mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal, comprising: a display unit; a camera configured to capture an image, the captured image being re-focusable; and characterized in that the mobile terminal further comprises a controller configured to: display the captured image being re-focusable on the display unit, determine a plurality of recipients corresponding to regions from the displayed image in response to detection of the regions selected by a touch input, generate different images each having a changed focal depth of the captured image based on the determined recipients, and transmit the generated images to each of the determined recipients. a display unit; a camera configured to capture an image, the captured image being re-focusable; and characterized in that the mobile terminal further comprises a controller configured to: display the captured image being re-focusable on the display unit, determine a plurality of recipients corresponding to regions from the displayed image in response to detection of the regions selected by a touch input, generate different images each having a changed focal depth of the captured image based on the determined recipients, and display the captured image being re-focusable on the display unit, determine a plurality of recipients corresponding to regions from the displayed image in response to detection of the regions selected by a touch input, generate different images each having a changed focal depth of the captured image based on the determined recipients, and transmit the generated images to each of the determined recipients.
A method of mass producing different products in an automated production station having a plurality of part-processing devices, comprising: a) identifying a first workpiece received in the production station; b) selecting control parameters associated with the first workpiece identified in (a); c) electronically synchronizing the part-processing devices based on the control parameters selected in (b) to perform coordinated operations on the first workpiece for producing a first product, the operations including mating the first workpiece with a respective second workpiece received in the production station for assembly of the first product; d) identifying a third workpiece received in the production station, the third workpiece shaped differently from the first workpiece; e) selecting control parameters associated with the third workpiece identified in (d); f) electronically synchronizing the part-processing devices based on the control parameters selected in (e) to perform coordinated operations on the third workpiece for producing a second product, the operations including mating the third workpiece with another respective second workpiece received in the production station for assembly of the second product, each second workpiece having a common shape different from that of the first and third workpieces; and g) repeating (a) to (c) to produce a plurality of the first products and repeating (d) to (f) to produce a plurality of the second products interchangeably with the first products in a continuous mass production process. a) identifying a first workpiece received in the production station; b) selecting control parameters associated with the first workpiece identified in (a); c) electronically synchronizing the part-processing devices based on the control parameters selected in (b) to perform coordinated operations on the first workpiece for producing a first product, the operations including mating the first workpiece with a respective second workpiece received in the production station for assembly of the first product; d) identifying a third workpiece received in the production station, the third workpiece shaped differently from the first workpiece; e) selecting control parameters associated with the third workpiece identified in (d); f) electronically synchronizing the part-processing devices based on the control parameters selected in (e) to perform coordinated operations on the third workpiece for producing a second product, the operations including mating the third workpiece with another respective second workpiece received in the production station for assembly of the second product, each second workpiece having a common shape different from that of the first and third workpieces; and g) repeating (a) to (c) to produce a plurality of the first products and repeating (d) to (f) to produce a plurality of the second products interchangeably with the first products in a continuous mass production process.
Device for guiding lines at an industrial robot, having a pivot arm for mounting at a robot axis in an arrangement which is pivotable about a pivot axis which is fixed in relation to the robot axis, having a holder for the lines that is mounted on the pivot arm, and having at least one restoring spring which is in the form of a helical spring and whose windings are arranged spaced apart from one another in the longitudinal direction in the rest position of the pivot arm and counter to whose restoring force the pivot arm is pivotable from a rest position in a first pivoting direction, characterized in that the at least one restoring spring is a tension spring which is stretchable in a longitudinal direction counter to the restoring force, and in that, in the rest position, the pivot arm bears against a stop, which stop prevents pivoting of the pivot arm in a second pivoting direction, which is opposite to the first pivoting direction.
