mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing method of array substrate comprising: step A, forming patterns of a source electrode , a drain electrode , a data line and a pixel electrode ; wherein the source electrode , the drain electrode , the data line and the pixel electrode are formed by a same conducting thin film, and materials of the source electrode and the drain electrode and a material of the pixel electrode are the same; step B, forming an active layer and a gate insulating layer in order, wherein the active layer is formed on the source electrode and the drain electrode ; and forming a via hole in the gate insulating layer for connecting the data line and an external circuit; and step C, forming patterns of a gate electrode , a gate line and a common electrode line , wherein the common electrode line and the pixel electrode are partially overlapped to form a storage capacitor, or forming patterns of a gate electrode , a gate line and a common electrode, wherein the common electrode is adapted to generate a driving electric field along with the pixel electrode . step A, forming patterns of a source electrode , a drain electrode , a data line and a pixel electrode ; wherein the source electrode , the drain electrode , the data line and the pixel electrode are formed by a same conducting thin film, and materials of the source electrode and the drain electrode and a material of the pixel electrode are the same; step B, forming an active layer and a gate insulating layer in order, wherein the active layer is formed on the source electrode and the drain electrode ; and forming a via hole in the gate insulating layer for connecting the data line and an external circuit; and step C, forming patterns of a gate electrode , a gate line and a common electrode line , wherein the common electrode line and the pixel electrode are partially overlapped to form a storage capacitor, or forming patterns of a gate electrode , a gate line and a common electrode, wherein the common electrode is adapted to generate a driving electric field along with the pixel electrode .
Method for secure data communication on a numerically controlled machine tool, having a numerical controller (NC), acting as transmitter, that is connected via a digital network (N), for the purpose of exchanging data telegrams (T, T1, T2, T3), to a plurality of peripheral devices (U1, U2, U3, U4, U5, U6, U7, U8, U9), acting as receivers, that each have an associated unique identification number (ID), characterized in that this identification number (ID) is recalculated both by the controller (NC) and by the peripheral device (U1, U2, U3, U4, U5, U6, U7, U8, U9) for each transmission of such a data telegram (T, T1, T3) and becomes part of the data telegram (T, T1, T2, T3), wherein the identification number (ID) comprises not only routing information (R), which describes the path of the data telegram (T, T1, T3) from the controller (NC) to the peripheral device (U1, U2, U3, U4, U5, U6, U7, U8, U9), but additionally a hash value (H) for local data characterizing the peripheral device (U1, U2, U3, U4, U5, U6, U7, U8, U9), and wherein the data characterizing the peripheral device (U1, U2, U3, U4, U5, U6, U7, U8, U9) that are used to form the hash value (H) comprise parameters that have been used to parameterize the peripheral device (U1, U2, U3, U4, U5, U6, U7, U8, U9), and wherein the identification number (ID) of the receiver calculated by the transmitter and conveyed with the data telegram (T, T1, T3) is compared with the identification number (ID) of the receiver calculated by the receiver, and in that a difference between the two identification numbers (ID) that have been compared with one another results in an error reaction being triggered.
Refrigerated sales cabinet, comprising a cabinet body comprising a bottom portion and a rear wall , defining a goods presentation space ; and at least two vertical shelf support rails integrated into the rear wall such that a front face of the vertical shelf support rails lies in or behind the plane of the front surface of the rear wall ; wherein the at least two vertical shelf support rails comprise: an interior receiving space configured to receive a guiding element of a shelf support element , the interior receiving space being located behind the plane of the front surface of the rear wall ; a vertical guiding trench extending through the front face of the vertical shelf support rail ; and a number of recesses provided in the front face of the shelf support rail , configured to receive respective projections of shelf support elements and to fasten the shelf support element at different vertical positions; wherein the at least two vertical shelf support rails extend from a lower end position at or adjacent to the bottom portion to an upper end position at or adjacent to the roof portion , in order to enable a movement of the respective shelf support element over a substantial part of the height of the goods presentation space ; and wherein the vertical guiding trench is provided with at least one insertion portion formed by a recess of the front rail wall at an upper and/or a lower end portion of the vertical shelf support rail , for inserting a guiding element of the shelf support element . an interior receiving space configured to receive a guiding element of a shelf support element , the interior receiving space being located behind the plane of the front surface of the rear wall ; a vertical guiding trench extending through the front face of the vertical shelf support rail ; and a number of recesses provided in the front face of the shelf support rail , configured to receive respective projections of shelf support elements and to fasten the shelf support element at different vertical positions;
