mhurhangee/patent-ind-claim-en huggingface dataset:
A lever transmission for selectively locking or unlocking an overlapped leaf of double-leaf windows, French windows or the like with a faceplate section and at least one drive rod section displaceably guided on the faceplate section with an actuating lever , with a link , with a bearing of the link in a central region on the actuating lever , with a bearing of the second end of the link , with a bearing of an end of the actuating lever , wherein at least one of the bearings of the actuating lever of the link is articulated on the drive rod section and the other of the bearings is articulated on a second drive rod section or the faceplate section , wherein in a transport position of the actuating lever , the link and the drive rod section lie parallel one above the other and the drive rod section lies in an unlocked position, characterized in that one of the bearings has a bearing bolt and a spring element and that the spring element is designed after an initial actuation to generate a positive connection acting in the longitudinal direction between the bearing bolt and an adjacent section of the actuating lever , the link , the faceplate section or the drive rod section .
A method of manufacturing an electrode array , said method comprising the steps of: forming a first insulating layer from a first nonconductive material with said first insulating layer having opposed first and second surfaces ; depositing, by pressure-driven extrusion printing, a first conductive material over a portion of the second surface of the first insulating layer to form a first conductive layer having opposed first and second surfaces with the first surface of the first conducting layer facing the first insulating layer, with another portion of the second surface of the first insulating layer remaining exposed; depositing a second nonconductive material over a portion of the second surface of the first conductive layer and over the exposed portion of the second surface of the first insulating layer to form a second insulating layer having opposed first and second surfaces and a gap extending between the first and second surfaces of the second insulating layer with the gap exposing a portion of the second surface of the first conductive layer; and depositing, by pressure-driven extrusion printing, a second conductive material into the gap and over the exposed portion of the second surface of the first conductive layer to form a second conductive layer electrically connected to the first conductive layer to form at least one electrode of the electrode array forming a first insulating layer from a first nonconductive material with said first insulating layer having opposed first and second surfaces ; depositing, by pressure-driven extrusion printing, a first conductive material over a portion of the second surface of the first insulating layer to form a first conductive layer having opposed first and second surfaces with the first surface of the first conducting layer facing the first insulating layer, with another portion of the second surface of the first insulating layer remaining exposed; depositing a second nonconductive material over a portion of the second surface of the first conductive layer and over the exposed portion of the second surface of the first insulating layer to form a second insulating layer having opposed first and second surfaces and a gap extending between the first and second surfaces of the second insulating layer with the gap exposing a portion of the second surface of the first conductive layer; and depositing, by pressure-driven extrusion printing, a second conductive material into the gap and over the exposed portion of the second surface of the first conductive layer to form a second conductive layer electrically connected to the first conductive layer to form at least one electrode of the electrode array
A drive device comprising: a drive circuit that is configured to drive a plurality of channels on an individual basis, the plurality of channels including a plurality of light emitting elements ; and a detection circuit that is configured to collectively detect abnormalities of all the channels, wherein the drive device is configured to be electrically and mechanically connectable, via a plurality of microbumps , to a light emitting element array that includes the plurality of light emitting elements , characterized in that the detection circuit includes a plurality of pseudo-resistors (Ra) configured to represent an internal resistance of the light emitting elements of the respective channels in a pseudo-manner, and a plurality of shunt switches that is series-connected to the respective pseudo-resistors (Ra), and in a case where the light emitting element array is not connected, an operating voltage of the light emitting elements of all the channels is generated in a pseudo-manner by bringing the plurality of shunt switches into conduction. a drive circuit that is configured to drive a plurality of channels on an individual basis, the plurality of channels including a plurality of light emitting elements ; and a detection circuit that is configured to collectively detect abnormalities of all the channels, wherein the drive device is configured to be electrically and mechanically connectable, via a plurality of microbumps , to a light emitting element array that includes the plurality of light emitting elements , the detection circuit includes a plurality of pseudo-resistors (Ra) configured to represent an internal resistance of the light emitting elements of the respective channels in a pseudo-manner, and a plurality of shunt switches that is series-connected to the respective pseudo-resistors (Ra), and a plurality of pseudo-resistors (Ra) configured to represent an internal resistance of the light emitting elements of the respective channels in a pseudo-manner, and a plurality of shunt switches that is series-connected to the respective pseudo-resistors (Ra), and in a case where the light emitting element array is not connected, an operating voltage of the light emitting elements of all the channels is generated in a pseudo-manner by bringing the plurality of shunt switches into conduction.
