mhurhangee/patent-ind-claim-en huggingface dataset:
An exhaust gas recirculation (EGR) cooler , comprising: a first section including a first plurality of tubes adapted to flow at least some exhaust gas and a first plurality of passages formed by exterior surfaces of the first plurality of tubes and adapted to flow a first coolant flow from a coolant source ; and a second section including a second plurality of tubes adapted to flow a second coolant flow from the coolant source and a second plurality of passages formed by exterior surfaces of the second plurality of tubes and adapted to flow the exhaust gas from the first plurality of tubes ; wherein the second section is arranged downstream, relative to a flow of the exhaust gas , of the first section within a housing of the EGR cooler ; wherein the first section and second section are separated from one another within the housing and wherein both the first section and the second section are removably coupled to the housing characterized in that a first end of each of the first plurality of tubes are rolled into a first tube sheet and a second end of each of the first plurality of tubes are rolled in a second tube sheet , wherein the second tube sheet is separated from the housing of the EGR cooler by a seal , such that the housing does not directly contact the second tube sheet, wherein the first tube sheet is fastened to the housing , and wherein the second tube sheet is floating and not fastened to the housing . a first section including a first plurality of tubes adapted to flow at least some exhaust gas and a first plurality of passages formed by exterior surfaces of the first plurality of tubes and adapted to flow a first coolant flow from a coolant source ; and a second section including a second plurality of tubes adapted to flow a second coolant flow from the coolant source and a second plurality of passages formed by exterior surfaces of the second plurality of tubes and adapted to flow the exhaust gas from the first plurality of tubes ; wherein the second section is arranged downstream, relative to a flow of the exhaust gas , of the first section within a housing of the EGR cooler ; wherein the first section and second section are separated from one another within the housing and wherein both the first section and the second section are removably coupled to the housing characterized in that a first end of each of the first plurality of tubes are rolled into a first tube sheet and a second end of each of the first plurality of tubes are rolled in a second tube sheet , wherein the second tube sheet is separated from the housing of the EGR cooler by a seal , such that the housing does not directly contact the second tube sheet, wherein the first tube sheet is fastened to the housing , and wherein the second tube sheet is floating and not fastened to the housing .
Motor vehicle with headlight , wherein the headlight comprises: - a plurality of lighting means, wherein - the lighting means are arranged in a matrix having a first extension direction and a second extension direction perpendicular thereto, - for each of the lighting means respectively a value of luminance is individually adjustable, and - the value of the luminance of the respective lighting means is adjustable as a function of a position of the lighting means along the first extension direction and/or the second extension direction following at least one predetermined distribution function , and wherein - the motor vehicle comprises a first assistance system characterised in that - the first assistance system is designed to determine a predictive road course with the aid of a navigation system and to change the distribution function of the values of the luminance of the lighting means in the headlight as a function of the predictive road course, wherein - the predetermined distribution function is a discretised normal distribution. - a plurality of lighting means, wherein - the lighting means are arranged in a matrix having a first extension direction and a second extension direction perpendicular thereto, - for each of the lighting means respectively a value of luminance is individually adjustable, and - the value of the luminance of the respective lighting means is adjustable as a function of a position of the lighting means along the first extension direction and/or the second extension direction following at least one predetermined distribution function , and wherein - the motor vehicle comprises a first assistance system characterised in that - the first assistance system is designed to determine a predictive road course with the aid of a navigation system and to change the distribution function of the values of the luminance of the lighting means in the headlight as a function of the predictive road course, wherein - the predetermined distribution function is a discretised normal distribution.
An apparatus for printing an article, the apparatus comprising: - a data provision device which is adapted to provide article-specific printing data for the article from product data of the article and to provide machine-specific printing data for the article as a function of a printing machine to be used for the printing process; wherein the data provision device is adapted to provide the article-specific printing data for the article from the product data of the article, which are present in a neutral data format, which define and classify the article according to customer-specific configuration and which describe parameters, properties and design options of the article; and - a control device which is adapted to combine the article-specific printing data and the machine-specific printing data and, based thereon, to control the printing machine for printing the article. - a data provision device which is adapted to provide article-specific printing data for the article from product data of the article and to provide machine-specific printing data for the article as a function of a printing machine to be used for the printing process; wherein the data provision device is adapted to provide the article-specific printing data for the article from the product data of the article, which are present in a neutral data format, which define and classify the article according to customer-specific configuration and which describe parameters, properties and design options of the article; and - a control device which is adapted to combine the article-specific printing data and the machine-specific printing data and, based thereon, to control the printing machine for printing the article.
