mhurhangee/patent-ind-claim-en huggingface dataset:
A method of fabricating an organic emitting display device, comprising the steps of: forming a first electrode and an auxiliary electrode over a substrate including a pixel region (P), wherein the first electrode is disposed in the pixel region, and the auxiliary electrode is spaced apart from the first electrode and disposed at a boundary of the pixel region; forming a bank over edges of the first electrode and including an auxiliary contact hole exposing the auxiliary electrode ; forming an organic layer over the first electrode , an upper surface of the bank , sidewalls of the bank in the auxiliary contact hole and the auxiliary electrode ; forming a conductive member comprising a conductive droplet in the auxiliary contact hole over the organic layer at a position of the auxiliary electrode , and forming a second electrode over the organic layer and conductive member , wherein the conductive member electrically connects the second electrode and the auxiliary electrode ( , wherein the step of forming the conductive member comprises: dropping a metal paste into the auxiliary contact hole such that the organic material pattern portion in the auxiliary contact hole is dissolved; and drying the metal paste and the dissolved organic material pattern portion such that the conductive member directly or indirectly contacts the auxiliary electrode . forming a first electrode and an auxiliary electrode over a substrate including a pixel region (P), wherein the first electrode is disposed in the pixel region, and the auxiliary electrode is spaced apart from the first electrode and disposed at a boundary of the pixel region; forming a bank over edges of the first electrode and including an auxiliary contact hole exposing the auxiliary electrode ; forming an organic layer over the first electrode , an upper surface of the bank , sidewalls of the bank in the auxiliary contact hole and the auxiliary electrode ; forming a conductive member comprising a conductive droplet in the auxiliary contact hole over the organic layer at a position of the auxiliary electrode , and forming a second electrode over the organic layer and conductive member , wherein the conductive member electrically connects the second electrode and the auxiliary electrode ( , wherein the step of forming the conductive member comprises: dropping a metal paste into the auxiliary contact hole such that the organic material pattern portion in the auxiliary contact hole is dissolved; and drying the metal paste and the dissolved organic material pattern portion such that the conductive member directly or indirectly contacts the auxiliary electrode . dropping a metal paste into the auxiliary contact hole such that the organic material pattern portion in the auxiliary contact hole is dissolved; and drying the metal paste and the dissolved organic material pattern portion such that the conductive member directly or indirectly contacts the auxiliary electrode .
Method for operating a heating system having at least two heaters which are connected to a common exhaust system , comprising at least the following steps: a) transmission of operating states from the at least two heaters to a higher-level management apparatus , b) processing of the operating states transmitted in step a) by the higher-level management apparatus , c) transmitting at least one result from step b) to at least one of the at least two heaters , d) adapting at least one operating parameter specification of the at least one of the at least two heaters if it has been detected that at least two of the heaters are being operated simultaneously in a heating mode, characterised in that the operating parameter specification describes a correlation between an operating state and an operating parameter of the heater . a) transmission of operating states from the at least two heaters to a higher-level management apparatus , b) processing of the operating states transmitted in step a) by the higher-level management apparatus , c) transmitting at least one result from step b) to at least one of the at least two heaters , d) adapting at least one operating parameter specification of the at least one of the at least two heaters if it has been detected that at least two of the heaters are being operated simultaneously in a heating mode,
A method for automatically decelerating an aircraft on a runway , the method comprising: determining whether the aircraft can decelerate to a selected velocity prior to reaching a target location along the runway; and in response to determining that the aircraft can decelerate to the selected velocity prior to reaching the target location, automatically decelerating the aircraft such that the aircraft reaches the selected velocity at the target location; the method further comprising: continuously adjusting a target deceleration required to decelerate the aircraft to meet the selected velocity at the target location, wherein the target deceleration is calculated from the selected velocity, a current distance between the current location of the aircraft and the target location, and a current velocity of the aircraft; passively decelerating the aircraft while the target deceleration is below a minimum deceleration threshold of the aircraft; and responsive to the target deceleration meeting or exceeding the minimum deceleration threshold of the aircraft, applying a brake system command to decelerate the aircraft at the target deceleration such that the aircraft decelerates to meet the selected velocity at the target location. determining whether the aircraft can decelerate to a selected velocity prior to reaching a target location along the runway; and in response to determining that the aircraft can decelerate to the selected velocity prior to reaching the target location, automatically decelerating the aircraft such that the aircraft reaches the selected velocity at the target location; the method further comprising: continuously adjusting a target deceleration required to decelerate the aircraft to meet the selected velocity at the target location, wherein the target deceleration is calculated from the selected velocity, a current distance between the current location of the aircraft and the target location, and a current velocity of the aircraft; passively decelerating the aircraft while the target deceleration is below a minimum deceleration threshold of the aircraft; and responsive to the target deceleration meeting or exceeding the minimum deceleration threshold of the aircraft, applying a brake system command to decelerate the aircraft at the target deceleration such that the aircraft decelerates to meet the selected velocity at the target location. continuously adjusting a target deceleration required to decelerate the aircraft to meet the selected velocity at the target location, wherein the target deceleration is calculated from the selected velocity, a current distance between the current location of the aircraft and the target location, and a current velocity of the aircraft; passively decelerating the aircraft while the target deceleration is below a minimum deceleration threshold of the aircraft; and responsive to the target deceleration meeting or exceeding the minimum deceleration threshold of the aircraft, applying a brake system command to decelerate the aircraft at the target deceleration such that the aircraft decelerates to meet the selected velocity at the target location.