An adjustable stroke mechanism for a random orbital machine comprising: a housing having a central axis and a wall enclosing a cavity; at least one counterweight movably disposed within the cavity; a mounting assembly disposed within the cavity, the mounting assembly including a workpiece attachment mechanism; characterized in that a stroke adjustor including a rotatable cam mechanism comprising a cam , the cam mechanism coupling the at least one counterweight with the mounting assembly , the stroke adjustor including an adjustor ring surrounding the wall of the housing, wherein the adjustor ring is axially moveable and is rotatable around the central axis , the stroke adjustor cam mechanism, upon rotation of the cam mechanism, enabling the counterweight and mounting assembly to move in response to adjustor ring movement and with respect to one another such that a distance between the counterweight and the mounting assembly is variably adjusted which, in turn, variably adjusts a stroke radius of the workpiece attachment mechanism with respect to the central axis of the housing . a housing having a central axis and a wall enclosing a cavity; at least one counterweight movably disposed within the cavity; a mounting assembly disposed within the cavity, the mounting assembly including a workpiece attachment mechanism;
A method for uplink scheduling, comprising: generating (S110), by a terminal device, first information according to a downlink reference signal sent by a network device; and sending (S120), by the terminal device, the first information, which is not an uplink reference signal, to the network device for the network device to determine, according to the first information, a waveform to be adopted by the terminal device for performing uplink transmission; wherein after the terminal device sends the first information to the network device, the method further comprises: receiving, by the terminal device, second information sent by the network device, wherein the second information is used for instructing the terminal device to send the uplink reference signal to the network device; and sending, by the terminal device, the uplink reference signal to the network device according to the second information, and determining, by the network device, a state of the uplink channel by measuring the uplink reference signal and further determining, according to the state of the uplink channel, the waveform to be adopted by the terminal device for performing uplink transmission. generating (S110), by a terminal device, first information according to a downlink reference signal sent by a network device; and sending (S120), by the terminal device, the first information, which is not an uplink reference signal, to the network device for the network device to determine, according to the first information, a waveform to be adopted by the terminal device for performing uplink transmission; wherein after the terminal device sends the first information to the network device, the method further comprises: receiving, by the terminal device, second information sent by the network device, wherein the second information is used for instructing the terminal device to send the uplink reference signal to the network device; and sending, by the terminal device, the uplink reference signal to the network device according to the second information, receiving, by the terminal device, second information sent by the network device, wherein the second information is used for instructing the terminal device to send the uplink reference signal to the network device; and sending, by the terminal device, the uplink reference signal to the network device according to the second information, and determining, by the network device, a state of the uplink channel by measuring the uplink reference signal and further determining, according to the state of the uplink channel, the waveform to be adopted by the terminal device for performing uplink transmission.
A spinal fixation device, comprising: a cage defining a gap; and a plurality of deployment plates each rotatably hinge coupled to the cage at one side end of each of the plurality of deployment plates , characterized by further comprising a closer rotatably disposed on a posterior side of the cage , wherein when the closer rotates, two ends of the closer cover the hinge-coupled parts of the deployment plates on the posterior side of the cage to prevent the plurality of deployment plates from rotating to an arbitrary angle around the hinge coupling from folding. a cage defining a gap; and a plurality of deployment plates each rotatably hinge coupled to the cage at one side end of each of the plurality of deployment plates , characterized by further comprising a closer rotatably disposed on a posterior side of the cage , wherein when the closer rotates, two ends of the closer cover the hinge-coupled parts of the deployment plates on the posterior side of the cage to prevent the plurality of deployment plates from rotating to an arbitrary angle around the hinge coupling from folding.
