mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for identifying, during a design stage, a problem design area in a semiconductor layout design by analyzing a plurality of points of interest (POIs) in said semiconductor layout design for a downstream application, the method comprising: accessing one or more kernels (630, 632, 634) based on the downstream application, the one or more kernels (630, 632, 634) when convolved with a representation of the semiconductor layout design extracting at least one feature associated with the plurality of POIs, the extracted at least one feature for use by the downstream application; for a respective POI of the plurality of POIs, convolving the one or more kernels (630, 632, 634) with the representation of the semiconductor layout design in order to generate a signature for the respective POI, the signature comprising a numerical representation indicative of the extracted at least one feature associated with the respective POI; and analyzing, based on the downstream application, the signature for the extracted at least one feature associated with the respective POI, for identifying said problem design area within said semiconductor layout design. accessing one or more kernels (630, 632, 634) based on the downstream application, the one or more kernels (630, 632, 634) when convolved with a representation of the semiconductor layout design extracting at least one feature associated with the plurality of POIs, the extracted at least one feature for use by the downstream application; for a respective POI of the plurality of POIs, convolving the one or more kernels (630, 632, 634) with the representation of the semiconductor layout design in order to generate a signature for the respective POI, the signature comprising a numerical representation indicative of the extracted at least one feature associated with the respective POI; and analyzing, based on the downstream application, the signature for the extracted at least one feature associated with the respective POI, for identifying said problem design area within said semiconductor layout design.
Method for the electrochemical deposition of nanoscale catalyst particles having a diameter between 1 and 100 nm using a hydrogen consuming anode functioning as a counter electrode for the working electrode, wherein the working electrode potential with respect to the hydrogen consuming anode has at least a predominantly positive sign at the time during the deposition process so that a simultaneous development of hydrogen at the working electrode is largely or completely avoided.
A waveguide comprising: at least one waveguide substrate; at least one grating including a degree of birefringence; at least one birefringence compensation layer comprising at least one stack of refractive index layers disposed on at least one optical surface of the waveguide, wherein at least one layer in the stack of refractive index layers has an isotropic refractive index and at least one layer in the stack of refractive index layers has an anisotropic refractive index, and wherein each layer of the at least one stack of refractive index layers extends in a direction parallel to the extending direction of the at least one waveguide substrate; a light source for outputting light; an input coupler for directing the light into total internal reflection paths within the waveguide; and an output coupler for extracting light from the waveguide, wherein the interaction of the light with the birefringence compensation layer and the grating provides a predefined characteristic of light extracted from the waveguide. at least one waveguide substrate; at least one grating including a degree of birefringence; at least one birefringence compensation layer comprising at least one stack of refractive index layers disposed on at least one optical surface of the waveguide, wherein at least one layer in the stack of refractive index layers has an isotropic refractive index and at least one layer in the stack of refractive index layers has an anisotropic refractive index, and wherein each layer of the at least one stack of refractive index layers extends in a direction parallel to the extending direction of the at least one waveguide substrate; a light source for outputting light; an input coupler for directing the light into total internal reflection paths within the waveguide; and an output coupler for extracting light from the waveguide, wherein the interaction of the light with the birefringence compensation layer and the grating provides a predefined characteristic of light extracted from the waveguide.
A connection box for a gas tungsten arc weld (GTAW) training system, comprising: a remote control input device configured to receive a remote control signal from a remote control; a remote control output device configured to provide the remote control signal to a welding-type power supply; a torch connection device configured for electrical connection to a GTAW welding torch; a switch configured to selectively couple the remote control input device to the remote control output device; and control circuitry configured to: provide a training signal representative of the remote control signal to a weld training controller; in a live arc mode, control the switch to selectively couple the remote control input device to the remote control output device to enable communication of the remote control signal to the welding-type power supply; and in a simulation mode, control the switch to selectively decouple the remote control input device from the remote control output device to prevent communication of the remote control signal to the welding-type power supply; provide one or more torch output signals to the GTAW welding torch via the torch connection device. a remote control input device configured to receive a remote control signal from a remote control; a remote control output device configured to provide the remote control signal to a welding-type power supply; a torch connection device configured for electrical connection to a GTAW welding torch; a switch configured to selectively couple the remote control input device to the remote control output device; and control circuitry configured to: provide a training signal representative of the remote control signal to a weld training controller; in a live arc mode, control the switch to selectively couple the remote control input device to the remote control output device to enable communication of the remote control signal to the welding-type power supply; and in a simulation mode, control the switch to selectively decouple the remote control input device from the remote control output device to prevent communication of the remote control signal to the welding-type power supply; provide one or more torch output signals to the GTAW welding torch via the torch connection device. provide a training signal representative of the remote control signal to a weld training controller; in a live arc mode, control the switch to selectively couple the remote control input device to the remote control output device to enable communication of the remote control signal to the welding-type power supply; and in a simulation mode, control the switch to selectively decouple the remote control input device from the remote control output device to prevent communication of the remote control signal to the welding-type power supply; provide one or more torch output signals to the GTAW welding torch via the torch connection device.
