mhurhangee/patent-ind-claim-en huggingface dataset:
A method for installing a stationary support in a planned position in terms of the angle of inclination and height with the possibility of height adjustment during operation, wherein in order to install said stationary support in the planned position a coil of the pipeline support is sequentially positioned and secured on two supporting axles embodied in the form of beams, which are transversely arranged and movably mounted in frames of the support with the possibility of moving together with the coil of the support, and lifting mechanisms are subsequently placed under each supporting axle to enable raising or lowering the coil together with the supporting axles to a planned height, while ensuring that the angle of inclination of the coil corresponds to the planned value, and then, the achieved planned position is secured by fastening the supporting axles within the support frames at a planned height and a corresponding planned value of the inclination angle of the coil using adjustment plates , followed by welding the coil edge to the pipeline; and in order to adjust the height position of said stationary support during operation the fastening of the supporting axles within the support frames is loosened, then lifting mechanisms are placed under each supporting axle to enable raising or lowering the coil together with the supporting axles to a planned height, while maintaining a calculated value of the angle of inclination of the coil, and then securing the achieved planned position by fastening the supporting axles in the support frames using adjustment plates , characterized in that during the installation of the stationary support in a planned position a removable transportation support is placed between the frames located along one side of the pipeline.
A method of drawing and forming a metal head unit for a polymer case to form a polymer cartridge for use in a rifled barrel, comprising the steps of i) providing a metal cup drawing it through one or more dies to provide a case tube, wherein the case tube has a closed head end with a first outer diameter and an elongate open end, ii) trimming the elongate open end to form a metal coupling protrusion , said metal coupling protrusion with a second outer diameter, wherein the first diameter and second diameter are the same, iii) forming, a primer cavity into the closed head end, iv) forming internal shoulder and at least one further circumferential groove in the closed head end, v) forming by a heading process, an enlarged head rim on the closed head end, such that said enlarged head rim has a third diameter which is larger than the second diameter of the open end, vi) forming a head stamp on the enlarged head rim, and piercing a through fire hole , and forming an ejector groove under the enlarged head; wherein a polymer case is located outside, both inside and outside, or at least in part over the second outer diameter of the metal coupling protrusion, wherein the polymer case's outer diameter and enlarged head rim diameter are substantially the same. i) providing a metal cup drawing it through one or more dies to provide a case tube, wherein the case tube has a closed head end with a first outer diameter and an elongate open end, ii) trimming the elongate open end to form a metal coupling protrusion , said metal coupling protrusion with a second outer diameter, wherein the first diameter and second diameter are the same, iii) forming, a primer cavity into the closed head end, iv) forming internal shoulder and at least one further circumferential groove in the closed head end, v) forming by a heading process, an enlarged head rim on the closed head end, such that said enlarged head rim has a third diameter which is larger than the second diameter of the open end, vi) forming a head stamp on the enlarged head rim, and piercing a through fire hole , and forming an ejector groove under the enlarged head;
A method for controlling a percussion mechanism of a percussion device adapted for rock drilling, the percussion device comprising a controller , the percussion mechanism , percussion means and a drill bit , where the percussion mechanism is adapted to provide the percussion means with a motion and where the controller is arranged to control the percussion mechanism such that it imparts the percussion means with a force causing the motion, whereby the percussion means during drilling impacts the drill bit , or a drill string connected to the drill bit , with an impact force having a specific magnitude; characterized in that the method comprises, continuously during drilling: - determining a desired magnitude of the impact force of the percussion means by determining a desired impact force pattern for a number of consecutive impacts and determining the desired magnitude of the impact force according to the desired impact force pattern for each impact of the percussion means ; and - controlling the percussion mechanism such that the impact force of the percussion means is changed during drilling according to the desired impact force pattern and the desired magnitude of the impact force. - determining a desired magnitude of the impact force of the percussion means by determining a desired impact force pattern for a number of consecutive impacts and determining the desired magnitude of the impact force according to the desired impact force pattern for each impact of the percussion means ; and - controlling the percussion mechanism such that the impact force of the percussion means is changed during drilling according to the desired impact force pattern and the desired magnitude of the impact force.
