mhurhangee/patent-ind-claim-en huggingface dataset:
Microfluidic device for analysing a gaseous compound, in a dynamic manner and in a flow, the device comprising: - mixing means which enable co-elution in a capillary tube of a gaseous phase comprising the gaseous compound and a solution comprising a derivative agent , the mixing means comprising, in order to carry out the transport of the gaseous phase, a mass flow controller which is adapted for gases or a gas pump , and, in order to carry out the transport of the solution, a peristaltic pump or a syringe pump , these means being controlled so that the gas flow is from 100 to 10000 times greater than the liquid flow; - means for reacting the gaseous compound in solution with the derivative agent ; - means for eliminating the gaseous phase ; and - means for determining the concentration of gaseous compound, characterised in that the mixing means enable an annular flow to be obtained and comprise an entrapment cell comprising a capillary tube which is supplied at the centre thereof with gaseous phase comprising the gaseous compound via a gaseous phase capillary supply tube and at the periphery with a solution comprising the derivative agent via a solution supply tube . - mixing means which enable co-elution in a capillary tube of a gaseous phase comprising the gaseous compound and a solution comprising a derivative agent , the mixing means comprising, in order to carry out the transport of the gaseous phase, a mass flow controller which is adapted for gases or a gas pump , and, in order to carry out the transport of the solution, a peristaltic pump or a syringe pump , these means being controlled so that the gas flow is from 100 to 10000 times greater than the liquid flow; - means for reacting the gaseous compound in solution with the derivative agent ; - means for eliminating the gaseous phase ; and - means for determining the concentration of gaseous compound,
An airfoil comprising pressure and suction side walls extending in a chord-wise direction (C) between leading and trailing edges , the pressure and suction side walls extending in a radial direction (R) to provide an exterior airfoil surface, wherein a main-body core cooling passage is arranged between the pressure and suction side walls in a thickness direction (T) and extends radially toward a platform , a skin core cooling passage is arranged in one of the pressure and suction side walls to form a hot side wall and a cold side wall , the hot side wall defines a portion of the exterior airfoil surface, and the cold side wall defines a portion of the skin core cooling passage , the skin core cooling passage is divided by a wall into two discrete first and second skin core cooling passages each supplied with cooling fluid from opposing sides; characterised in that the first and second skin core cooling passages each have an aspect ratio, H/W, that varies along its length between 3:1 and 1:5, wherein H corresponds to a passage height, which is in the thickness direction and normal to a tangent line (L) at the exterior airfoil surface, and W corresponds to a passage width, and the passage height (H) is in a range of 0.010-0.200 inches (0.25-5.08 mm).
Apparatus for holding a planar substrate , more particularly for a wafer and/or eWLB, having a support that forms a supporting surface for the substrate , which has at least one recess provided in the region of the supporting surface for the substrate , and having at least one holding means connected with an recess , in terms of flow, for fastening the substrate onto the apparatus , using a partial vacuum generated between support and substrate , and with an elastic seal , wherein at least one recess has the elastic seal , which is configured so that it can be moved from a position projecting beyond the edge of the recess into a position pulled back in relation to the edge of the recess or at most agreeing with this position , and which works together with the recess , which is connected with the holding mean in terms of flow, to draw the substrate against the support over its full area, by suction, characterized in that the seal is structured as a tubular seal, wherein seal which runs conically in cross-section, has two equal bending shanks , in order to allow a tilting movement of the seal that is free in the tilting direction.
A preparation method of a rapid composite of a long silver-graphite electrical contact material and a solder strip material, comprising the following steps: first step, making a silver-graphite ingot into a silver-graphite electrical contact sheet material by an extrusion process; second step, adding a solder strip material to the silver-graphite electrical contact sheet material and performing a sintering to composite the a solder strip material with the silver-graphite electrical contact sheet material to obtain a composite blank; and third step, performing a rolling and a heat treatment on the composite blank for one or more times to complete the composite of the long silver-graphite electrical contact material and the solder strip material. first step, making a silver-graphite ingot into a silver-graphite electrical contact sheet material by an extrusion process; second step, adding a solder strip material to the silver-graphite electrical contact sheet material and performing a sintering to composite the a solder strip material with the silver-graphite electrical contact sheet material to obtain a composite blank; and third step, performing a rolling and a heat treatment on the composite blank for one or more times to complete the composite of the long silver-graphite electrical contact material and the solder strip material.
