mhurhangee/patent-ind-claim-en huggingface dataset:
Winding overhang configured for supporting windings of an electric motor , the winding overhang comprising a cylindrical wall centered around a center axis (A), and having an end surface facing in the axial direction and a circumference extending around said center axis (A), and further comprising a plurality of winding supports extending from the cylindrical wall in a radial direction, the cylindrical wall including: a plurality of grooves (28a-28e) formed along the circumference of the cylindrical wall , each groove (28a-28e) extending in a virtual plane, which is oriented orthogonally to the center axis (A) at a constant height (H 1 , H 2 , H 3 , H 4 , H 5 ), i.e. at a predefined distance (d 1 , d 2 , d 3 , d 4 , d 5 ) from the end surface in the direction of the center axis (A) and a plurality of openings extending from the end surface of the cylindrical wall to a respective one of the grooves (28a-28e) and allowing a wire (30a-30c) (30a-30c), extending from the windings 25, formed on the winding supports 24, to pass through the cylindrical wall between an outer area outside the cylindrical wall and an inner space defined by the cylindrical wall , the wires (30a-30c) extending into a groove (28a-28e) aligned with the bottom of the respective opening , wherein the openings have different heights (H 1 , H 2 , H 3 , H 4 , H 5 ), so that adjacent openings extend to different ones of said grooves (28a-28e) characterized in that the cylindrical wall is formed by a base and a plurality of posts extending orthogonally therefrom and arranged next to each other with gaps formed between adjacent posts and with webs bridging the gaps at different heights (H 1 , H 2 , H 3 , H 4 , H 5 ), therefore forming the openings . a plurality of grooves (28a-28e) formed along the circumference of the cylindrical wall , each groove (28a-28e) extending in a virtual plane, which is oriented orthogonally to the center axis (A) at a constant height (H 1 , H 2 , H 3 , H 4 , H 5 ), i.e. at a predefined distance (d 1 , d 2 , d 3 , d 4 , d 5 ) from the end surface in the direction of the center axis (A) and a plurality of openings extending from the end surface of the cylindrical wall to a respective one of the grooves (28a-28e) and allowing a wire (30a-30c) (30a-30c), extending from the windings 25, formed on the winding supports 24, to pass through the cylindrical wall between an outer area outside the cylindrical wall and an inner space defined by the cylindrical wall , the wires (30a-30c) extending into a groove (28a-28e) aligned with the bottom of the respective opening , wherein the openings have different heights (H 1 , H 2 , H 3 , H 4 , H 5 ), so that adjacent openings extend to different ones of said grooves (28a-28e) characterized in that the cylindrical wall is formed by a base and a plurality of posts extending orthogonally therefrom and arranged next to each other with gaps formed between adjacent posts and with webs bridging the gaps at different heights (H 1 , H 2 , H 3 , H 4 , H 5 ), therefore forming the openings .
A method of folding a balloon, the method comprising: a. inflating a balloon; b. coating the balloon with one or more layers of therapeutic agents and/or excipients; c. pleating the coated balloon at a temperature from the range of 25°-60°C and at a pressure from the range of 25-35 psi; d. folding the pleated balloon in a predefined direction at a pressure 80-100 psi and a dwell time of 70-110 seconds; e. mounting a sheath on the folded balloon to hold pleats of the folded balloon; and f. heat setting the sheath and the folded balloon at a temperature of 30-60°C which results in the balloon having a reduced profile ranging 60% to 70% of initial balloon diameter. a. inflating a balloon; b. coating the balloon with one or more layers of therapeutic agents and/or excipients; c. pleating the coated balloon at a temperature from the range of 25°-60°C and at a pressure from the range of 25-35 psi; d. folding the pleated balloon in a predefined direction at a pressure 80-100 psi and a dwell time of 70-110 seconds; e. mounting a sheath on the folded balloon to hold pleats of the folded balloon; and f. heat setting the sheath and the folded balloon at a temperature of 30-60°C which results in the balloon having a reduced profile ranging 60% to 70% of initial balloon diameter.
