mhurhangee/patent-ind-claim-en huggingface dataset:
An thin film fabricating apparatus comprising: an electrode bath for containing a thin film-forming material; a plurality of electrodes disposed in the electrode bath; a plurality of ring electrodes disposed on the electrode bath at positions corresponding to the electrodes; a supplying unit arranged to supply the thin film-forming material to the electrode bath ; and a collecting unit arranged to collect the thin film-forming material flowing from the electrode bath; characterised in that the electrodes are needle electrodes ; by a substrate stand disposed opposite to the needle electrodes and the ring electrodes, wherein the substrate stand holds a substrate on which a thin film is to be formed; in that the supplying unit and collecting unit are arranged to supply the thin film-forming material to the collecting unit such that the surface level of the thin film-forming material is substantially maintained at a first height; and in that the height of the needle electrodes is higher than the first height by a length (Hn) in the range of 0.15 millimeter to 4 millimeters. an electrode bath for containing a thin film-forming material; a plurality of electrodes disposed in the electrode bath; a plurality of ring electrodes disposed on the electrode bath at positions corresponding to the electrodes; a supplying unit arranged to supply the thin film-forming material to the electrode bath ; and a collecting unit arranged to collect the thin film-forming material flowing from the electrode bath; characterised in that the electrodes are needle electrodes ; by a substrate stand disposed opposite to the needle electrodes and the ring electrodes, wherein the substrate stand holds a substrate on which a thin film is to be formed; in that the supplying unit and collecting unit are arranged to supply the thin film-forming material to the collecting unit such that the surface level of the thin film-forming material is substantially maintained at a first height; and in that the height of the needle electrodes is higher than the first height by a length (Hn) in the range of 0.15 millimeter to 4 millimeters.
A water toothpick, comprising a high-pressure gas generator , a valve , a water supply , a water tank and a nozzle assembly , wherein the high-pressure gas generator is communicated with the nozzle assembly , the valve is arranged between the high-pressure gas generator and the nozzle assembly , and the water supply is respectively communicated with the water tank and the nozzle assembly , so as to convey water in the water tank to the nozzle assembly , wherein the water supply comprises a box assembly , a separator , a rebounding element , a first one-way valve and a second one-way valve , the box assembly is provided with an accommodating cavity , and the separator is movably arranged in the accommodating cavity to divide the accommodating cavity into a first accommodating cavity and a second accommodating cavity ; the first accommodating cavity is respectively communicated with the high-pressure gas generator and the nozzle assembly , and the valve is arranged between the first accommodating cavity and the nozzle assembly ; the second accommodating cavity is respectively communicated with the water tank and the nozzle assembly , the first one-way valve is arranged between the nozzle assembly and the second accommodating cavity , a blocking direction of the first one-way valve is a direction flowing from the nozzle assembly to the second accommodating cavity , the second one-way valve is arranged between the water tank and the second accommodating cavity , and a blocking direction of the second one-way valve is a direction flowing from the second accommodating cavity to the water tank ; and two ends of the rebounding element are connected to the separator and the box assembly .
A liquid impermeable switch chain/harness with cable, comprising; - a lower body which comprises at least one cable channel , - a first switch spring housing which is a channel located in the inner part of the lower body , - a switch terminal , produced in compliance with the cable channel in the lower body , which is placed into the lower body , - a first switch spring which is inserted into the inner part of the switch terminal and into the first switch spring housing located on the lower body , - an upper body which forms the outer part of the structure upon being connected with the lower body , - a trigger lower mechanism which is a piece, including a shaft spline and a switch housing , - wherein the lower portion of the switch housing of the trigger lower mechanism is disposed such that it is placed over the first switch spring ; - wherein a switch is placed in the upper part of the switch housing of the trigger lower mechanism ; - a lower body lug located on the lower body is mounted to a lower body lug slot , which is located on the upper body and useful for locking the lower body , and thus the mechanism is locked and fixed; after passing through a trigger clearance on the upper body , a trigger channel on the trigger is configured to engaged to the shaft spline , characterized by - a second switch spring which is mounted on the upper part of the switch and on which the upper body is mounted. - a lower body which comprises at least one cable channel , - a first switch spring housing which is a channel located in the inner part of the lower body , - a switch terminal , produced in compliance with the cable channel in the lower body , which is placed into the lower body , - a first switch spring which is inserted into the inner part of the switch terminal and into the first switch spring housing located on the lower body , - an upper body which forms the outer part of the structure upon being connected with the lower body , - a trigger lower mechanism which is a piece, including a shaft spline and a switch housing , - wherein the lower portion of the switch housing of the trigger lower mechanism is disposed such that it is placed over the first switch spring ; - wherein a switch is placed in the upper part of the switch housing of the trigger lower mechanism ; - a lower body lug located on the lower body is mounted to a lower body lug slot , which is located on the upper body and useful for locking the lower body , and thus the mechanism is locked and fixed; after passing through a trigger clearance on the upper body , a trigger channel on the trigger is configured to engaged to the shaft spline , characterized by - a second switch spring which is mounted on the upper part of the switch and on which the upper body is mounted.