Unilaterally transparent laminated glass (1000, 2000, 3000, 4000, 5000, 6000A, 6000B, 6000C, 6000D) for an installation state in facades (6000, 7000) or an interior design, in particular laminated safety glass, comprising a first and a second glass pane (100, 101, 102, 200, 201, 202) and a laminating film composite (1001, 3001, 3002) which is arranged between the first and second glass panes and which is connected thereto and which has a first laminating film (110, 111, 112, 113) and a second laminating film (210, 211, 212, 213), characterised in that - a large number of sequins (300, 301, 302, 303, 304, 305, 500, 600A, 600B, 600C, 600D, 700) having a first light-absorbing surface are arranged between the first laminating film and the second laminating film with an appearance being achieved, wherein - the sequins with the light-absorbing surface face the first laminating film and are arranged spaced apart from each other in such a manner that the laminated glass when viewed from the light-absorbing surface of the sequins appears to be transparent, wherein a second surface of the sequins which faces the second laminating film is constructed to be light-reflecting, wherein the laminated glass when viewed from the light-reflecting surface of the sequins appears to be less transparent. - a large number of sequins (300, 301, 302, 303, 304, 305, 500, 600A, 600B, 600C, 600D, 700) having a first light-absorbing surface are arranged between the first laminating film and the second laminating film with an appearance being achieved, wherein - the sequins with the light-absorbing surface face the first laminating film and are arranged spaced apart from each other in such a manner that the laminated glass when viewed from the light-absorbing surface of the sequins appears to be transparent,
A therapeutic irradiation device comprising: a source configured to emit electromagnetic radiation in a predetermined spectral range; a sensor configured to detect electromagnetic radiation in the predetermined spectral range of the electromagnetic radiation emitted by the source and to output a signal indicative of a power of the detected radiation; and a controller configured to monitor a magnitude of the signal output by the sensor and to compare the magnitude of the signal with a predetermined magnitude range, wherein the controller is configured to identify a time period during which the magnitude of the signal output by the sensor is included in the predetermined magnitude range, wherein the controller is configured to integrate the signal output by the sensor, if the magnitude of the signal is included in the predetermined magnitude range. a source configured to emit electromagnetic radiation in a predetermined spectral range; a sensor configured to detect electromagnetic radiation in the predetermined spectral range of the electromagnetic radiation emitted by the source and to output a signal indicative of a power of the detected radiation; and a controller configured to monitor a magnitude of the signal output by the sensor and to compare the magnitude of the signal with a predetermined magnitude range, wherein the controller is configured to identify a time period during which the magnitude of the signal output by the sensor is included in the predetermined magnitude range, wherein the controller is configured to integrate the signal output by the sensor, if the magnitude of the signal is included in the predetermined magnitude range.
Method for improving the performance of an antilock braking and/or anti-slip regulation and/or electronic stability control system of a vehicle for controlling braking pressure comprised of at least one standard ABS management control unit and at least phonic wheels and tachometer sensors respectively present one for each wheel of the vehicle, and further comprising additional shear force sensors associated with at least one of the brake pads acting upon the brake disk of each wheel in order to collect additional data and at least one dedicated ECU control unit for managing said additional data and interacting with at least said ABS control unit, said additional sensors being present in an electronic circuit integrated into a support of the brake pad and providing braking torque values applied during braking to the corresponding wheel of the vehicle, wherein the braking pressure profile is adjusted based on the actual value calculated of the coefficient of friction present between the tire and the ground during the braking of the vehicle, said actual friction coefficient being calculated by detecting from said shear sensors the limit braking torque at the moment when the wheel locks, or the braking pressure profile is adjusted based on detection from said shear sensors of the limit braking torque at the moment just before an abrupt change in the slope of the wheel's angular velocity occurs during an application of the braking.
Ti-chelate catalyst compounds of formula I wherein R 1 denotes phenyl, both of which are substituted by one or more R' 2, R' 3 or R' 4; or the two R 1 together are unsubstituted linear or branched C 1 -C 8 alkylene, linear or branched C 1 -C a alkylene which is substituted by one or more phenyl or benzoyl, or the two R 1 together are phenylene or biphenylene, wherein said phenylene or biphenylene are unsubstituted or are substituted by one or more R' 2, R' 3 or R' 4; R 2, R 3 and R 4 independently of each other are hydrogen, linear or branched C 1 -C 12 alkyl or C 1 -C 12 alkoxy; R' 2, R' 3, and R' 4 independently of each other are hydrogen or linear or branched C 1 -C 4 alkyl; R 5, R 6 and R 7 independently of each other are hydrogen or linear or branched C 1 -C 4 alkyl, provided that not more than one of R 5, R 6 and R 7 is hydrogen. R 1 denotes phenyl, both of which are substituted by one or more R' 2, R' 3 or R' 4; or the two R 1 together are unsubstituted linear or branched C 1 -C 8 alkylene, linear or branched C 1 -C a alkylene which is substituted by one or more phenyl or benzoyl, or the two R 1 together are phenylene or biphenylene, wherein said phenylene or biphenylene are unsubstituted or are substituted by one or more R' 2, R' 3 or R' 4; R 2, R 3 and R 4 independently of each other are hydrogen, linear or branched C 1 -C 12 alkyl or C 1 -C 12 alkoxy; R' 2, R' 3, and R' 4 independently of each other are hydrogen or linear or branched C 1 -C 4 alkyl; R 5, R 6 and R 7 independently of each other are hydrogen or linear or branched C 1 -C 4 alkyl, provided that not more than one of R 5, R 6 and R 7 is hydrogen.
