mhurhangee/patent-ind-claim-en huggingface dataset:
A method for installing a liner in an underground pipeline , comprising the steps of: providing a delayed cure, single component resin composition consisting of a base containing cyclic anhydride, bisphenol A and bisphenol F resins and an activator preblend containing liquid bisphenol, granular bisphenol and tetraethylenepentamine; fully wetting out a lining hose with said resin composition; placing said wet out lining hose into said underground pipeline ; expanding the lining hose using a pressurized fluid, causing said lining hose to contact an interior surface of said pipeline; elevating a temperature of said pressurized fluid to a temperature of greater than 76.7°C (170 degrees Fahrenheit), causing said resin composition to cure so that the lining hose bonds to the interior surface of the pipeline. providing a delayed cure, single component resin composition consisting of a base containing cyclic anhydride, bisphenol A and bisphenol F resins and an activator preblend containing liquid bisphenol, granular bisphenol and tetraethylenepentamine; fully wetting out a lining hose with said resin composition; placing said wet out lining hose into said underground pipeline ; expanding the lining hose using a pressurized fluid, causing said lining hose to contact an interior surface of said pipeline; elevating a temperature of said pressurized fluid to a temperature of greater than 76.7°C (170 degrees Fahrenheit), causing said resin composition to cure so that the lining hose bonds to the interior surface of the pipeline.
A particulate water absorbing agent having a polyacrylic acid (salt)-based water-absorbing resin as a main component, being surface-crosslinked and satisfying physical properties to below, wherein the polyacrylic acid (salt) is a polymer that contains, as a main component, repeating units constituted by an acrylic acid, a salt thereof, or a combination thereof, and wherein the particulate water absorbing agent is obtained by a method of carrying out thin-layer polymerization involving use of an aqueous monomer solution containing a monomer at a concentration of not less than 35% by weight (Method 1) or a method of carrying out foaming polymerization under a pressure of not more than 95 kPa (Method 2): a proportion of particles with a particle diameter of not less than 150 μm and less than 850 μm is not less than 90% by weight; an elastic modulus index (EMI) of particles with a particle diameter of not less than 500 μm and less than 600 μm is not less than 5500, wherein the elastic modulus index (EMI) is determined in accordance with the Examples section of the description; and a recovery rate defined as Rec.CRC/CRC is 1.05 to 1.20, wherein Rec.CRC and CRC are determined in accordance with the Examples section of the description. a proportion of particles with a particle diameter of not less than 150 μm and less than 850 μm is not less than 90% by weight; an elastic modulus index (EMI) of particles with a particle diameter of not less than 500 μm and less than 600 μm is not less than 5500, wherein the elastic modulus index (EMI) is determined in accordance with the Examples section of the description; and a recovery rate defined as Rec.CRC/CRC is 1.05 to 1.20, wherein Rec.CRC and CRC are determined in accordance with the Examples section of the description.
Method for recording and evaluating a microscope image containing intensity distributions of fluorescence events of a sample marked with transformable fluorophores, wherein the intensity distributions have a respective extent due to diffraction that corresponds to an extent of a point spread function of the microscope and said intensity distributions are arranged without overlap, comprising the following steps carried out by a control unit : a) initializing at least one counter per predetermined region (R, R1, R2) to be evaluated of the microscope image , with the regions to be evaluated being defined with an accuracy of at most a single pixel, b) identifying fluorescence events in a region (R, R1, R2) to be evaluated of the microscope image , with a compensation calculation for localization with sub-pixel accuracy being dispensed with, c) incrementing the counter corresponding to the relevant region (R, R1, R2) for each fluorescence event identified in the region (R, R1, R2), and d) outputting the at least one counter as a number or concentration of the fluorophores in the relevant region (R, R1, R2), wherein the microscope image is recorded by means of a microscope prior to step b) or prior to step a) by virtue of a subset of the transformable fluorophores being initially transformed into an excitable state in such a way that the transformed excitable fluorophores have a lower density than what is specified by the reciprocal of the unresolvable volume due to refraction and by virtue of the sample subsequently being at least partly irradiated by excitation light by means of a light source , wherein fluorescence radiation emitted by the sample is imaged in diffraction-broadened fashion by means of a microscope objective and by means of a light receiver . a) initializing at least one counter per predetermined region (R, R1, R2) to be evaluated of the microscope image , with the regions to be evaluated being defined with an accuracy of at most a single pixel, b) identifying fluorescence events in a region (R, R1, R2) to be evaluated of the microscope image , with a compensation calculation for localization with sub-pixel accuracy being dispensed with, c) incrementing the counter corresponding to the relevant region (R, R1, R2) for each fluorescence event identified in the region (R, R1, R2), and d) outputting the at least one counter as a number or concentration of the fluorophores in the relevant region (R, R1, R2),