A method of providing power to operational elements of an electronic system , the method comprising: maintaining sequencing information for the operational elements that indicates relative priorities and inrush delays for each of the operational elements, wherein an inrush delay for an operational element indicates how long the operational element takes to arrive into a functional state after an initial application of power to the operational element; responsive to ones of the operational elements requesting transition to a powered state, placing at least indications of the ones of the operational elements into a queue ; establishing a power sequencing process for servicing the queue with time delays between servicing each of the operational elements in the queue indicated by the inrush delays ordered using at least the relative priorities associated with the operational elements in the queue; and initiating the power sequencing process to provide input power to the operational elements in the queue. maintaining sequencing information for the operational elements that indicates relative priorities and inrush delays for each of the operational elements, wherein an inrush delay for an operational element indicates how long the operational element takes to arrive into a functional state after an initial application of power to the operational element; responsive to ones of the operational elements requesting transition to a powered state, placing at least indications of the ones of the operational elements into a queue ; establishing a power sequencing process for servicing the queue with time delays between servicing each of the operational elements in the queue indicated by the inrush delays ordered using at least the relative priorities associated with the operational elements in the queue; and initiating the power sequencing process to provide input power to the operational elements in the queue.
A cutting apparatus comprising: a rotary table on which a book having a bound spine is to be placed; a pressing unit configured to press the book against the rotary table ; a cutting unit configured to move a cutting knife between a cutting position and a non-cutting position and cut edges of the book except for the spine; a drive unit configured to rotate the rotary table with the book being pressed by the pressing unit and move the rotary table to the cutting unit ; a transport unit configured to transport the book having the edges cut by the cutting unit in a transport direction to a stacking position; and a control unit configured to control the drive unit and the transport unit , wherein the control unit is configured to perform a first transport mode and a second transport mode in a switchable manner, the first transport mode is to transport the book having the edges cut by the cutting unit in the transport direction in a state where the spine was rotated to be arranged in a predetermined direction about a rotation center of the rotary table , and the second transport mode is to transport the book having the edges cut by the cutting unit in the transport direction in a state where the spine was rotated to be arranged in a direction different from the predetermined direction about the rotation center. a rotary table on which a book having a bound spine is to be placed; a pressing unit configured to press the book against the rotary table ; a cutting unit configured to move a cutting knife between a cutting position and a non-cutting position and cut edges of the book except for the spine; a drive unit configured to rotate the rotary table with the book being pressed by the pressing unit and move the rotary table to the cutting unit ; a transport unit configured to transport the book having the edges cut by the cutting unit in a transport direction to a stacking position; and a control unit configured to control the drive unit and the transport unit , wherein the control unit is configured to perform a first transport mode and a second transport mode in a switchable manner, the first transport mode is to transport the book having the edges cut by the cutting unit in the transport direction in a state where the spine was rotated to be arranged in a predetermined direction about a rotation center of the rotary table , and the second transport mode is to transport the book having the edges cut by the cutting unit in the transport direction in a state where the spine was rotated to be arranged in a direction different from the predetermined direction about the rotation center.
