mhurhangee/ep-ind-claims huggingface dataset:
A wire containment cap (104, 400) for a communication jack, the wire containment cap comprising: a strain relief clip (200, 402) that applies pressure against a cable inserted horizontally into the wire containment cap (104, 400), thereby reducing strain at an interface between the cable and the communication jack; and a shoulder containing strain relief guide slots (114, 408) in which the strain relief clip (200, 402) is vertically removably disposed, the strain relief clip (200, 402) secured in the strain relief guide slots (114, 408) by latch teeth (116, 406) of the shoulder, the strain relief clip (200, 402) including a base (202, 403) that slides vertically within the strain relief guide slots (114, 408) and a latch release section (207, 405) arranged to allow release of the strain relief clip vertically. a strain relief clip (200, 402) that applies pressure against a cable inserted horizontally into the wire containment cap (104, 400), thereby reducing strain at an interface between the cable and the communication jack; and a shoulder containing strain relief guide slots (114, 408) in which the strain relief clip (200, 402) is vertically removably disposed, the strain relief clip (200, 402) secured in the strain relief guide slots (114, 408) by latch teeth (116, 406) of the shoulder, the strain relief clip (200, 402) including a base (202, 403) that slides vertically within the strain relief guide slots (114, 408) and a latch release section (207, 405) arranged to allow release of the strain relief clip vertically.
A flow control screen for use in oilfield exploitation, comprising: a base pipe provided with a base pipe inlet thereon; a filter pipe sleeved over the base pipe such that an annular gap between the base pipe and the filter pipe forms a flow guide layer in which fluid is allowed to flow; characterized in that, a flow control device including an inlet of the flow control device, a flow control channel and an outlet of the flow control device, the inlet of the flow control device being in fluid communication with the flow guide layer, and the outlet of the flow control device being in fluid communication with the base pipe inlet, and the flow control channel axially extending along the base pipe and the filter pipe; wherein the filter pipe is configured as a metal pipe provided with a plurality of filter slots on the wall thereof, the metal pipe is made of a metal plate, and at least one inwardly protruding fixed-support is provided on the inner wall of the filter pipe such that the flow guide layer in communication with at least one portion of the plurality of slots is not closed under external pressure around the screen in a formation. a base pipe provided with a base pipe inlet thereon; a filter pipe sleeved over the base pipe such that an annular gap between the base pipe and the filter pipe forms a flow guide layer in which fluid is allowed to flow; characterized in that, a flow control device including an inlet of the flow control device, a flow control channel and an outlet of the flow control device, the inlet of the flow control device being in fluid communication with the flow guide layer, and the outlet of the flow control device being in fluid communication with the base pipe inlet, and the flow control channel axially extending along the base pipe and the filter pipe; wherein the filter pipe is configured as a metal pipe provided with a plurality of filter slots on the wall thereof, the metal pipe is made of a metal plate, and at least one inwardly protruding fixed-support is provided on the inner wall of the filter pipe such that the flow guide layer in communication with at least one portion of the plurality of slots is not closed under external pressure around the screen in a formation.
A reductant delivery system for a SCR system in an internal combustion engine, comprising: a reductant tank for storing reductant solution; a dosing valve for dosing reductant solution into the engine's exhaust line, said dosing line being connected to said reductant tank via a feed line; and a coolant loop having an inlet at one end for receiving hot engine coolant and an outlet at the other end for returning said engine coolant; said coolant loop comprising: flow restrictor means dividing said coolant loop in an upstream, first section on said inlet side, and a downstream, second section; a tank loop connected to said coolant loop upstream and downstream of said flow restrictor means and partly located in said reductant tank for thawing frozen reductant solution; a doser section to carry engine coolant of said second section and arranged in thermal exchange relationship with said dosing valve for cooling thereof; and valve means (70; 72; 76; 80) operable to allow or stop the flow of engine coolant through said tank loop, characterized in that said doser section is provided downstream of said tank loop. a reductant tank for storing reductant solution; a dosing valve for dosing reductant solution into the engine's exhaust line, said dosing line being connected to said reductant tank via a feed line; and a coolant loop having an inlet at one end for receiving hot engine coolant and an outlet at the other end for returning said engine coolant; said coolant loop comprising: flow restrictor means dividing said coolant loop in an upstream, first section on said inlet side, and a downstream, second section; a tank loop connected to said coolant loop upstream and downstream of said flow restrictor means and partly located in said reductant tank for thawing frozen reductant solution; a doser section to carry engine coolant of said second section and arranged in thermal exchange relationship with said dosing valve for cooling thereof; and valve means (70; 72; 76; 80) operable to allow or stop the flow of engine coolant through said tank loop, flow restrictor means dividing said coolant loop in an upstream, first section on said inlet side, and a downstream, second section; a tank loop connected to said coolant loop upstream and downstream of said flow restrictor means and partly located in said reductant tank for thawing frozen reductant solution; a doser section to carry engine coolant of said second section and arranged in thermal exchange relationship with said dosing valve for cooling thereof; and valve means (70; 72; 76; 80) operable to allow or stop the flow of engine coolant through said tank loop, characterized in that said doser section is provided downstream of said tank loop.
