mhurhangee/ep-ind-claims huggingface dataset:
A medical laser system for ophthalmological surgery, such as photocoagulation or another method of photo-thermal stimulation, the laser system comprising: - a laser device configured to emit laser radiation at a visible wavelength; and - a laser controller configured to control the laser system; wherein the laser device comprises: - a laser source configured to emit a source radiation, and - a frequency converter configured to receive the source radiation and to output said emitted laser radiation as a frequency-converted output of a frequency conversion process, the frequency conversion process having an efficiency dependent on a wavelength of the source radiation, the efficiency having a maximum, the emitted laser radiation having an optical output power; wherein the laser controller is configured to adjust the optical output power of the emitted laser radiation to a selected target value by adjusting an operating temperature of the laser source and/or an operating temperature of the frequency converter such that the frequency converter is operated at an efficiency smaller than the maximum of the efficiency. - a laser device configured to emit laser radiation at a visible wavelength; and - a laser controller configured to control the laser system; - a laser source configured to emit a source radiation, and - a frequency converter configured to receive the source radiation and to output said emitted laser radiation as a frequency-converted output of a frequency conversion process, the frequency conversion process having an efficiency dependent on a wavelength of the source radiation, the efficiency having a maximum, the emitted laser radiation having an optical output power;
Method for generating a test plan for the testing of a measurement object by a test or measuring device, wherein a data set representing the measurement object is provided, wherein the following computer-implemented steps are carried out: • data-based definition of a reference structure (RS1, RS2, RS3, RS4), • assigning at least one reference-structure-specific test feature to the reference structure (RS1, RS2, RS3, RS4), characterized in that the method additionally comprises the following computer-implemented steps: • data-based testing for the data set representing the measurement object to establish whether structures similar or identical to the reference structure (RS1, RS2, RS3, RS4) are present, wherein the reference-structure-specific test feature is assigned to each similar or identical structure as a structure-specific test feature, wherein the test plan comprises the structure-specific test features determined in this way. • data-based definition of a reference structure (RS1, RS2, RS3, RS4), • assigning at least one reference-structure-specific test feature to the reference structure (RS1, RS2, RS3, RS4), • data-based testing for the data set representing the measurement object to establish whether structures similar or identical to the reference structure (RS1, RS2, RS3, RS4) are present, wherein the reference-structure-specific test feature is assigned to each similar or identical structure as a structure-specific test feature,
A piezoelectric actuator comprising: a piezoelectric element having a longitudinal direction; a case comprising a lid portion, a bottom portion, and a tubular portion, the case being configured to house the piezoelectric element inside; and a strain gauge positioned at the tubular portion, characterised in that the tubular portion comprises a plurality of bent portions in the longitudinal direction, each of the plurality of bent portions being configured to bend in response to extension and contraction of the piezoelectric element, and the strain gauge is positioned at a bent portion of the plurality of bent portions. a piezoelectric element having a longitudinal direction; a case comprising a lid portion, a bottom portion, and a tubular portion, the case being configured to house the piezoelectric element inside; and a strain gauge positioned at the tubular portion, characterised in that the tubular portion comprises a plurality of bent portions in the longitudinal direction, each of the plurality of bent portions being configured to bend in response to extension and contraction of the piezoelectric element, and the strain gauge is positioned at a bent portion of the plurality of bent portions.
A throttle valve device comprising: a main body including an intake passage having an upstreamportion and a downstream portion, a bypass passage having an upstream section in fluid communication with said upstream portion of said intake passage, a downstream section extending along a first axis, and a downstream end in fluid communication with said downstream portion of said intake passage, and a mounting hole extending along a second axis; and a main valve disposed in said intake passage to divide said intake passage into said upstream portion and said downstream portion; wherein said first and second axes (X, Y) intersect each other; the throttle valve device being characterized in that the first axis and the second axis intersect at an intersection point that is located in either said downstream section of said bypass passage and adjacent to said downstream end or in said downstream portion of said intake passage. a main body including an intake passage having an upstreamportion and a downstream portion, a bypass passage having an upstream section in fluid communication with said upstream portion of said intake passage, a downstream section extending along a first axis, and a downstream end in fluid communication with said downstream portion of said intake passage, and a mounting hole extending along a second axis; and a main valve disposed in said intake passage to divide said intake passage into said upstream portion and said downstream portion; wherein said first and second axes (X, Y) intersect each other; the throttle valve device being characterized in that the first axis and the second axis intersect at an intersection point that is located in either said downstream section of said bypass passage and adjacent to said downstream end or in said downstream portion of said intake passage.
