mhurhangee/ep-ind-claims huggingface dataset:
A driving control system comprising: an imaging device that is installed on a moving body and that is configured to image a target object in a first frame period a plurality of times to generate a multiple-exposure image data including a first image data and a second image data; and a detecting device that is configured to detect a traveling direction and/or a relative speed and/or an acceleration as a relative motion state of the moving body with respect to the target object, based on the first image data and the second image data included in the multiple-exposure image data, wherein the imaging device is configured to image the target object with a first sensitivity in a first exposure period in the first frame period to generate the first image data and to image the target object with a second sensitivity in a second exposure period in the first frame period to generate the second image data, wherein the second exposure period is different from the first exposure period, the second sensitivity is different from the first sensitivity, and a degree of a display attribute included in the first image data and the degree of the display attribute included in the second image data differ from each other, and the detecting device is configured to detect the relative motion state of the moving body based on the degree of the display attribute and a size of the target object in the first image data and in the second image data. an imaging device that is installed on a moving body and that is configured to image a target object in a first frame period a plurality of times to generate a multiple-exposure image data including a first image data and a second image data; and a detecting device that is configured to detect a traveling direction and/or a relative speed and/or an acceleration as a relative motion state of the moving body with respect to the target object, based on the first image data and the second image data included in the multiple-exposure image data, wherein the imaging device is configured to image the target object with a first sensitivity in a first exposure period in the first frame period to generate the first image data and to image the target object with a second sensitivity in a second exposure period in the first frame period to generate the second image data, wherein the second exposure period is different from the first exposure period, the second sensitivity is different from the first sensitivity, and a degree of a display attribute included in the first image data and the degree of the display attribute included in the second image data differ from each other, and the detecting device is configured to detect the relative motion state of the moving body based on the degree of the display attribute and a size of the target object in the first image data and in the second image data.
Method for displaying and operating production resources, in particular for the plastics-processing industry, on one or more central operating units, preferably a computer or control station, wherein at least one production resource, for example an injection molding machine, a robot or an automation system, a temperature control unit, a cooling unit, a flow controller, a granulate dryer or conveyor or a metering unit or a work cell controller (24 to 27) is present, characterized in that symbols for the production resources connected via a network are present on the central operating unit and can be selected, wherein, after selection of one or several symbols on the screen of the operating unit, a visualization component is transferred from the associated production resource to the operating unit and executed there, and subsequently a complete display and operation is effected by the cooperation of the visualization software of this production resource now present on the operating unit and the control software which continues to run in a decentralized manner in the production resource, wherein transmission of the visualization component is transmitted, if possible, preferably only upon first invocation of this production resource, then remains stored in the control unit preferably in a cache in order to achieve a faster response behavior at the next selection of the symbol associated with the production resource, wherein the functionality results from the interaction of modular software, in particular the control software, in the controls (18, 19) of the individual production resource and the superordinate software, in particular the visualization software, in the operating unit or units in such a way that only the software modules relevant for the visualization are transferred to an external operating unit, for example a computer, and these cooperate with the process-relevant software modules which continue to remain in the control or controls of the production resource.
A method for verifying a physical connection of an unverified thermal device to a specific combined district heating and cooling system, wherein the specific combined district heating and cooling system comprises a hot fluid conduit for transporting hot fluid, and a cold fluid conduit for transporting cold fluid, wherein, during operation, the hot fluid is warmer than the cold fluid, the method comprising: receiving, from a verified thermal device (106a-e, 112) already verified as physically connected to the specific combined district heating and cooling system, reference data pertaining to a physical characteristic associated to the specific combined district heating and cooling system, wherein the reference data is measured by one or more sensors associated to the verified thermal device (106a, 106b, 112); receiving, from the unverified thermal device, test data pertaining to a physical characteristic of a combined district heating and cooling system the unverified thermal device is connected to, wherein the test data is measured by one or more sensors associated to the unverified thermal device; determining a comparison criterion based on the reference data; and comparing the test data and the comparison criterion; upon the comparison fulfills the comparison criterion, verifying that the unverified thermal device is physically connected to the specific combined district heating and cooling system. receiving, from a verified thermal device (106a-e, 112) already verified as physically connected to the specific combined district heating and cooling system, reference data pertaining to a physical characteristic associated to the specific combined district heating and cooling system, wherein the reference data is measured by one or more sensors associated to the verified thermal device (106a, 106b, 112); receiving, from the unverified thermal device, test data pertaining to a physical characteristic of a combined district heating and cooling system the unverified thermal device is connected to, wherein the test data is measured by one or more sensors associated to the unverified thermal device; determining a comparison criterion based on the reference data; and comparing the test data and the comparison criterion; upon the comparison fulfills the comparison criterion, verifying that the unverified thermal device is physically connected to the specific combined district heating and cooling system.
