mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing method of a heating element, comprising: laminating a metal thin film by a roll manner on a transparent substrate through using an adhesive agent layer; forming a conductive heat emitting line by etching the metal thin film by using an etching resistance pattern; forming a coating film for capsulating the heat emitting line and an upper side of the adhesive agent layer not covered by the heat emitting line; forming a bus bar electrically connected to the conductive heat emitting line; forming a power part connected to the bus bar, forming an additional transparent substrate provided on a side on which the coating film is provided, and forming an adhesive film provided between the conductive heat emitting line and additional transparent substrate, wherein the coating film is formed by using a composition having a viscosity of 0.0005 mPa·s or more and 0.05mPa·s or less and including acrylate-based components or urethane-based components, when a height of the coating film are measured from the upper side or the lower side of the transparent substrate, a height deviation of the coating film provided on an upper area of the transparent substrate not covered by the conductive heat emitting line is 100 nm or less, and a thickness of the coating film is 1 micrometer or more. laminating a metal thin film by a roll manner on a transparent substrate through using an adhesive agent layer; forming a conductive heat emitting line by etching the metal thin film by using an etching resistance pattern; forming a coating film for capsulating the heat emitting line and an upper side of the adhesive agent layer not covered by the heat emitting line; forming a bus bar electrically connected to the conductive heat emitting line; forming a power part connected to the bus bar, forming an additional transparent substrate provided on a side on which the coating film is provided, and forming an adhesive film provided between the conductive heat emitting line and additional transparent substrate, wherein the coating film is formed by using a composition having a viscosity of 0.0005 mPa·s or more and 0.05mPa·s or less and including acrylate-based components or urethane-based components, when a height of the coating film are measured from the upper side or the lower side of the transparent substrate, a height deviation of the coating film provided on an upper area of the transparent substrate not covered by the conductive heat emitting line is 100 nm or less, and a thickness of the coating film is 1 micrometer or more.
A flexo-plate manufacturing method comprising the steps of: - filling a vat having a transparent bottom with a curable liquid that is stored in a tank by opening a valve ; - moving a manufacturing platform vertically over a distance to create a layer of the curable liquid between the manufacturing platform and the transparent bottom of the vat and having a thickness value; - exposing from underneath the vat through the transparent bottom the layer with a first illumination subsystem that comprises a matrix of addressable pixels ; - moving upwards the manufacturing platform over an other distance to create an other layer of an other curable liquid between the manufacturing platform and the transparent bottom of the vat and having same or an other thickness value; - exposing said other layer with a second illumination subsystem through the first illumination subsystem which is controlled to be partly or full transparent and through the transparent bottom and wherein the second illumination subsystem comprises a scanning light beam; - purging the curable liquid in the vat through a valve into a waste tank , or alternatively into the tank ; - filling the vat with the other curable liquid that is stored in an other tank by opening a valve ; - filling a vat having a transparent bottom with a curable liquid that is stored in a tank by opening a valve ; - moving a manufacturing platform vertically over a distance to create a layer of the curable liquid between the manufacturing platform and the transparent bottom of the vat and having a thickness value; - exposing from underneath the vat through the transparent bottom the layer with a first illumination subsystem that comprises a matrix of addressable pixels ; - moving upwards the manufacturing platform over an other distance to create an other layer of an other curable liquid between the manufacturing platform and the transparent bottom of the vat and having same or an other thickness value; - exposing said other layer with a second illumination subsystem through the first illumination subsystem which is controlled to be partly or full transparent and through the transparent bottom and wherein the second illumination subsystem comprises a scanning light beam; - purging the curable liquid in the vat through a valve into a waste tank , or alternatively into the tank ; - filling the vat with the other curable liquid that is stored in an other tank by opening a valve ;
A light tower comprising: a generator assembly including: a prime mover ; an alternator operably connected to the prime mover , the alternator configured to produce alternating current electrical energy; and a rectifier operably connected to the alternator and configured to convert alternating current electrical energy produced by the alternator to direct current electrical energy; at least one light emitting diode matrix electrically connected to the generator assembly by at least one electrical connection characterised in that the light tower further comprises a regulator operably connected to the alternator ; and at least one current sensor in communication with the regulator , the at least one current sensor configured to detect a current of the direct current electrical energy in the at least one electrical connection , wherein in response to a detected current of the direct current electrical energy in the at least one electrical connection, the regulator is configured to control the alternator to adjust the current supplied to the at least one light emitting diode matrix to not exceed a maximum acceptable current of the at least one light emitting diode matrix . a generator assembly including: a prime mover ; an alternator operably connected to the prime mover , the alternator configured to produce alternating current electrical energy; and a rectifier operably connected to the alternator and configured to convert alternating current electrical energy produced by the alternator to direct current electrical energy; a prime mover ; an alternator operably connected to the prime mover , the alternator configured to produce alternating current electrical energy; and a rectifier operably connected to the alternator and configured to convert alternating current electrical energy produced by the alternator to direct current electrical energy; at least one light emitting diode matrix electrically connected to the generator assembly by at least one electrical connection characterised in that the light tower further comprises a regulator operably connected to the alternator ; and at least one current sensor in communication with the regulator , the at least one current sensor configured to detect a current of the direct current electrical energy in the at least one electrical connection , wherein in response to a detected current of the direct current electrical energy in the at least one electrical connection, the regulator is configured to control the alternator to adjust the current supplied to the at least one light emitting diode matrix to not exceed a maximum acceptable current of the at least one light emitting diode matrix .