An electronic device (100; 300) comprising: a first storage unit configured to store digital image data; and a processor configured to obtain first image data (operation 403; 801, 803), to detect a load condition (operation 501; 805) for the first storage unit, to load at least one reference image data into the first storage unit based on the load condition from among a plurality of reference image data stored in a second storage unit (operation 505/508; 807), to recognize a first object in the first image data using the at least one reference image data loaded into the first storage unit (operation 417/429; 813), to store the first image data that includes the first object and the at least one reference image data that includes a second object in the first storage unit, said second object being related to the first object in the first image data, and to use one or more of the first and second objects stored in the first storage unit to recognize an object in second image data. a first storage unit configured to store digital image data; and a processor configured to obtain first image data (operation 403; 801, 803), to detect a load condition (operation 501; 805) for the first storage unit, to load at least one reference image data into the first storage unit based on the load condition from among a plurality of reference image data stored in a second storage unit (operation 505/508; 807), to recognize a first object in the first image data using the at least one reference image data loaded into the first storage unit (operation 417/429; 813), to store the first image data that includes the first object and the at least one reference image data that includes a second object in the first storage unit, said second object to obtain first image data (operation 403; 801, 803), to detect a load condition (operation 501; 805) for the first storage unit, to load at least one reference image data into the first storage unit based on the load condition from among a plurality of reference image data stored in a second storage unit (operation 505/508; 807), to recognize a first object in the first image data using the at least one reference image data loaded into the first storage unit (operation 417/429; 813), to store the first image data that includes the first object and the at least one reference image data that includes a second object in the first storage unit, said second object being related to the first object in the first image data, and to use one or more of the first and second objects stored in the first storage unit to recognize an object in second image data.
An apparatus for manufacturing three-dimensional objects by selective solidification of a build material applied in layers, comprising - a build platform, arranged in an X-Y-plane, on which at least one three-dimensional object is generated in layers; - a heating element, at least partly overlapping the build platform, for inputting thermal energy into the build material; - a drive device for generating a relative motion in an X- and/or Y-direction between the build platform and the heating element characterized in that the heating element comprises at least two simultaneously usable functional openings (18, 19), and in that one of the at least two functional openings is embodied as a material passthrough and another of the at least two functional openings is embodied as a radiation passthrough. - a build platform, arranged in an X-Y-plane, on which at least one three-dimensional object is generated in layers; - a heating element, at least partly overlapping the build platform, for inputting thermal energy into the build material; - a drive device for generating a relative motion in an X- and/or Y-direction between the build platform and the heating element
A reversible article (10; 110; 150; 160) comprising: an infrared suppressing layer (30; 120; 35) comprising a layer of an adhesive (60; 85; 95) sandwiched between a first microporous film and a second microporous film (50; 100) having thereon a coating composition containing at least one colorant and at least one infrared suppressive additive as measured as described in the description specification, said second microporous film (50; 100) forming a first outer surface; a textile layer positioned on said first microporous film, said textile layer forming a second outer surface; and an adhesive layer positioned between said textile layer and said first microporous film. an infrared suppressing layer (30; 120; 35) comprising a layer of an adhesive (60; 85; 95) sandwiched between a first microporous film and a second microporous film (50; 100) having thereon a coating composition containing at least one colorant and at least one infrared suppressive additive as measured as described in the description specification, said second microporous film (50; 100) forming a first outer surface; a textile layer positioned on said first microporous film, said textile layer forming a second outer surface; and an adhesive layer positioned between said textile layer and said first microporous film.