A partition of the B-pillar lower bulkhead of a motor vehicle body which includes a metal profile member having a U-shaped horizontal cross-section, provided with a longitudinal wall and two transverse walls that are opposite each other, characterized in that each transverse wall is bored with at least two pairs of holes (19, 20), one hole placed over the other, said hole pairs being separated by a continuous central strip of material that extends from a lower edge to an upper edge of the transverse wall.
An adhesive article comprising: a substrate comprising a polymer blend, the polymer blend comprising: a polymer having a number average molecular weight of at least 1000 grams per mole, wherein the polymer is a poly(propylene oxide) or a copolymer of poly(ethylene oxide) and poly(propylene oxide), and at least one of a thermoplastic polyurethane or a thermoplastic polyester; and a silicone adhesive disposed on the substrate, wherein the copolymer has a weight ratio of poly(ethylene oxide) to poly(propylene oxide) of up to 3:1, with the proviso that if the copolymer has a number average molecular weight of at least 10,000 grams per mole, the weight ratio of poly(ethylene oxide) to poly(propylene oxide) is up to 2:1, wherein the polymer blend comprises at least three percent by weight of the polymer having a number average molecular weight of at least 1000, based on the total weight of the polymer blend. a substrate comprising a polymer blend, the polymer blend comprising: a polymer having a number average molecular weight of at least 1000 grams per mole, wherein the polymer is a poly(propylene oxide) or a copolymer of poly(ethylene oxide) and poly(propylene oxide), and at least one of a thermoplastic polyurethane or a thermoplastic polyester; and a polymer having a number average molecular weight of at least 1000 grams per mole, wherein the polymer is a poly(propylene oxide) or a copolymer of poly(ethylene oxide) and poly(propylene oxide), and at least one of a thermoplastic polyurethane or a thermoplastic polyester; and a silicone adhesive disposed on the substrate, wherein the copolymer has a weight ratio of poly(ethylene oxide) to poly(propylene oxide) of up to 3:1, with the proviso that if the copolymer has a number average molecular weight of at least 10,000 grams per mole, the weight ratio of poly(ethylene oxide) to poly(propylene oxide) is up to 2:1, wherein the polymer blend comprises at least three percent by weight of the polymer having a number average molecular weight of at least 1000, based on the total weight of the polymer blend.
A method of wireless communication, comprising: receiving on a first component carrier, CC, signaling indicating an aperiodic channel state information, CSI, report request for a plurality of CCs; determining a CSI processing time requirement based on subcarrier spacing, SCS, numerologies of the CCs; determining whether to report or drop a CSI reporting for each of the CCs based on the CSI processing time requirement; monitoring CSI reference signal, CSI-RS, transmissions on the CCs; and reporting CSI feedback based on CSI-RS measurements of the CSI-RS transmissions, wherein determining the processing time requirement comprises: identifying a minimum SCS among SCSs for the physical downlink control channel, PDCCH, with which the signalling was received indicating the aperiodic CSI report request, the physical uplink shared channel, PUSCH, with which the CSI feedback is to be reported, and the CSI-RS transmissions; and determining the processing time requirement based on the identified minimum SCS. receiving on a first component carrier, CC, signaling indicating an aperiodic channel state information, CSI, report request for a plurality of CCs; determining a CSI processing time requirement based on subcarrier spacing, SCS, numerologies of the CCs; determining whether to report or drop a CSI reporting for each of the CCs based on the CSI processing time requirement; monitoring CSI reference signal, CSI-RS, transmissions on the CCs; and reporting CSI feedback based on CSI-RS measurements of the CSI-RS transmissions, wherein determining the processing time requirement comprises: identifying a minimum SCS among SCSs for the physical downlink control channel, PDCCH, with which the signalling was received indicating the aperiodic CSI report request, the physical uplink shared channel, PUSCH, with which the CSI feedback is to be reported, and the CSI-RS transmissions; and determining the processing time requirement based on the identified minimum SCS. identifying a minimum SCS among SCSs for the physical downlink control channel, PDCCH, with which the signalling was received indicating the aperiodic CSI report request, the physical uplink shared channel, PUSCH, with which the CSI feedback is to be reported, and the CSI-RS transmissions; and determining the processing time requirement based on the identified minimum SCS.
