mhurhangee/patent-ind-claim-en huggingface dataset:
An organic light-emitting diode (OLED) device including a switching transistor (T2) of a pixel, the OLED device comprising: a substrate ; a data line to provide a data voltage to the pixel and disposed on the substrate; a buffer insulating film to cover the data line and disposed on the substrate; an active layer of the switching transistor (T2) disposed on the buffer insulating film; a gate insulating film disposed on at least a portion of the buffer insulating film, the gate insulating film also being disposed on at least a portion of the active layer; a gate electrode of the switching transistor (T2) disposed on the gate insulating film and overlapping a channel region of the active layer of the switching transistor (T2); and a first connecting pattern disposed on the gate insulating film, the first connecting pattern connected to the data line via a first connecting contact hole through the gate insulating film and the buffer insulating film, and the first connecting pattern connected to the active layer via a second connecting contact hole through the gate insulating film, the first connecting pattern having a same material as the gate electrode, wherein the active layer of the switching transistor (T2) is connected to the data line through the first connecting pattern and the first and second connecting contact holes. a substrate ; a data line to provide a data voltage to the pixel and disposed on the substrate; a buffer insulating film to cover the data line and disposed on the substrate; an active layer of the switching transistor (T2) disposed on the buffer insulating film; a gate insulating film disposed on at least a portion of the buffer insulating film, the gate insulating film also being disposed on at least a portion of the active layer; a gate electrode of the switching transistor (T2) disposed on the gate insulating film and overlapping a channel region of the active layer of the switching transistor (T2); and a first connecting pattern disposed on the gate insulating film, the first connecting pattern connected to the data line via a first connecting contact hole through the gate insulating film and the buffer insulating film, and the first connecting pattern connected to the active layer via a second connecting contact hole through the gate insulating film, the first connecting pattern having a same material as the gate electrode, wherein the active layer of the switching transistor (T2) is connected to the data line through the first connecting pattern and the first and second connecting contact holes.
A switching-mode power supply for a power adapter, comprising: a first full-bridge rectification unit , configured to rectify an input alternating current and to output a voltage with a first pulsating waveform; a switch unit , configured to modulate the voltage with the first pulsating waveform according to a control signal; a transformer , configured to output a voltage with a second pulsating waveform according to the modulated voltage with the first pulsating waveform, wherein the full-bridge rectification unit is connected to a primary winding of the transformer without electrolytic capacitor; a second rectification unit , configured to rectify the voltage with the second pulsating waveform without electrolytic capacitor to output a voltage with a third pulsating waveform; a sampling unit , configured to sample a voltage and a current output by the second rectification unit to acquire a voltage sampling value and a current sampling value; and a control unit , coupled to the sampling unit and the switch unit respectively, and configured to output the control signal to the switch unit , to adjust the voltage with the first pulsating waveform according to the voltage sampling value and the current sampling value, and to adjust a duty ratio of the control signal according to the current sampling value and the voltage sampling value, such that the voltage and a current with the third pulsating waveform meet a required charging voltage, and, respectively, current. a first full-bridge rectification unit , configured to rectify an input alternating current and to output a voltage with a first pulsating waveform; a switch unit , configured to modulate the voltage with the first pulsating waveform according to a control signal; a transformer , configured to output a voltage with a second pulsating waveform according to the modulated voltage with the first pulsating waveform, wherein the full-bridge rectification unit is connected to a primary winding of the transformer without electrolytic capacitor; a second rectification unit , configured to rectify the voltage with the second pulsating waveform without electrolytic capacitor to output a voltage with a third pulsating waveform; a sampling unit , configured to sample a voltage and a current output by the second rectification unit to acquire a voltage sampling value and a current sampling value; and a control unit , coupled to the sampling unit and the switch unit respectively, and configured to output the control signal to the switch unit , to adjust the voltage with the first pulsating waveform according to the voltage sampling value and the current sampling value, and to adjust a duty ratio of the control signal according to the current sampling value and the voltage sampling value, such that the voltage and a current with the third pulsating waveform meet a required charging voltage, and, respectively, current.