A perforating gun system comprising: a cylindrical housing with a bottom end and a top end ; a prewired loading tube assembly disposed within the cylindrical housing and having a corresponding bottom end and top end ; an upper end fitting coupled to the top end of the prewired loading tube and the top end of the cylindrical housing ; a lower end fitting coupled to the bottom end of the prewired loading tube and the bottom end of the cylindrical housing ; upper electrical connections coupled to the upper end fitting ; lower electrical connections coupled to the lower end fitting ; a selective switch coupled to a detonator connector receptacle disposed within the upper end fitting ; and characterized by an auto-shunting modular detonator electrically coupled to the selective switch and further disposed within the upped end fitting ; wherein the auto-shunting modular detonator does not un-shunt until a mating receptacle is inserted, which disengages the shunt of the detonator ; and wherein the upper end fitting contains a portion to receive the detonator by electrically connecting it to a mating receptacle of the selective switch and affixing the detonator proximate to a detonating cord . a cylindrical housing with a bottom end and a top end ; a prewired loading tube assembly disposed within the cylindrical housing and having a corresponding bottom end and top end ; an upper end fitting coupled to the top end of the prewired loading tube and the top end of the cylindrical housing ; a lower end fitting coupled to the bottom end of the prewired loading tube and the bottom end of the cylindrical housing ; upper electrical connections coupled to the upper end fitting ; lower electrical connections coupled to the lower end fitting ; a selective switch coupled to a detonator connector receptacle disposed within the upper end fitting ; and characterized by an auto-shunting modular detonator electrically coupled to the selective switch and further disposed within the upped end fitting ; wherein the auto-shunting modular detonator does not un-shunt until a mating receptacle is inserted, which disengages the shunt of the detonator ; and wherein the upper end fitting contains a portion to receive the detonator by electrically connecting it to a mating receptacle of the selective switch and affixing the detonator proximate to a detonating cord .
A travel control method for a vehicle (V 0 ) for executing autonomous lane change control of the vehicle (V 0 ), characterized by when, before performing the autonomous lane change control, presenting a driver with lane change information as to whether or not to accept execution of the autonomous lane change control and detecting, in response to presentation of the lane change information, an acceptance input made by the driver indicating that the driver accepts the execution of the autonomous lane change control, the travel control method comprising: upon execution of autonomous control of two or more successive lane changes, before performing the two or more successive lane changes, presenting the driver with first lane change information as to whether or not to accept the execution of the autonomous control of the two or more successive lane changes; when detecting, in response to presentation of the first lane change information, a first acceptance input made by the driver indicating that the driver accepts the execution of the autonomous control of the two or more successive lane changes, executing first autonomous lane change control; after executing the first autonomous lane change control, presenting the driver with second lane change information as to whether or not to accept execution of the autonomous lane change control after the first lane change; and when detecting, in response to presentation of the second lane change information, a second acceptance input made by the driver indicating that the driver accepts the execution of the autonomous lane change control after the first lane change, executing the autonomous lane change control after the first lane change, wherein an action load, of the driver, of the second acceptance input is set smaller than an action load, of the driver, of the first acceptance input. upon execution of autonomous control of two or more successive lane changes, before performing the two or more successive lane changes, presenting the driver with first lane change information as to whether or not to accept the execution of the autonomous control of the two or more successive lane changes; when detecting, in response to presentation of the first lane change information, a first acceptance input made by the driver indicating that the driver accepts the execution of the autonomous control of the two or more successive lane changes, executing first autonomous lane change control; after executing the first autonomous lane change control, presenting the driver with second lane change information as to whether or not to accept execution of the autonomous lane change control after the first lane change; and when detecting, in response to presentation of the second lane change information, a second acceptance input made by the driver indicating that the driver accepts the execution of the autonomous lane change control after the first lane change, executing the autonomous lane change control after the first lane change, wherein an action load, of the driver, of the second acceptance input is set smaller than an action load, of the driver, of the first acceptance input.
An apparatus comprising: • a housing having first, second, third, and fourth conductive walls, each conductive wall being opposite to one of the other walls; • a dielectric situated within the housing, the dielectric defining a compartment within the housing; • an electrode aligned with the compartment, wherein the electrode comprises: at least three electrode sections , wherein each of the electrode sections is spaced apart from each adjacent electrode section , wherein, for each electrode section , a link extends between a center of a length of the electrode section and a center of a length of each adjacent electrode section , and the link electrically connects the electrode section with the adjacent electrode section and divides a space between the electrode section and the adjacent electrode section into two equal gaps ; • a liquid crystal, layer filling the compartment; and • a bias line coupled to the electrode . • a housing having first, second, third, and fourth conductive walls, each conductive wall being opposite to one of the other walls; • a dielectric situated within the housing, the dielectric defining a compartment within the housing; • an electrode aligned with the compartment, wherein the electrode comprises: at least three electrode sections , wherein each of the electrode sections is spaced apart from each adjacent electrode section , wherein, for each electrode section , a link extends between a center of a length of the electrode section and a center of a length of each adjacent electrode section , and the link electrically connects the electrode section with the adjacent electrode section and divides a space between the electrode section and the adjacent electrode section into two equal gaps ; • a liquid crystal, layer filling the compartment; and • a bias line coupled to the electrode .