Storage system for storing containers comprising: a grid structure having a large number of grid cells, wherein each grid cell defines a storage column of a container storage structure which is arranged below the grid structure, wherein the storage columns are configured to receive a vertical stack of storage containers in each case, and at least one transport robot which is constructed to move on the grid structure for handling the storage containers, wherein the transport robot comprises means for receiving, transporting and depositing storage containers which are stored in the container storage structure, at least one storage container lifting apparatus having a lifting platform which can be raised and lowered for vertically conveying storage containers, wherein the lifting platform is configured in a retention position, on the one hand, to discharge storage containers which are conveyed and, on the other hand, to receive storage containers which are intended to be conveyed, wherein the lifting platform has a first conveying device, characterised in that the lifting platform additionally has a second conveying device, wherein the first and the second conveying devices (13a, 13b) have opposing conveying directions so that one of the conveying devices (13a; 13b) is configured for receiving and the other of the conveying devices (13b; 13a) is configured for discharging storage containers. a grid structure having a large number of grid cells, wherein each grid cell defines a storage column of a container storage structure which is arranged below the grid structure, wherein the storage columns are configured to receive a vertical stack of storage containers in each case, and at least one transport robot which is constructed to move on the grid structure for handling the storage containers, wherein the transport robot comprises means for receiving, transporting and depositing storage containers which are stored in the container storage structure, at least one storage container lifting apparatus having a lifting platform which can be raised and lowered for vertically conveying storage containers, wherein the lifting platform is configured in a retention position, on the one hand, to discharge storage containers which are conveyed and, on the other hand, to receive storage containers which are intended to be conveyed, wherein the lifting platform has a first conveying device, characterised in that the lifting platform additionally has a second conveying device, wherein the first and the second conveying devices (13a, 13b) have opposing conveying directions so that one of the conveying devices (13a; 13b) is configured for receiving and the other of the conveying devices (13b; 13a) is configured for discharging storage containers.
A method for a wireless device for transmitting a random access preamble, the method comprising: receiving system information configuring a plurality of narrowband physical random access channel, NPRACH, bands, wherein each NPRACH band correspond to a coverage class, wherein for each of the configured NPRACH bands, three bits in the system information indicate a tone index corresponding to the starting subcarrier of that NPRACH band, wherein the tone indices are restricted to a subset of possible starting tone indices in the range 0-36; determining a coverage class; selecting one NPRACH band of the plurality of NPRACH bands based on the determined coverage class; and transmitting the random access preamble on a location within a frequency band, wherein the location is based on the tone index of the selected NPRACH band. receiving system information configuring a plurality of narrowband physical random access channel, NPRACH, bands, wherein each NPRACH band correspond to a coverage class, wherein for each of the configured NPRACH bands, three bits in the system information indicate a tone index corresponding to the starting subcarrier of that NPRACH band, wherein the tone indices are restricted to a subset of possible starting tone indices in the range 0-36; determining a coverage class; selecting one NPRACH band of the plurality of NPRACH bands based on the determined coverage class; and transmitting the random access preamble on a location within a frequency band, wherein the location is based on the tone index of the selected NPRACH band.
A tire, comprising a vulcanized rubber composition which satisfies the relationship: ΔSv ≥ 5% when it is sampled inward in a tire radial direction from a tread interior surface exposed by removing a tread surface to a depth of 3 mm inward in the tire radial direction, wherein ΔSv represents a rate of change in an area occupied by depressions on the tread interior surface before and after immersion under the following conditions, the tire comprising a tread comprising the vulcanized rubber composition, wherein the vulcanized rubber composition is prepared from a tread rubber composition comprising at least one rubber component and water-soluble fine particles, the median particle size D50 of the water-soluble fine particles is 1 μm to 100 μm and the amount of the water-soluble fine particles per 100 parts of the rubber components is 5 parts by mass or more, the vulcanized rubber composition has a complex modulus at 70°C (70°C E*) satisfying the relationship: 70°C E* ≥ 2.5 MPa, and the tread having a groove pattern asymmetric in a tire width direction to contact a road: (Immersion conditions) The vulcanized rubber composition is entirely immersed for three hours in 1000 mL of water maintained at 25°C. the tire comprising a tread comprising the vulcanized rubber composition, wherein the vulcanized rubber composition is prepared from a tread rubber composition comprising at least one rubber component and water-soluble fine particles, the median particle size D50 of the water-soluble fine particles is 1 μm to 100 μm and the amount of the water-soluble fine particles per 100 parts of the rubber components is 5 parts by mass or more, the vulcanized rubber composition has a complex modulus at 70°C (70°C E*) satisfying the relationship: 70°C E* ≥ 2.5 MPa, and the tread having a groove pattern asymmetric in a tire width direction to contact a road: (Immersion conditions) The vulcanized rubber composition is entirely immersed for three hours in 1000 mL of water maintained at 25°C.
