mhurhangee/patent-ind-claim-en huggingface dataset:
Channel baling press, which is suitable for cross-binding, having - a first, permanently active strapping device and having - a second, temporarily activatable horizontal strapping device for producing bales by strapping the compressed material with a strapping material in a plurality of tracks, - the strapping devices having guide means for guiding the strapping material, characterized in that the second horizontal strapping device has automatic holding means and separating means , which operate as a function of a controller , for holding and separating the strapping material. - a first, permanently active strapping device and having - a second, temporarily activatable horizontal strapping device for producing bales by strapping the compressed material with a strapping material in a plurality of tracks, - the strapping devices having guide means for guiding the strapping material, characterized in that the second horizontal strapping device has automatic holding means and separating means , which operate as a function of a controller , for holding and separating the strapping material.
A display control system comprising: - a plurality of arrayed row panels (A-M) of a control center , each row panel comprising juxtaposed panels, each panel comprising a plurality of columns, each column comprising a measurement unit , wherein each measurement unit comprises a measurement device on which a measurement device display unit is not mounted, - wherein each of the row panels (A-M) comprises a display control unit which is provided on one of the measurement units of the row panels (A-M), - wherein, for each of the row panels (A-M), the display control unit is connected through a line by a wired circuit network to each of the measurement units , and - the display control unit comprises a display unit adapted to display the array of row panels (A-M) of the control center , and is further adapted to display each operation state of the measurement units of a row panel (A-M), and - a control unit adapted to execute a control command and adapted to send the control command to each of the measurement units of the row panel (A-M). - a plurality of arrayed row panels (A-M) of a control center , each row panel comprising juxtaposed panels, each panel comprising a plurality of columns, each column comprising a measurement unit , wherein each measurement unit comprises a measurement device on which a measurement device display unit is not mounted, - wherein each of the row panels (A-M) comprises a display control unit which is provided on one of the measurement units of the row panels (A-M), - wherein, for each of the row panels (A-M), the display control unit is connected through a line by a wired circuit network to each of the measurement units , and - the display control unit comprises a display unit adapted to display the array of row panels (A-M) of the control center , and is further adapted to display each operation state of the measurement units of a row panel (A-M), and - a control unit adapted to execute a control command and adapted to send the control command to each of the measurement units of the row panel (A-M).
A compound represented by Formula 1: wherein: X 1 is O or S, X 2 , X 3 and X 4 are each independently N or CH, L 1 and L 2 are each independently a single bond, R 1 and R 2 are each independently R 3 is each independently a C 6-60 aryl substituted with one or two cyano, and n is an integer of 1 or 2. X 1 is O or S, X 2 , X 3 and X 4 are each independently N or CH, L 1 and L 2 are each independently a single bond, R 1 and R 2 are each independently R 3 is each independently a C 6-60 aryl substituted with one or two cyano, and n is an integer of 1 or 2.
A temperature measurement method that uses: a tool holder that is rotatable around a rotating axis and has a hollow hole extending from a front end to a rear end along the rotating axis; and a rotating tool that is connected to the tool holder and has a coaxial through hole with the hollow hole , the method comprising steps of: attaching a temperature measurement unit near the through hole of the rotating tool ; measuring the temperature of the rotating tool that rotates coaxially with the tool holder using the temperature measurement unit ; and receiving an electric signal of a measurement result of the temperature measurement unit by an electronic substrate that includes a transmission unit ; and transmitting wirelessly the electric signal of the electronic substrate to an external unit by the transmission unit ; wherein the electronic substrate is provided on the side of an outer circumferential section of the tool holder . attaching a temperature measurement unit near the through hole of the rotating tool ; measuring the temperature of the rotating tool that rotates coaxially with the tool holder using the temperature measurement unit ; and receiving an electric signal of a measurement result of the temperature measurement unit by an electronic substrate that includes a transmission unit ; and transmitting wirelessly the electric signal of the electronic substrate to an external unit by the transmission unit ; wherein the electronic substrate is provided on the side of an outer circumferential section of the tool holder .