A scroll compressor comprising a compression mechanism formed by engaging a pairing of a fixed scroll and an orbiting scroll in each of which a spiral wrap (18, 22) is vertically provided on one surface of an end plate (17, 21) thereof, characterized in that a plurality of fine depressions are provided on one or both of a side surface (18A, 18B) of the spiral wrap of the fixed scroll and a side surface (22A, 22B) of the spiral wrap of the orbiting scroll, which are in sliding contact with each other, and in that the fine depressions are formed as dimples elongated in a revolving direction of the orbiting scroll which is revolved about the fixed scroll in an orbital manner.
A substrate processing method, comprising: - coating the surface of a substrate with a polysilazane solution; - pre-baking the substrate coated with the polysilazane solution by heating the substrate at the temperature of about 70° to 250°C where the solvent is removed from the polysilazane solution used for coating the surface of the substrate forming a substrate having a pre-baked film containing a silazane bond; - loading the substrate having a pre-baked film containing a silazane bond into a processing vessel; - heating the substrate to a first temperature; - supplying a process gas to the heated substrate, and - heating the substrate to which the process gas has been supplied to a second temperature which is higher than the first temperature and less than or equal to a temperature at which the pre-bake has been performed, wherein • the process gas is a hydrogen peroxide gas; • - in the heating of the substrate to the first temperature and supplying the process gas to the heated substrate - an oxygen-containing gas is supplied to the substrate at a first flow rate; • - before the substrate is heated to the second temperature or simultaneously with heating the substrate - the oxygen-containing gas is supplied thereto at a second flow rate larger than the first flow rate; • as the oxygen-containing gas, a gas containing at least one of oxygen (O 2) gas, ozone gas (O 3) gas, and nitrous oxide gas is used. - coating the surface of a substrate with a polysilazane solution; - pre-baking the substrate coated with the polysilazane solution by heating the substrate at the temperature of about 70° to 250°C where the solvent is removed from the polysilazane solution used for coating the surface of the substrate forming a substrate having a pre-baked film containing a silazane bond; - loading the substrate having a pre-baked film containing a silazane bond into a processing vessel; - heating the substrate to a first temperature; - supplying a process gas to the heated substrate, and - heating the substrate to which the process gas has been supplied to a second temperature which is higher than the first temperature and less than or equal to a temperature at which the pre-bake has been performed, • the process gas is a hydrogen peroxide gas; • - in the heating of the substrate to the first temperature and supplying the process gas to the heated substrate - an oxygen-containing gas is supplied to the substrate at a first flow rate; • - before the substrate is heated to the second temperature or simultaneously with heating the substrate - the oxygen-containing gas is supplied thereto at a second flow rate larger than the first flow rate; • as the oxygen-containing gas, a gas containing at least one of oxygen (O 2) gas, ozone gas (O 3) gas, and nitrous oxide gas is used.
A microprojection equipment, comprising a microprojection device and a magnetic suspension base, wherein the microprojection device is adapted to be suspended over the magnetic suspension base in operation; wherein the magnetic suspension base comprises a housing and at least three base magnets disposed in the housing, wherein a magnetic field direction of a center of a combined magnetic field formed by the at least three base magnets is in a vertical direction; and magnetic intensity at the center of the combined magnetic field is less than magnetic intensity of the combined magnetic field near the base magnets; wherein the microprojection device comprises a microprojector and a main suspension magnet, wherein the microprojector is fixed to the main suspension magnet; and a magnetic field direction at a magnetic field center of the main suspension magnet is in a vertical direction, so that the microprojector can be driven to be suspended in a magnetic field environment provided by the at least three base magnets; characterized in that the microprojection device further comprising at least one auxiliary magnet, wherein the magnetic field direction at a magnetic field center of each auxiliary magnet is perpendicular to a magnetic field direction at the magnetic field center of the main suspension magnet and the auxiliary magnet is affected by magnetic forces of the magnetic suspension base in a horizontal direction so that the microprojector can be driven to maintain stable orientation.