A vehicle (10, 10A) comprising: a left motor connected mechanically to a left wheel (LWr, LWf), and a right motor connected mechanically to a right wheel (RWr, RWf) paired with the left wheel (LWr, LWf); an energy storage device connected electrically to the left motor and the right motor; and a motor control device configured to control a left motive force and a right motive force, which are motive forces generated by the left motor and the right motor; wherein the motor control device is configured to control the left motive force and the right motive force of the left motor and the right motor so as not to exceed a maximum value of a difference between the left motive force and the right motive force, characterized in that said maximum value is determined on a basis of a temperature (Tb) of the energy storage device or a maximum output power (Pdlmt) of the energy storage device. a left motor connected mechanically to a left wheel (LWr, LWf), and a right motor connected mechanically to a right wheel (RWr, RWf) paired with the left wheel (LWr, LWf); an energy storage device connected electrically to the left motor and the right motor; and a motor control device configured to control a left motive force and a right motive force, which are motive forces generated by the left motor and the right motor; wherein the motor control device is configured to control the left motive force and the right motive force of the left motor and the right motor so as not to exceed a maximum value of a difference between the left motive force and the right motive force, characterized in that said maximum value is determined on a basis of a temperature (Tb) of the energy storage device or a maximum output power (Pdlmt) of the energy storage device.
Apparatus for automatic application of lids to containers, said apparatus comprising - a rotatable device unit comprising a plurality of circumferentially distributed lid holding members; - a lid feeding unit configured to feed an individual lid to one of the lid holding members; - a glue application unit configured to apply glue to an outer edge of a lid held by one of the lid holding members; - a lid application unit configured to attach the lid provided with glue to a container; wherein the lid feeding unit, the glue application unit and the lid application unit are distributed circumferentially around the rotatable device unit in operating positions (4a, 4d, 4e) in correspondence with the circumferential distribution of the lid holding members such that the lid holding members can be directed to each of the units (8, 9, 11) simultaneously by rotating the rotatable device unit, characterized in that the apparatus comprises - at least one further circumferentially distributed lid holding member arranged on the rotatable device unit; - an item application unit configured to fit an individual additional item onto the lid, wherein the item application unit comprises an item supply unit and at least one transfer device configured to grip an individual additional item from the item supply unit and attach the individual additional item to the lid, and wherein the apparatus is arranged in such a way that when the lid holding members are directed towards the lid feeding unit, the glue application unit and the lid application unit, respectively, the further lid holding member is positioned such as to be in reach of the at least one transfer device. - a rotatable device unit comprising a plurality of circumferentially distributed lid holding members; - a lid feeding unit configured to feed an individual lid to one of the lid holding members; - a glue application unit configured to apply glue to an outer edge of a lid held by one of the lid holding members; - a lid application unit configured to attach the lid provided with glue to a container; wherein the lid feeding unit, the glue application unit and the lid application unit are distributed circumferentially around the rotatable device unit in operating positions (4a, 4d, 4e) in correspondence with the circumferential distribution of the lid holding members such that the lid holding members can be directed to each of the units (8, 9, 11) simultaneously by rotating the rotatable device unit, characterized in that the apparatus comprises wherein the lid feeding unit, the glue application unit and the lid application unit are distributed circumferentially around the rotatable device unit in operating positions (4a, 4d, 4e) in correspondence with the circumferential distribution of the lid holding members such that the lid holding members can be directed to each of the units (8, 9, 11) simultaneously by rotating the rotatable device unit, characterized in that the apparatus comprises - at least one further circumferentially distributed lid holding member arranged on the rotatable device unit; - an item application unit configured to fit an individual additional item onto the lid,
An accessory for a microscope arranged to carry out ATR measurements, said accessory comprising a support which can be fixed to the movable stage of the microscope, a mounting member carried by said support for mounting an ATR crystal, a sample supporting member disposed below the location of the ATR crystal, said sample supporting member defining a sample receiving surface, characterised in that said sample supporting member is carried on said support so that it is movable relative to the ATR crystal and defines a sub-stage which can be moved relative to the main stage of the microscope.
