mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor module for a modular plug connector, wherein an annular coil that can be used to measure alternating currents is arranged within the sensor module characterized in that - the sensor module comprises a dumbbell-shaped core segment and two or four outer segments (3, 3', 3", 3"') that are arranged around the core segment , - the segments (2, 3, 3', 3", 3"') in the assembled state enclose a hollow chamber - the outer segments (3, 3', 3", 3"') comprise a concave curvature that is facing the core segment and in each case multiple conductor tracks are applied to the surfaces of said outer segments and - multiple conductor tracks are applied to the peripheral surface of the core segment - the individual conductor tracks comprise in each case contact sites by way of which it is possible to connect in an electrical manner a conductor track of one segment to at least one conductor track of another segment (3, 3', 3", 3"') and - all the conductor tracks in the connected state together form an annular coil . - the sensor module comprises a dumbbell-shaped core segment and two or four outer segments (3, 3', 3", 3"') that are arranged around the core segment , - the segments (2, 3, 3', 3", 3"') in the assembled state enclose a hollow chamber - the outer segments (3, 3', 3", 3"') comprise a concave curvature that is facing the core segment and in each case multiple conductor tracks are applied to the surfaces of said outer segments and - multiple conductor tracks are applied to the peripheral surface of the core segment - the individual conductor tracks comprise in each case contact sites by way of which it is possible to connect in an electrical manner a conductor track of one segment to at least one conductor track of another segment (3, 3', 3", 3"') and - all the conductor tracks in the connected state together form an annular coil .
A gasoline fuel composition for a fuel injected gasoline engine, the gasoline fuel composition comprising, based on a total weight of the fuel composition, from 1 to 100 ppm of a fuel soluble quaternary ammonium salt derived from a reaction of an amido amine containing at least one tertiary amino group and an epoxide carried out in the presence of a proton donor selected from a carboxylic acid and an alkyl phenol, wherein the amido amine is a compound of the formula wherein each of R 10 , and R 11 is selected from hydrocarbyl groups containing from 1 to 50 carbon atoms, each R 9 , R 12 , R 13 and R 14 is independently selected from hydrogen or a hydrocarbyl group, x ranges from 1 to 6, y is 0 or 1, z is 1 to 6, and n ranges from 1 to 6, and wherein each hydrocarbyl group R 9 to R 14 is independently linear, branched or cyclic; wherein each hydrocarbyl group R 9 to R 14 is independently substituted or unsubstituted; wherein each hydrocarbyl group R 9 to R 14 is independently saturated or unsaturated; and wherein each hydrocarbyl group R 9 to R 14 optionally contains at least one hetero atom.
A laser-induced ultrasonic wave apparatus , the apparatus comprising: a laser source to irradiate a target object and a thermoelastic material layer with a laser beam; the thermoelastic material layer to generate a first acoustic wave based upon the irradiation of the thermoelastic material layer by the laser beam, and to transmit the first acoustic wave to the target object; and a receiving unit including transducers configured to receive and convert an echo acoustic wave of the first acoustic wave, as reflected from the target object , into a first electric signal, and receive and convert a second acoustic wave generated by the irradiation of the target object by the laser beam into a second electric signal; wherein a substrate is arranged between a lower surface of the thermoelastic material layer and an upper surface of the receiving unit including transducers, supports the thermoelastic material layer and the receiving unit including transducers to form a single body, and is formed of quartz, fused silica, or glass such that the laser beam, the first acoustic wave and the second acoustic wave traverse through the substrate and the thermoelastic material layer is formed of at least one of a metal, a semiconductor material, a carbon-based material, and a polymer material, as a different material of the substrate . a laser source to irradiate a target object and a thermoelastic material layer with a laser beam; the thermoelastic material layer to generate a first acoustic wave based upon the irradiation of the thermoelastic material layer by the laser beam, and to transmit the first acoustic wave to the target object; and a receiving unit including transducers configured to receive and convert an echo acoustic wave of the first acoustic wave, as reflected from the target object , into a first electric signal, and receive and convert a second acoustic wave generated by the irradiation of the target object by the laser beam into a second electric signal; wherein a substrate is arranged between a lower surface of the thermoelastic material layer and an upper surface of the receiving unit including transducers, supports the thermoelastic material layer and the receiving unit including transducers to form a single body, and is formed of quartz, fused silica, or glass such that the laser beam, the first acoustic wave and the second acoustic wave traverse through the substrate and the thermoelastic material layer is formed of at least one of a metal, a semiconductor material, a carbon-based material, and a polymer material, as a different material of the substrate .