Method for manufacturing an optical lens by additive manufacturing, comprising steps of: - depositing a first layer having a first thickness (h 271 ), - depositing a second layer , having a second thickness (h 273 ), onto the first layer , said second layer forming a first asperity with the first layer , - depositing a third layer having a third thickness (h 275 ), - depositing a fourth layer having a fourth thickness (h 277 ) onto the third layer , thereby forming an intermediate optical element , said fourth layer forming a second asperity with the third layer , - smoothing the first asperity and the second asperity on the intermediate optical element , thereby forming the optical lens , wherein said second thickness (h 273 ) and said fourth thickness (h 277 ) are different, wherein the intermediate optical element has a first end layer , a second end layer and a plurality of layers situated between the first end layer and the second end layer , each layer having a thickness (h) and an exposed length (r), characterized in that the thickness (h) increases with the layers from the first end layer to the second end layer and in that the exposed length (r) decreases from the first end layer to the second end layer . - depositing a first layer having a first thickness (h 271 ), - depositing a second layer , having a second thickness (h 273 ), onto the first layer , said second layer forming a first asperity with the first layer , - depositing a third layer having a third thickness (h 275 ), - depositing a fourth layer having a fourth thickness (h 277 ) onto the third layer , thereby forming an intermediate optical element , said fourth layer forming a second asperity with the third layer , - smoothing the first asperity and the second asperity on the intermediate optical element , thereby forming the optical lens , wherein said second thickness (h 273 ) and said fourth thickness (h 277 ) are different, wherein the intermediate optical element has a first end layer , a second end layer and a plurality of layers situated between the first end layer and the second end layer , each layer having a thickness (h) and an exposed length (r), characterized in that the thickness (h) increases with the layers from the first end layer to the second end layer and in that the exposed length (r) decreases from the first end layer to the second end layer .
An interchangeable lens that is removably attachable to a camera body , comprising: a first clock receiving unit that receives a first clock (CLK) from the camera body; a second clock transmitting unit that transmits a second clock (HCLK) to the camera body; a lens that is driven by receiving a driving force from a first driving member ; a receiving unit that receives an instruction from the camera body in synchronization with the first clock; a first transmitting unit that periodically transmits positional information on the lens in synchronization with the second clock, to the camera body; a diaphragm member that is driven by receiving a driving force from a second driving member ; and a second transmitting unit that transmits a state of the diaphragm member based on the instruction in synchronization with the first clock, to the camera body. a first clock receiving unit that receives a first clock (CLK) from the camera body; a second clock transmitting unit that transmits a second clock (HCLK) to the camera body; a lens that is driven by receiving a driving force from a first driving member ; a receiving unit that receives an instruction from the camera body in synchronization with the first clock; a first transmitting unit that periodically transmits positional information on the lens in synchronization with the second clock, to the camera body; a diaphragm member that is driven by receiving a driving force from a second driving member ; and a second transmitting unit that transmits a state of the diaphragm member based on the instruction in synchronization with the first clock, to the camera body.
A rotary power tool comprising: a motor ; an output shaft that receives torque from the motor ; a clutch positioned between the motor and the output shaft for selectively engaging the output shaft to the motor ; and a transducer for detecting an amount of torque transferred through the clutch to the output shaft , a controller in electrical communication with the transducer for receiving a voltage signal output by the transducer and calibrating the voltage signal to a measure of torque transferred through the clutch ; a display device in electrical communication with the controller and operable to display a numerical torque value output by the output shaft 926) for each fastener-driving operation performed by the power tool ; wherein the motor includes a drive shaft defined by a first shaft portion and a separate, second shaft portion meshed with a transmission of the power tool ; wherein the clutch is interposed between the first and second shaft portions to selectively couple the first and second shaft portions for co-rotation; wherein the clutch includes a first coupling disposed on the first shaft portion , a second coupling disposed on the second shaft portion , and a sleeve circumferentially disposed around and movable relative to each of the first and second couplings ; wherein the clutch is capable of being actuated from a first mode in which the output shaft is engaged to the motor , to a second mode in which the output shaft is disengaged from the motor , in response to feedback from the transducer of the detected amount of torque transferred through the clutch . a motor ; an output shaft that receives torque from the motor ; a clutch positioned between the motor and the output shaft for selectively engaging the output shaft to the motor ; and a transducer for detecting an amount of torque transferred through the clutch to the output shaft , a controller in electrical communication with the transducer for receiving a voltage signal output by the transducer and calibrating the voltage signal to a measure of torque transferred through the clutch ; a display device in electrical communication with the controller and operable to display a numerical torque value output by the output shaft 926) for each fastener-driving operation performed by the power tool ; wherein the motor includes a drive shaft defined by a first shaft portion and a separate, second shaft portion meshed with a transmission of the power tool ; wherein the clutch is interposed between the first and second shaft portions to selectively couple the first and second shaft portions for co-rotation; wherein the clutch includes a first coupling disposed on the first shaft portion , a second coupling disposed on the second shaft portion , and a sleeve circumferentially disposed around and movable relative to each of the first and second couplings ; wherein the clutch is capable of being actuated from a first mode in which the output shaft is engaged to the motor , to a second mode in which the output shaft is disengaged from the motor , in response to feedback from the transducer of the detected amount of torque transferred through the clutch .
