mhurhangee/patent-ind-claim-en huggingface dataset:
A control apparatus comprising: a frame rate control unit configured to control a frame rate of imaging; a transmittance control unit configured to control transmittance of a filter which transmits light incident on an imaging element according to a change of the frame rate so that brightness of an imaged subject is maintained; and a frame rate range calculating unit configured to calculate a range in which it is possible to make the frame rate transition according to an operation speed of the filter under a condition where the brightness of a subject image is maintained, wherein in response to an instruction to change a current frame rate to a target frame rate, the transmittance control unit controls the transmittance according to the range in which it is possible to make the frame rate transition. a frame rate control unit configured to control a frame rate of imaging; a transmittance control unit configured to control transmittance of a filter which transmits light incident on an imaging element according to a change of the frame rate so that brightness of an imaged subject is maintained; and a frame rate range calculating unit configured to calculate a range in which it is possible to make the frame rate transition according to an operation speed of the filter under a condition where the brightness of a subject image is maintained, wherein in response to an instruction to change a current frame rate to a target frame rate, the transmittance control unit controls the transmittance according to the range in which it is possible to make the frame rate transition.
A building panel as structure of external and inner plate with intermediate insulation space, wherein a connection between plates and is implemented at least along the longitudinal part of a panel frame where the connection comprises at least a. polymer based profile whereas inside the polymer based profile between the plates and there is at least one thermal insulation pocket , and b. an adhesive , preferably based on rubbery-elastic polymer, between polymer based profile and plates and , characterized in that the nominal hardness of the adhesive is between 35 and 70 Shore A, preferably between 40 and 50 Shore A, and wherein an additional profile , in the form of steel construction pipe or glued glass beams, is inserted into the polymer based profile . a. polymer based profile whereas inside the polymer based profile between the plates and there is at least one thermal insulation pocket , and b. an adhesive , preferably based on rubbery-elastic polymer, between polymer based profile and plates and , characterized in that the nominal hardness of the adhesive is between 35 and 70 Shore A, preferably between 40 and 50 Shore A, and
A method for joining two surfaces of elements wherein - a heat activatable and expandable sealant material is adheringly provided to a first surface characterized in that - the expandable material is applied by extrusion in a manner that extends beyond the area where the bond between a second surface and the first surface is to be formed, and - the first surface with the expandable material thereon is located adjacent to the second surface, and - once assembled the expandable material is activated, and - at a first temperature expands to bond the surfaces together and provide a protective layer outside the region of the bond; wherein the protective layer covers at least one of the exposed edges of the elements which provide the surfaces to be bonded together. - a heat activatable and expandable sealant material is adheringly provided to a first surface characterized in that - the expandable material is applied by extrusion in a manner that extends beyond the area where the bond between a second surface and the first surface is to be formed, and - the first surface with the expandable material thereon is located adjacent to the second surface, and - once assembled the expandable material is activated, and - at a first temperature expands to bond the surfaces together and provide a protective layer outside the region of the bond; wherein the protective layer covers at least one of the exposed edges of the elements which provide the surfaces to be bonded together.
A photovoltaic tile, comprising: color steel tiles , wherein adjacent color steel tiles of the color steel tiles are fixedly connected to each other, the color steel tiles each comprise a male rib , a female rib , and a folding portion , the male rib and the female rib are respectively arranged at two opposite ends of the color steel tile along a width direction, the folding portion is arranged between the male rib and the female rib , and the female rib is fixedly connected to the male rib of an adjacent color steel tile to form a connecting end ; fixing devices mounted on the folding portions ; and photovoltaic modules each having two ends respectively connected to the fixing devices of folding portions of adjacent color steel tiles ; wherein when the photovoltaic module is mounted on the color steel tile , the connecting end supports the photovoltaic module . color steel tiles , wherein adjacent color steel tiles of the color steel tiles are fixedly connected to each other, the color steel tiles each comprise a male rib , a female rib , and a folding portion , the male rib and the female rib are respectively arranged at two opposite ends of the color steel tile along a width direction, the folding portion is arranged between the male rib and the female rib , and the female rib is fixedly connected to the male rib of an adjacent color steel tile to form a connecting end ; fixing devices mounted on the folding portions ; and photovoltaic modules each having two ends respectively connected to the fixing devices of folding portions of adjacent color steel tiles ; wherein when the photovoltaic module is mounted on the color steel tile , the connecting end supports the photovoltaic module .