An indoor unit of an air conditioner, the indoor unit comprises: a housing comprising a chassis and a front frame connected with the chassis, wherein the front frame and the chassis enclose and form a mounting cavity having a mounting hole opening downwards and communicating with outside; and a fan assembly positioned in the mounting cavity and exposed at the mounting hole, wherein the fan assembly is removably connected with the front frame and the chassis, respectively, characterized in that, a portion of the front frame adjacent to the mounting hole is provided with a first buckle, and a portion of the chassis adjacent to the mounting hole is provided with a second buckle; a portion of the fan assembly adjacent to the front frame is provided with a first buckle slot fitted with the first buckle, and a portion of the fan assembly adjacent to the chassis is provided with a second buckle slot fitted with the second buckle, wherein the first buckle and the second buckle each comprises a main body portion, a rotating portion connected to the main body portion, and a buckling portion; the first buckle is rotatably connected with the front frame through the rotating portion, and is in a snap fit with the first buckle slot through the buckling portion; the second buckle is rotatably connected with the chassis through the rotating portion, and is in a snap fit with the second buckle slot through the buckling portion. a housing comprising a chassis and a front frame connected with the chassis, wherein the front frame and the chassis enclose and form a mounting cavity having a mounting hole opening downwards and communicating with outside; and a fan assembly positioned in the mounting cavity and exposed at the mounting hole, wherein the fan assembly is removably connected with the front frame and the chassis, respectively, characterized in that, a portion of the front frame adjacent to the mounting hole is provided with a first buckle, and a portion of the chassis adjacent to the mounting hole is provided with a second buckle; a portion of the fan assembly adjacent to the front frame is provided with a first buckle slot fitted with the first buckle, and a portion of the fan assembly adjacent to the chassis is provided with a second buckle slot fitted with the second buckle, wherein the first buckle and the second buckle each comprises a main body portion, a rotating portion connected to the main body portion, and a buckling portion; the first buckle is rotatably connected with the front frame through the rotating portion, and is in a snap fit with the first buckle slot through the buckling portion; the second buckle is rotatably connected with the chassis through the rotating portion, and is in a snap fit with the second buckle slot through the buckling portion.
A high-power single-mode (HPSM) fiber laser system, comprising: a directional fiber router provided with a plurality of spaced ports that is configured as a multi-port circulator, characterized by a launching fiber component coupling a SM input signal over free space into one of the ports, the launching component having passive delivery and pigtailed SM fibers spliced to one another; a receiving fiber component receiving a SM output signal over free space from an other port of the router, the receiving fiber component having spliced pigtailed and delivery single mode passive fibers, wherein an inner end of the launching component couples the input signal into the one port and an inner end of the receiving component receives the output signal; and a light stripper extending between protective coatings of respective delivery and pigtailed fibers of each fiber component, the light stripper being operative to distributively remove a portion of the SM signal from the cladding of one of passive fiber before the portion reaches the protective coating of the other passive fiber. a directional fiber router provided with a plurality of spaced ports that is configured as a multi-port circulator, characterized by a launching fiber component coupling a SM input signal over free space into one of the ports, the launching component having passive delivery and pigtailed SM fibers spliced to one another; a receiving fiber component receiving a SM output signal over free space from an other port of the router, the receiving fiber component having spliced pigtailed and delivery single mode passive fibers, wherein an inner end of the launching component couples the input signal into the one port and an inner end of the receiving component receives the output signal; and a light stripper extending between protective coatings of respective delivery and pigtailed fibers of each fiber component, the light stripper being operative to distributively remove a portion of the SM signal from the cladding of one of passive fiber before the portion reaches the protective coating of the other passive fiber.