A backlight unit comprising: a bottom chassis ; a supporter positioned to extend along one edge of the bottom chassis ; a light source unit fixed to the supporter ; and a light guide plate that is positioned on the bottom chassis and is configured to transmit light emitted from a light source of the light source unit , wherein the supporter includes a main body of which at least one corner area is cut and an insertion portion that is positioned at the corner area, and each of the main body and the insertion portion includes a base portion and a side wall , and the side wall of the insertion portion directly contacts and extends from the side wall of the main body in a direction different than a direction in which the side wall of the main body extends. a bottom chassis ; a supporter positioned to extend along one edge of the bottom chassis ; a light source unit fixed to the supporter ; and a light guide plate that is positioned on the bottom chassis and is configured to transmit light emitted from a light source of the light source unit , wherein the supporter includes a main body of which at least one corner area is cut and an insertion portion that is positioned at the corner area, and each of the main body and the insertion portion includes a base portion and a side wall , and the side wall of the insertion portion directly contacts and extends from the side wall of the main body in a direction different than a direction in which the side wall of the main body extends.
A medical device , comprising: a catheter that includes a first cylindrical member that defines a first lumen , the first cylindrical member having a proximal and a distal end, the catheter dimensioned to deliver fluid from a fluid source at the proximal end through the first lumen and into the void of a metal balloon at the distal end, and a second cylindrical member that defines a second lumen that is dimensioned to allow for the passage of a guidance member , or guide wire and, wherein the wall of the catheter is reinforced with a coiled or braided wire comprising stainless steel, nitinol, or combinations thereof; a compressed, metal balloon with a proximal neck and a distal neck , detachably engaged to the catheter , wherein the metal balloon comprises a single lobe, having a metal wall with an interior surface defining a void , and an exterior surface , with an opening in the wall that allows for the passage of fluid from the first lumen into the void, wherein the void of the metal balloon and the first lumen of the catheter are fluidly connected, and wherein the passage of fluid from the catheter directly into the void of the compressed metal balloon results in expansion of the metal balloon; characterized in that the metal wall of the metal balloon is solid. a catheter that includes a first cylindrical member that defines a first lumen , the first cylindrical member having a proximal and a distal end, the catheter dimensioned to deliver fluid from a fluid source at the proximal end through the first lumen and into the void of a metal balloon at the distal end, and a second cylindrical member that defines a second lumen that is dimensioned to allow for the passage of a guidance member , or guide wire and, wherein the wall of the catheter is reinforced with a coiled or braided wire comprising stainless steel, nitinol, or combinations thereof; a compressed, metal balloon with a proximal neck and a distal neck , detachably engaged to the catheter , wherein the metal balloon comprises a single lobe, having a metal wall with an interior surface defining a void , and an exterior surface , with an opening in the wall that allows for the passage of fluid from the first lumen into the void, wherein the void of the metal balloon and the first lumen of the catheter are fluidly connected, and wherein the passage of fluid from the catheter directly into the void of the compressed metal balloon results in expansion of the metal balloon; characterized in that the metal wall of the metal balloon is solid.
An image decoding method performed by a decoding apparatus, the method comprising: receiving (S1300) intra prediction information comprising most probable mode (MPM) flag information related to whether to derive an intra prediction mode for a current block based on MPM candidates for the current block, planar flag information related to whether to determine the intra prediction mode for the current block as a planar mode, and MPM index information related to one of 5 MPM candidates other than the planar mode among the MPM candidates for the current block; deriving (S1310) the intra prediction mode for the current block based on at least one of a value of the MPM flag information, a value of the planar flag information, and a value of the MPM index information; deriving (S1320) a predicted block for the current block based on the intra prediction mode for the current block; and generating (S1330) a reconstructed picture based on the predicted block, wherein the MPM flag information is parsed in a coding unit syntax for the current block, wherein when the value of the MPM flag information is equal to 1, the planar flag information is parsed in the coding unit syntax, wherein when the value of the planar flag information represents that the intra prediction mode for the current block is not the planar mode, the MPM index information is parsed in the coding unit syntax, and wherein the planar flag information is signaled after the MPM flag information and before the MPM index information. receiving (S1300) intra prediction information comprising most probable mode (MPM) flag information related to whether to derive an intra prediction mode for a current block based on MPM candidates for the current block, planar flag information related to whether to determine the intra prediction mode for the current block as a planar mode, and MPM index information related to one of 5 MPM candidates other than the planar mode among the MPM candidates for the current block; deriving (S1310) the intra prediction mode for the current block based on at least one of a value of the MPM flag information, a value of the planar flag information, and a value of the MPM index information; deriving (S1320) a predicted block for the current block based on the intra prediction mode for the current block; and generating (S1330) a reconstructed picture based on the predicted block, wherein the MPM flag information is parsed in a coding unit syntax for the current block, wherein when the value of the MPM flag information is equal to 1, the planar flag information is parsed in the coding unit syntax, wherein when the value of the planar flag information represents that the intra prediction mode for the current block is not the planar mode, the MPM index information is parsed in the coding unit syntax, and wherein the planar flag information is signaled after the MPM flag information and before the MPM index information.