A detection device comprising: an acquisition unit configured to acquire user generated content generated in each service in a predetermined period; a generation unit configured to generate a search query using words appearing in the user generated content for each service; a collection unit configured to collect the user generated content generated in a plurality of services using the generated search query; a calculation unit configured to calculate a feature amount of the collected user generated content of a predetermined service wherein the feature amount includes a feature amount related to web content of an arrival web site at which a user will arrive using an entrance URL described in the user generated content, and feature amounts related to a plurality of pieces of user generated content generated in a predetermined period; a learning unit configured to perform learning using the feature amount of the user generated content generated by a normal user and a feature amount of content generated by a malicious user; a determination unit configured to determine whether the user generated content is generated by a malicious user based on a learned model; and an extraction unit configured to use the entrance URL described in the user generated content to output a feature of an attack of the user generated content as threat information when the user generated content is determined to be generated by a malicious user. an acquisition unit configured to acquire user generated content generated in each service in a predetermined period; a generation unit configured to generate a search query using words appearing in the user generated content for each service; a collection unit configured to collect the user generated content generated in a plurality of services using the generated search query; a calculation unit configured to calculate a feature amount of the collected user generated content of a predetermined service wherein the feature amount includes a feature amount related to web content of an arrival web site at which a user will arrive using an entrance URL described in the user generated content, and feature amounts related to a plurality of pieces of user generated content generated in a predetermined period; a learning unit configured to perform learning using the feature amount of the user generated content generated by a normal user and a feature amount of content generated by a malicious user; a determination unit configured to determine whether the user generated content is generated by a malicious user based on a learned model; and an extraction unit configured to use the entrance URL described in the user generated content to output a feature of an attack of the user generated content as threat information when the user generated content is determined to be generated by a malicious user.
A fuel cell system comprising: a fuel cell stack at which generation of electricity is carried out by chemical reaction of hydrogen and oxygen, and from which water and exhaust are discharged; characterized in that it comprises a liquid water amount estimation section that estimates an amount of liquid water among the discharged water, based on an amount of current that is generated by the fuel cell stack, an amount of air that is supplied to the fuel cell stack, a temperature of the air, a relative humidity of the air, a temperature of exhaust that is discharged from the fuel cell stack, and a pressure of the exhaust, a water storage tank that stores the liquid water that has been discharged from the fuel cell stack; a valve that is provided on a drain pipe that connects the fuel cell stack and the water storage tank; and a valve control section that controls a degree of opening of the valve, wherein, the greater the amount of liquid water estimated by the liquid water amount estimation section, the larger the valve control section makes the degree of opening of the valve, and, the smaller the amount of liquid water estimated by the liquid water amount estimation section, the smaller the valve control section makes the degree of opening of the valve. a fuel cell stack at which generation of electricity is carried out by chemical reaction of hydrogen and oxygen, and from which water and exhaust are discharged; characterized in that it comprises a liquid water amount estimation section that estimates an amount of liquid water among the discharged water, based on an amount of current that is generated by the fuel cell stack, an amount of air that is supplied to the fuel cell stack, a temperature of the air, a relative humidity of the air, a temperature of exhaust that is discharged from the fuel cell stack, and a pressure of the exhaust, a water storage tank that stores the liquid water that has been discharged from the fuel cell stack; a valve that is provided on a drain pipe that connects the fuel cell stack and the water storage tank; and a valve control section that controls a degree of opening of the valve, wherein, the greater the amount of liquid water estimated by the liquid water amount estimation section, the larger the valve control section makes the degree of opening of the valve, and, the smaller the amount of liquid water estimated by the liquid water amount estimation section, the smaller the valve control section makes the degree of opening of the valve.
Process for preparing a porous material, at least comprising the steps of: a) providing a mixture comprising (i) a composition comprising components suitable to form an organic gel and (ii) a solvent, b) reacting the components in the composition in the presence of the solvent to form a gel, and c) drying of the gel obtained in step b), wherein the composition comprises at least one compound (af) comprising phosphorous and at least one functional group which is reactive towards isocyanates, wherein compound (af) is used in an amount which results in a phosphorous content in the porous material in a range of from 1 to 5 % by weight, wherein the composition comprises at least one polyfunctional isocyanate as component, and at least one aromatic amine as component, optionally comprises water as component, and optionally comprises at least one further catalyst as component. a) providing a mixture comprising (i) a composition comprising components suitable to form an organic gel and (ii) a solvent, (i) a composition comprising components suitable to form an organic gel and (ii) a solvent, b) reacting the components in the composition in the presence of the solvent to form a gel, and c) drying of the gel obtained in step b), wherein the composition comprises at least one compound (af) comprising phosphorous and at least one functional group which is reactive towards isocyanates, wherein compound (af) is used in an amount which results in a phosphorous content in the porous material in a range of from 1 to 5 % by weight, wherein the composition comprises at least one polyfunctional isocyanate as component, and at least one aromatic amine as component, optionally comprises water as component, and optionally comprises at least one further catalyst as component.