Electric heating cartridge with an outer tube-shaped metal sheath and with an adjustment element (140", 140′′′) arranged within the outer tube-shaped sheath and with an electric heating element at least partially arranged within the outer tube-shaped metal sheath , wherein the electric heating element is formed to describe a space curve which defines an inner space and wherein the electric heating element is electrically insulated from the outer tube-shaped metal sheath , wherein the adjustment element (140", 140′′′) is arranged at least partially embedded in an electrically insulating, heat-conducting material parallel to the direction of extension of the inner space defined by the space curve described by the electric heating element , the adjustment element (140", 140′′′) is arranged at least partially embedded in an electrically insulating, heat-conducting material within the inner space defined by the space curve described by the electric heating element , the electric heating element is at least partially wound on the outer surface of a winding body which is arranged on the inside of the outer tube-shaped metal sheath , the electric heating element is electrically insulated from the outer tube-shaped metal sheath at least in a radial direction towards the winding axis (W), the adjustment element (140", 140′′′) is arranged embedded in an electrically insulating, heat-conducting material the space enclosed by the outer surface of the winding body and the adjustment element (140", 140′′′) is arranged within a second tube-shaped metal sheath which is arranged in the space enclosed by the outer surface of the winding body , characterized in that the adjustment element (140", 140′′′) is a regulating coil. the adjustment element (140", 140′′′) is arranged at least partially embedded in an electrically insulating, heat-conducting material parallel to the direction of extension of the inner space defined by the space curve described by the electric heating element , the adjustment element (140", 140′′′) is arranged at least partially embedded in an electrically insulating, heat-conducting material within the inner space defined by the space curve described by the electric heating element , the electric heating element is at least partially wound on the outer surface of a winding body which is arranged on the inside of the outer tube-shaped metal sheath , the electric heating element is electrically insulated from the outer tube-shaped metal sheath at least in a radial direction towards the winding axis (W), the adjustment element (140", 140′′′) is arranged embedded in an electrically insulating, heat-conducting material the space enclosed by the outer surface of the winding body and the adjustment element (140", 140′′′) is arranged within a second tube-shaped metal sheath which is arranged in the space enclosed by the outer surface of the winding body , characterized in that the adjustment element (140", 140′′′) is a regulating coil.
A bioceramic composition for medical or dental use comprising at least one multiparticulate crystalline multimetallic silicate, which is a sorosilicate, at least one liquid carrier and calcium sulfate as a setting agent.
A guide (100; 200) for a bone cut, comprising: a guide base (102; 209) having an inner wall (103; 209i) defining an opening, the guide base having a proximal surface (102p; 209p) adapted to contact a skin of a person; and an inner collar (120; 202) having an outer surface , the inner collar having an inner wall (120b; 220b) defining a bore for receiving a cutting tool , the inner collar configured to pivot the cutting tool about a pivot axis (A) of the guide, for cutting a bone, one of the inner wall of the guide base or the outer surface of the inner collar having a plurality of detents (116a-116h; 204) distributed thereon, the other of the inner wall of the guide base or the outer surface of the inner collar having a pair of spring loaded devices (114a, 114b; 214a, 214b) extending therefrom in opposite directions, the inner collar mountable so that the spring loaded devices fit within two of the plurality of detents, the pivot axis lying along or parallel to a line along which the spring loaded devices lie. a guide base (102; 209) having an inner wall (103; 209i) defining an opening, the guide base having a proximal surface (102p; 209p) adapted to contact a skin of a person; and an inner collar (120; 202) having an outer surface , the inner collar having an inner wall (120b; 220b) defining a bore for receiving a cutting tool , the inner collar configured to pivot the cutting tool about a pivot axis (A) of the guide, for cutting a bone, one of the inner wall of the guide base or the outer surface of the inner collar having a plurality of detents (116a-116h; 204) distributed thereon, the other of the inner wall of the guide base or the outer surface of the inner collar having a pair of spring loaded devices (114a, 114b; 214a, 214b) extending therefrom in opposite directions, the inner collar mountable so that the spring loaded devices fit within two of the plurality of detents, the pivot axis lying along or parallel to a line along which the spring loaded devices lie.