Construction machine with a support apparatus and a processing device for creating a hole in the ground and an arrangement for data transmission from or into the hole in the ground , in particular a borehole or a cut trench, wherein arranged along the hole is the processing device , which is formed with an electrically conductive body and extends with an upper section out of the hole , Wherein - a first transmitting and/or receiving unit is arranged in the hole , - a second transmitting and/or receiving unit is arranged outside the hole and - the upper section of the processing device is configured as an antenna for emitting or respectively receiving a high-frequency signal, - the second transmitting and/or receiving unit is arranged outside the hole at a distance from the upper section on the support apparatus and - the transmitting and/or receiving units are configured to transmit or respectively receive the high-frequency signal, which is transmitted by the electrically conductive body of the processing device . - a first transmitting and/or receiving unit is arranged in the hole , - a second transmitting and/or receiving unit is arranged outside the hole and - the upper section of the processing device is configured as an antenna for emitting or respectively receiving a high-frequency signal, - the second transmitting and/or receiving unit is arranged outside the hole at a distance from the upper section on the support apparatus and - the transmitting and/or receiving units are configured to transmit or respectively receive the high-frequency signal, which is transmitted by the electrically conductive body of the processing device .
A method for estimating a concentration of a species in a culture medium using an estimating system including a light source , a transparent substrate and a matrix photodetector , the transparent substrate being located between the light source and the matrix photodetector , the culture medium including biological particles and being able to change color when the concentration of the species varies, the method comprising the following steps: - placing the culture medium on the transparent substrate , - illuminating the culture medium using the light source , - acquiring an image (I n ) of the culture medium using the matrix photodetector , each image (I n ) being formed by a radiation transmitted by the illuminated culture medium and including at least one elementary diffraction pattern corresponding to waves diffracted by a biological particle when the culture medium is illuminated, - calculating an estimate of the concentration of the species in the culture medium from a pixel intensity of the acquired image (I n ), the estimate of the concentration being an estimated value of said concentration, the estimated value being calculated using a calibration relationship previously determined, the calibration relationship defining a mathematical relationship between the intensity and the concentration. - placing the culture medium on the transparent substrate , - illuminating the culture medium using the light source , - acquiring an image (I n ) of the culture medium using the matrix photodetector , each image (I n ) being formed by a radiation transmitted by the illuminated culture medium and including at least one elementary diffraction pattern corresponding to waves diffracted by a biological particle when the culture medium is illuminated, - calculating an estimate of the concentration of the species in the culture medium from a pixel intensity of the acquired image (I n ), the estimate of the concentration being an estimated value of said concentration, the estimated value being calculated using a calibration relationship previously determined, the calibration relationship defining a mathematical relationship between the intensity and the concentration.
An electrolytic solution which comprises 0.001-10,000 mass ppm, relative to the electrolytic solution, of a compound of formula : wherein R 11 and R 13 are each individually halogenated alkyl; and X 11 and X 12 are each individually O or S.