Working vehicle for use in agriculture, a laterally protruding implement being able to be mounted on the vehicle front and/or vehicle rear thereof, having an electronically controllable drive motor , an electronically controllable brake system , a sensor arrangement for measuring rotational movements and/or rotational oscillations about at least one reference axis of the working vehicle , and having an electronic control device for evaluating sensor data of the sensor arrangement and for activating the drive motor and/or the brake system , wherein the sensor arrangement comprises at least one sensor for measuring rotational movements and/or rotational oscillations about the transverse axis of the working vehicle , at least one sensor for measuring rotational movements and/or rotational oscillations about the longitudinal axis of the working vehicle and at least one sensor for measuring rotational movements and/or rotational oscillations about the vertical axis of the working vehicle , an electronic data store is assigned to the electronic control device , threshold values (ω N_max , ω R_max , ω G_max ) for a rotational movement and/or a rotational oscillation about the transverse axis , about the longitudinal axis and about the vertical axis being stored therein, and the electronic control device is configured such that it is able to determine, from the measured values of rotational movements and/or rotational oscillations detected by sensor, characteristic values (ω N , ω R , ω G ) relevant thereto for the respective rotational movement and/or rotational oscillation about the transverse axis , about the longitudinal axis and about the vertical axis , that as a function of at least one of these characteristic values (ω N , ω R , ω G ) and the assigned threshold value (ω N_max , ω R_max , ω G _ max ) said electronic control device is able to decide whether a reduction in travel speed (V F ) is required and that in the case of a positive decision relative thereto said electronic control device is able to activate the drive motor and/or the brake system such that the travel speed (V F ) is reduced until the characteristic value (ω N , ω R , ω G ) reaches or falls below the relevant threshold value (ω N_max , ω R_max , ω G_max ).
An all-solid-state battery , comprising a stack of a cathode layer , a solid electrolyte layer and an alloy-based anode layer , and a confining structure confining the stack in a parallel direction to a stacking direction, wherein the cathode layer has a cathode plane on a side facing the solid electrolyte layer ; wherein the alloy-based anode layer has an anode plane on a side facing the solid electrolyte layer ; wherein the cathode plane and anode plane of the stack have a long axis direction and a short axis direction; wherein the cathode plane has a plurality of slit channels ; wherein the anode plane has a plurality of slit channels ; and wherein part or all of the slit channels of the cathode plane and part or all of the slit channels of the anode plane face each other. a stack of a cathode layer , a solid electrolyte layer and an alloy-based anode layer , and a confining structure confining the stack in a parallel direction to a stacking direction, wherein the cathode layer has a cathode plane on a side facing the solid electrolyte layer ; wherein the alloy-based anode layer has an anode plane on a side facing the solid electrolyte layer ; wherein the cathode plane and anode plane of the stack have a long axis direction and a short axis direction; wherein the cathode plane has a plurality of slit channels ; wherein the anode plane has a plurality of slit channels ; and wherein part or all of the slit channels of the cathode plane and part or all of the slit channels of the anode plane face each other.
Apparatus for estimation of a vehicle state, the vehicle state being a pitch angle of the vehicle measured about a transverse axis, the apparatus comprising a controller configured to: determine a first estimation of the vehicle state in dependence on at least one first vehicle dynamics parameter, the at least one first vehicle dynamics parameter comprising a reference velocity along a longitudinal axis of the vehicle; characterised in that the controller is configured to: determine a filter coefficient in dependence on a first vehicle operating parameter; set an operating frequency of a first signal filter in dependence on the determined filter coefficient and use the first signal filter to filter the first estimation to generate a first filtered estimation of the vehicle state; and output a control signal in dependence on the first filtered estimation of the vehicle state. determine a first estimation of the vehicle state in dependence on at least one first vehicle dynamics parameter, the at least one first vehicle dynamics parameter comprising a reference velocity along a longitudinal axis of the vehicle; characterised in that the controller is configured to: determine a filter coefficient in dependence on a first vehicle operating parameter; set an operating frequency of a first signal filter in dependence on the determined filter coefficient and use the first signal filter to filter the first estimation to generate a first filtered estimation of the vehicle state; and output a control signal in dependence on the first filtered estimation of the vehicle state. determine a filter coefficient in dependence on a first vehicle operating parameter; set an operating frequency of a first signal filter in dependence on the determined filter coefficient and use the first signal filter to filter the first estimation to generate a first filtered estimation of the vehicle state; and output a control signal in dependence on the first filtered estimation of the vehicle state.
