units ; and at least one contacting means for bringing the wiping element into contact with the surface of the optical element , characterized in that the contacting means shapes the wiper element around at least that part of the surface which is exposed to the environment due to an opening provided by the housing and is to be cleaned. at least one elongate wiper element with two ends; two drive units to which the ends of the wiper element are attached such that the wiper element can be moved on the surface of the optical element by means of the two drive units ; and at least one contacting means for bringing the wiping element into contact with the surface of the optical element , characterized in that the contacting means shapes the wiper element around at least that part of the surface which is exposed to the environment due to an opening provided by the housing and is to be cleaned.
A differential tissue-engineered nerve, wherein it comprises motor-like nerves and sensory-like nerves, wherein the motor-like nerve comprises a motor-like nerve outer tube and a motor-like nerve fiber in the outer tube, wherein Schwann cells and/or fibroblasts derived from motor nerves are contained in surface or pores of the motor-like nerve outer tube and a transsynaptic signal molecule Neuroligin-1 is contained in surface or pores of the motor-like nerve fiber; and wherein the sensory-like nerve comprises a sensory-like nerve outer tube and a sensory-like nerve fiber in the outer tube, wherein Schwann cells and/or fibroblasts derived from sensory nerves are contained in surface or pores of the sensory-like nerve outer tube and a transsynaptic signal molecule Neuroligin-2 is contained in surface or pores of the sensory-like nerve fiber. the motor-like nerve comprises a motor-like nerve outer tube and a motor-like nerve fiber in the outer tube, wherein Schwann cells and/or fibroblasts derived from motor nerves are contained in surface or pores of the motor-like nerve outer tube and a transsynaptic signal molecule Neuroligin-1 is contained in surface or pores of the motor-like nerve fiber; and wherein the sensory-like nerve comprises a sensory-like nerve outer tube and a sensory-like nerve fiber in the outer tube, wherein Schwann cells and/or fibroblasts derived from sensory nerves are contained in surface or pores of the sensory-like nerve outer tube and a transsynaptic signal molecule Neuroligin-2 is contained in surface or pores of the sensory-like nerve fiber.
The use of phenolic compounds of the general formula V in which the substituent R 1 is a hydrocarbyl radical which has from 1 to 3000 carbon atoms and may be interrupted by one or more heteroatoms from the group of O and S and/or may be interrupted by one or more NR 6 moieties, where R 6 is a hydrogen atom or a C 1 - to C 4 -alkyl radical, in which the substituents R 2 , R 3 , R 4 , R 5 , R 8 , R 9 and R 10 are each independently hydrogen atoms or hydrocarbyl radicals which have in each case from 1 to 3000 carbon atoms and may be interrupted by one or more heteroatoms from the group of O and S and/or by one or more NR 6 moieties, where R 6 is as defined above, where the substituent R 9 may also be a radical of the formula Z' in which the substituents R 7 , R 8 and R 10 are each independently hydrogen atoms, hydroxyl groups or hydrocarbyl radicals which have in each case from 1 to 3000 carbon atoms and may be interrupted by one or more heteroatoms from the group of O and S and/or by one or more NR 6 moieties, where R 6 is as defined above, the substituent R 7 may also be a radical derived from a tetrahydrobenzoxazine of the general formula I the substituent R 15 is hydrogen or a radical derived from a tetrahydrobenzoxazine of the general formula I, and the substituents R 11 and R 12 may be the same or different and are each hydrogen or a C 1 - to C 10 -alkyl radical, and with the proviso that at least one of the substituents R 1 , R 2 , R 3 , R 4 , R 5 , R 8 , R 9 and R 10 has from 13 to 3000 carbon atoms, and the remaining substituents from the group of R 1 , R 2 , R 3 , R 4 , R 5 , R 8 , R 9 and R 10 , when they are hydrocarbyl radicals, each have from 1 to 20 carbon atoms, as antioxidants for stabilizing inanimate organic material against the action of light, oxygen and heat.