A dynamic digital input filtering system comprising: a power supply ; a remote device having a two-state switch (S1); a logic device having an impedance adjusting circuit electrically in series with the power supply and the two-state switch (S1) of the remote device , the logic device producing a logic signal based on whether the two-state switch (S1) of the remote device interrupts the flow of power from the power supply to the logic device or completes the circuit path between the power supply and the logic device ; and a control device monitoring the logic signal of the logic device and adjusting the impedance of the impedance adjusting circuit in response to a change of state of the monitored logic signal such that: when a state change of the logic signal is detected, the impedance of the impedance adjusting circuit is lowered from an initial impedance value; and if the state of the monitored logic signal remains unchanged during a momentary period of time when the impedance of the impedance adjusting circuit is lowered, then, upon restoration of the impedance to the initial impedance value, a change of state of the two-state switch is reported via controller outputs. a power supply ; a remote device having a two-state switch (S1); a logic device having an impedance adjusting circuit electrically in series with the power supply and the two-state switch (S1) of the remote device , the logic device producing a logic signal based on whether the two-state switch (S1) of the remote device interrupts the flow of power from the power supply to the logic device or completes the circuit path between the power supply and the logic device ; and a control device monitoring the logic signal of the logic device and adjusting the impedance of the impedance adjusting circuit in response to a change of state of the monitored logic signal such that: when a state change of the logic signal is detected, the impedance of the impedance adjusting circuit is lowered from an initial impedance value; and if the state of the monitored logic signal remains unchanged during a momentary period of time when the impedance of the impedance adjusting circuit is lowered, then, upon restoration of the impedance to the initial impedance value, a change of state of the two-state switch is reported via controller outputs.
A display device installable in a mobile object , the display device comprising: a light source ; an image former configured to receive light emitted from the light source and output image light that forms an image; a screen on which the image light forms the image; a housing that houses the light source and the image former ; and characterised by a holding member configured to hold the screen , the holding member being removably attached to the housing with a normal direction of a surface of the screen intersecting with a vertical direction and with a front-and-rear direction of the mobile object . a light source ; an image former configured to receive light emitted from the light source and output image light that forms an image; a screen on which the image light forms the image; a housing that houses the light source and the image former ; and characterised by a holding member configured to hold the screen , the holding member being removably attached to the housing with a normal direction of a surface of the screen intersecting with a vertical direction and with a front-and-rear direction of the mobile object .
An injector for a gas turbine engine, comprising: a feed arm including a primary and a secondary fluid passage ; an inlet assembly fixed at an upstream end of the feed arm having at least one inlet in fluid communication with the primary and a secondary fluid passages ; a tip assembly fixed at a downstream end of the feed arm having a fluid outlet in fluid communication with the primary and secondary fluid passages for issuing a spray of fluid; and an air shroud additively manufactured monolithic with the tip assembly, wherein the primary and secondary fluid passages are monolithically formed within the feed arm , wherein at least one of the primary and secondary fluid passages includes a nonlinear section configured to provide extended residence time for cooling fluid in the first and second fluid passages; and wherein the nonlinear section of the secondary fluid passage circles around a linear section of the primary fluid passage in a helical shape. a feed arm including a primary and a secondary fluid passage ; an inlet assembly fixed at an upstream end of the feed arm having at least one inlet in fluid communication with the primary and a secondary fluid passages ; a tip assembly fixed at a downstream end of the feed arm having a fluid outlet in fluid communication with the primary and secondary fluid passages for issuing a spray of fluid; and an air shroud additively manufactured monolithic with the tip assembly, wherein the primary and secondary fluid passages are monolithically formed within the feed arm , wherein at least one of the primary and secondary fluid passages includes a nonlinear section configured to provide extended residence time for cooling fluid in the first and second fluid passages; and wherein the nonlinear section of the secondary fluid passage circles around a linear section of the primary fluid passage in a helical shape.