A display device comprising a first integrated circuit (200; 200') comprising: an assembly of a plurality of light-emitting diodes , each diode comprising a vertical stack of a first semiconductor layer of a first conductivity type and of a second semiconductor layer of the second conductivity type, and the diodes being separated from one another by trenches (301; 401); for each diode, a first electrode arranged on top of and in contact with the surface of the second layer opposite to the first layer ; a second electrode common to said plurality of diodes, the second electrode extending in the trenches (301; 401) and at the periphery of the plurality of diodes and being in contact, in each diode, with the first semiconductor layer ; and on the side of a surface of the first circuit opposite to the first semiconductor layer , a connection structure comprising a dielectric layer having a plurality of identical or similar connection pads , regularly distributed across the entire surface of the first circuit, arranged therein, each diode having its first electrode in contact with at least one pad of thee connection structure , and the second electrode being in contact with a plurality of pads of the connection structure at the periphery of the plurality of diodes. an assembly of a plurality of light-emitting diodes , each diode comprising a vertical stack of a first semiconductor layer of a first conductivity type and of a second semiconductor layer of the second conductivity type, and the diodes being separated from one another by trenches (301; 401); for each diode, a first electrode arranged on top of and in contact with the surface of the second layer opposite to the first layer ; a second electrode common to said plurality of diodes, the second electrode extending in the trenches (301; 401) and at the periphery of the plurality of diodes and being in contact, in each diode, with the first semiconductor layer ; and on the side of a surface of the first circuit opposite to the first semiconductor layer , a connection structure comprising a dielectric layer having a plurality of identical or similar connection pads , regularly distributed across the entire surface of the first circuit, arranged therein, each diode having its first electrode in contact with at least one pad of thee connection structure , and the second electrode being in contact with a plurality of pads of the connection structure at the periphery of the plurality of diodes.
A washing machine comprising: a cabinet having an opening and an opening flange formed around the opening; a door provided to open and close the opening; a tub provided in the cabinet; and a pair of locking units provided to correspond to both side surfaces of the door and to selectively restrict an operation of the door when the door is closed, wherein at least one locking unit comprises: a mounting protrusion disposed at the cabinet to be mounted in a concave mounting groove which is provided at the side surface of the door; and a sliding member disposed at the cabinet to be selectively inserted into a concave fixing groove provided at the side surface of the door, and wherein the opening flange comprises a front flange disposed between the pair of locking units at a front side of the opening so that one side of the door is mounted thereon, characterised in that the opening flange comprises: a pair of side flanges formed at side surfaces of the opening to face each other; and a rear flange provided at an opposite side to the front flange and connected with the pair of the side flanges , and the front flange is formed to have a shallower slope than those of the side flanges and the rear flange . a cabinet having an opening and an opening flange formed around the opening; a door provided to open and close the opening; a tub provided in the cabinet; and a pair of locking units provided to correspond to both side surfaces of the door and to selectively restrict an operation of the door when the door is closed, wherein at least one locking unit comprises: a mounting protrusion disposed at the cabinet to be mounted in a concave mounting groove which is provided at the side surface of the door; and a sliding member disposed at the cabinet to be selectively inserted into a concave fixing groove provided at the side surface of the door, and a mounting protrusion disposed at the cabinet to be mounted in a concave mounting groove which is provided at the side surface of the door; and a sliding member disposed at the cabinet to be selectively inserted into a concave fixing groove provided at the side surface of the door, and wherein the opening flange comprises a front flange disposed between the pair of locking units at a front side of the opening so that one side of the door is mounted thereon, characterised in that the opening flange comprises: a pair of side flanges formed at side surfaces of the opening to face each other; and a rear flange provided at an opposite side to the front flange and connected with the pair of the side flanges , and a pair of side flanges formed at side surfaces of the opening to face each other; and a rear flange provided at an opposite side to the front flange and connected with the pair of the side flanges , and the front flange is formed to have a shallower slope than those of the side flanges and the rear flange .