mhurhangee/ep-ind-claims huggingface dataset:
A transmission electron microscope comprising: a source for an electron beam; a condenser optical system for irradiating a specimen with an electron beam emitted from the source; a specimen holding unit for holding the specimen to be irradiated by the electron beam; an imaging lens system for focusing an image of the specimen; at least one detecting unit for obtaining the image of the specimen formed by the imaging lens system; a first electron biprism disposed on the upstream side of the location where the specimen is placed in the electron beam traveling direction on the optical axis of an electron optical system of the transmission electron microscope; and a second electron biprism disposed on the downstream side of the location where the specimen is placed in the electron beam traveling direction on the optical axis of the electron optical system and set in a space at the shadow of the electron beam produced by the first electron biprism, wherein the first electron biprism is adapted to deflect the electron beam emitted from the source and separate the electron beam into a first electron beam and a second electron beam for irradiating a prescribed region of the specimen from different angles, wherein the second electron biprism is adapted to deflect the first electron beam and the second electron beam having transmitted the specimen and spatially separate a first image of the specimen produced by the first electron beam with a second image of the specimen produced by the second electron beam, and wherein the detecting unit is adapted to obtain the first image and the second image. a source for an electron beam; a condenser optical system for irradiating a specimen with an electron beam emitted from the source; a specimen holding unit for holding the specimen to be irradiated by the electron beam; an imaging lens system for focusing an image of the specimen; at least one detecting unit for obtaining the image of the specimen formed by the imaging lens system; a first electron biprism disposed on the upstream side of the location where the specimen is placed in the electron beam traveling direction on the optical axis of an electron optical system of the transmission electron microscope; and a second electron biprism disposed on the downstream side of the location where the specimen is placed in the electron beam traveling direction on the optical axis of the electron optical system and set in a space at the shadow of the electron beam produced by the first electron biprism, wherein the first electron biprism is adapted to deflect the electron beam emitted from the source and separate the electron beam into a first electron beam and a second electron beam for irradiating a prescribed region of the specimen from different angles, wherein the second electron biprism is adapted to deflect the first electron beam and the second electron beam having transmitted the specimen and spatially separate a first image of the specimen produced by the first electron beam with a second image of the specimen produced by the second electron beam, and wherein the detecting unit is adapted to obtain the first image and the second image.
A preparation for use in the therapeutic treatment of ulcerated skin lesions, wherein the preparation is administered topically, the preparation comprises at least unconjugated testosterone propionate, and unconjugated sodium and/or calcium heparin, characterized in that it comprises unconjugated and non-conveyed L-arginine.
An AC current control charging system, the system comprising an energy storage system of an electric vehicle and an AC power source configured for charging the energy storage system, the system further comprising: an energy access system, coupled to the AC power source, producing an input AC current or an input AC power; a charger, coupled to said energy access system, configured for producing an actual DC charging current responsive to a control signal; characterized by a controller configured to adjust said actual DC charging current based upon said input AC current or a maximum for said input AC power, and a difference between a target DC charging current and said actual DC charging current. an energy access system, coupled to the AC power source, producing an input AC current or an input AC power; a charger, coupled to said energy access system, configured for producing an actual DC charging current responsive to a control signal; characterized by a controller configured to adjust said actual DC charging current based upon said input AC current or a maximum for said input AC power, and a difference between a target DC charging current and said actual DC charging current.
Arrangement provided and adapted to form a band loop between a band delivery spool which is actuated for uncoiling and an actuated drawing-in device for a stepwise drawing-in of a band, characterized in that the arrangement has two side walls (8, 9) between which the band runs, and a hollow cylinder which is guided on each of its end faces through a respective side wall of the arrangement and is loosely movable to a predetermined extent between the side walls, wherein the free movement of the hollow cylinder is limited by a horizontal running transversal bar which is supported on both sides in the side walls and which runs through the hollow cylinder, wherein the hollow cylinder is intended to come to lie on the band during operation of the arrangement and to deflect the band as a loop, wherein the hollow cylinder lies on the band with its weight only.