A film capacitor comprising a first film , a second film , a first electrode connected to a first terminal, a second electrode connected to a second terminal, an electrically floating electrode , and a balancing path, wherein the first film and the second film are dielectric, a part of the electrically floating electrode is in contact with a front side of the first film , the balancing path provides a first balancing connection between the electrically floating electrode and the first terminal and a second balancing connection between the electrically floating electrode and the second terminal, the first balancing connection and the second balancing connection each have an electrical resistance lower than any leakage resistance and higher than 10 3 Ohm, and a leakage resistance is an electrical resistance through any of the first film and the second film between the electrically floating electrode and an electrode devoid of contact with the front side of the first film . the first film and the second film are dielectric, a part of the electrically floating electrode is in contact with a front side of the first film , the balancing path provides a first balancing connection between the electrically floating electrode and the first terminal and a second balancing connection between the electrically floating electrode and the second terminal, the first balancing connection and the second balancing connection each have an electrical resistance lower than any leakage resistance and higher than 10 3 Ohm, and a leakage resistance is an electrical resistance through any of the first film and the second film between the electrically floating electrode and an electrode devoid of contact with the front side of the first film .
A patch comprising: a fiducial layer having a surface adapted to secure to a portion of skin on a patient, wherein the fiducial layer further comprises: a plurality of fiducial markers having at least one of acoustic properties and proton content different from those of human tissue; and adhesive disposed along the surface of the fiducial layer ; wherein the plurality of fiducial markers are configured in an array comprising: a first plurality of parallel, elongate fiducial markers , wherein each of the first plurality of fiducial markers has a unique row width; a second plurality of parallel, elongate fiducial markers orthogonal to the first plurality fiducial markers , wherein each of the second plurality of fiducial markers has a unique column width; characterized in that it comprises: a third plurality of parallel, elongate fiducial markers orthogonal to the first plurality of fiducial markers and orthogonal to the second plurality of fiducial markers . a fiducial layer having a surface adapted to secure to a portion of skin on a patient, wherein the fiducial layer further comprises: a plurality of fiducial markers having at least one of acoustic properties and proton content different from those of human tissue; and adhesive disposed along the surface of the fiducial layer ; a plurality of fiducial markers having at least one of acoustic properties and proton content different from those of human tissue; and adhesive disposed along the surface of the fiducial layer ; wherein the plurality of fiducial markers are configured in an array comprising: a first plurality of parallel, elongate fiducial markers , wherein each of the first plurality of fiducial markers has a unique row width; a second plurality of parallel, elongate fiducial markers orthogonal to the first plurality fiducial markers , wherein each of the second plurality of fiducial markers has a unique column width; characterized in that it comprises: a third plurality of parallel, elongate fiducial markers orthogonal to the first plurality of fiducial markers and orthogonal to the second plurality of fiducial markers . a first plurality of parallel, elongate fiducial markers , wherein each of the first plurality of fiducial markers has a unique row width; a second plurality of parallel, elongate fiducial markers orthogonal to the first plurality fiducial markers , wherein each of the second plurality of fiducial markers has a unique column width; characterized in that it comprises: a third plurality of parallel, elongate fiducial markers orthogonal to the first plurality of fiducial markers and orthogonal to the second plurality of fiducial markers .