A method comprising: receiving, by a load balancer, a packet comprising a request from a source device to an application associated with a virtual address in a network; mapping the request to a set of candidate servers hosting the application associated with the virtual address; encoding the set of candidate servers as a list of segments in a segment routing header associated with the packet, the list of segments in the segment routing header comprising one or more segment routing instructions for successively steering the packet through the set of candidate servers until one of the set of candidate servers accepts the request; determining that a first candidate server from the set of candidate servers is a next segment in the list of segments; encoding the first candidate server in a destination address field on an IPv6 header of the packet, the destination address field representing a next routing segment for the packet; and forwarding the packet to the first candidate server; wherein the segment routing header further comprises a first indication of a return address associated with the load balancer and a second indication of the virtual address associated with the application, wherein each of the segment routing instructions comprises an instruction to a respective segment in the list of segments for processing the packet, the instruction comprising at least one of a connect instruction, an end instruction, a data flag, a forward instruction, a stickiness instruction, and state information. receiving, by a load balancer, a packet comprising a request from a source device to an application associated with a virtual address in a network; mapping the request to a set of candidate servers hosting the application associated with the virtual address; encoding the set of candidate servers as a list of segments in a segment routing header associated with the packet, the list of segments in the segment routing header comprising one or more segment routing instructions for successively steering the packet through the set of candidate servers until one of the set of candidate servers accepts the request; determining that a first candidate server from the set of candidate servers is a next segment in the list of segments; encoding the first candidate server in a destination address field on an IPv6 header of the packet, the destination address field representing a next routing segment for the packet; and forwarding the packet to the first candidate server; wherein the segment routing header further comprises a first indication of a return address associated with the load balancer and a second indication of the virtual address associated with the application, wherein each of the segment routing instructions comprises an instruction to a respective segment in the list of segments for processing the packet, the instruction comprising at least one of a connect instruction, an end instruction, a data flag, a forward instruction, a stickiness instruction, and state information.
A data page, in particular for a book-like document, having at least one single page for printing and/or storing data thereon and at least one flexible tab which is connected to said at least one single page in an overlap region and which comprises a free tab region protruding therefrom, wherein tab portions of the at least one tab element are arranged in the overlap region on a top surface and on a bottom surface of the single page , respectively, and are laminated or welded onto said top and bottom surfaces of the single page , and wherein the tab portions facing towards the single page positively embrace a peripheral zone of the lateral edge of the single page in a U-shaped or a V-shaped manner to form the overlap region , wherein a rounded or smooth transition of the tab element is formed from the free tab region to the overlap region and, subsequently, to the top surface and the bottom surface of the single page , characterised in that the tab portions in the overlap region are connected to the single page by means of dot-like, linear, or planar connection zones .