An anti-vibration rubber composition, comprising: (A) a diene-based rubber; (B) a halogen-based flame retardant having a melting point of 150°C or less; and (C) aluminum hydroxide having a volume-average particle diameter of 0.75 μm or less which is measured with a laser diffraction/ scattering particle size distribution-measuring apparatus, wherein a blending amount of the halogen-based flame retardant (B) falls within a range of from 15 parts by weight to 60 parts by weight with respect to 100 parts by weight of the diene-based rubber (A), and a blending amount of the aluminum hydroxide (C) falls within a range of from 50 parts by weight to 150 parts by weight with respect to 100 parts by weight of the diene-based rubber (A). (A) a diene-based rubber; (B) a halogen-based flame retardant having a melting point of 150°C or less; and (C) aluminum hydroxide having a volume-average particle diameter of 0.75 μm or less which is measured with a laser diffraction/ scattering particle size distribution-measuring apparatus,
A method for deleting user equipment , comprising: receiving , by a virtual broadband remote access server control plane vBRAS-CP device , a delete instruction from a control device , wherein the delete instruction comprises a target attribute, and the target attribute corresponds to at least two user equipments ; and sending , by the vBRAS-CP device , a delete entry operation to a virtual broadband remote access server user plane vBRAS-UP device , to instruct the vBRAS-UP device to delete entries of the user equipments corresponding to the target attribute; and the delete entry operation comprises the target attribute. receiving , by a virtual broadband remote access server control plane vBRAS-CP device , a delete instruction from a control device , wherein the delete instruction comprises a target attribute, and the target attribute corresponds to at least two user equipments ; and sending , by the vBRAS-CP device , a delete entry operation to a virtual broadband remote access server user plane vBRAS-UP device , to instruct the vBRAS-UP device to delete entries of the user equipments corresponding to the target attribute; and the delete entry operation comprises the target attribute.
An information processing apparatus comprising: an acquisition unit configured to acquire parallax image data from a parallax image generator , said parallax image data indicating a parallax image being information including a position in a vertical direction of an object, a position in a horizontal direction of the object, and a position in a depth direction of the object that are associated with one another, and to calculate a parallax value frequency distribution for each row region of the parallax image data obtained by dividing the image into multiple parts in a vertical direction; an object region extracting unit configured to search a search region of the parallax image for an object line, determine the lowermost end and the uppermost end of the object line, and determine circumscribed rectangles of an object line group as regions of the objects in the parallax image, wherein one circumscribed rectangle of the object line group is detected as the object region in the parallax image; a type determination unit configured to determine a type of the object based on information on a height, width and depth of an object corresponding to the object region; a position determination unit configured to determine a position of the object based on the type of the object determined by the type determination unit ; and a tracking unit configured to track the object based on the position of the object determined by a position determination unit . an acquisition unit configured to acquire parallax image data from a parallax image generator , said parallax image data indicating a parallax image being information including a position in a vertical direction of an object, a position in a horizontal direction of the object, and a position in a depth direction of the object that are associated with one another, and to calculate a parallax value frequency distribution for each row region of the parallax image data obtained by dividing the image into multiple parts in a vertical direction; an object region extracting unit configured to search a search region of the parallax image for an object line, determine the lowermost end and the uppermost end of the object line, and determine circumscribed rectangles of an object line group as regions of the objects in the parallax image, wherein one circumscribed rectangle of the object line group is detected as the object region in the parallax image; a type determination unit configured to determine a type of the object based on information on a height, width and depth of an object corresponding to the object region; a position determination unit configured to determine a position of the object based on the type of the object determined by the type determination unit ; and a tracking unit configured to track the object based on the position of the object determined by a position determination unit .