Device for operating a control unit of a micromirror actuator of a lighting device of a motor vehicle, wherein the device comprises at least one processor (P) and at least one memory (M) with computer program code (C), wherein the computer program code (C) is configured such that, together with the at least on processor (P), it causes the device to provide an image stream (VS) for the control unit , to determine individual images of the image stream (VS) depending on a validity of a first value (DC1) of a basic duty cycle which is effective for a plurality of micromirrors of the micromirror actuator , wherein a duty cycle of a particular micromirror results from the basic duty cycle and a supplied pixel value of the particular individual image, to determine a switching request (S) for switching the basic duty cycle to a second value (DC2), to transmit the switching request (S) at a first point in time (t1) in the direction of the control unit , and to determine the individual images of the image stream (VS) from a second point in time (t2), which occurs after a waiting period (T1) comprising two individual image times starting from the first point in time (t1), depending on a validity of the second value (DC2) of the basic duty cycle, wherein the waiting period (T1) is waited for in order to calculate the individual images depending on the use of the second value (DC2) of the basic duty cycle. to provide an image stream (VS) for the control unit , to determine individual images of the image stream (VS) depending on a validity of a first value (DC1) of a basic duty cycle which is effective for a plurality of micromirrors of the micromirror actuator , wherein a duty cycle of a particular micromirror results from the basic duty cycle and a supplied pixel value of the particular individual image, to determine a switching request (S) for switching the basic duty cycle to a second value (DC2), to transmit the switching request (S) at a first point in time (t1) in the direction of the control unit , and to determine the individual images of the image stream (VS) from a second point in time (t2), which occurs after a waiting period (T1) comprising two individual image times starting from the first point in time (t1), depending on a validity of the second value (DC2) of the basic duty cycle, wherein the waiting period (T1) is waited for in order to calculate the individual images depending on the use of the second value (DC2) of the basic duty cycle.
A pulse generator, comprising: a plurality of electrode nodes, each electrode node configured to be coupled to a corresponding electrode configured to contact a patient's tissue; and a plurality of first digital-to-analog converters (DACs), wherein each of the first DACs is dedicated to a different one of the electrode nodes and is configured to receive a first current with a magnitude indicative of a total anodic current amplitude to be produced at the electrode nodes, wherein each of the first DACs is configured to provide an anodic stimulation current to only its dedicated electrode node, wherein each first DAC comprises a plurality of first branches, wherein each first branch is configured when selected to produce an amplified version of the first current, and wherein the amplified first current at each selected first branch is summed to produce the anodic stimulation current at its dedicated electrode.