A group III nitride semiconductor luminescence element having a mesa structure comprising a n-type layer , a p-type layer , and an active layer provided between the n-type layer and the p-type layer , wherein a n-electrode is provided on said n-type layer , a p-electrode comprises a first metal layer , a conductive layer and a second metal layer in this order on said p-type layer , and a specific resistance of said conductive layer is higher than the specific resistance of said first metal layer , the first metal layer is formed to the entire face of the laminate face of the p-type layer , the conductive layer is formed to the entire face of the laminate face of the first metal layer , and characterised in that from the top view of said group III nitride semiconductor element , a distance between an edge of the mesa structure and an outer peripheral of the second metal layer , which refers to the shortest pathway from the arbitrary selected mesa edge to the outline of the second metal layer , is 1/3 or more and 1.2 times or less of a current spreading length L s , or 20 μm or more and 40 μm or less.
A board work system comprising: a holding device configured to hold a board , the board being formed with a through-hole into which a lead of a leaded component is to be inserted; a mounting head configured to hold the leaded component and to insert each of a pair of leads of the held leaded component into the through-holes of the board held by the holding device ; a bending device configured to bend a lead inserted into the insertion hole ; the bending device includes (A) a pair of moving bodies each including an insertion hole into which a lead is inserted via the through-hole , (B) a holding body configured to hold the pair of moving bodies such that the moving bodies can be moved towards and away from each other, and (C) a drive source that changes an insertion hole spacing distance that is a distance between the insertion holes to a given distance by moving the pair of moving bodies towards and away from each other; characterized in an imaging device configured to image the leaded component held by the mounting head ; and a control device , the control device is configured to control the drive source based on the lead spacing distance that is a distance between the pair of leads obtained by the imaging device imaging the pair of leads of the leaded component prior to being inserted into the through-holes . a holding device configured to hold a board , the board being formed with a through-hole into which a lead of a leaded component is to be inserted; a mounting head configured to hold the leaded component and to insert each of a pair of leads of the held leaded component into the through-holes of the board held by the holding device ; a bending device configured to bend a lead inserted into the insertion hole ; the bending device includes (A) a pair of moving bodies each including an insertion hole into which a lead is inserted via the through-hole , (B) a holding body configured to hold the pair of moving bodies such that the moving bodies can be moved towards and away from each other, and (C) a drive source that changes an insertion hole spacing distance that is a distance between the insertion holes to a given distance by moving the pair of moving bodies towards and away from each other; characterized in (A) a pair of moving bodies each including an insertion hole into which a lead is inserted via the through-hole , (B) a holding body configured to hold the pair of moving bodies such that the moving bodies can be moved towards and away from each other, and (C) a drive source that changes an insertion hole spacing distance that is a distance between the insertion holes to a given distance by moving the pair of moving bodies towards and away from each other; characterized in an imaging device configured to image the leaded component held by the mounting head ; and a control device , the control device is configured to control the drive source based on the lead spacing distance that is a distance between the pair of leads obtained by the imaging device imaging the pair of leads of the leaded component prior to being inserted into the through-holes .