A polymer composition (C), comprising: - at least one polyamide (P1), - from 1 to 50 wt.%, based on the total weight of (C), of at least one functionalized polymer (P2), wherein P2 is a poly(aryl ether sulfone) (PAES) having at least one functional group (SO 3 - ), (M p+ ) 1/p in which M p+ is a metal cation of p valence. - at least one polyamide (P1), - from 1 to 50 wt.%, based on the total weight of (C), of at least one functionalized polymer (P2), wherein P2 is a poly(aryl ether sulfone) (PAES) having at least one functional group (SO 3 - ), (M p+ ) 1/p in which M p+ is a metal cation of p valence.
A superconducting wire connection structure, comprising: a first superconducting wire and a second superconducting wire , ends of which are arranged across from each other and are spaced apart from each other by 1 mm to 5 mm, the widths of the first superconducting wire and the second superconducting wire are the same and uniform along a longitudinal direction; and a third superconducting wire which spans and connects the first superconducting wire and the second superconducting wire along the longitudinal direction of the first superconducting wire and the second superconducting wire ; wherein each of the first superconducting wire , the second superconducting wire and the third superconducting wire is a tape-shaped superconducting wire which includes a substrate laminated with at least a superconductive layer , wherein a surface of the third superconducting wire on a side where the substrate is laminated with the superconductive layer faces surfaces of the first superconducting wire and the second superconducting wire on a side where the substrates are laminated with the superconductive layers , wherein the third superconducting wire is narrower in at least one portion than the first superconducting wire and the second superconducting wire , and wherein the third superconducting wire tapers toward both ends thereof. a first superconducting wire and a second superconducting wire , ends of which are arranged across from each other and are spaced apart from each other by 1 mm to 5 mm, the widths of the first superconducting wire and the second superconducting wire are the same and uniform along a longitudinal direction; and a third superconducting wire which spans and connects the first superconducting wire and the second superconducting wire along the longitudinal direction of the first superconducting wire and the second superconducting wire ; wherein each of the first superconducting wire , the second superconducting wire and the third superconducting wire is a tape-shaped superconducting wire which includes a substrate laminated with at least a superconductive layer , wherein a surface of the third superconducting wire on a side where the substrate is laminated with the superconductive layer faces surfaces of the first superconducting wire and the second superconducting wire on a side where the substrates are laminated with the superconductive layers , wherein the third superconducting wire is narrower in at least one portion than the first superconducting wire and the second superconducting wire , and wherein the third superconducting wire tapers toward both ends thereof.
A method for detecting a mutation using a DNA microarray, comprising the steps of: extracting a genomic DNA derived from an organism to be tested; digesting the genomic DNA with a restriction enzyme having the same recognition sequence as the restriction enzyme used in the method for designing probes; connecting an adaptor to the genomic DNA fragments obtained by the restriction enzyme treatment; amplifying the genomic DNA fragments using a primer capable of hybridizing to the adaptor; and detecting a hybrid of the genomic DNA fragment with the probes by bringing the amplified genomic DNA fragment into contact with a DNA microarray; wherein the DNA microarray comprises probes designed by the method for designing probes and a carrier on which the probes are to be immobilized; and wherein the method for designing probes, comprises the steps of: specifying a plurality of regions having a shorter nucleotide length than genomic DNA fragment flanked by restriction enzyme recognition sites, contained in genomic DNA derived from a target organism, and covering the entire region of the genomic DNA fragment; and designing the specified regions as a plurality of probes. extracting a genomic DNA derived from an organism to be tested; digesting the genomic DNA with a restriction enzyme having the same recognition sequence as the restriction enzyme used in the method for designing probes; connecting an adaptor to the genomic DNA fragments obtained by the restriction enzyme treatment; amplifying the genomic DNA fragments using a primer capable of hybridizing to the adaptor; and detecting a hybrid of the genomic DNA fragment with the probes by bringing the amplified genomic DNA fragment into contact with a DNA microarray; specifying a plurality of regions having a shorter nucleotide length than genomic DNA fragment flanked by restriction enzyme recognition sites, contained in genomic DNA derived from a target organism, and covering the entire region of the genomic DNA fragment; and designing the specified regions as a plurality of probes.