A method of calculating an exposure time for disinfecting a room using an ultraviolet disinfecting apparatus, the method comprising the steps of: measuring distances by: a) using a spatial sensor on the ultraviolet disinfecting apparatus, to perform a first scan of a boundary surface of the room, to measure a first set of distances from the sensor to the boundary surface; characterized by: b) adjusting the height of the spatial sensor; c) using the spatial sensor to perform a second scan of the boundary surface of the room, to measure a second set of distances from the adjusted sensor to the boundary surface; d) further adjusting the orientation of the spatial sensor; and e) using the spatial sensor to perform a third scan of the boundary surface of the room, to measure a third set of distances from the further-adjusted sensor to the boundary surface; and subsequently calculating the exposure time in dependence on the sets of distances. measuring distances by: a) using a spatial sensor on the ultraviolet disinfecting apparatus, to perform a first scan of a boundary surface of the room, to measure a first set of distances from the sensor to the boundary surface; characterized by: b) adjusting the height of the spatial sensor; c) using the spatial sensor to perform a second scan of the boundary surface of the room, to measure a second set of distances from the adjusted sensor to the boundary surface; d) further adjusting the orientation of the spatial sensor; and e) using the spatial sensor to perform a third scan of the boundary surface of the room, to measure a third set of distances from the further-adjusted sensor to the boundary surface; a) using a spatial sensor on the ultraviolet disinfecting apparatus, to perform a first scan of a boundary surface of the room, to measure a first set of distances from the sensor to the boundary surface; characterized by: b) adjusting the height of the spatial sensor; c) using the spatial sensor to perform a second scan of the boundary surface of the room, to measure a second set of distances from the adjusted sensor to the boundary surface; d) further adjusting the orientation of the spatial sensor; and e) using the spatial sensor to perform a third scan of the boundary surface of the room, to measure a third set of distances from the further-adjusted sensor to the boundary surface; and subsequently calculating the exposure time in dependence on the sets of distances.
A method for a user equipment for setting a timeout value, indicative of a duration during which a value related to radio transmissions is to be reused by the user equipment, wherein the radio transmissions relate to communication between the user equipment and a radio network node, wherein the user equipment and the radio network node are comprised in a radio communication system, wherein the method comprises: obtaining a timeout value, wherein the timeout value is based on mobility information indicating mobility of the user equipment, wherein the mobility information comprises information about transmit power values relating to a second plurality of previous radio transmissions, wherein the second plurality of previous radio transmissions have been transmitted from the user equipment to the radio network node; and setting the timeout value. obtaining a timeout value, wherein the timeout value is based on mobility information indicating mobility of the user equipment, wherein the mobility information comprises information about transmit power values relating to a second plurality of previous radio transmissions, wherein the second plurality of previous radio transmissions have been transmitted from the user equipment to the radio network node; and setting the timeout value.
Motor vehicle door handle with a handle housing, a bell crank and a handle which is arranged in the handle housing and by rotating about an axis of rotation can be moved from a rest position into an operating position, wherein a handle hook arranged on the rear side of the handle at the free end is kinematically coupled with a bell crank, wherein during the movement from the rest position into the operating position, the bell crank acts directly or indirectly on a motor vehicle door lock in order to actuate a release of the lock and facilitate an opening of the motor vehicle door, wherein the handle hook comprises at least one guide element, by means of which the handle hook is guided into a corresponding profile of the handle housing, wherein the guide element is form-fitting with the handle hook, characterised in that the handle hook comprises laterally projecting coupling pins at its free end which are inserted into corresponding recesses on the bell crank, wherein the guide element at least partially surrounds the coupling pins in a form-fitting manner.