A method, comprising: by a wireless device : receiving downlink control information associated with a non coherent joint transmission downlink data communication, wherein the downlink control information comprises first downlink control information for a first data stream of the non coherent joint transmission data communication; receiving the non coherent joint transmission downlink data communication based at least in part on the downlink control information; and receiving second downlink control information for a second data stream of the non coherent joint transmission data communication separately from the first downlink control information, wherein the first downlink control information comprises information indicating the existence of the second downlink control information, wherein the second downlink control information comprises information indicating the existence of the first downlink control information, wherein the first downlink control information comprises configuration information for the second downlink control information, and wherein the second downlink control information comprises configuration information for the first downlink control information. receiving downlink control information associated with a non coherent joint transmission downlink data communication, wherein the downlink control information comprises first downlink control information for a first data stream of the non coherent joint transmission data communication; receiving the non coherent joint transmission downlink data communication based at least in part on the downlink control information; and receiving second downlink control information for a second data stream of the non coherent joint transmission data communication separately from the first downlink control information, wherein the first downlink control information comprises information indicating the existence of the second downlink control information, wherein the second downlink control information comprises information indicating the existence of the first downlink control information, wherein the first downlink control information comprises configuration information for the second downlink control information, and wherein the second downlink control information comprises configuration information for the first downlink control information.
A core network node, comprising: first transmitting means for transmitting first data using a Control Plane Cellular Internet of Things, CIoT, Evolved Packet System, EPS, Optimization; determining means for determining whether further data is transferred via User Plane or not, based on data size of second data transmitted after transmission of the first data; second transmitting means for transmitting a User Equipment, UE, context setup request message to a radio access network node based on the determining; receiving means for receiving a UE context setup complete message from the radio access network node when the radio access network node sets a radio bearer to a mobile terminal; and third transmitting means for transmitting a modify resources request message including a Tunnel Endpoint Identifier(s), TEID(s), for accepted bearers to a Serving Gateway, S-GW, for Packet Data Network, PDN, connection between the mobile terminal and PDN Gateway, P-GW. first transmitting means for transmitting first data using a Control Plane Cellular Internet of Things, CIoT, Evolved Packet System, EPS, Optimization; determining means for determining whether further data is transferred via User Plane or not, based on data size of second data transmitted after transmission of the first data; second transmitting means for transmitting a User Equipment, UE, context setup request message to a radio access network node based on the determining; receiving means for receiving a UE context setup complete message from the radio access network node when the radio access network node sets a radio bearer to a mobile terminal; and third transmitting means for transmitting a modify resources request message including a Tunnel Endpoint Identifier(s), TEID(s), for accepted bearers to a Serving Gateway, S-GW, for Packet Data Network, PDN, connection between the mobile terminal and PDN Gateway, P-GW.