Method for manufacturing (S) a subassembly for a tyre comprising the following steps: - providing an assembly comprising a first structure , a second structure and a supporting structure , - the first structure being formed by filamentary elements and having a longitudinal edge extending in a first direction which defines a first axis , - the second structure being formed by filamentary elements and having a longitudinal edge extending in a second direction which defines a second axis , - the supporting structure comprising supporting filamentary elements linking the first structure and the second structure , - positioning (S1) the first structure on the second structure such that the first axis and the second axis are substantially parallel, and - securely fixing (S4) the first structure onto the second structure using a securing element so as to hold the first structure in position relative to the second structure and to prevent any movement of the first structure relative to the second structure in order to obtain an assembly , said method being characterized in that it comprises the following step: - cutting (S5) the assembly along the securing element so as to separate said securing element from the rest of the assembly and to obtain at least one subassembly without securing element . - providing an assembly comprising a first structure , a second structure and a supporting structure , - the first structure being formed by filamentary elements and having a longitudinal edge extending in a first direction which defines a first axis , - the second structure being formed by filamentary elements and having a longitudinal edge extending in a second direction which defines a second axis , - the supporting structure comprising supporting filamentary elements linking the first structure and the second structure , - the first structure being formed by filamentary elements and having a longitudinal edge extending in a first direction which defines a first axis , - the second structure being formed by filamentary elements and having a longitudinal edge extending in a second direction which defines a second axis , - the supporting structure comprising supporting filamentary elements linking the first structure and the second structure , - positioning (S1) the first structure on the second structure such that the first axis and the second axis are substantially parallel, and - securely fixing (S4) the first structure onto the second structure using a securing element so as to hold the first structure in position relative to the second structure and to prevent any movement of the first structure relative to the second structure in order to obtain an assembly , said method being characterized in that it comprises the following step: - cutting (S5) the assembly along the securing element so as to separate said securing element from the rest of the assembly and to obtain at least one subassembly without securing element . - cutting (S5) the assembly along the securing element so as to separate said securing element from the rest of the assembly and to obtain at least one subassembly without securing element .
Household appliance series, having at least two household appliances with different operating units, which have printed circuit boards with an identical board layout , which are populated with touch sensors , which can be populated on the printed circuit board at predefined positions in a variable manner and to which discrete functions can be assigned in a software-controlled manner, characterised in that the touch sensors operate on a capacitive basis and that, for setting the values of a common operating parameter of the household appliances, a fixed group of touch sensors can be assigned different evaluation algorithms in each case, whereby the common operating parameter can be varied in the different household appliances by means of different operating methods, wherein an evaluation algorithm comprises an up/down operation.
A method for a connected vehicle that is a member of a vehicular micro cloud , comprising: detecting that one or more data segments of a first data set are lost during a first data handover function transmitted to the connected vehicle from one or more other members of the vehicular micro cloud over a Vehicle-to-Everything, V2X, network, wherein the first data set is partitioned into multiple data segments including the one or more data segments during a previous data handover function performed prior to the first data handover function, the one or more data segments being sent to the one or more other members of the vehicular micro cloud during the previous data handover function, the previous data handover function and the first data handover function each including the first data set ; and modifying an operation of a communication unit of the connected vehicle to collect the one or more data segments from a set of overhearing vehicles that overhears the one or more data segments during the previous data handover function so that the first data set is recovered on the connected vehicle , each overhearing vehicle storing a predetermined number of data segments of the first data set . detecting that one or more data segments of a first data set are lost during a first data handover function transmitted to the connected vehicle from one or more other members of the vehicular micro cloud over a Vehicle-to-Everything, V2X, network, wherein the first data set is partitioned into multiple data segments including the one or more data segments during a previous data handover function performed prior to the first data handover function, the one or more data segments being sent to the one or more other members of the vehicular micro cloud during the previous data handover function, the previous data handover function and the first data handover function each including the first data set ; and modifying an operation of a communication unit of the connected vehicle to collect the one or more data segments from a set of overhearing vehicles that overhears the one or more data segments during the previous data handover function so that the first data set is recovered on the connected vehicle , each overhearing vehicle storing a predetermined number of data segments of the first data set .
A method for producing a connecting element for connecting two components of an orthopaedic device for a body part, the method comprising the following steps: • capturing 3-dimensional scan data of at least one part of the body part by means of a scanner , • determining a target position and/or a target orientation of the connecting element relative to the body part from the scan data , • modelling the connecting element using the scan data , the target position and/or the target orientation and information on the components to be connected, and • manufacturing the modelled connecting element . • capturing 3-dimensional scan data of at least one part of the body part by means of a scanner , • determining a target position and/or a target orientation of the connecting element relative to the body part from the scan data , • modelling the connecting element using the scan data , the target position and/or the target orientation and information on the components to be connected, and • manufacturing the modelled connecting element .