A razor cartridge comprising: a first blade support and a second blade support , each of the first and second blade supports include a flat portion having an inner surface (120b") which in use faces away from a shaving surface S; a first blade attached to the inner surface (120b") of the flat portion of the first blade support , wherein the first blade includes a first cutting edge ; and a second blade attached to the inner surface (120b") of the flat portion of the second blade support , wherein the second blade includes a second cutting edge ; wherein a distance (A) between the first and second cutting edges is within a range of 1,6 mm to 2,2 mm; a third blade support , the third blade support including a flat portion having an inner surface (120b") which faces away from the shaving surface S; a third blade attached to the inner surface (120b") of the flat portion of the third blade support , wherein the third blade includes a third cutting edge ; wherein a distance between the second to the third cutting edges is within a range of 1,6 mm to 2,2 mm; and a fourth blade support , the fourth blade support including a flat portion having an inner surface (120b") which faces away from the shaving surface S; a fourth blade attached to the inner surface (120b") of the flat portion of the fourth blade support , wherein the fourth blade includes a fourth cutting edge ; wherein a distance between the third to the fourth cutting edges is within a range of 1,6 mm to 2,2 mm. a first blade support and a second blade support , each of the first and second blade supports include a flat portion having an inner surface (120b") which in use faces away from a shaving surface S; a first blade attached to the inner surface (120b") of the flat portion of the first blade support , wherein the first blade includes a first cutting edge ; and a second blade attached to the inner surface (120b") of the flat portion of the second blade support , wherein the second blade includes a second cutting edge ; wherein a distance (A) between the first and second cutting edges is within a range of 1,6 mm to 2,2 mm; a third blade support , the third blade support including a flat portion having an inner surface (120b") which faces away from the shaving surface S; a third blade attached to the inner surface (120b") of the flat portion of the third blade support , wherein the third blade includes a third cutting edge ; wherein a distance between the second to the third cutting edges is within a range of 1,6 mm to 2,2 mm; and a fourth blade support , the fourth blade support including a flat portion having an inner surface (120b") which faces away from the shaving surface S; a fourth blade attached to the inner surface (120b") of the flat portion of the fourth blade support , wherein the fourth blade includes a fourth cutting edge ; wherein a distance between the third to the fourth cutting edges is within a range of 1,6 mm to 2,2 mm.
An electric motor control device that drives and controls a plurality of electric motors connected in parallel, the electric motor control device comprising: a power conversion device configured to convert power from a power supply , and to supply the power to the plurality of electric motors ; a current detection device configured to detect an electric current flowing through each of the plurality of electric motors ; and a controller configured to control the power conversion device according to a speed command value from an external device and a current value relating to detection from the current detection device, wherein the controller includes a first control unit configured to perform first control on each of the plurality of electric motors based on the electric current, and a second control unit configured to perform second control of controlling the plurality of electric motors such that an estimated speed of each of the plurality of electric motors obtained based on the current value follows the speed command value, characterized in that the controller further includes a switching determination unit (7-16) configured to perform switching determination processing of switching between the first control performed by the first control unit and the second control performed by the second control unit according to drive information on at least one or more of the plurality of electric motors . a power conversion device configured to convert power from a power supply , and to supply the power to the plurality of electric motors ; a current detection device configured to detect an electric current flowing through each of the plurality of electric motors ; and a controller configured to control the power conversion device according to a speed command value from an external device and a current value relating to detection from the current detection device, wherein the controller includes a first control unit configured to perform first control on each of the plurality of electric motors based on the electric current, and a second control unit configured to perform second control of controlling the plurality of electric motors such that an estimated speed of each of the plurality of electric motors obtained based on the current value follows the speed command value, characterized in that the controller further includes a switching determination unit (7-16) configured to perform switching determination processing of switching between the first control performed by the first control unit and the second control performed by the second control unit according to drive information on at least one or more of the plurality of electric motors .
A pouring nozzle made from a packaging laminate film with a laminate structure of not less than three layers comprised of a base film layer and non-oriented sealant layers laminated on front and rear surface sides of the base film layer and having a pouring path at its center portion, characterized in that a tear-inducing flaw is formed by irradiating a laser beam across the pouring path and to a position where a portion of at least one of the non-oriented sealant layers on the front and rear surface sides of the base film layer is displaced by pushing.
An electrochemical assembly, comprising: a housing; an electrochemical device enclosed within the housing, wherein the electrochemical device comprises a first surface, wherein the first surface is a gas outlet surface; a first gas outlet chamber within the housing in fluid communication with the first surface of the electrochemical device; and a heat exchanger disposed within the first gas outlet chamber, wherein the heat exchanger is configured to transfer heat from an outlet gas to an inlet gas of the electrochemical assembly; and wherein the heat exchanger directly faces the gas outlet surface. a housing; an electrochemical device enclosed within the housing, wherein the electrochemical device comprises a first surface, wherein the first surface is a gas outlet surface; a first gas outlet chamber within the housing in fluid communication with the first surface of the electrochemical device; and a heat exchanger disposed within the first gas outlet chamber, wherein the heat exchanger is configured to transfer heat from an outlet gas to an inlet gas of the electrochemical assembly; and wherein the heat exchanger directly faces the gas outlet surface.