Insulating concrete formwork system with insulating panels and connection elements comprising: two or more insulating panels for receiving a fluid concrete structuring material between said panels ; at least two profiles to fit each one in one said panel ; one or more connecting devices that comprise two extremities each one for connection to one section to join two panels ; wherein each panel has four ends including an upper end and a lower end opposite the upper end; wherein the panels comprise a cavity to fit one or more profiles along the upper end of each panel ; wherein the panels comprise a cavity to fit one or more profiles along the lower end of each panel ; wherein the profiles comprise a lateral flashing with a plurality of holes to fit the extremities of the connecting devices ; wherein the connecting devices comprise a plurality of hooks , at their two extremities, to enter into said holes of the respective profile ; characterised in that the panels comprise along the length of the lower end a protuberance and along the length of the upper end a recess , for superimposition of panels ; in that the protuberance or the recess are adapted to fit in the lateral flashing of said profiles together with the hooks of said connecting device ; and in that the recess is arranged for residues to be deposited therein. two or more insulating panels for receiving a fluid concrete structuring material between said panels ; at least two profiles to fit each one in one said panel ; one or more connecting devices that comprise two extremities each one for connection to one section to join two panels ; wherein each panel has four ends including an upper end and a lower end opposite the upper end; wherein the panels comprise a cavity to fit one or more profiles along the upper end of each panel ; wherein the panels comprise a cavity to fit one or more profiles along the lower end of each panel ; wherein the profiles comprise a lateral flashing with a plurality of holes to fit the extremities of the connecting devices ; wherein the connecting devices comprise a plurality of hooks , at their two extremities, to enter into said holes of the respective profile ; characterised in that the panels comprise along the length of the lower end a protuberance and along the length of the upper end a recess , for superimposition of panels ; in that the protuberance or the recess are adapted to fit in the lateral flashing of said profiles together with the hooks of said connecting device ; and in that the recess is arranged for residues to be deposited therein.
A remote heat removal system for removing heat from a first fluid maintained in a hazardous environment , comprising: a heat exchanger positioned within the hazardous environment within proximity to the first fluid , the heat exchanger having a primary side in heat exchange relationship with a secondary side with the first fluid in fluid communication with the primary side; a remote reservoir located outside of the hazardous environment, containing a second fluid at a temperature below a temperature of the first fluid, with the second fluid in fluid communication with the secondary side of the heat exchanger; a pump pump operable to drive at least a portion of the second fluid through the secondary side of the heat exchanger, with the pump positioned outside of the hazardous environment; and a hydraulic fluid transport mechanism having a first section in fluid communication with the second fluid and a second section in fluid communication with the first fluid, with the first section fluidly isolated from the second section, characterized in that the first section is configured to have the second fluid drive an impeller, which drives one of a fan or a second impeller in the second section that drives the first fluid through the second section and over the secondary side of the heat exchanger. a heat exchanger positioned within the hazardous environment within proximity to the first fluid , the heat exchanger having a primary side in heat exchange relationship with a secondary side with the first fluid in fluid communication with the primary side; a remote reservoir located outside of the hazardous environment, containing a second fluid at a temperature below a temperature of the first fluid, with the second fluid in fluid communication with the secondary side of the heat exchanger; a pump pump operable to drive at least a portion of the second fluid through the secondary side of the heat exchanger, with the pump positioned outside of the hazardous environment; and a hydraulic fluid transport mechanism having a first section in fluid communication with the second fluid and a second section in fluid communication with the first fluid, with the first section fluidly isolated from the second section, characterized in that the first section is configured to have the second fluid drive an impeller, which drives one of a fan or a second impeller in the second section that drives the first fluid through the second section and over the secondary side of the heat exchanger. a hydraulic fluid transport mechanism having a first section in fluid communication with the second fluid and a second section in fluid communication with the first fluid, with the first section fluidly isolated from the second section, characterized in that the first section is configured to have the second fluid drive an impeller, which drives one of a fan or a second impeller in the second section that drives the first fluid through the second section and over the secondary side of the heat exchanger.
An apparatus suitable for use in a stair system , comprising: a first landing connection system comprising: two or more extenders; a single-point connection device configured to allow for rotational movement, wherein the rotational movement is movement in a combination of an X-direction and a Y-direction; and a secondary movement connection device operatively connected with the single-point connection device and configured for longitudinal movement in at least one of the X-direction and the Y-direction, wherein the secondary movement connection device includes a crossbar which extends between said two or more extenders , and wherein the single-point connection device is located proximate to a midpoint of the crossbar. two or more extenders; a single-point connection device configured to allow for rotational movement, wherein the rotational movement is movement in a combination of an X-direction and a Y-direction; and a secondary movement connection device operatively connected with the single-point connection device and configured for longitudinal movement in at least one of the X-direction and the Y-direction, wherein the secondary movement connection device includes a crossbar which extends between said two or more extenders , and wherein the single-point connection device is located proximate to a midpoint of the crossbar.