A guide assembly of an open roof assembly, wherein the guide assembly comprises a centre rail element , the centre rail element comprising a. a first wall member comprising a first surface and a second surface opposite to the first surface; b. a second wall member comprising a third surface and a fourth surface opposite to the third surface, the second wall member being arranged substantially parallel to the first wall member and the third surface opposing the second surface of the first wall member; c. a transverse wall member extending between the second surface and the third surface, d. a first guide channel arranged in the second surface; and e. a second guide channel arranged in the third surface; wherein a cable channel is provided on the transverse wall, the cable channel being arranged between the first guide channel and the second guide channel and within a bounding box indicating a functional package space, wherein moving parts of the mechanism of the guide assembly are arranged, to reduce the space required for the guide assembly. a. a first wall member comprising a first surface and a second surface opposite to the first surface; b. a second wall member comprising a third surface and a fourth surface opposite to the third surface, the second wall member being arranged substantially parallel to the first wall member and the third surface opposing the second surface of the first wall member; c. a transverse wall member extending between the second surface and the third surface, d. a first guide channel arranged in the second surface; and e. a second guide channel arranged in the third surface;
A friction clutch cover having a body portion in circular form comprising an outer wall and an inner wall facing an inner gap provided at the center thereof, in order to be used in frictional clutches positioned between the engine output and the transmission shaft in tractors, characterized by comprising at least one channel extending from the inner wall towards the outer wall inside the body portion , wherein pluralities of channels are provided inside the body portion such that there is a specific distance in between, and wherein each channel comprises one each symmetry channels which pass through the center of the body portion and provided in a symmetric manner with respect to the symmetry axes (a) which separate the body portion into four regions.
Lock for a container , in particular for a container in the form of a tornister, rucksack or the like, comprising a receiving unit which is designed to be fastened to a wall of the container, and an engagement unit which is designed to be fastened to a container cover which is movable relative to the wall and to be brought releasably into engagement with the receiving unit , wherein the receiving unit has an outwardly projecting receiving mandrel of cylindrical design which receives a first magnet in the region of its free end and is provided on its circumferential surface with at least three guide grooves which are distributed over the circumference, extend obliquely outwards starting from the lower end of the receiving mandrel and are open at their upper free end, and wherein the engagement unit comprises a recess receiving the receiving mandrel , the shape of which recess is adapted to the shape of the receiving mandrel , a second magnet cooperating in a holding manner with the first magnet , which second magnet is arranged in the region of the bottom of the recess , and a number of engagement elements corresponding to the number of guide grooves , which engagement elements are arranged rotatably relative to the receiving mandrel between an unlocking position and a locking end position, which are designed and positioned in such a way that, in their unlocked position, they come into engagement with the guide grooves when the locating mandrel is inserted into the recess and are then guided therein into their locking end position as the magnetic attraction force of the mutually attracting magnets increases.
A circuit for detecting an overcurrent condition in a load , the circuit comprising: a current-sense resistor having first and second terminals, the current-sense resistor is configured to be connected in series with the load, the current-sense resistor and the load provided power by a power source; a first biasing circuit ; a second biasing circuit ; a first diode network having anode and cathode terminals, the anode terminal of the first diode network connected to the first terminal of the current-sense resistor and the cathode terminal of the diode network conductively coupled to the first biasing circuit so as to bias the first diode network in forward-voltage operation; a second diode network having anode and cathode terminals, the anode terminal of the second diode network connected to the second terminal of the current-sense resistor and the cathode terminal of the diode network conductively coupled to the second biasing circuit so as to bias the second diode network in forward-voltage operation, characterised in that the first and second biasing circuits are configured to provide current to the first and second diode networks such that a voltage difference between the cathode terminals of the first and second diode networks is of a first polarity during normal current conditions of the load, and the voltage difference between the cathode terminals of the first and second diode networks is of a second polarity during overcurrent conditions of the load. a current-sense resistor having first and second terminals, the current-sense resistor is configured to be connected in series with the load, the current-sense resistor and the load provided power by a power source; a first biasing circuit ; a second biasing circuit ; a first diode network having anode and cathode terminals, the anode terminal of the first diode network connected to the first terminal of the current-sense resistor and the cathode terminal of the diode network conductively coupled to the first biasing circuit so as to bias the first diode network in forward-voltage operation; a second diode network having anode and cathode terminals, the anode terminal of the second diode network connected to the second terminal of the current-sense resistor and the cathode terminal of the diode network conductively coupled to the second biasing circuit so as to bias the second diode network in forward-voltage operation, characterised in that the first and second biasing circuits are configured to provide current to the first and second diode networks such that a voltage difference between the cathode terminals of the first and second diode networks is of a first polarity during normal current conditions of the load, and the voltage difference between the cathode terminals of the first and second diode networks is of a second polarity during overcurrent conditions of the load.