An apparatus comprising: a plurality (104, 202, 303, 305, 307) of transformers (108, 136, 138, 204, 206, 208, 308, 310, 312, 314, 316, 318, 320, 322, 324, 402, 404), wherein each of the plurality of transformers is independently connected to a load (122, 156) and/or a source (124, 158), wherein each of the plurality of transformers comprises a core (110, 140, 148, 214, 222, 230), a first winding (112, 216, 224, 232) connected to one of the load and the source, a second winding (114, 218, 226, 234) and a control (116, 146, 154, 220, 228, 236) winding, a path (106, 203, 212, 302, 304, 306) configured to connect the respective second windings of the each of the plurality of transformers, wherein non-direct current flows through the path; and a number of current sources configured to send direct current (132, 238, 240, 242, 326, 328, 330, 408) into a portion of the plurality of transformers such that a transfer of energy between the core for each of the portion of the plurality of transformers and the path is substantially absent, wherein the number of current sources is configured to send the direct current into the control winding for the each of the portion of the plurality of transformers to saturate the core for the each of the portion of the plurality of transformers. a plurality (104, 202, 303, 305, 307) of transformers (108, 136, 138, 204, 206, 208, 308, 310, 312, 314, 316, 318, 320, 322, 324, 402, 404), wherein each of the plurality of transformers is independently connected to a load (122, 156) and/or a source (124, 158), wherein each of the plurality of transformers comprises a core (110, 140, 148, 214, 222, 230), a first winding (112, 216, 224, 232) connected to one of the load and the source, a second winding (114, 218, 226, 234) and a control (116, 146, 154, 220, 228, 236) winding, a path (106, 203, 212, 302, 304, 306) configured to connect the respective second windings of the each of the plurality of transformers, wherein non-direct current flows through the path; and a number of current sources configured to send direct current (132, 238, 240, 242, 326, 328, 330, 408) into a portion of the plurality of transformers such that a transfer of energy between the core for each of the portion of the plurality of transformers and the path is substantially absent, wherein the number of current sources is configured to send the direct current into the control winding for the each of the portion of the plurality of transformers to saturate the core for the each of the portion of the plurality of transformers.
Color-temperature-dimmable multi-channel LED system, comprising: - a driver unit,,, which is designed to supply each of at least two LED output channels, with a current (I_K1), (I_K2) closed-loop-controlled to a setpoint, the driver unit,, being further designed to limit to prespecified values a maximum power of each LED output channel of the at least two LED output channels, on the one hand and on the other hand a total power of all LED output channels of the at least two LED output channels,, and the driver unit,, being designed to lower the setpoint of any LED output channel of the at least two LED output channels (16A, 16B) when its current power (P_K2) is greater than a maximum permissible total power (P_system) of the at least two LED output channels (16A, 16B) minus a current power (P_K1) of further LED output channels of the at least two LED output channels (16A, 16B), characterized in that a change in a color coordinate of the system resulting from a change in the setpoint of any LED output channel is compensated by a post-calibration in that the driver unit,, is designed to lower the setpoint of a master output channel, which setpoint is selected from the at least two LED output channels (16A, 16B), to the extent that at a reduced brightness of the system a desired color coordinate of a mixed light is maintained, the master output channel being designed to operate up to 50 W without the system being switched off. - a driver unit,,, which is designed to supply each of at least two LED output channels, with a current (I_K1), (I_K2) closed-loop-controlled to a setpoint,
A base station for receiving a mobile cleaning robot comprising: a docking structure comprising: a horizontal surface; and at least two electrical charging contacts (116a; 116b), each of the electrical charging contacts having a contact surface positioned above the horizontal surface; characterized in that the base station further comprises a platform that is connectable to the docking structure, the platform comprising: a raised rear surface having a front portion and a rear portion, the rear portion configured to be substantially co-planar with the horizontal surface of the docking structure when the platform is connected to the docking structure; two wheel wells (122a, 122b) located in the front portion of the raised rear surface of the platform, each wheel well having a recessed surface being configured to receive a wheel of the robot, the recessed surface of each wheel well having raised tread to complement grooves of the respective wheels of the robot; and a plurality of raised surface features forward of the raised rear surface configured to support an underside portion of the mobile cleaning robot. a docking structure comprising: a horizontal surface; and at least two electrical charging contacts (116a; 116b), each of the electrical charging contacts having a contact surface positioned above the horizontal surface; characterized in that the