A method, comprising: transmitting, by a centralized unit of a split architecture, an instruction to a distributed unit of the split architecture, the distributed unit connected with the centralized unit through a fronthaul interface, the instruction configured to request the distributed unit to report a flow control state; receiving (S202), by the centralized unit from the distributed unit, a flow control state message including flow control state information, wherein the flow control state information includes: identification information of a data packet received by the distributed unit from the centralized unit and successfully transmitted to a user equipment by the distributed unit, a desired buffer size of a radio bearer, RB, of the distributed unit, and identification information for notifying the centralized unit of a data packet lost in the distributed unit; and performing (S204), by the centralized unit according to the flow control state information, a flow control processing. transmitting, by a centralized unit of a split architecture, an instruction to a distributed unit of the split architecture, the distributed unit connected with the centralized unit through a fronthaul interface, the instruction configured to request the distributed unit to report a flow control state; receiving (S202), by the centralized unit from the distributed unit, a flow control state message including flow control state information, wherein the flow control state information includes: identification information of a data packet received by the distributed unit from the centralized unit and successfully transmitted to a user equipment by the distributed unit, a desired buffer size of a radio bearer, RB, of the distributed unit, and identification information for notifying the centralized unit of a data packet lost in the distributed unit; and performing (S204), by the centralized unit according to the flow control state information, a flow control processing.
Eyeglasses comprising lens means , sidepiece means for supporting the eyeglasses and connecting means for connecting the lens means to the sidepiece means ; the lens means being in the form of a first and a second lens placed side by side, and the sidepiece means being in the form of first and second sidepieces , said first and second lenses each comprising a lateral extension portion which extends from the respective lens substantially in the same plane as the lens means , each lateral extension portion being delimited, in use, by an upper face , a lower face and a lateral face spaced from the corresponding lateral edge of the main part of the respective lens ; lens comprising an insertion hole , said insertion hole being made in the corresponding lateral extension portion and extending substantially vertically; characterized in that said connecting means for connecting the lens means to the sidepieces means are defined by the sidepiece means themselves and comprise a pin portion for rotating each sidepiece relative to the corresponding lens ; and in that each sidepiece is made from a respective metal wire that is suitably shaped to form the pin portion for rotating each sidepiece and which inserts into said insertion hole extending substantially vertically and made in the corresponding lateral extension portion of the lens (3, 4,).
A railway vehicle comprising a first car , said first car comprising a first outer jacket for facilitating airflow along the railway vehicle, said first outer jacket comprising a first surface and a plurality of first dimples arranged on said first surface , the railway vehicle further comprising a second car , connected to the first car and situated behind said first car in a direction (X) of movement of the vehicle, said second car comprising a second outer jacket for facilitating airflow along the railway vehicle, said second outer jacket comprising a second surface and a plurality of second dimples arranged on said second surface , each of the first and second surface being arranged along a plane parallel to the direction of movement of the vehicle, each first or second dimple forming a cavity in the first or second surface , each first or second dimple having a central area surrounded by a peripheral area , each of said central and peripheral areas having a substantially circular shape, dimensions (D, h) of the second dimples of the second car being greater than dimensions (D, h) of the first dimples of the first car .