A method for measuring the flow velocity (v) of a medium in an open channel with a radar measuring device, wherein the radar measuring device is arranged and oriented in such a way that a primary emission direction of the radar measuring device forms with a direction of a surface normal of the medium a first angle (α) between 20° and 80°, preferably between 30° and 60°, and with a flow direction of the medium a second angle (β) between 0° and 80°, preferably between 0° and 60°, comprising the following steps: - Emitting a transmission signal with a plurality of frequency ramps, - Receiving a reception signal per frequency ramp of the transmission signal, - Saving the reception signals, - Performing a first spectral analysis of the reception signals, - Performing a second spectral analysis of several reception signals or output signals of the first spectral analysis, - Determining a flow velocity (v) based on the phase change using the output signals of the second spectral analysis in a distance range, i.e. a range from a minimum distance up to a maximum distance resulting on account of a distance of the surface of the medium from the radar measuring device in the main emission direction and the first angle and second angle, wherein the flow velocity (v) is determined on account of an average phase change in the distance range, a level of the medium in the channel is determined, and the distance range is adjusted based on the determined level. - Emitting a transmission signal with a plurality of frequency ramps, - Receiving a reception signal per frequency ramp of the transmission signal, - Saving the reception signals, - Performing a first spectral analysis of the reception signals, - Performing a second spectral analysis of several reception signals or output signals of the first spectral analysis, - Determining a flow velocity (v) based on the phase change using the output signals of the second spectral analysis in a distance range, i.e. a range from a minimum distance up to a maximum distance resulting on account of a distance of the surface of the medium from the radar measuring device in the main emission direction and the first angle and second angle, wherein the flow velocity (v) is determined on account of an average phase change in the distance range, a level of the medium in the channel is determined, and the distance range is adjusted based on the determined level.
A method for semiconductor processing, comprising: Patterning a selectively definable layer, wherein the patterned selectively definable layer comprises: a row of laterally separated mandrels formed of a mandrel material, the row extending along a first axis; first and second laterally spaced blocks on either side of the row of mandrels, and on a same plane as the mandrels the first and second blocks extending a length of the row of mandrels; and features extending from the first and second laterally spaced blocks to the mandrels, the mandrels and features forming a checkerboard pattern between the first and second blocks; trimming the mandrels, first and second blocks, and features to reduce the size of the mandrels and round the corners of the mandrels; blanket depositing a layer of spacer material over the mandrels, the first and second blocks and the features; anisotropically etching the layer of spacer material to form spacers on sides of the mandrels; selectively removing the mandrels relative to the spacer material, wherein remaining spacer material forms a mask pattern (150,152); and transferring the mask pattern (150,152) to the substrate to form a row of contact vias in the substrate. Patterning a selectively definable layer, wherein the patterned selectively definable layer comprises: a row of laterally separated mandrels formed of a mandrel material, the row extending along a first axis; first and second laterally spaced blocks on either side of the row of mandrels, and on a same plane as the mandrels the first and second blocks extending a length of the row of mandrels; and features extending from the first and second laterally spaced blocks to the mandrels, the mandrels and features forming a checkerboard pattern between the first and second blocks; a row of laterally separated mandrels formed of a mandrel material, the row extending along a first axis; first and second laterally spaced blocks on either side of the row of mandrels, and on a same plane as the mandrels the first and second blocks extending a length of the row of mandrels; and features extending from the first and second laterally spaced blocks to the mandrels, the mandrels and features forming a checkerboard pattern between the first and second blocks; trimming the mandrels, first and second blocks, and features to reduce the size of the mandrels and round the corners of the mandrels; blanket depositing a layer of spacer material over the mandrels, the first and second blocks and the features; anisotropically etching the layer of spacer material to form spacers on sides of the mandrels; selectively removing the mandrels relative to the spacer material, wherein remaining spacer material forms a mask pattern (150,152); and transferring the mask pattern (150,152) to the substrate to form a row of contact vias in the substrate.