Prefabricated formwork comprising: - a pair of uprights, - a front vertical wall and a back vertical wall with lateral edges fixed to the uprights in such manner to define a single cavity that is open on top and on the bottom; wherein said front vertical wall comprises a metal plate comprising a plurality of projections that protrude frontally from the metal plate in such manner to define pockets, said pockets formed by the projections are in communication with said cavity formed between the two vertical walls (11, 12) of the formwork; said cavity of the formwork being suitable for being filled with concrete or soil so that to fill said pockets; said front vertical wall comprises a plurality of horizontal rows of projections; characterized in that each projection has a single horizontal slot disposed above the projection to access the pocket defined by the projection; said plurality of horizontal rows of projections being disposed in staggered position so that said horizontal slots of the pockets can be accessed by a user; each row of projections is shaped as a triangular or square wave in horizontal section and the adjacent rows are staggered by a half-cycle. - a pair of uprights, - a front vertical wall and a back vertical wall with lateral edges fixed to the uprights in such manner to define a single cavity that is open on top and on the bottom;
An aerosol generation device comprising: - a heater configured to heat a vaporizable material to generate aerosol; - a battery configured to power the heater; - a geolocation chip configured to generate geolocation data representative of a position of the aerosol generation device; and - a short-range antenna configured to receive a first proximity sensing signal from an external device when the aerosol generation device is within a proximity range around the external device; characterized in that the aerosol generation device further comprises a long-range antenna configured to transmit said geolocation data to an external server when the short-range antenna does not receive said first proximity sensing signal. - a heater configured to heat a vaporizable material to generate aerosol; - a battery configured to power the heater; - a geolocation chip configured to generate geolocation data representative of a position of the aerosol generation device; and - a short-range antenna configured to receive a first proximity sensing signal from an external device when the aerosol generation device is within a proximity range around the external device;
A printer comprising: a first fixed printhead having a respective first print zone; a first platen positioned in the first print zone; a second fixed printhead positioned downstream of the first printhead relative to a media feed direction, the second printhead having a respective second print zone; a second platen positioned in the second print zone; an input roller assembly positioned upstream of the first platen, the input roller assembly being configured for feeding media sheets along a downward trajectory, relative to the first printhead, towards the first platen; an intermediary roller assembly positioned between the first and second platens, the intermediary roller assembly being configured for receiving the media sheets from the first platen and feeding the media sheets along a downward trajectory, relative to the second printhead, towards the second platen; and an exit roller assembly positioned downstream of the second platen for receiving the media sheets from the second platen, wherein the second platen is positioned relatively lower than the first platen. a first fixed printhead having a respective first print zone; a first platen positioned in the first print zone; a second fixed printhead positioned downstream of the first printhead relative to a media feed direction, the second printhead having a respective second print zone; a second platen positioned in the second print zone; an input roller assembly positioned upstream of the first platen, the input roller assembly being configured for feeding media sheets along a downward trajectory, relative to the first printhead, towards the first platen; an intermediary roller assembly positioned between the first and second platens, the intermediary roller assembly being configured for receiving the media sheets from the first platen and feeding the media sheets along a downward trajectory, relative to the second printhead, towards the second platen; and an exit roller assembly positioned downstream of the second platen for receiving the media sheets from the second platen, wherein the second platen is positioned relatively lower than the first platen.
A hydrogenated amorphous silicon-containing colloids or composite colloids, characterized in that they have a silicon-containing shell which surrounds the hollow colloids or composite colloids, which have a spherical geometry, wherein the silicon-containing composite colloids have a spherical geometry and a diameter of between 2 nm and 7 nm in scanning electron micrographs and wherein the silicon-containing colloids have a spherical geometry with a cavity and a diameter of between 50 to 200 nm in scanning transmission electron micrographs, the cavity being surrounded by a shell with a thickness of between 3 to 10 nm.
An optoelectronic sensor for detecting and determining the distance of an object in a monitoring area using a light time-of-flight method with a plurality of individual measurements by repeatedly transmitting and receiving light pulses, wherein the sensor comprises a light transmitter for repeatedly transmitting light pulses for a respective individual measurement, a light receiver for generating a reception signal from a light pulse remitted by the object, a first sampling unit for sampling the reception signal with a low threshold and a second sampling unit for sampling the reception signal with a high threshold, a memory for storing sampling values of the first sampling unit and/or the second sampling unit or variables derived therefrom, and a control and evaluation unit (38, 40) configured to determine a measured value for the light time of flight from the sensor to the object after a plurality of individual measurements based on the data stored in the memory, characterized in that the control and evaluation unit (38, 40) is further configured to store sampling values of the first sampling unit or variables derived therefrom in the memory only if the second sampling unit detects an exceeding of the high threshold for the same individual measurement.
An optical waveguide device comprising: a substrate; an optical waveguide formed on the substrate; and a working electrode that controls a light wave propagating through the optical waveguide, wherein the working electrode includes a first base layer made of a first material, and a first conductive layer on the first base layer, and characterised by a conductor pattern including a second base layer made of a second material different from the first material and a second conductive layer on the second base layer is formed in a region other than a path from an input end to an output end of the optical waveguide, in a region on the substrate. a substrate; an optical waveguide formed on the substrate; and a working electrode that controls a light wave propagating through the optical waveguide, wherein the working electrode includes a first base layer made of a first material, and a first conductive layer on the first base layer, and characterised by a first base layer made of a first material, and a first conductive layer on the first base layer, and characterised by a conductor pattern including a second base layer made of a second material different from the first material and a second conductive layer on the second base layer is formed in a region other than a path from an input end to an output end of the optical waveguide, in a region on the substrate.