An outlet head for a spray device, the outlet head comprising: an inlet section having an opening adapted to receive an output section of a spray material container, said opening forming a first end of a fluid channel for receiving spray material from the spray material container; and an outlet section adapted to eject spray material and forming a second end of the fluid channel for ejecting spray material to the air; wherein the outlet section comprises an end-cap adjacent the second end of the fluid channel and wherein at least a portion of the front face of the end cap has grooves that provide a wicking effect; wherein the front face of the end-cap further comprises ridges that may collect and retain moisture droplets, wherein the ridges are further from the second end of the fluid channel than at least one portion of the grooves . an inlet section having an opening adapted to receive an output section of a spray material container, said opening forming a first end of a fluid channel for receiving spray material from the spray material container; and an outlet section adapted to eject spray material and forming a second end of the fluid channel for ejecting spray material to the air; wherein the outlet section comprises an end-cap adjacent the second end of the fluid channel and wherein at least a portion of the front face of the end cap has grooves that provide a wicking effect; wherein the front face of the end-cap further comprises ridges that may collect and retain moisture droplets, wherein the ridges are further from the second end of the fluid channel than at least one portion of the grooves .
A method, of a serverless computing cluster, comprising: receiving a user defined function, UDF; analyzing the UDF for characterizing information regarding provisioning required in order to enable execution of the UDF, the characterizing information including at least a location of data needed by the UDF; determining , based on the characterizing information, a set of eligible worker nodes capable of executing the UDF; generating and transmitting a pre-fetch command to a subset of the set of eligible worker nodes, the pre-fetch command generated such that each worker node of the subset of the eligible worker nodes retrieves and stores pre-fetched UDF data corresponding to the data needed by the UDF before the UDF has been assigned for execution; and assigning the UDF to the subset of the eligible worker nodes for execution. receiving a user defined function, UDF; analyzing the UDF for characterizing information regarding provisioning required in order to enable execution of the UDF, the characterizing information including at least a location of data needed by the UDF; determining , based on the characterizing information, a set of eligible worker nodes capable of executing the UDF; generating and transmitting a pre-fetch command to a subset of the set of eligible worker nodes, the pre-fetch command generated such that each worker node of the subset of the eligible worker nodes retrieves and stores pre-fetched UDF data corresponding to the data needed by the UDF before the UDF has been assigned for execution; and assigning the UDF to the subset of the eligible worker nodes for execution.
An equalization delay adjustment device able to adjust equalization delay of a plurality of optical network units that are coupled to a first optical line termination via respective protected optical fibers (131; 141-143) before a protection switching event and that are coupled to a second optical line termination via respective protecting optical fibers (132; 141-143) after said protection switching event, said equalization delay adjustment device comprising: - a round trip time measurement unit being arranged to measure after said protection switching event a round trip time RTT i for each optical network unit in a subset of said plurality of optical network units over said respective protecting optical fibers (132; 141-143); - an equalization delay adjustment determination unit being arranged to determine for each optical network unit in said subset of optical network units a respective equalization delay adjustment value ΔEqD i from a comparison of the equalization delay calculated from said round trip time RTT i measured after said protection switching event with the equalization delay applied by said optical network unit before said protection switching event, resulting in a subset of equalization delay adjustment values ΔEqD i ; - an averaging unit being arranged to determine an average equalization delay adjustment value ΔEqD by averaging said subset of equalization delay adjustment values ΔEqD i determined for said subset of optical network units ; and - an equalization delay configuration unit being arranged to configure said average equalization delay adjustment value ΔEqD in each optical network unit of said plurality of optical network units. - a round trip time measurement unit being arranged to measure after said protection switching event a round trip time RTT i for each optical network unit in a subset of said plurality of optical network units over said respective protecting optical fibers (132; 141-143); - an equalization delay adjustment determination unit being arranged to determine for each optical network unit in said subset of optical network units a respective equalization delay adjustment value ΔEqD i from a comparison of the equalization delay calculated from said round trip time RTT i measured after said protection switching event with the equalization delay applied by said optical network unit before said protection switching event, resulting in a subset of equalization delay adjustment values ΔEqD i ; - an averaging unit being arranged to determine an average equalization delay adjustment value ΔEqD by averaging said subset of equalization delay adjustment values ΔEqD i determined for said subset of optical network units ; and - an equalization delay configuration unit being arranged to configure said average equalization delay adjustment value ΔEqD in each optical network unit of said plurality of optical network units.