An article comprising: a glass or glass-ceramic substrate having a first major surface and a second major surface opposite the first major surface, and a via extending through the substrate from the first major surface to the second major surface over an axial length in an axial direction, the via defining an interior surface; and a first axial portion, a third axial portion, and a second axial portion disposed between the first axial portion and the third axial portion along the axial direction; a helium hermetic adhesion layer disposed on the interior surface; and a metal connector disposed within the via, wherein the metal connector is adhered to the helium hermetic adhesion layer, wherein the metal connector coats the interior surface of the via along the axial length of the via from a first major surface to a first cavity length to define a first cavity, the metal connector comprising a coating thickness of less than 12 μm at the first major surface, the metal connector coats the interior surface of the via along the axial length of the via from the second major surface to a second cavity length to define a second cavity, the metal connector comprising a coating thickness of less than 12 μm at the second major surface, and the metal connector fully fills the via between the first cavity and the second cavity; wherein the helium hermetic adhesion layer comprises one or more of Ti, TiN, Ta, TaN, Cr, Ni, TiW, W, and a metal oxide. a glass or glass-ceramic substrate having a first major surface and a second major surface opposite the first major surface, and a via extending through the substrate from the first major surface to the second major surface over an axial length in an axial direction, the via defining an interior surface; and a first axial portion, a third axial portion, and a second axial portion disposed between the first axial portion and the third axial portion along the axial direction; a helium hermetic adhesion layer disposed on the interior surface; and a metal connector disposed within the via, wherein the metal connector is adhered to the helium hermetic adhesion layer, wherein the metal connector coats the interior surface of the via along the axial length of the via from a first major surface to a first cavity length to define a first cavity, the metal connector comprising a coating thickness of less than 12 μm at the first major surface, the metal connector coats the interior surface of the via along the axial length of the via from the second major surface to a second cavity length to define a second cavity, the metal connector comprising a coating thickness of less than 12 μm at the second major surface, and the metal connector fully fills the via between the first cavity and the second cavity; wherein the helium hermetic adhesion layer comprises one or more of Ti, TiN, Ta, TaN, Cr, Ni, TiW, W, and a metal oxide.
Shaped part for a mobile device having a transmitting and/or receiving device, said shaped part being composed of carbon-fiber-reinforced plastic , characterized in that an antenna window is designed as an omission into which an insertion antenna is inserted, said insertion antenna being connected to the shaped part via an electrical insulating body , wherein the insertion antenna projects out of the shaped part . an antenna window is designed as an omission into which an insertion antenna is inserted, said insertion antenna being connected to the shaped part via an electrical insulating body , wherein the insertion antenna projects out of the shaped part .
A method of operating a device for hair styling, the method being characterized by comprising: in response to detecting a change in an open/close state of arms of the device, identifying a current styling operation; determining a variation in temperature of hair between the current styling operation and a previous styling operation; and determining , based on the variation in temperature of hair, a count that the device has operated on a same strand of hair, to thereby control the hair styling. in response to detecting a change in an open/close state of arms of the device, identifying a current styling operation; determining a variation in temperature of hair between the current styling operation and a previous styling operation; and determining , based on the variation in temperature of hair, a count that the device has operated on a same strand of hair, to thereby control the hair styling.
A processor implemented method, comprising: receiving, via one or more hardware processors, information pertaining to at least one of a plurality of atomic elements, and associated composition thereof specific to an alloy material, wherein the plurality of atomic elements comprise of one or more atomic metallic elements ; generating, via the one or more hardware processors, a Molecular Dynamics Potential (MDP) file comprising sequential data of similar and dissimilar atomic interactions of the plurality of atomic elements based on the information ; generating, via a structure equilibration executed by the one or more hardware processors, a Three-Dimensional structure file for the associated composition of each of the plurality of atomic elements specific to the alloy material by using the MDP file, wherein Three-Dimensional structure file comprises 3D coordinates for each of the plurality of atomic elements and associated type thereof ; and generating, via one or more Monte Carlo applications executed by the one or more hardware processors, an optimized evolved 3D structure file comprising at least one of an atomic positions output and a thermodynamic output, by using the 3D structure file and one or more heat treatment schemes , wherein one or more properties pertaining to the plurality of atomic elements and associated composition thereof specific to the alloy material are predicted by using at least one of the atomic positions output and the thermodynamic output. receiving, via one or more hardware processors, information pertaining to at least one of a plurality of atomic elements, and associated composition thereof specific to an alloy material, wherein the plurality of atomic elements comprise of one or more atomic metallic elements ; generating, via the one or more hardware processors, a Molecular Dynamics Potential (MDP) file comprising sequential data of similar and dissimilar atomic interactions of the plurality of atomic elements based on the information ; generating, via a structure equilibration executed by the one or more hardware processors, a Three-Dimensional structure file for the associated composition of each of the plurality of atomic elements specific to the alloy material by using the MDP file, wherein Three-Dimensional structure file comprises 3D coordinates for each of the plurality of atomic elements and associated type thereof ; and generating, via one or more Monte Carlo applications executed by the one or more hardware processors, an optimized evolved 3D structure file comprising at least one of an atomic positions output and a thermodynamic output, by using the 3D structure file and one or more heat treatment schemes , wherein one or more properties pertaining to the plurality of atomic elements and associated composition thereof specific to the alloy material are predicted by using at least one of the atomic positions output and the thermodynamic output.