A system, comprising: a plurality of power supply systems that are configured to supply electrical power to at least a section of a data center; a first plurality of sets of server racks ; a first plurality of power buses that are configured to conduct the electrical power from at least some of the plurality of power supply systems to the first plurality of sets of server racks, wherein the first plurality of sets of server racks and the first plurality of power buses are connected in accordance with a first connection pattern to create a distributed, redundant configuration; the system being characterized in comprising: a second plurality of sets of server racks ; and a second plurality of power buses that are configured to conduct the electrical power from at least some of the plurality of power supply systems to the second plurality of sets of server racks, wherein the second plurality of sets of server racks and the second plurality of power buses are connected in accordance with a second connection pattern to create a non-redundant configuration. a plurality of power supply systems that are configured to supply electrical power to at least a section of a data center; a first plurality of sets of server racks ; a first plurality of power buses that are configured to conduct the electrical power from at least some of the plurality of power supply systems to the first plurality of sets of server racks, wherein the first plurality of sets of server racks and the first plurality of power buses are connected in accordance with a first connection pattern to create a distributed, redundant configuration; the system being characterized in comprising: a second plurality of sets of server racks ; and a second plurality of power buses that are configured to conduct the electrical power from at least some of the plurality of power supply systems to the second plurality of sets of server racks, wherein the second plurality of sets of server racks and the second plurality of power buses are connected in accordance with a second connection pattern to create a non-redundant configuration.
A printer comprising: a main body comprising a paper sheet storage portion provided inside the main body , the paper sheet storage portion storing a roll of paper sheet and holding the paper sheet, the main body further having a first opening through which a roll of paper can be inserted for installation within the paper sheet storage portion and a second opening through which the roll of paper can be inserted for installation within the paper sheet storage portion ; a first cover configured to open and close the first opening; a second cover configured to open and close the second opening; a printing head attached to the first cover and configured to print an image on paper drawn out from the paper sheet storage portion ; and a roller attached to the second cover and configured to convey the paper from the roll of paper installed within the paper sheet storage portion to the printing head , wherein: the paper is conveyed by the roller and printing is performed by the printing head when both the first and second covers are closed, and the first and second covers form two contiguous and mutually perpendicular surfaces of the printer when the first and second covers are closed. a main body comprising a paper sheet storage portion provided inside the main body , the paper sheet storage portion storing a roll of paper sheet and holding the paper sheet, the main body further having a first opening through which a roll of paper can be inserted for installation within the paper sheet storage portion and a second opening through which the roll of paper can be inserted for installation within the paper sheet storage portion ; a first cover configured to open and close the first opening; a second cover configured to open and close the second opening; a printing head attached to the first cover and configured to print an image on paper drawn out from the paper sheet storage portion ; and a roller attached to the second cover and configured to convey the paper from the roll of paper installed within the paper sheet storage portion to the printing head , wherein: the paper is conveyed by the roller and printing is performed by the printing head when both the first and second covers are closed, and the first and second covers form two contiguous and mutually perpendicular surfaces of the printer when the first and second covers are closed. the paper is conveyed by the roller and printing is performed by the printing head when both the first and second covers are closed, and the first and second covers form two contiguous and mutually perpendicular surfaces of the printer when the first and second covers are closed.
A marking method for marking glass sheets that comprise at least on one of their two glass surfaces (1a;b) a protective coating , in particular in the form of a polymer coating or in the form of a peel-off protective film, and comprise a functional coating , situated under the protective coating , having at least one metal-containing and/or at least one ceramic functional layer, characterized in that the protective coating is removed, in particular burned, by laser radiation in the region of a marking that is to be applied, and, in the same working step, the functional coating is modified in its color by the laser radiation in the region exposed by the removal of the protective coating in order to produce the marking.
Combination comprising a support bar and a material web wound to form a coreless roll , wherein a bearing journal projecting beyond the roll is provided at each end, wherein a first part of the support bar passes through the roll over the entire length and has a projecting first end which forms the first of the two bearing journals and wherein a second part of the support bar is provided with the second bearing journal which is rotatable relative to the roll , characterised in that the first part has an axial bore at the second end, in which a first end of a rotary body forming the second part is latched within the roll , and that the rotary body has a second end projecting from the roll , which forms the rotatable, second bearing journal .