base station further comprises a horizontal surface; and at least two electrical charging contacts (116a; 116b), each of the electrical charging contacts having a contact surface positioned above the horizontal surface; characterized in that the base station further comprises a platform that is connectable to the docking structure, the platform comprising: a raised rear surface having a front portion and a rear portion, the rear portion configured to be substantially co-planar with the horizontal surface of the docking structure when the platform is connected to the docking structure; two wheel wells (122a, 122b) located in the front portion of the raised rear surface of the platform, each wheel well having a recessed surface being configured to receive a wheel of the robot, the recessed surface of each wheel well having raised tread to complement grooves of the respective wheels of the robot; and a plurality of raised surface features forward of the raised rear surface configured to support an underside portion of the mobile cleaning robot. a raised rear surface having a front portion and a rear portion, the rear portion configured to be substantially co-planar with the horizontal surface of the docking structure when the platform is connected to the docking structure; two wheel wells (122a, 122b) located in the front portion of the raised rear surface of the platform, each wheel well having a recessed surface being configured to receive a wheel of the robot, the recessed surface of each wheel well having raised tread to complement grooves of the respective wheels of the robot; and a plurality of raised surface features forward of the raised rear surface configured to support an underside portion of the mobile cleaning robot.
A screen locking method carried out in a mobile terminal, comprising: in response to a first input, displaying a first interface in a lock screen state, wherein the first interface comprises a first picture, a name of a lock screen background and a lock screen configuration interface, the first interface uses the first picture as the lock screen background, the lock screen configuration interface is provided with a first function option for sharing a current lock screen background on another mobile terminal or a social network, the lock screen configuration interface is provided with a second function option for setting a picture type; in response to a second input, sharing the first picture on another mobile terminal or the social network; and in response to a third input, invoking a picture that meets the picture type as the lock screen background when a screen of the mobile terminal is lit up next time. in response to a first input, displaying a first interface in a lock screen state, wherein the first interface comprises a first picture, a name of a lock screen background and a lock screen configuration interface, the first interface uses the first picture as the lock screen background, the lock screen configuration interface is provided with a first function option for sharing a current lock screen background on another mobile terminal or a social network, the lock screen configuration interface is provided with a second function option for setting a picture type; in response to a second input, sharing the first picture on another mobile terminal or the social network; and in response to a third input, invoking a picture that meets the picture type as the lock screen background when a screen of the mobile terminal is lit up next time.
Operating and display device for operating a technical installation and for displaying data of the technical installation, wherein the operating and display device is embodied - to receive image data detected by a camera device and relating to a monitored area and - to display the received image data integrated into the operating and display device, characterised in that with image data detected by the camera device and relating to a crossing, the operating and display device is embodied such that in response to setting a route which involves the crossing - the display of the image data is switched on and/or - a switchover from a first display mode into a second display mode is carried out, wherein the operating and display device is embodied - in the first display mode to display the received image data in a thumbnail view, - in the second display mode to display the received image data in an enlarged representation compared with the first display mode and - to switch over between the first display mode and the second display mode. - to receive image data detected by a camera device and relating to a monitored area and - to display the received image data integrated into the operating and display device, - the display of the image data is switched on and/or - a switchover from a first display mode into a second display mode is carried out, wherein the operating and display device is embodied - in the first display mode to display the received image data in a thumbnail view, - in the second display mode to display the received image data in an enlarged representation compared with the first display mode and - to switch over between the first display mode and the second display mode. - in the first display mode to display the received image data in a thumbnail view, - in the second display mode to display the received image data in an enlarged representation compared with the first display mode and - to switch over between the first display mode and the second display mode.