A device for 3D printing, comprising: a feeding pipe , wherein an opening extending along an axial direction of the feeding pipe is disposed on an outer wall of the feeding pipe ; and a sleeve sleeved on the feeding pipe , wherein a discharge port in communication with the opening is disposed on an outer wall of the sleeve , the sleeve is capable of rotating around an axis of the feeding pipe relative to the feeding pipe , so as to make the discharge port and the opening communicate or no longer communicate; a passage of the discharge port is a structure in which a section along material outflow direction gradually shrinks to a required size of the discharge port , the discharge port is a discharge port with a continuously adjustable size, and the discharge port being suitable for performing a continuous printing along a cross-sectional contour line of a target printing region; and the outer wall of the sleeve comprises a first portion and a second portion , the first portion and the second portion are slidable relative to each other along the axial direction to adjust the length of the discharge port . a feeding pipe , wherein an opening extending along an axial direction of the feeding pipe is disposed on an outer wall of the feeding pipe ; and a sleeve sleeved on the feeding pipe , wherein a discharge port in communication with the opening is disposed on an outer wall of the sleeve , the sleeve is capable of rotating around an axis of the feeding pipe relative to the feeding pipe , so as to make the discharge port and the opening communicate or no longer communicate; a passage of the discharge port is a structure in which a section along material outflow direction gradually shrinks to a required size of the discharge port , the discharge port is a discharge port with a continuously adjustable size, and the discharge port being suitable for performing a continuous printing along a cross-sectional contour line of a target printing region; and the outer wall of the sleeve comprises a first portion and a second portion , the first portion and the second portion are slidable relative to each other along the axial direction to adjust the length of the discharge port .
A light control laminate, comprising: a first transparent base material ; a second transparent base material ; and a light control layer arranged between the first transparent base material and the second transparent base material , the light control layer containing plural resin spacers , the 10% K value of the resin spacer being 10000 N/mm 2 or less, and the light control laminate being a Suspended Particle Device (SPD) system light control laminate or a Polymer Dispersed Liquid Crystal (PDLC) system light control laminate . the light control layer containing plural resin spacers , the 10% K value of the resin spacer being 10000 N/mm 2 or less, and
A component supply device comprising: a component support section configured to support multiple components in a scattered state; an imaging device configured to image the component supported by the component support section ; a holding tool configured to hold the component supported by the component support section ; a moving device configured to move the holding tool to any position above the component support section ; characterized by : a memory device configured to memorize a link between an orientation of the component supported on the component support section and a type of the component holding tool used for holding the component of the orientation; and a control device , wherein the control device includes an orientation determining section configured to determine the orientation of the component supported on the component support section based on image data captured by the imaging device , and a holding tool deciding section configured to decide the type of component holding tool memorized in the memory device and linked to the orientation of the component determined by the orientation determining section as the component holding tool for holding the component. a component support section configured to support multiple components in a scattered state; an imaging device configured to image the component supported by the component support section ; a holding tool configured to hold the component supported by the component support section ; a moving device configured to move the holding tool to any position above the component support section ; characterized by : a memory device configured to memorize a link between an orientation of the component supported on the component support section and a type of the component holding tool used for holding the component of the orientation; and a control device , wherein the control device includes an orientation determining section configured to determine the orientation of the component supported on the component support section based on image data captured by the imaging device , and a holding tool deciding section configured to decide the type of component holding tool memorized in the memory device and linked to the orientation of the component determined by the orientation determining section as the component holding tool for holding the component. a memory device configured to memorize a link between an orientation of the component supported on the component support section and a type of the component holding tool used for holding the component of the orientation; and a control device , wherein the control device includes an orientation determining section configured to determine the orientation of the component supported on the component support section based on image data captured by the imaging device , and a holding tool deciding section configured to decide the type of component holding tool memorized in the memory device and linked to the orientation of the component determined by the orientation determining section as the component holding tool for holding the component.