A vehicle brake control device comprising: a wheel deceleration calculating unit configured to calculate a wheel deceleration of each of wheels of a vehicle; and a front and rear wheel braking distribution controlling unit configured to execute a front and rear wheel braking distribution control for distributing a braking force on front and rear wheels, characterized in that the front and rear wheel braking distribution controlling unit is configured to start the front and rear wheel braking distribution control on front and rear wheels of one of left and right sides if an absolute value of a wheel deceleration of the front wheel is equal to or larger than a first threshold and an absolute value of a wheel deceleration of the rear wheel is equal to or larger than a second threshold. a wheel deceleration calculating unit configured to calculate a wheel deceleration of each of wheels of a vehicle; and a front and rear wheel braking distribution controlling unit configured to execute a front and rear wheel braking distribution control for distributing a braking force on front and rear wheels, characterized in that the front and rear wheel braking distribution controlling unit is configured to start the front and rear wheel braking distribution control on front and rear wheels of one of left and right sides if an absolute value of a wheel deceleration of the front wheel is equal to or larger than a first threshold and an absolute value of a wheel deceleration of the rear wheel is equal to or larger than a second threshold.
A power module comprising: an insulating base layer ; a metallic plate disposed on the insulating base layer; a semiconductor device disposed on the metallic plate ; a first insulating layer and a second insulating layer respectively disposed on the metallic plate ; a metallic land for main electrode wiring disposed on the first insulating layer; a metallic land for signal wiring disposed on the second insulating layer ; the power module further including a first bonding wire configured to electrically connect between the semiconductor device and the metallic land for main electrode wiring; the power module further including a second bonding wire configured to electrically connect between the semiconductor device and the metallic land for signal wiring; and a mold resin for molding the metallic plate , the first insulating layer and the second insulating layer , the metallic land for main electrode wiring and the metallic land for signal wiring, the semiconductor device , and the first bonding wire and the second bonding wire , the power module being characterized in that : the insulating base layer comprises a relatively-hard insulating layer disposed at a metallic plate side, and a relatively-soft insulating layer disposed at a side opposite to the metallic plate side, the relatively-soft insulating layer being softer than the relatively-hard insulating layer . an insulating base layer ; a metallic plate disposed on the insulating base layer; a semiconductor device disposed on the metallic plate ; a first insulating layer and a second insulating layer respectively disposed on the metallic plate ; a metallic land for main electrode wiring disposed on the first insulating layer; a metallic land for signal wiring disposed on the second insulating layer ; the power module further including a first bonding wire configured to electrically connect between the semiconductor device and the metallic land for main electrode wiring; the power module further including a second bonding wire configured to electrically connect between the semiconductor device and the metallic land for signal wiring; and a mold resin for molding the metallic plate , the first insulating layer and the second insulating layer , the metallic land for main electrode wiring and the metallic land for signal wiring, the semiconductor device , and the first bonding wire and the second bonding wire , the power module being characterized in that : the insulating base layer comprises a relatively-hard insulating layer disposed at a metallic plate side, and a relatively-soft insulating layer disposed at a side opposite to the metallic plate side, the relatively-soft insulating layer being softer than the relatively-hard insulating layer .
A pump comprising: a frame including a reservoir , wherein the reservoir stores a hydraulic fluid; a motor assembly supported by the frame ; and a pump assembly operably driven by the motor assembly , the pump assembly in fluid communication with the reservoir and configured to dispense the hydraulic fluid out of the frame , wherein the pump assembly includes a first piston , a second piston , characterised by a housing having an inlet in fluid communication with the reservoir , and a valve positioned in the inlet , the housing supporting the first piston and the second piston , the valve being configured to allow flow from the reservoir to the housing and to prevent flow from the housing to the reservoir , the first piston and the second piston each directly drawing fluid from the housing , the housing being substantially filled with hydraulic fluid from the reservoir through the inlet , the first piston dispensing hydraulic fluid out of the frame between a first pressure and a second pressure greater than the first pressure, and the second piston dispensing hydraulic fluid out of the frame between the first pressure and a third pressure, the third pressure being greater than the second pressure. a frame including a reservoir , wherein the reservoir stores a hydraulic fluid; a motor assembly supported by the frame ; and a pump assembly operably driven by the motor assembly , the pump assembly in fluid communication with the reservoir and configured to dispense the hydraulic fluid out of the frame , wherein the pump assembly includes a first piston , a second piston , characterised by a housing having an inlet in fluid communication with the reservoir , and a valve positioned in the inlet , the housing supporting the first piston and the second piston , the valve being configured to allow flow from the reservoir to the housing and to prevent flow from the housing to the reservoir , the first piston and the second piston each directly drawing fluid from the housing , the housing being substantially filled with hydraulic fluid from the reservoir through the inlet , the first piston dispensing hydraulic fluid out of the frame between a first pressure and a second pressure greater than the first pressure, and the second piston dispensing hydraulic fluid out of the frame between the first pressure and a third pressure, the third pressure being greater than the second pressure.