A heat dissipating module, which is adapted to be contacted with a IC chip and is characterized in comprising: a heat exchanger , which has a heat exchanging zone contacted with the IC chip ; a securing structure ; and a fluid driving unit , which is communicated with the heat exchanger for guiding a working fluid into the heat exchanger and is secured to the heat exchanger by the securing structure , wherein the fluid driving unit and the heat exchanger are separately installed and communicated with each other and a circular slot is set at the side of the fluid driving unit; a luminous element and a light guiding bar being disposed in the circular slot ; and a flow meter for detecting a flow rate of the working fluid, wherein the luminous element makes a warning or a power consumption of the IC chip is reduced when the flow rate of the working fluid is abnormal. a heat exchanger , which has a heat exchanging zone contacted with the IC chip ; a securing structure ; and a fluid driving unit , which is communicated with the heat exchanger for guiding a working fluid into the heat exchanger and is secured to the heat exchanger by the securing structure , wherein the fluid driving unit and the heat exchanger are separately installed and communicated with each other and a circular slot is set at the side of the fluid driving unit; a luminous element and a light guiding bar being disposed in the circular slot ; and a flow meter for detecting a flow rate of the working fluid, wherein the luminous element makes a warning or a power consumption of the IC chip is reduced when the flow rate of the working fluid is abnormal.
Optical measuring device for coordinative measurement of a target object , in particular a theodolite, a total station, a laser scanner or a laser tracker, with at least one light source , in particular a laser light source, for generating at least one optical, in particular pulsed, measurement beam and a targeting unit that is rotatable relative to a base of the measuring device about at least one axis, in particular about two axes , wherein the targeting unit ▪ defines a target axis for targeting the, in particular cooperative, target object that is to be measured and ▪ has a beam path for emitting the optical measurement beam in the direction of the target object that is to be measured, characterized in that the targeting unit has at least one diffractive optical element , wherein the at least one diffractive optical element is embodied such and arranged or arrangeable in the beam path such that the measurement beam is homogenized before emission, by way of the diffractive optical element being arranged or being able to be arranged movably in the beam path , whereby for, in particular temporal, homogenization, the relative position of measurement beam and diffractive optical element is dynamically, in particular periodically, variable. ▪ defines a target axis for targeting the, in particular cooperative, target object that is to be measured and ▪ has a beam path for emitting the optical measurement beam in the direction of the target object that is to be measured,
A distance measurement instrument , comprising: a transmitter unit configured to emit a transmit light signal toward a target along a transmit path at an emission time; a receiver unit configured to receive at a receive time a return light signal along a receive path and to convert the return light signal to a return electrical signal; at least one deflection module configured to deflect at least one of the transmit path and the receive path with a deflection angle relative to an optical axis of the instrument; at least one attenuator configured to apply an attenuation to at least one of the return light signal and the return electrical signal according to a time-dependent function selected based on information relative to the deflection angle; and a processor unit configured to determine a measured distance to the target based on at least the emission time and the receive time; wherein a set of time-dependent attenuation functions suitable for each given distance measurement instrument is determined based on the specific optical arrangement of said at least one deflection module in the distance measurement instrument and the type of said at least one deflection module, wherein, for a certain orientation or displacement of said at least one deflection module, a certain time-dependent function out of the determined set of time-dependent attenuation functions is used. a transmitter unit configured to emit a transmit light signal toward a target along a transmit path at an emission time; a receiver unit configured to receive at a receive time a return light signal along a receive path and to convert the return light signal to a return electrical signal; at least one deflection module configured to deflect at least one of the transmit path and the receive path with a deflection angle relative to an optical axis of the instrument; at least one attenuator configured to apply an attenuation to at least one of the return light signal and the return electrical signal according to a time-dependent function selected based on information relative to the deflection angle; and a processor unit configured to determine a measured distance to the target based on at least the emission time and the receive time; wherein a set of time-dependent attenuation functions suitable for each given distance measurement instrument is determined based on the specific optical arrangement of said at least one deflection module in the distance measurement instrument and the type of said at least one deflection module, wherein, for a certain orientation or displacement of said at least one deflection module, a certain time-dependent function out of the determined set of time-dependent attenuation functions is used.