A method for generating high starting torque in an asynchronous motor at a low power consumption, using a program-controlled, parametrizable inverter designed and manufactured for industrial use, characterized by an increase of 20- 40% in the inverter's power output compared to the nominal power value of the motor, as well as by deviating from the manufacturer's recommendations while setting a number of the inverter's operational parameters, namely, by setting the nominal power output of the motor to a value between 70% and 90% of the actual nominal power output by setting the nominal frequency of the motor to a value between 70% and 95% of the actual nominal frequency, and by setting the nominal voltage of the motor to a value between 105% and 120% of the actual nominal voltage, and powering the asynchronous motor via a battery in such a way that the battery output voltage is connected to the frequency converter's DC terminals, and using the asynchronous motor to drive an electric vehicle through creating an operational connection between the asynchronous motor and the electric vehicle's wheel axle.
A connector assembly for coupling a plasma torch to a plasma torch receptacle , the connector assembly comprising: a connector body configured to receive a mating connector body, the connector body attachable to the receptacle or the plasma torch; at least one circumferentially shaped blade extending axially from a surface of the connector body, the at least one circumferentially shaped blade forming a portion of a blade ring; and at least one gap disposed relative to the surface of the connector body defined by and between edges of the at least one circumferentially shaped blade, a distance of the at least one gap between the edges of the at least one circumferentially shaped blade extending along a portion of the circumference of the blade ring, wherein the at least one gap is distributed about the blade ring, the at least one gap is shaped to align with a corresponding circumferentially shaped blade of the mating connector body, wherein the at least one circumferentially shaped blade has a pitch along a circumferential outer edge along the blade ring the pitch is configured to facilitate rotational alignment of the connector assembly, wherein when a rotational motion is applied by a user to either the connector body or the mating connector body, the pitch is configured to facilitate rotation in a single direction, and the pitch is configured to provide a guide to the user to help rotate the connector body in a single direction. a connector body configured to receive a mating connector body, the connector body attachable to the receptacle or the plasma torch; at least one circumferentially shaped blade extending axially from a surface of the connector body, the at least one circumferentially shaped blade forming a portion of a blade ring; and at least one gap disposed relative to the surface of the connector body defined by and between edges of the at least one circumferentially shaped blade, a distance of the at least one gap between the edges of the at least one circumferentially shaped blade extending along a portion of the circumference of the blade ring, wherein the at least one gap is distributed about the blade ring, the at least one gap is shaped to align with a corresponding circumferentially shaped blade of the mating connector body, wherein the at least one circumferentially shaped blade has a pitch along a circumferential outer edge along the blade ring the pitch is configured to facilitate rotational alignment of the connector assembly, wherein when a rotational motion is applied by a user to either the connector body or the mating connector body, the pitch is configured to facilitate rotation in a single direction, and the pitch is configured to provide a guide to the user to help rotate the connector body in a single direction.
A method for guiding of a trailer truck motor vehicle on the basis of image data, toward a docking station by a docking controller coupled to a steering system, comprising: identifying, by the docking controller the vehicle's current position, characterized in that the method further comprises: planning a collision free path; and maneuvering the vehicle by said docking controller according to said free path by orienting the trailer through control of an articulation angle defining a relative angle between a trailer and a truck, wherein the vehicle's current position is identified by means of an off board vehicle scanner that is mounted in a fixed position relative to the docking station; wherein said vehicle scanner produces scan data signifying a set that are analyzed to identify a reference point (P) of the vehicle and a vehicle's orientation (O); wherein said reference point (P) and vehicle orientation (O) are transmitted to the docking controller to update the vehicle's current position, and feeding the docking controller with the reference point (P) location and vehicle orientation (O).
A combinatorial weighing device, comprising: a linear feeder configured to vibrationally transport an article from an upstream side to a downstream side in a direction of transport; and a controller in charge of drive control of the linear feeder ; and an article detector configured to detect whether the article is currently present at a downstream end of a trough of the linear feeder in the direction of transport, the controller being configured to change a vibration strength by which the linear feeder is driven to operate depending on whether the article detector is detecting the article at the downstream end of the trough , characterized in that the linear feeder is supplied with the article from a retaining hopper configured to retain and discharges the article, the linear feeder is configured to discharge the article at the downstream end of the trough into a supply hopper , the controller is configured to set, as the vibration strength by which the linear feeder is driven to operate when the article detector is detecting the article at the downstream end of the trough , a first vibration strength for discharge of the article into the supply hopper, and the controller is configured to set, as the vibration strength by which the linear feeder is driven to operate when the article detector is not detecting the article at the downstream end of the trough , a second vibration strength for transport of the article to the downstream end of the trough . a linear feeder configured to vibrationally transport an article from an upstream side to a downstream side in a direction of transport; and a controller in charge of drive control of the linear feeder ; and an article detector configured to detect whether the article is currently present at a downstream end of a trough of the linear feeder in the direction of transport, the controller being configured to change a vibration strength by which the linear feeder is driven to operate depending on whether the article detector is detecting the article at the downstream end of the trough , characterized in that the linear feeder is supplied with the article from a retaining hopper configured to retain and discharges the article, the linear feeder is configured to discharge the article at the downstream end of the trough into a supply hopper , the controller is configured to set, as the vibration strength by which the linear feeder is driven to operate when the article detector is detecting the article at the downstream end of the trough , a first vibration strength for discharge of the article into the supply hopper, and the controller is configured to set, as the vibration strength by which the linear feeder is driven to operate when the article detector is not detecting the article at the downstream end of the trough , a second vibration strength for transport of the article to the downstream end of the trough .