A method for optimizing the elevation pointing of an antenna of an airborne radar system at an altitude h comprising an antenna and processing and calculation means, the method comprising: a. selecting an area of interest b. calculating atmospheric losses L ref at a reference altitude h ref at the reference range D ref and calculating a reference criterion K ref = -40 log 10 ( D ref ); c. for each possible elevation pointing distance of the antenna D pt of the area of interest, calculating the antenna elevation S that makes it possible to target the distance D pt via the centre of the antenna; d. for each distance D of the region of interest, calculating the angle θ at which the antenna observes the point of the ground at the distance D and calculating a criterion; K D = G e θ + G r θ − 40 log 10 D + L ref h ref D ref − L atmo h D where G g ( θ ) , G r ( θ ) are respectively the gains of the antenna that are normalized at emission and at reception, and with L atmo being the atmospheric losses at the altitude h and at the distance D; e. calculating all of the distances D that, for this pointing distance D pt , verify the relationship K(D) > K ref so as to obtain the start and the end of the sub-swath actually usable by the radar system; and f. calculating the actually usable sub-swaths that are to be juxtaposed (A, B, C) in order to cover the whole of the area of interest without discontinuities. a. selecting an area of interest b. calculating atmospheric losses L ref at a reference altitude h ref at the reference range D ref and calculating a reference criterion K ref = -40 log 10 ( D ref ); c. for each possible elevation pointing distance of the antenna D pt of the area of interest, calculating the antenna elevation S that makes it possible to target the distance D pt via the centre of the antenna; d. for each distance D of the region of interest, calculating the angle θ at which the antenna observes the point of the ground at the distance D and calculating a criterion; K D = G e θ + G r θ − 40 log 10 D + L ref h ref D ref − L atmo h D where G g ( θ ) , G r ( θ ) are respectively the gains of the antenna that are normalized at emission and at reception, and with L atmo being the atmospheric losses at the altitude h and at the distance D; e. calculating all of the distances D that, for this pointing distance D pt , verify the relationship K(D) > K ref so as to obtain the start and the end of the sub-swath actually usable by the radar system; and f. calculating the actually usable sub-swaths that are to be juxtaposed (A, B, C) in order to cover the whole of the area of interest without discontinuities.
A method of using a fertilizer composition comprising applying the composition to soil, said composition comprising a mixture 4% by weight to 20% by weight of a first source of a target micronutrient comprising said target micronutrient chelated with a chelating agent; and 20% by weight to 40 % by weight of a second source of the target micronutrient that is different from said first source; wherein each % by weight is based upon the total weight of said composition taken as 100% by weight; wherein the target micronutrient is selected from the group consisting of nickel, copper, zinc, manganese, iron, molybdenum, boron, and combinations thereof; and wherein said chelating agent is selected from the group consisting of ethylenediaminetetraacetic acid, ethylenediaminetetraacetate, EDTA salts, and mixtures thereof. 4% by weight to 20% by weight of a first source of a target micronutrient comprising said target micronutrient chelated with a chelating agent; and 20% by weight to 40 % by weight of a second source of the target micronutrient that is different from said first source; wherein each % by weight is based upon the total weight of said composition taken as 100% by weight; wherein the target micronutrient is selected from the group consisting of nickel, copper, zinc, manganese, iron, molybdenum, boron, and combinations thereof; and wherein said chelating agent is selected from the group consisting of ethylenediaminetetraacetic acid, ethylenediaminetetraacetate, EDTA salts, and mixtures thereof.
A filter medium comprising a filter layer; and an optional support layer; wherein the filter layer comprises a multi-component fiber comprising a styrene-containing copolymer selected from a styrene-maleic anhydride copolymer, a styrene-maleimide copolymer, a styrene-maleic acid ester copolymer, and a combination thereof. a filter layer; and an optional support layer; wherein the filter layer comprises a multi-component fiber comprising a styrene-containing copolymer selected from a styrene-maleic anhydride copolymer, a styrene-maleimide copolymer, a styrene-maleic acid ester copolymer, and a combination thereof.
Balise housing with a receiving structure for electronic functional components of a balise (BL) a) with a cover surface (DF) which, in a planned installation position of the balise housing, forms the upper side thereof, b) and with side surfaces which attach to the cover surfaces (DF) and, in a planned installation position of the balise housing, lie transversely in relation to a crossing direction (R), wherein, of the side surfaces, at least one is composed of an upper baffle surface (OP) and a lower baffle surface (UP), c) wherein, in the planned installation position of the balise housing, related to a horizontal plane in each case, the upper baffle surface (OP) is inclined obliquely upwards and the lower baffle surface (UP) is inclined obliquely downwards, d) and wherein a joint edge (STK) is embodied between the upper baffle surface (OP) and the lower baffle surface (UP). a) with a cover surface (DF) which, in a planned installation position of the balise housing, forms the upper side thereof, b) and with side surfaces which attach to the cover surfaces (DF) and, in a planned installation position of the balise housing, lie transversely in relation to a crossing direction (R), wherein, of the side surfaces, at least one is composed of an upper baffle surface (OP) and a lower baffle surface (UP), c) wherein, in the planned installation position of the balise housing, related to a horizontal plane in each case, the upper baffle surface (OP) is inclined obliquely upwards and the lower baffle surface (UP) is inclined obliquely downwards, d) and wherein a joint edge (STK) is embodied between the upper baffle surface (OP) and the lower baffle surface (UP).