A spreader disc for an agricultural combine , the spreader disc having a rotational axis and comprising: a first radially extending paddle for moving crop residue, the first radially extending paddle having a first cross-sectional V-shape with the opening of the V-shape facing in a forward rotational direction of the spreader disc ; and characterised by a second radially extending paddle for moving crop residue, the second radially extending paddle having a second cross-sectional V-shape with the opening of the V-shape facing in a forward rotational direction of the spreader disc , the second cross-sectional V-shape being different from the first cross-sectional V-shape. a first radially extending paddle for moving crop residue, the first radially extending paddle having a first cross-sectional V-shape with the opening of the V-shape facing in a forward rotational direction of the spreader disc ; and characterised by a second radially extending paddle for moving crop residue, the second radially extending paddle having a second cross-sectional V-shape with the opening of the V-shape facing in a forward rotational direction of the spreader disc , the second cross-sectional V-shape being different from the first cross-sectional V-shape.
A device comprising: a patch pump comprising a non-linear needle path, the non-linear needle path comprising a bend; a rigid needle located in the non-linear needle path, the non-linear needle path being larger than the rigid needle to allow the rigid needle to move along the needle path, the rigid needle comprising a first material, wherein the first material enables the rigid needle to maintain a bend at the first bend when traversing the non-linear needle path; a movement mechanism forming a portion of the non-linear needle path such that the rigid needle is contained within the movement mechanism, the movement mechanism configured to apply force on a first end of the rigid needle to cause the rigid needle to traverse the non-linear needle path from a first needle position to a second needle position; and a cannula configured to receive a force from a second end of the rigid needle when the movement mechanism applies the force on the first end of the rigid needle and to traverse from a first cannula position to a second cannula position. a patch pump comprising a non-linear needle path, the non-linear needle path comprising a bend; a rigid needle located in the non-linear needle path, the non-linear needle path being larger than the rigid needle to allow the rigid needle to move along the needle path, the rigid needle comprising a first material, wherein the first material enables the rigid needle to maintain a bend at the first bend when traversing the non-linear needle path; a movement mechanism forming a portion of the non-linear needle path such that the rigid needle is contained within the movement mechanism, the movement mechanism configured to apply force on a first end of the rigid needle to cause the rigid needle to traverse the non-linear needle path from a first needle position to a second needle position; and a cannula configured to receive a force from a second end of the rigid needle when the movement mechanism applies the force on the first end of the rigid needle and to traverse from a first cannula position to a second cannula position.
A slide cover plate for the slide of a striker-fired hand gun, configured to be closing the end of the slide being opposite to the muzzle and configured to provide support for an end of a spring striker unit and/or for an end of a spring extractor unit inside of the slide , the slide cover plate being configured to be pushed into a groove of cross direction to the longitudinal axis of the slide and formed in the end of the slide , where the slide cover plate is configured to be fixed in its terminal position , wherein the slide cover plate comprises a backwardly protruding part having larger face area than the cross outline area of the slide at its end , characterized in that the slide cover plate comprises a hollow section , which forms a recess configured for reaching the end of the spring striker unit and/or the end of the spring extractor unit by tool when the slide cover plate being pushed into the groove but is in an intermediate position different from the terminal position , said hollow section and recess are extending in front of the face area of the backwardly protruding part in the direction of the longitudinal axis of the slide . the slide cover plate comprises a backwardly protruding part having larger face area than the cross outline area of the slide at its end , characterized in that the slide cover plate comprises a hollow section , which forms a recess configured for reaching the end of the spring striker unit and/or the end of the spring extractor unit by tool when the slide cover plate being pushed into the groove but is in an intermediate position different from the terminal position , said hollow section and recess are extending in front of the face area of the backwardly protruding part in the direction of the longitudinal axis of the slide .
A method of operating a sensing component for sensing a magnetic field to determine a state of an access point, the access point comprising a first component and a second component that are separable from each other to create an opening to access a premises or part thereof wherein a magnet is mounted on one of the first or second components of the access point, wherein the method comprises: operating the sensing component to sense a magnetic field in multiple dimensions to produce a sample representation of the sensed magnetic field, wherein the sample representation is a multi-dimensional representation; and determining whether the sample representation is in a pre-determined region about a reference representation that is representative of a state of the access point thereby to determine that the sensed magnetic field corresponds to said state of the access point, wherein the predetermined region comprises a circular cross-section. operating the sensing component to sense a magnetic field in multiple dimensions to produce a sample representation of the sensed magnetic field, wherein the sample representation is a multi-dimensional representation; and determining whether the sample representation is in a pre-determined region about a reference representation that is representative of a state of the access point thereby to determine that the sensed magnetic field corresponds to said state of the access point, wherein the predetermined region comprises a circular cross-section.