A method for migration of containers in a container orchestration platform between compute nodes of a seamless computing platform comprising the following steps: - continuously monitoring, by a central master node or distributed among the compute nodes the state of the compute nodes of the seamless computing platform and/or of performance metrics of the running applications; on determining a trigger, identifying a container to be moved from a current compute node to a target compute node of a number of compute nodes; - restarting the container on the target compute node; characterized in the steps - generating a container information of the container to be moved, saving the container information in a storage that can be accessed by all compute nodes of the seamless computing platform, and generating a reference information about a storage location of the container information, where the container information at least comprises a container context, comprising at least deployment instructions, and the current state of the container to be moved; - transferring the reference information from the compute node from which the container has to be moved to the central master node; - processing the container information to retrieve the container to be moved and its current state; - restarting the container on the target compute node with its current state when generating the container information, wherein the step of restarting the container on the target compute node is carried out by the target compute node upon receiving a start command, comprising the container information and/or the reference information, from the master node. - continuously monitoring, by a central master node or distributed among the compute nodes the state of the compute nodes of the seamless computing platform and/or of performance metrics of the running applications; on determining a trigger, identifying a container to be moved from a current compute node to a target compute node of a number of compute nodes; - restarting the container on the target compute node; - generating a container information of the container to be moved, saving the container information in a storage that can be accessed by all compute nodes of the seamless computing platform, and generating a reference information about a storage location of the container information, where the container information at least comprises a container context, comprising at least deployment instructions, and the current state of the container to be moved; - transferring the reference information from the compute node from which the container has to be moved to the central master node; - processing the container information to retrieve the container to be moved and its current state; - restarting the container on the target compute node with its current state when generating the container information, wherein the step of restarting the container on the target compute node is carried out by the target compute node upon receiving a start command, comprising the container information and/or the reference information, from the master node.
A method comprising: configuring an apparatus with a set of operating instructions and at least one sensor for monitoring an environment of the apparatus; monitoring , using the at least one sensor, the environment of the apparatus using at least two monitoring modes comprising a transportation mode of the apparatus and a deployed mode of the apparatus, wherein the transportation mode has a smaller power consumption than the deployed mode; and determining , on the basis of characteristics of the environment obtained from the at least one sensor and using the at least two monitoring modes, compliance of the environment with the set of operating instructions of the apparatus, wherein the monitoring comprises measuring corrosion for determining a corrosive effect of the environment on electrical devices of the apparatus. configuring an apparatus with a set of operating instructions and at least one sensor for monitoring an environment of the apparatus; monitoring , using the at least one sensor, the environment of the apparatus using at least two monitoring modes comprising a transportation mode of the apparatus and a deployed mode of the apparatus, wherein the transportation mode has a smaller power consumption than the deployed mode; and determining , on the basis of characteristics of the environment obtained from the at least one sensor and using the at least two monitoring modes, compliance of the environment with the set of operating instructions of the apparatus, wherein the monitoring comprises measuring corrosion for determining a corrosive effect of the environment on electrical devices of the apparatus.
A device for self-assembling semiconductor light-emitting diodes , comprising: a fluid chamber with a space for containing a plurality of semiconductor light-emitting diodes having a magnetic material; a feed unit for feeding a substrate to an assembly site; a plurality of magnets that are placed at a distance from the fluid chamber and configured to apply a magnetic force to the semiconductor light-emitting diodes ; and a position controller connected to the magnet and configured to control the positions of the magnets , wherein the substrate is inside the device and is configured to form an electric field so that the semiconductor light-emitting diodes are mounted at preset positions on the substrate while in the process of being moved by changes in the positions of the magnets , wherein the substrate is placed in the fluid chamber so that an assembly surface where the semiconductor light-emitting diodes are assembled faces downwards, wherein the assembly surface of the substrate is dipped in a fluid in the fluid chamber , and wherein the magnets are placed to face the side of the substrate opposite to the assembly surface of the substrate . a fluid chamber with a space for containing a plurality of semiconductor light-emitting diodes having a magnetic material; a feed unit for feeding a substrate to an assembly site; a plurality of magnets that are placed at a distance from the fluid chamber and configured to apply a magnetic force to the semiconductor light-emitting diodes ; and a position controller connected to the magnet and configured to control the positions of the magnets , wherein the substrate is inside the device and is configured to form an electric field so that the semiconductor light-emitting diodes are mounted at preset positions on the substrate while in the process of being moved by changes in the positions of the magnets , wherein the substrate is placed in the fluid chamber so that an assembly surface where the semiconductor light-emitting diodes are assembled faces downwards, wherein the assembly surface of the substrate is dipped in a fluid in the fluid chamber , and wherein the magnets are placed to face the side of the substrate opposite to the assembly surface of the substrate .