Arrangement (1; 28) comprising a housing (2; 29), at least one shaft (4; 31) which is arranged within the housing (2; 29) and is supported by means of bearing assemblies (3; 30) and projects through a housing opening, wherein a shaft sealing ring (13; 38) is arranged between the housing (2; 29) and the shaft (4; 31) in the region of the housing opening, and with at least one wirelessly interrogable surface acoustic wave sensor system, i.e. with a wirelessly interrogable SAW system, wherein said wirelessly interrogable surface acoustic wave sensor system has an interrogation unit (14; 41), at least one positionally fixed antenna (15; 42) that is electrically connected to the interrogation unit (14; 41), at least one co-rotating antenna (17; 43) that is attached to the shaft (4; 31) in a positionally fixed manner, and at least one wirelessly interrogable surface acoustic wave sensor, i.e. wirelessly interrogable SAW sensor (19; 44), that is attached to the shaft (4; 31) in a positionally fixed manner and is electrically connected to the at least one co-rotating antenna (17; 43), characterised in that an annular housing cover (5; 32) is provided which encloses the housing opening, and that the at least one positionally fixed antenna (15; 42) is attached to the housing cover (5; 32) and is positioned at a defined distance (a) from the co-rotating antenna (17; 43) in an axial direction, wherein the positionally fixed antenna (15; 42) and the co-rotating antenna (17; 43) are so arranged as to overlap each other in a radial direction.
A method of manufacturing an electronic device, wherein the method comprises: interconnecting, in particular laminating, a stack of a plurality of electrically insulating layer structures and a plurality of electrically conductive layer structures; at least partially accommodating a microelectromechanical system and a chip, being configured for cooperating with the microelectromechanical system, on and/or in the interconnected, in particular laminated, stack; arranging the microelectromechanical system and the chip above one another so that, in a viewing direction perpendicular to a main surface of the interconnected, in particular laminated, stack, the microelectromechanical system and the chip have at least partially overlapping contours in a lateral direction, forming a cavity in a surface portion of the interconnected, in particular laminated, stack; and accommodating at least part of the microelectromechanical system in the cavity, the method being characterized by the fact that the cavity is formed by: forming a hollow space in an interior of the interconnected, in particular laminated, stack, and removing a portion of the interconnected, in particular laminated, stack above the hollow space. interconnecting, in particular laminating, a stack of a plurality of electrically insulating layer structures and a plurality of electrically conductive layer structures; at least partially accommodating a microelectromechanical system and a chip, being configured for cooperating with the microelectromechanical system, on and/or in the interconnected, in particular laminated, stack; arranging the microelectromechanical system and the chip above one another so that, in a viewing direction perpendicular to a main surface of the interconnected, in particular laminated, stack, the microelectromechanical system and the chip have at least partially overlapping contours in a lateral direction, forming a cavity in a surface portion of the interconnected, in particular laminated, stack; and accommodating at least part of the microelectromechanical system in the cavity, forming a hollow space in an interior of the interconnected, in particular laminated, stack, and removing a portion of the interconnected, in particular laminated, stack above the hollow space.
Gas valve for metering a gaseous fuel into an intake section of an internal combustion engine, comprising an electromagnet and an armature which can be moved in a reciprocating manner, interacts with the electromagnet and is loaded by the spring force of at least one closing spring (6, 7) in the direction of a valve seat element which configures at least one valve seat (4, 5), characterized in that the armature is configured as a flat armature and comprises a plurality of armature parts (8, 9) which are guided so as to be moved axially into one another, it being possible for a plurality of valve seats (4, 5) via the plurality of armature parts (8, 9) to be opened in a temporally staggered manner, and each armature part (8, 9) which interacts with a valve seat (4, 5) being loaded by the spring force of at least one closing spring (6, 7) in the direction of the valve seat (4, 5).