A positive electrode plate, comprising a metal current collector , a positive electrode active material layer and a safety coating disposed between the metal current collector and the positive electrode active material layer ; wherein: the safety coating comprises a polymer matrix, a conductive material and an inorganic filler; in the safety coating , based on the total weight of the polymer matrix, the conductive material and the inorganic filler, a content of the inorganic filler is from 10 wt% to 60 wt%, a content of the polymer matrix is from 35 wt% to 75 wt%, a content of the conductive material is from 5 wt% to 25 wt%; the positive electrode active material layer comprises Li 1+x Ni a Co b Me (1-a-b) O 2 , wherein -0.1≤x≤0.2, 0.6≤a<1, 0<b<1, 0<(1-a-b)<1, and Me is at least one of Mn, Al, Mg, Zn, Ga, Ba, Fe, Cr, Sn, V, Sc, Ti and Zr; and the metal current collector is a porous aluminum-containing current collector. the safety coating comprises a polymer matrix, a conductive material and an inorganic filler; in the safety coating , based on the total weight of the polymer matrix, the conductive material and the inorganic filler, a content of the inorganic filler is from 10 wt% to 60 wt%, a content of the polymer matrix is from 35 wt% to 75 wt%, a content of the conductive material is from 5 wt% to 25 wt%; the positive electrode active material layer comprises Li 1+x Ni a Co b Me (1-a-b) O 2 , wherein -0.1≤x≤0.2, 0.6≤a<1, 0<b<1, 0<(1-a-b)<1, and Me is at least one of Mn, Al, Mg, Zn, Ga, Ba, Fe, Cr, Sn, V, Sc, Ti and Zr; and the metal current collector is a porous aluminum-containing current collector.
Lighting device of an automobile, wherein the lighting device comprises means for focusing light and dark colored plastic components are arranged in the lighting device , wherein the dark-colored components are at least partially made of an infrared transmissible material, characterized in that the lighting device comprises a light module with a light source and the light source comprises at least one semiconductor light source, wherein an infrared portion of sunrays entering into the lighting device from outside passes through the dark-colored components after being focused by the light focusing means of the lighting device on portions of the dark-colored components made of the infrared transmissible material.
Control device for a voltage transformer of an electrically operated vehicle, which voltage transformer feeds an n-phase electric machine , n ≥ 1, comprising: an observer unit which is designed to determine a present rotation speed (nm) of the electric machine and a present output current (Im) of the voltage transformer ; a calculation unit which is coupled to the observer unit and which is designed to calculate an instantaneous wheel speed of the wheels of the vehicle depending on the determined present rotation speed (nm); and a slip control unit which is coupled to the calculation unit and which is designed to at least temporarily apply a current correction amount to the output current (I) of the voltage transformer if the instantaneous change in the wheel speed of the wheels exceeds a first predetermined threshold value, wherein the slip control unit is further designed to calculate a present vehicle speed of the vehicle from the determined present output current (Im) and to compare the calculated present vehicle speed of the vehicle with the wheel speed of the wheels of the vehicle which is dependent on the determined present rotation speed (nm), and to at least temporarily apply a current correction amount to the output current (I) of the voltage transformer if the wheel speed of the wheels differs from the calculated present vehicle speed of the vehicle by more than a second predetermined threshold value. an observer unit which is designed to determine a present rotation speed (nm) of the electric machine and a present output current (Im) of the voltage transformer ; a calculation unit which is coupled to the observer unit and which is designed to calculate an instantaneous wheel speed of the wheels of the vehicle depending on the determined present rotation speed (nm); and a slip control unit which is coupled to the calculation unit and which is designed to at least temporarily apply a current correction amount to the output current (I) of the voltage transformer if the instantaneous change in the wheel speed of the wheels exceeds a first predetermined threshold value, wherein the slip control unit is further designed to calculate a present vehicle speed of the vehicle from the determined present output current (Im) and to compare the calculated present vehicle speed of the vehicle with the wheel speed of the wheels of the vehicle which is dependent on the determined present rotation speed (nm), and to at least temporarily apply a current correction amount to the output current (I) of the voltage transformer if the wheel speed of the wheels differs from the calculated present vehicle speed of the vehicle by more than a second predetermined threshold value.