An operating method in a road vehicle , wherein - on a first display area , which is arranged in the interior of the vehicle in the field of vision of a person sitting on a driving seat of the vehicle , first graphics data are displayed, - on a second display area , which is arranged separate from the first display area within the reach of the person sitting on the driving seat of the vehicle , second graphics data are shown, and - inputs are acquired via a touch-sensitive surface that is formed on the second display area and the first and/or second graphics data are altered according to these inputs, wherein - in an input procedure comprising several single input steps, after a single input step, first graphics data are generated for a preview assigned to the input procedure and - the first graphics data are displayed on the first display area for the preview, characterized in that - on the second display area , in an input procedure, a first window (16-1) with buttons for inputs is displayed and at least one second window (16-2) in which graphic objects assigned to the inputs are contained is displayed truncated, and - through an operating procedure the window (16-2) displayed truncated is displayable completely and the first window (16-1) is displayable truncated. - on a first display area , which is arranged in the interior of the vehicle in the field of vision of a person sitting on a driving seat of the vehicle , first graphics data are displayed, - on a second display area , which is arranged separate from the first display area within the reach of the person sitting on the driving seat of the vehicle , second graphics data are shown, and - inputs are acquired via a touch-sensitive surface that is formed on the second display area and the first and/or second graphics data are altered according to these inputs, wherein - in an input procedure comprising several single input steps, after a single input step, first graphics data are generated for a preview assigned to the input procedure and - the first graphics data are displayed on the first display area for the preview, characterized in that - on the second display area , in an input procedure, a first window (16-1) with buttons for inputs is displayed and at least one second window (16-2) in which graphic objects assigned to the inputs are contained is displayed truncated, and - through an operating procedure the window (16-2) displayed truncated is displayable completely and the first window (16-1) is displayable truncated.
A method for use by a node operating as a gateway or server in a network, wherein the node comprises a processor , a memory (44; 46), and communication circuitry , and wherein the node is connected to the network via its communication circuitry and further includes computer-executable instructions stored in the memory of the node which, when executed by the processor of the node, perform functions of an instance of a service layer of the network, the method comprising: storing, in the memory of the node, context comprising information concerning a service layer session established between the service layer instance of the node and an application executing on a second node connected to the network; and in response to a trigger condition indicating that the service layer session between the service layer instance of the node and the application of the second node is to be migrated to or shared with a third node, transmitting the stored context for the service layer session from the node to a service layer instance executing on the third node, characterized in that the session context stored for the service layer session comprises one or more of i. information specifying a schedule by which migration or sharing of the service layer session is to be performed; ii. information defining policies by which migration or sharing of the service layer session is to be performed; and iii. information specifying events that may result in said trigger condition indicating that the service layer session is to be migrated or shared. storing, in the memory of the node, context comprising information concerning a service layer session established between the service layer instance of the node and an application executing on a second node connected to the network; and in response to a trigger condition indicating that the service layer session between the service layer instance of the node and the application of the second node is to be migrated to or shared with a third node, transmitting the stored context for the service layer session from the node to a service layer instance executing on the third node, characterized in that the session context stored for the service layer session comprises one or more of i. information specifying a schedule by which migration or sharing of the service layer session is to be performed; ii. information defining policies by which migration or sharing of the service layer session is to be performed; and iii. information specifying events that may result in said trigger condition indicating that the service layer session is to be migrated or shared. i. information specifying a schedule by which migration or sharing of the service layer session is to be performed; ii. information defining policies by which migration or sharing of the service layer session is to be performed; and iii. information specifying events that may result in said trigger condition indicating that the service layer session is to be migrated or shared.