An electrically heated smoking system comprising: a housing; an electric power supply; electric circuitry; a liquid storage portion; a capillary wick for holding liquid, the capillary wick having a fibrous or spongy structure and arranged to be in contact with liquid in the liquid storage portion; at least one heater for heating the liquid in at least a portion of the capillary wick to form an aerosol, the heater comprising a coil of wire at least partially surrounding the capillary wick; at least one air inlet, at least one air outlet and a chamber between the air inlet and air outlet, the air inlet, the air outlet and the chamber being arranged so as to define an air flow route from the air inlet to the air outlet via the capillary wick so as to convey the aerosol to the air outlet; at least one guide (501, 503, 505) for channeling the air flow in the air flow route, the at least one guide provided by the internal shape of the housing, the at least one guide defining a constricted air flow cross section over the wick; and an impactor for trapping larger aerosol particles, the impactor provided by the internal shape of the housing, the impactor being downstream of the capillary wick, wherein the housing comprises a shell and a replaceable mouthpiece, the electric power supply and the electric circuitry being contained in the shell, the liquid storage portion, the capillary wick, the at least one heater and the air outlet being contained in the mouthpiece. a housing; an electric power supply; electric circuitry; a liquid storage portion; a capillary wick for holding liquid, the capillary wick having a fibrous or spongy structure and arranged to be in contact with liquid in the liquid storage portion; at least one heater for heating the liquid in at least a portion of the capillary wick to form an aerosol, the heater comprising a coil of wire at least partially surrounding the capillary wick; at least one air inlet, at least one air outlet and a chamber between the air inlet and air outlet, the air inlet, the air outlet and the chamber being arranged so as to define an air flow route from the air inlet to the air outlet via the capillary wick so as to convey the aerosol to the air outlet; at least one guide (501, 503, 505) for channeling the air flow in the air flow route, the at least one guide provided by the internal shape of the housing, the at least one guide defining a constricted air flow cross section over the wick; and an impactor for trapping larger aerosol particles, the impactor provided by the internal shape of the housing, the impactor being downstream of the capillary wick, wherein the housing comprises a shell and a replaceable mouthpiece, the electric power supply and the electric circuitry being contained in the shell, the liquid storage portion, the capillary wick, the at least one heater and the air outlet being contained in the mouthpiece.
An article comprising a substrate having first major surface and second, generally opposed major surfaces, and a first layer on the first major surface, wherein the first layer has a first random, nanostructured surface, wherein the first, random, nanostructured surface is anisotropic perpendicular to the first major surface and comprises nanofeatures having a height to width ratio of at least 5:1, and wherein the first layer has an average thickness up to 0.5 micrometer.
An optical semiconductor element comprising: a plate-shaped submount having a mounting surface; a submount electrode provided on the mounting surface of the submount and having a rectangular shape as a whole; and a semiconductor chip including an element substrate, a semiconductor structure layer formed on the element substrate, and a chip electrode bonded to the submount electrode via a bonding layer, characterized in that the chip electrode has a shape with chipped corners corresponding to four corners of the submount electrode, the submount electrode has an exposed surface that is a portion exposed from the chip electrode at the four corners the submount electrode is bonded to the chip electrode to coincide with each other, and the bonding layer extends to all the four corners of the exposed surface and does not reach the end portions of the submount electrode at the four corners on the exposed surface. a plate-shaped submount having a mounting surface; a submount electrode provided on the mounting surface of the submount and having a rectangular shape as a whole; and a semiconductor chip including an element substrate, a semiconductor structure layer formed on the element substrate, and a chip electrode bonded to the submount electrode via a bonding layer, characterized in that the chip electrode has a shape with chipped corners corresponding to four corners of the submount electrode, the submount electrode has an exposed surface that is a portion exposed from the chip electrode at the four corners the submount electrode is bonded to the chip electrode to coincide with each other, and the bonding layer extends to all the four corners of the exposed surface and does not reach the end portions of the submount electrode at the four corners on the exposed surface.
Method for guiding a vehicle, - wherein at least one parameter of the surroundings of the vehicle is detected by means of at least one sensor, - wherein a driving corridor is determined by means of the parameter, - wherein a movement path is determined as a function of at least one further parameter within the driving corridor, - and wherein the guidance of the vehicle is adapted as a function of the determined movement path, wherein the movement path is determined taking into account a strategy, in particular a maximum degree of comfort for the drive or maximum dynamics of the movement of the vehicle, wherein the strategy is predefined by the driver or is read out from a memory, wherein an evaluation function is provided which influences the determination of the movement path as a function of requirements of further functions of the vehicle. - wherein at least one parameter of the surroundings of the vehicle is detected by means of at least one sensor, - wherein a driving corridor is determined by means of the parameter, - wherein a movement path is determined as a function of at least one further parameter within the driving corridor, - and wherein the guidance of the vehicle is adapted as a function of the determined movement path,
A flexible and stretchable imager (100A-100F), comprising: a first rigid substrate carrying at least one first photodetector; a second rigid substrate carrying at least one second photodetector; and a flexible and stretchable arm (110A-110F) connected to the first and second rigid substrates, wherein the first rigid substrate, the second rigid substrate, and the flexible and stretchable arm (110A-110F) are made of a same material, characterized in that a portion of the flexible and stretchable arm (110A-110F) is wound in a spiral. a first rigid substrate carrying at least one first photodetector; a second rigid substrate carrying at least one second photodetector; and a flexible and stretchable arm (110A-110F) connected to the first and second rigid substrates, wherein the first rigid substrate, the second rigid substrate, and the flexible and stretchable arm (110A-110F) are made of a same material, characterized in that a portion of the flexible and stretchable arm (110A-110F) is wound in a spiral.