A system, comprising: a processing circuit configured to implement an application having a task list function, the processing circuit being further configured to receive data indicative of a plurality of tasks , to analyze the data indicative of the plurality of tasks, to find one or more locations associated with each of the plurality of tasks based on the analysis, characterised by further being configured to provide a user with a route comprising the one or more locations associated with each of the plurality of tasks. to receive data indicative of a plurality of tasks , to analyze the data indicative of the plurality of tasks, to find one or more locations associated with each of the plurality of tasks based on the analysis, characterised by further being configured to provide a user with a route comprising the one or more locations associated with each of the plurality of tasks.
A method of determining a maturity of a cell included in a target colony, the method comprising: a step of calculating an area of the target colony based on an image in which the target colony is captured; a step of calculating , based on the image, a number of cells included in the target colony of which an area is calculated according to the area calculation step, wherein the number of cells is determined from the area of the target colony according to a predetermined relationship between a number of cells in a colony of the same cell line of the cell included in the target colony and the colony area; a step of calculating an area per one individual cell included in the target colony based on the area of the target colony calculated according to the area calculation step and the number of the cells included in the target colony calculated according to the cell number calculation step; a step of acquiring, from a memory , maturity information of a cell line, wherein the maturity information is a relationship between an area of a colony of cells of the same cell line as the cell included in the target colony and an area per one individual cell included in the colony; and, a step of determining that the cell is matured when the calculated area per one individual cell included in the target colony reaches a threshold value of the maturity information. a step of calculating an area of the target colony based on an image in which the target colony is captured; a step of calculating , based on the image, a number of cells included in the target colony of which an area is calculated according to the area calculation step, wherein the number of cells is determined from the area of the target colony according to a predetermined relationship between a number of cells in a colony of the same cell line of the cell included in the target colony and the colony area; a step of calculating an area per one individual cell included in the target colony based on the area of the target colony calculated according to the area calculation step and the number of the cells included in the target colony calculated according to the cell number calculation step; a step of acquiring, from a memory , maturity information of a cell line, wherein the maturity information is a relationship between an area of a colony of cells of the same cell line as the cell included in the target colony and an area per one individual cell included in the colony; and, a step of determining that the cell is matured when the calculated area per one individual cell included in the target colony reaches a threshold value of the maturity information.
A fingerprint recognition module, comprising: a protective cover , a fingerprint recognition sensor , a circuit connector , a wall plate , and a lower cover , wherein the protective cover is located over the wall plate , the wall plate encircles the fingerprint recognition sensor , the protective cover fully covers an upper opening of the wall plate , electronic waterproof adhesive is provided in a seam between the wall plate and the protective cover , the lower cover is located under the wall plate , the lower cover bonds with a lower part of the wall plate , and the circuit connector is electrically connected to the fingerprint recognition sensor ; wherein "over" refers to a direction that a fingerprint sensing surface of the fingerprint recognition sensor faces, and "under" refers to a direction opposite to the direction that the fingerprint sensing surface of the fingerprint recognition sensor faces, characterized in that : a side opening is provided on a side face of the wall plate , the circuit connector protrudes from the side opening , and the side opening is stuffed with waterproof adhesive, or the fingerprint recognition module further comprises an elastomer , and the elastomer tightly fits the side opening . a protective cover , a fingerprint recognition sensor , a circuit connector , a wall plate , and a lower cover , wherein the protective cover is located over the wall plate , the wall plate encircles the fingerprint recognition sensor , the protective cover fully covers an upper opening of the wall plate , electronic waterproof adhesive is provided in a seam between the wall plate and the protective cover , the lower cover is located under the wall plate , the lower cover bonds with a lower part of the wall plate , and the circuit connector is electrically connected to the fingerprint recognition sensor ; wherein "over" refers to a direction that a fingerprint sensing surface of the fingerprint recognition sensor faces, and "under" refers to a direction opposite to the direction that the fingerprint sensing surface of the fingerprint recognition sensor faces, characterized in that : a side opening is provided on a side face of the wall plate , the circuit connector protrudes from the side opening , and the side opening is stuffed with waterproof adhesive, or the fingerprint recognition module further comprises an elastomer , and the elastomer tightly fits the side opening . a side opening is provided on a side face of the wall plate , the circuit connector protrudes from the side opening , and the side opening is stuffed with waterproof adhesive, or the fingerprint recognition module further comprises an elastomer , and the elastomer tightly fits the side opening .