Track for a slatted shutter, which track is provided with a continuous longitudinal opening for guiding and sliding, comprising two opposite longitudinal edges (31A, 31B), the profile of each of which has a profile with an alternating geometry of recesses, the recesses of the two edges being disposed in a staggered manner, characterized in that the longitudinal edges (31A, 31B) have a broken line profile so that the alternation of recesses of each longitudinal edge of the opening is formed by alternating inclined straight segments that converge and diverge with respect to the interior of the opening.
An image coding method for partitioning an image into processing units, and coding the partitioned image to generate a code sequence including a header of a processing unit of a size of a largest unit, the image coding method comprising dividing the image into processing units of a size of the largest unit, hierarchically partitioning the image into processing units in the order of starting from the largest unit of the processing units in a hierarchical format; the hierarchically partitioning the image further including: per processing unit of a size of the largest unit, determining a partitioning pattern (S401-S427) specifying hierarchical partitioning of the processing unit of a size of the largest unit into processing units; generating partition information (S501-S513) representing the partitioning pattern; and coding the partition information; characterized in that the header of the processing unit of a size of the largest unit includes the partition information, and the partition information includes maximum used hierarchy depth information indicative of a hierarchy depth of a deepest processing unit of the processing units resulting from the hierarchical partitioning of the processing unit of a size of the largest unit. per processing unit of a size of the largest unit, determining a partitioning pattern (S401-S427) specifying hierarchical partitioning of the processing unit of a size of the largest unit into processing units; generating partition information (S501-S513) representing the partitioning pattern; and coding the partition information; characterized in that the header of the processing unit of a size of the largest unit includes the partition information, and the partition information includes maximum used hierarchy depth information indicative of a hierarchy depth of a deepest processing unit of the processing units resulting from the hierarchical partitioning of the processing unit of a size of the largest unit.
A coupling device intended to couple a first and a second road vehicle (2, 3), these two road vehicles (2, 3) each comprising at least two axles, where said coupling device comprises: • a drawbar intended to be secured to the second road vehicle and comprising an end coupling eye; and • a crossbar intended to be to the first road vehicle and comprising a drawbar coupling intended to receive the coupling eye for locking; said coupling device comprising an automatic locking mechanism provided for automatically locking the coupling eye with the drawbar coupling when it enters into the drawbar coupling following the coupling eye and the drawbar coupling coming close, and characterized in that the automatic locking mechanism comprises the following means: • a coupling pin provided in the crossbar of the first road vehicle, where this coupling pin is perpendicular to the drawbar coupling when the two road vehicles (2, 3) are coupled and is mobile between a locked position wherein it enters into the drawbar coupling for passing through the coupling eye and an unlocked position in which it releases the coupling eye such that the eye can be extracted from the drawbar coupling; • a displacement device provided in the crossbar of the first road vehicle for moving the coupling pin between the locked position thereof and the unlocked position thereof; • a detection device provided in the crossbar of the first road vehicle for detecting the presence of the coupling eye in the drawbar coupling, where said detection device automatically actuates the displacement device when it detects the presence of the coupling eye in the drawbar coupling in order for the displacement device to move the coupling pin into the locked position thereof. • a drawbar intended to be secured to the second road vehicle and comprising an end coupling eye; and • a crossbar intended to be to the first road vehicle and comprising a drawbar coupling intended to receive the coupling eye for locking; • a coupling pin provided in the crossbar of the first road vehicle, where this coupling pin is perpendicular to the drawbar coupling when the two road vehicles (2, 3) are coupled and is mobile between a locked position wherein it enters into the drawbar coupling for passing through the coupling eye and an unlocked position in which it releases the coupling eye such that the eye can be extracted from the drawbar coupling; • a displacement device provided in the crossbar of the first road vehicle for moving the coupling pin between the locked position thereof and the unlocked position thereof; • a detection device provided in the crossbar of the first road vehicle for detecting the presence of the coupling eye in the drawbar coupling, where said detection device automatically actuates the displacement device when it detects the presence of the coupling eye in the drawbar coupling in order for the displacement device to move the coupling pin into the locked position thereof.