A battery module comprising: a battery assembly having a plurality of battery structures, which are arranged side by side, wherein each battery structure includes a battery body, which has a battery cell, and a battery holder, which holds the battery body; and a pressure application member (14, 15), which applies pressure to the battery assembly in a direction in which the battery structures are arranged side by side, wherein each battery holder includes a first surface, which intersects with the arrangement direction of the battery structures, a second surface, which is located on a side opposite to the first surface, a projecting portion (27, 34), which projects from the first surface in the arrangement direction of the battery structures and has a distal end face, and a receptacle portion (29, 36), which is recessed in the second surface in the arrangement direction of the battery structures, the projecting portion (27, 34) of each battery holder is inserted into the receptacle portion (29, 36) of adjacent one of the battery holders in a state in which the distal end face of the projecting portion (27, 34) is free of contact with the adjacent battery holder, characterized in that each battery body contacts adjacent one of the battery bodies such that at least one of the first and second surfaces of the battery holder that holds the battery body is free of contact with the adjacent battery holder. a battery assembly having a plurality of battery structures, which are arranged side by side, wherein each battery structure includes a battery body, which has a battery cell, and a battery holder, which holds the battery body; and a pressure application member (14, 15), which applies pressure to the battery assembly in a direction in which the battery structures are arranged side by side, wherein each battery holder includes a first surface, which intersects with the arrangement direction of the battery structures, a second surface, which is located on a side opposite to the first surface, a projecting portion (27, 34), which projects from the first surface in the arrangement direction of the battery structures and has a distal end face, and a receptacle portion (29, 36), which is recessed in the second surface in the arrangement direction of the battery structures, the projecting portion (27, 34) of each battery holder is inserted into the receptacle portion (29, 36) of adjacent one of the battery holders in a state in which the distal end face of the projecting portion (27, 34) is free of contact with the adjacent battery holder, characterized in that each battery body contacts adjacent one of the battery bodies such that at least one of the first and second surfaces of the battery holder that holds the battery body is free of contact with the adjacent battery holder.
A cooling rack structure of thermoelectric cooling type, including: - a cooling plate which has a supporting surface for supporting an electronic heat-generating product, under which there is an inner surface, on which a heat pipe. component is disposed, a supporting part extending vertically from the cooling plate, and - a centrifugal fan; characterized in that - a temperature conductor which has a plurality of fins interspaced with respect to each other, is closely attached onto the heat pipe component; - the centrifugal fan has a sucking inlet arranged corresponding to the fins of the temperature conductor and an exhausting outlet arranged correspondingly with a heat-exhausting hole being arranged on the supporting part; - a cooling body which has a plurality of cooling fins interspaced with respect to each other and configured extending along a direction starting from the exhausting outlet toward the heat-exhausting hole is arranged between the heat-exhausting hole and the exhausting outlet; and - a thermoelectric cooling component has a cold side face arranged closely contacting the heat pipe component and a hot side face arranged closely contacting the cooling body. - a cooling plate which has a supporting surface for supporting an electronic heat-generating product, under which there is an inner surface, on which a heat pipe. component is disposed, a supporting part extending vertically from the cooling plate, and - a centrifugal fan; characterized in that - a temperature conductor which has a plurality of fins interspaced with respect to each other, is closely attached onto the heat pipe component; - the centrifugal fan has a sucking inlet arranged corresponding to the fins of the temperature conductor and an exhausting outlet arranged correspondingly with a heat-exhausting hole being arranged on the supporting part; - a cooling body which has a plurality of cooling fins interspaced with respect to each other and configured extending along a direction starting from the exhausting outlet toward the heat-exhausting hole is arranged between the heat-exhausting hole and the exhausting outlet; and - a thermoelectric cooling component has a cold side face arranged closely contacting the heat pipe component and a hot side face arranged closely contacting the cooling body.
A method of establishing relationships between building automation system components configured to facilitate automated control of a building, the method comprising: receiving data for a building automation system component; applying a model to the data received for the building automation system component; applying a uniform name to the building automation system component based on results of applying the model to the data received for the building automation system component and storing the uniform name in a database, wherein the uniform name is a name selected from a predetermined naming convention based on results of applying the model to the name data; and establishing a relationship between the building automation system component and one or more other building automation system components based on results of applying the model to the data received for the building automation system component. receiving data for a building automation system component; applying a model to the data received for the building automation system component; applying a uniform name to the building automation system component based on results of applying the model to the data received for the building automation system component and storing the uniform name in a database, wherein the uniform name is a name selected from a predetermined naming convention based on results of applying the model to the name data; and establishing a relationship between the building automation system component and one or more other building automation system components based on results of applying the model to the data received for the building automation system component.