Use of a particulate material having a porosity at least equal to 5% and less than or equal to 60% and pores with a diameter which varies from 1 to 100 nanometers in a calcined gypsum-based composition which is intended for the production of a plaster-based board, in particular of the type comprising a plaster-based core arranged between two sheets of paper or non-woven fabric, in order to improve acoustic comfort, wherein the particulate material represents 0.001 to 50% by weight of the mixture consisting of the plaster and the particulate material, and the particulate material is inorganic, selected from activated carbons and carbonates, or organic.
An anode can fabrication method, comprising the steps of: depositing a base layer of tin or indium onto an anode can sacrificial mandrel formed from a polymer that dissolves in the presence of an organic solvent; adding support metal, that is a different metal than the base layer, to the base layer; and after the depositing step, dissolving the sacrificial mandrel with the organic solvent. depositing a base layer of tin or indium onto an anode can sacrificial mandrel formed from a polymer that dissolves in the presence of an organic solvent; adding support metal, that is a different metal than the base layer, to the base layer; and after the depositing step, dissolving the sacrificial mandrel with the organic solvent.
A burner for a combustion chamber of a gas turbine with a mixing and injection device , wherein the mixing and injection device comprises a limiting wall that defines a gas-flow channel with a longitudinal axis , a cross-section, an inlet area , and, downstream thereof in a main-flow direction , an outlet area , and further comprising at least two streamlined bodies , each extending in a first transverse direction of the burner, from a first region of the limiting wall and perpendicularly to or at an inclination with respect to the main-flow direction into the gas-flow channel, the streamlined bodies each having two lateral surfaces that are arranged essentially parallel to a main-flow direction with a central plane therebetween, wherein the lateral surfaces are joined to one another at upstream sides of the lateral surfaces to form a leading edge of the body and are joined at downstream sides of the lateral surfaces to form a trailing edge of the body, the streamlined bodies each having a cross-section perpendicular to the first transverse direction that is shaped as a streamlined profile , and being provided with a mixing structure and with at least one fuel nozzle located at the trailing edge, wherein the mixing structure is provided in form of a plurality of lobes located at the trailing edge of the body, wherein each lobe extends substantially perpendicular to said central plane in a second transverse direction or a third transverse directions , wherein the second and third transverse directions run oppositely to one another the streamlined bodies comprising fuel nozzles arranged close to the limiting wall provided at the trailing edge , the burner being characterised in that the cross-section is non-rectangular and non-annular, and in that only the fuel nozzles arranged close to the limiting wall provided at the trailing edge are tilted to inject fuel and/or carrier gas at an inclination angle with respect to the main flow direction ranging from and including 0° to 60° so as to inject the fuel jet away from the limiting wall towards a close vortex generated by the streamlined body.
A wireless communication device comprising: a first receiver , for intercepting a first uplink signal transmitted by a first User Equipment , hereinafter UE, in a wireless infrastructure network to a first base station , hereinafter BS, serving the first UE ; and a processor , configured to: obtain assistance information relating to the first uplink signal; control the first receiver to intercept the first uplink signal based on the assistance information; and measure the time of arrival of the first uplink signal, the processor being further configured to perform one of the following steps: use the measured time of arrival to assist in the calculation of a position or a time; and send the measured time of arrival to a remote server , for use in assisting a calculation of a position or a time, wherein the wireless communication device is a second UE , comprising: a transmitter , for transmitting a second uplink signal to a second base station , hereinafter BS, serving the second UE ; and a second receiver , for receiving a first downlink signal from the second BS . a first receiver , for intercepting a first uplink signal transmitted by a first User Equipment , hereinafter UE, in a wireless infrastructure network to a first base station , hereinafter BS, serving the first UE ; and a processor , configured to: obtain assistance information relating to the first uplink signal; control the first receiver to intercept the first uplink signal based on the assistance information; and measure the time of arrival of the first uplink signal, obtain assistance information relating to the first uplink signal; control the first receiver to intercept the first uplink signal based on the assistance information; and measure the time of arrival of the first uplink signal, the processor being further configured to perform one of the following steps: use the measured time of arrival to assist in the calculation of a position or a time; and send the measured time of arrival to a remote server , for use in assisting a calculation of a position or a time, use the measured time of arrival to assist in the calculation of a position or a time; and send the measured time of arrival to a remote server , for use in assisting a calculation of a position or a time, wherein the wireless communication device is a second UE , comprising: a transmitter , for transmitting a second uplink signal to a second base station , hereinafter BS, serving the second UE ; and a second receiver , for receiving a first downlink signal from the second BS . a transmitter , for transmitting a second uplink signal to a second base station , hereinafter BS, serving the second UE ; and a second receiver , for receiving a first downlink signal from the second BS .