A Cardio-Pulmonary Resuscitation ("CPR") machine configured to perform chest compressions on a chest of a patient, the chest having a resting height relative to a reference level, the resting height measured when no chest compressions are being performed, the CPR machine comprising: a compression mechanism ; a chest-lifting device configured to lift the chest; a driver system configured to drive the compression mechanism and the chest-lifting device according to a motion-time profile so as to cause the compression mechanism to repeatedly perform the chest compressions, the driver further configured to drive the chest-lifting device according to the motion-time profile and to cause the chest-lifting device to lift the chest to a height above the reference level; and a failure detector configured to detect if the chest-lifting device fails to lift the chest: and in which the motion-time profile is configured to be adjusted in response to the failure detector detecting that the chest-lifting device failed to lift the chest. a compression mechanism ; a chest-lifting device configured to lift the chest; a driver system configured to drive the compression mechanism and the chest-lifting device according to a motion-time profile so as to cause the compression mechanism to repeatedly perform the chest compressions, the driver further configured to drive the chest-lifting device according to the motion-time profile and to cause the chest-lifting device to lift the chest to a height above the reference level; and a failure detector configured to detect if the chest-lifting device fails to lift the chest: and in which the motion-time profile is configured to be adjusted in response to the failure detector detecting that the chest-lifting device failed to lift the chest.
A valve comprising: a metal member configured to have at least two sub metal members ; a main body ; and a liner , characterized in that the sub metal members are included in the main body , the main body is formed of plastic, the sub metal members surround the liner , the liner includes a liner body member and a liner flange member formed at an end part of the liner body member , at least one of the sub metal members includes a sub metal body member and a sub metal flange member formed at an end part of the sub metal body member , the main body includes a main body member and a main body flange member formed at an end part of the main body member, a width of the sub metal flange member is higher than a width of the liner flange member , and the sub metal flange member surrounds the liner body member just beneath the liner flange member while the sub metal flange member closes to the liner flange member , a fluid flow space through which fluid flows is formed in the liner , the liner is formed of fluorine resin. a metal member configured to have at least two sub metal members ; a main body ; and a liner , characterized in that the sub metal members are included in the main body , the main body is formed of plastic, the sub metal members surround the liner , the liner includes a liner body member and a liner flange member formed at an end part of the liner body member , at least one of the sub metal members includes a sub metal body member and a sub metal flange member formed at an end part of the sub metal body member , the main body includes a main body member and a main body flange member formed at an end part of the main body member, a width of the sub metal flange member is higher than a width of the liner flange member , and the sub metal flange member surrounds the liner body member just beneath the liner flange member while the sub metal flange member closes to the liner flange member , a fluid flow space through which fluid flows is formed in the liner , the liner is formed of fluorine resin.
A resource management device that manages resources for providing a plurality of types of services, the resource management device storing therein a best practice resource group which is a group of best practice resources which have been optimized so as to exert performance of a level equal to or greater than a predetermined level in provision of a predetermined service between two or more resources, each of the two or more resources being selected from one or more of: a plurality of applications (r1) each as a resource arranged in an application layer; a plurality of virtual resources (r2, r3, r5, r6) each as a resource arranged in a virtual layer; and a plurality of physical resources (r4, r7, r8) each as a resource arranged in a physical layer, the resource management device comprising: a selection unit configured to select an application (r1) required for providing the predetermined service and then select a group of resources each of which is in the group of best practice resources, and wherein each resource of the selected group of resources is either a resource capable of exchanging data with the selected application (r1) or a resource capable of exchanging data with another resource of the selected group of resources, with reference to the best practice resource group, wherein the selection unit is configured to, when there are a plurality of virtual resources or physical resources each of which can be selected as a resource of the selected group of resources, make a selection from the plurality of the virtual resources or physical resources using a predetermined priority order, wherein the predetermined priority order includes at least a service level agreement and a link cost; a design unit configured to generate a blueprint for designing a system using the selected resources; and an orchestrator unit configured to execute orchestration for the designed system in accordance with the generated blueprint. a selection unit configured to select an application (r1) required for providing the predetermined service and then select a group of resources each of which is in the group of best practice resources, and wherein each resource of the selected group of resources is either a resource capable of exchanging data with the selected application (r1) or a resource capable of exchanging data with another resource of the selected group of resources, with reference to the best practice resource group, wherein the selection unit is configured to, when there are a plurality of virtual resources or physical resources each of which can be selected as a resource of the selected group of resources, make a selection from the plurality of the virtual resources or physical resources using a predetermined priority order, wherein the predetermined priority order includes at least a service level agreement and a link cost; a design unit configured to generate a blueprint for designing a system using the selected resources; and an orchestrator unit configured to execute orchestration for the designed system in accordance with the generated blueprint.