A Fieldbus field device (15-22), communicatively connected to a process controller using hardware and software associated with the Fieldbus protocol, the Fieldbus field device (15-22) comprising: a controller configured to perform at least one operation related to process control, the controller also being configured to perform at least one self-recovery operation relative to the Fieldbus field device; and a process communication module coupled to the controller and configured to couple to a process communication segment and communicate in accordance with a process communication protocol; wherein the controller is configured to detect an erroneous condition and selectively apply the at least one self-recovery operation in response to the detected erroneous condition; wherein the controller is configured to generate a notification in response to the detected erroneous condition, and wherein the notification includes a request to authorize self-recovery; wherein the controller is configured to selectively apply the at least one self-recovery operation if a self-recovery authorization is received from an operator by the controller; and wherein the Fieldbus field device is configured to perform process control functions at locations distributed throughout a process facility. a controller configured to perform at least one operation related to process control, the controller also being configured to perform at least one self-recovery operation relative to the Fieldbus field device; and a process communication module coupled to the controller and configured to couple to a process communication segment and communicate in accordance with a process communication protocol; wherein the controller is configured to detect an erroneous condition and selectively apply the at least one self-recovery operation in response to the detected erroneous condition; wherein the controller is configured to generate a notification in response to the detected erroneous condition, and wherein the notification includes a request to authorize self-recovery; wherein the controller is configured to selectively apply the at least one self-recovery operation if a self-recovery authorization is received from an operator by the controller; and wherein the Fieldbus field device is configured to perform process control functions at locations distributed throughout a process facility.
Device for the precise transport of small and light objects, especially glass articles, in heated rooms, such as furnace rooms, wherein the device is also designed for temperatures from 750°C to 780°C, with a conveyor belt on which the objects can be arranged in a defined position, wherein the conveyor belt is driven by laterally arranged drive chains and is arranged cantilevered thereon, characterised in that the conveyor belt has at least one central support which supports the conveyor belt from below against the bottom of the device and thereby reduces sagging of the conveyor belt the central support is designed as a rolling connection between the conveyor belt and the bottom of the device and wherein the central support thereby intercepts or prevents oscillations and/or vibrations which could be caused by the movement of the conveyor belt .
A method for controlling an output air volume used in a communication machine room with a plurality of cabinets, the method comprising: determining a temperature difference according to a current temperature value of an air outlets of respective cabinets and a preset temperature value of the cabinet; and controlling an opening degree of an air valve of a variable air volume terminal device of the cabinet according to the temperature difference, to regulate a magnitude of an air volume required by the cabinet, wherein the method further comprising: after controlling the opening degree of the air valve of the variable air volume terminal device of the cabinet according to the temperature difference, detecting a magnitude relationship between the temperature difference of the cabinet and a preset threshold value according to a preset detection period, wherein the preset threshold value is a range by which the temperature is allowed to change; increasing or decreasing the opening degree of the air valve of the variable air volume terminal device of the cabinet to regulate a magnitude of a value of an input air volume if the temperature difference is within the range of the preset threshold value; and maintaining the opening degree of the air valve of the variable air volume terminal device of the cabinet for the current detection period if the temperature difference is out of the range of the preset threshold value. determining a temperature difference according to a current temperature value of an air outlets of respective cabinets and a preset temperature value of the cabinet; and controlling an opening degree of an air valve of a variable air volume terminal device of the cabinet according to the temperature difference, to regulate a magnitude of an air volume required by the cabinet, wherein the method further comprising: after controlling the opening degree of the air valve of the variable air volume terminal device of the cabinet according to the temperature difference, detecting a magnitude relationship between the temperature difference of the cabinet and a preset threshold value according to a preset detection period, wherein the preset threshold value is a range by which the temperature is allowed to change; increasing or decreasing the opening degree of the air valve of the variable air volume terminal device of the cabinet to regulate a magnitude of a value of an input air volume if the temperature difference is within the range of the preset threshold value; and maintaining the opening degree of the air valve of the variable air volume terminal device of the cabinet for the current detection period if the temperature difference is out of the range of the preset threshold value.