A computer-implemented cooking method , comprising: receiving first image data corresponding to a view associated with a solid food item at a first time of a cooking process implemented by a cooking apparatus; receiving second image data corresponding to a view associated with the solid food item at a second time of the cooking process; comparing the first image data with the second image data to detect a geometric change indicative of liquid loss from the solid food item between the first time and the second time as a result of the cooking process, wherein the geometric change is detected by identifying a change in position and/or size of at least part of the solid food item between the first and second image data; identifying a transition from a first phase to a second phase of the cooking process where liquid loss from the solid food item as a result of the cooking process occurs at a higher rate during the second phase than the first phase by comparing the identified change in position and/or size with a threshold geometrical change value indicative of the transition, wherein the transition from the first phase to the second phase occurs when, during the cooking process, a structure of the solid food item undergoes a physical change as a result of the cooking process such that liquid is released from the structure; and in response to the identified change in position and/or size crossing the threshold geometrical change value, causing the cooking apparatus to modify the cooking process by reducing a cooking temperature of the cooking apparatus. receiving first image data corresponding to a view associated with a solid food item at a first time of a cooking process implemented by a cooking apparatus; receiving second image data corresponding to a view associated with the solid food item at a second time of the cooking process; comparing the first image data with the second image data to detect a geometric change indicative of liquid loss from the solid food item between the first time and the second time as a result of the cooking process, wherein the geometric change is detected by identifying a change in position and/or size of at least part of the solid food item between the first and second image data; identifying a transition from a first phase to a second phase of the cooking process where liquid loss from the solid food item as a result of the cooking process occurs at a higher rate during the second phase than the first phase by comparing the identified change in position and/or size with a threshold geometrical change value indicative of the transition, wherein the transition from the first phase to the second phase occurs when, during the cooking process, a structure of the solid food item undergoes a physical change as a result of the cooking process such that liquid is released from the structure; and in response to the identified change in position and/or size crossing the threshold geometrical change value, causing the cooking apparatus to modify the cooking process by reducing a cooking temperature of the cooking apparatus.
A device for purification of grey water and recovery of surfactants and purified water comprising: i. an air tight container for holding grey water comprising an outlet port for discharging out foam; ii. the container comprising a means for aeration of contents of the container ; iii. a foam conveyor connected to the outlet port ; iv. a foam breaking device ; v. an ultra filter provided with an ultra filter casing drain valve for draining the concentrated soil, vi. a pump , wherein the ultra filter and the pump are in fluid communication with the air tight container ; wherein the outlet port is in fluid communication with the foam breaking device ; and wherein the foam breaking device comprises: a. an inverted cup with open mouth of the cup positioned in a collection tray ; b. a disc connected to a motor to facilitate rotation of the disc and placed in the cup and rotatably connected to base of the cup ; wherein the foam conveyor establishes fluid communication between the outlet port and the disc of the foam breaking device and wherein the surface of the disc is roughened with elements having a dimension of between 0.01 and 3 mm. i. an air tight container for holding grey water comprising an outlet port for discharging out foam; ii. the container comprising a means for aeration of contents of the container ; iii. a foam conveyor connected to the outlet port ; iv. a foam breaking device ; v. an ultra filter provided with an ultra filter casing drain valve for draining the concentrated soil, vi. a pump , a. an inverted cup with open mouth of the cup positioned in a collection tray ; b. a disc connected to a motor to facilitate rotation of the disc and placed in the cup and rotatably connected to base of the cup ;
A hard surface cleaning composition having a pH of greater than 7.0 measured on the neat composition, at 25°C and comprising: (a) from 0.01% to 10% by weight of a surfactant system; and (b) a carboxylated fructan; wherein the surfactant system comprises: (a) from 0.1% to 4.5% by weight of the composition of alkoxylated nonionic surfactant, and (b) from 0.005% to 2.0% by weight of the composition of amine oxide surfactant. (a) from 0.01% to 10% by weight of a surfactant system; and (b) a carboxylated fructan; (a) from 0.1% to 4.5% by weight of the composition of alkoxylated nonionic surfactant, and (b) from 0.005% to 2.0% by weight of the composition of amine oxide surfactant.