Method of manufacturing a spectacle lens, the spectacle lens comprising a lens substrate and at least one coating, the method comprising at least the following steps: - Providing a lens substrate having an uncoated or precoated front surface and an uncoated or precoated back surface, - Coating at least one surface of the lens substrate with at least one coating, - Completely or partially contacting the surface of the at least one coating with at least one medium, characterized in that the method further comprises at least - Applying at least one single electromagnetic pulse to at least one of the surfaces of the spectacle lens comprising the lens substrate, the at least one coating and the at least one medium, - Removing the at least one medium, - Obtaining a spectacle lens comprising at least one coating with a completely or partially modified surface, the surface of the at least one coating being modifiable when in contact or having been in contact with the at least one medium, the at least one medium being able to modify the surface of said at least one coating. - Providing a lens substrate having an uncoated or precoated front surface and an uncoated or precoated back surface, - Coating at least one surface of the lens substrate with at least one coating, - Completely or partially contacting the surface of the at least one coating with at least one medium, - Applying at least one single electromagnetic pulse to at least one of the surfaces of the spectacle lens comprising the lens substrate, the at least one coating and the at least one medium, - Removing the at least one medium, - Obtaining a spectacle lens comprising at least one coating with a completely or partially modified surface, the surface of the at least one coating being modifiable when in contact or having been in contact with the at least one medium, the at least one medium being able to modify the surface of said at least one coating.
System for transforming plastic parisons to plastic containers with a transport device which transports the plastic parisons along a predetermined transport path, wherein the transport device has a movable station support on which a plurality of transforming stations are arranged, wherein these transforming stations each have blow mould devices which each form cavities within which the plastic parisons can be transformed into the plastic containers and these blow mould devices are each disposed on blow mould supports, and the system has a changing device which is suitable and intended at least to remove the blow mould devices from their blow mould supports and/or to arrange blow mould devices on the blow mould supports, characterised in that the changing device has an identification device (92, 93) for identifying blow moulds and/or blow mould parts (14a, 14b, 14c), wherein the identification device (92, 93) preferably has an RFID detection device.
A self-propelled agricultural working machine, in particular a harvester, for implementing an agricultural working process by travelling along lanes (3a-d), comprising a plurality of working members and a driver assist system for controlling the working members, wherein the working machine has a surroundings detection device for detecting crop stand features of a crop stand and ground features of a field ground, characterised in that the driver assist system analyses the crop stand features for predetermined characteristic crop stand properties and the ground features for predetermined characteristic ground properties and in dependence on the analysed characteristic crop stand properties and the analysed characteristic ground properties implements a control process which concerns the lanes (3a-d) to be travelled.
A linear electrical machine comprising: a stator mounted in a housing (11, 12, 13), the housing and stator defining a working cylinder, wherein the stator includes a plurality of coils; a central core within the working cylinder and defining a cylindrical stator bore cavity therebetween; a hollow translator axially movable relative to the central core within the working cylinder, extending into the stator bore cavity and forming an exterior magnetic circuit airgap between the translator and the stator; at least one inner flexure or bearing between the central core and the translator providing coaxial location of the translator within the stator bore cavity; wherein the central core is axially fixed in relation to the stator, characterized in that the LEM further comprises: an outer fluid bearing between the translator and a wall of the cylinder, the bearing being mounted on the translator and running on a bearing surface on the inner wall of the cylinder. a stator mounted in a housing (11, 12, 13), the housing and stator defining a working cylinder, wherein the stator includes a plurality of coils; a central core within the working cylinder and defining a cylindrical stator bore cavity therebetween; a hollow translator axially movable relative to the central core within the working cylinder, extending into the stator bore cavity and forming an exterior magnetic circuit airgap between the translator and the stator; at least one inner flexure or bearing between the central core and the translator providing coaxial location of the translator within the stator bore cavity; wherein the central core is axially fixed in relation to the stator, characterized in that the LEM further comprises: an outer fluid bearing between the translator and a wall of the cylinder, the bearing being mounted on the translator and running on a bearing surface on the inner wall of the cylinder.