A method performed by a master node, MN, for dual connectivity in a wireless communication system, the method comprising: determining to offload at least one quality of service, QoS, flow of a protocol data unit, PDU, session from the MN to a secondary node, SN, for the dual connectivity, wherein the PDU session comprises a plurality of QoS flows; identifying the at least one QoS flow of the plurality of QoS flows of the PDU session; and transmitting, to a core network entity, a session modification message for offloading the at least one QoS flow of the PDU session, wherein the session modification message includes information of the identified at least one QoS flow, wherein the MN is configured with a first access stratum mapping layer, ASML, for mapping between a QoS flow and a data radio bearer, DRB, wherein the first ASML is responsible for DRB management and QoS flow to DRB mapping control in both the MN and the SN, and wherein the SN is configured with a second ASML for mapping between a QoS flow and a DRB, and wherein the first ASML and the second ASML are configured for the PDU session for the offloading of the at least one QoS flow of the PDU session between the MN and the SN. determining to offload at least one quality of service, QoS, flow of a protocol data unit, PDU, session from the MN to a secondary node, SN, for the dual connectivity, wherein the PDU session comprises a plurality of QoS flows; identifying the at least one QoS flow of the plurality of QoS flows of the PDU session; and transmitting, to a core network entity, a session modification message for offloading the at least one QoS flow of the PDU session, wherein the session modification message includes information of the identified at least one QoS flow, wherein the MN is configured with a first access stratum mapping layer, ASML, for mapping between a QoS flow and a data radio bearer, DRB, wherein the first ASML is responsible for DRB management and QoS flow to DRB mapping control in both the MN and the SN, and wherein the SN is configured with a second ASML for mapping between a QoS flow and a DRB, and wherein the first ASML and the second ASML are configured for the PDU session for the offloading of the at least one QoS flow of the PDU session between the MN and the SN.
A hybrid preform component , comprising: a plurality of elongated metallic cores ; a coating paste enveloping the plurality of elongated metallic cores , the coating paste consisting of a first material having a first melting point, a second material having a second melting point, and a binder, the first melting point being higher than the second melting point, and wherein the coating paste has the first material in an amount, by weight, from 35% to 95% and the second material in an amount, by weight, from 5% to 65%, wherein the plurality of elongated metallic cores consist of an alloy selected from the group consisting of GTD 111, GTD 444, HAYNES 188, INCONEL 738, MAR-M-247, René 108, René 142, René 195, René N2, René N4, René N5, René N500, and combinations thereof, wherein the first material consists of an alloy selected from the group consisting of GTD 111, GTD 444, HAYNES 188, INCONEL 738, MAR-M-247, René 108, René 142, René 195, and René N2, or a combination thereof, wherein the second material consists of an alloy selected from the group consisting of DF-4B, BNi-2, BNi-5 (AMS 4782), BNi-9, or a combination thereof, and wherein the hybrid preform component has a compressed structure and near net shape. a plurality of elongated metallic cores ; a coating paste enveloping the plurality of elongated metallic cores , the coating paste consisting of a first material having a first melting point, a second material having a second melting point, and a binder, the first melting point being higher than the second melting point, and wherein the coating paste has the first material in an amount, by weight, from 35% to 95% and the second material in an amount, by weight, from 5% to 65%, wherein the plurality of elongated metallic cores consist of an alloy selected from the group consisting of GTD 111, GTD 444, HAYNES 188, INCONEL 738, MAR-M-247, René 108, René 142, René 195, René N2, René N4, René N5, René N500, and combinations thereof, wherein the first material consists of an alloy selected from the group consisting of GTD 111, GTD 444, HAYNES 188, INCONEL 738, MAR-M-247, René 108, René 142, René 195, and René N2, or a combination thereof, wherein the second material consists of an alloy selected from the group consisting of DF-4B, BNi-2, BNi-5 (AMS 4782), BNi-9, or a combination thereof, and wherein the hybrid preform component has a compressed structure and near net shape.