A method of operating a target terminal being serviced by a serving base station, and of operating the serving base station, the method comprising: measuring at the terminal the channel (H 11 ) between the serving base station and the target terminal; generating at the terminal channel information associated with the channel (H 11 ), based on the measured channel (H 11 ) between the serving base station and the target terminal; feeding back by the terminal channel information of the channel (H 11 ) to the serving base station using a feedback scheme, wherein the fed back channel information is used by the serving base station to determine whether interference exists in the channel (H 11 ), and to inform the target terminal if interference exists; recognizing at the terminal the occurrence of interference in response to a notice from the serving base station; generating by the terminal a feedback message that is used by a neighboring base station, not being the service base station, about channel information associated with the channel (H 11 ) between the serving base station and the target terminal, and channel information associated with the channel (H 21 ) between the neighboring base station and the target terminal, thus configuring the neighboring base station to simultaneously verify channel information (H 11 ) between the serving base station and the target terminal, to estimate channel information (H 21 ) between the neighboring base station and the target terminal, and to perform an interference control; providing by the target terminal the feedback message to the neighboring base station. measuring at the terminal the channel (H 11 ) between the serving base station and the target terminal; generating at the terminal channel information associated with the channel (H 11 ), based on the measured channel (H 11 ) between the serving base station and the target terminal; feeding back by the terminal channel information of the channel (H 11 ) to the serving base station using a feedback scheme, wherein the fed back channel information is used by the serving base station to determine whether interference exists in the channel (H 11 ), and to inform the target terminal if interference exists; recognizing at the terminal the occurrence of interference in response to a notice from the serving base station; generating by the terminal a feedback message that is used by a neighboring base station, not being the service base station, about channel information associated with the channel (H 11 ) between the serving base station and the target terminal, and channel information associated with the channel (H 21 ) between the neighboring base station and the target terminal, thus configuring the neighboring base station to simultaneously verify channel information (H 11 ) between the serving base station and the target terminal, to estimate channel information (H 21 ) between the neighboring base station and the target terminal, and to perform an interference control; providing by the target terminal the feedback message to the neighboring base station.
A method of a terminal in a wireless communication system, the method comprising: identifying information related to a periodic first transmission time and a periodic second transmission time for synchronization signals; identifying that a synchronization signal is received in one of the first transmission time or the second transmission time; and transmitting a further synchronization signal based on the identification, wherein the further synchronization signal is transmitted in the second transmission time in a case that the received synchronization signal is received in the first transmission time and the further synchronization signal is transmitted in the first transmission time in a case that the received synchronization signal is received in the second transmission time. identifying information related to a periodic first transmission time and a periodic second transmission time for synchronization signals; identifying that a synchronization signal is received in one of the first transmission time or the second transmission time; and transmitting a further synchronization signal based on the identification, wherein the further synchronization signal is transmitted in the second transmission time in a case that the received synchronization signal is received in the first transmission time and the further synchronization signal is transmitted in the first transmission time in a case that the received synchronization signal is received in the second transmission time.
A method for displaying a message on a mobile terminal device, comprising: A. receiving a message, querying whether a user message storage database corresponding to a sender user number carried in the received message is set in the mobile terminal, and acquiring the user message storage database corresponding to the sender user number when the user message storage database corresponding to the sender user number is set in the mobile terminal ; B. sequentially storing messages that have been received in accordance with block A in the user message storage database corresponding to the sender user number and combining two or more of the received messages, which are stored in the user message storage database, according to a preset time threshold for time difference between sending times or receiving times of two sequentially stored messages that are received in accordance with block A wherein the two or more sequentially stored messages are combined into one new message , thereby obtaining at least one message through combination of the two or more of the received messages; and C. displaying the at least one obtained message . A. receiving a message, querying whether a user message storage database corresponding to a sender user number carried in the received message is set in the mobile terminal, and acquiring the user message storage database corresponding to the sender user number when the user message storage database corresponding to the sender user number is set in the mobile terminal ; B. sequentially storing messages that have been received in accordance with block A in the user message storage database corresponding to the sender user number and combining two or more of the received messages, which are stored in the user message storage database, according to a preset time threshold for time difference between sending times or receiving times of two sequentially stored messages that are received in accordance with block A wherein the two or more sequentially stored messages are combined into one new message , thereby obtaining at least one message through combination of the two or more of the received messages; and C. displaying the at least one obtained message .
A method of operating a cartridge chip installed in an imaging device comprising: causing, by the cartridge chip not responding to a command transmitted by the imaging device, the imaging device to enter an error condition; monitoring the timing or sequence of communication signals received from the imaging device during at least a portion of the error condition; and operating, based on the timing or sequence of the communication signals received from the imaging device during said portion of the error condition, in a first mode of operation compatible with a first type of imaging device or in a second mode of operation compatible with a second type of imaging device, the first mode of operation differing from the second mode of operation. causing, by the cartridge chip not responding to a command transmitted by the imaging device, the imaging device to enter an error condition; monitoring the timing or sequence of communication signals received from the imaging device during at least a portion of the error condition; and operating, based on the timing or sequence of the communication signals received from the imaging device during said portion of the error condition, in a first mode of operation compatible with a first type of imaging device or in a second mode of operation compatible with a second type of imaging device, the first mode of operation differing from the second mode of operation.
A method for intra- or inter-prediction processing of a video frame, the method comprising the steps of: obtaining a set of reference samples; obtaining a 1/32 fractional sample position p in a range from 0 to 31; and filtering, using a subpixel interpolation filter, the set of reference samples to obtain a predicted sample value, wherein filter coefficients of the subpixel interpolation filter satisfy a linear combination of p and a filter strength parameter S, wherein the linear combination includes c 0 = − S c 1 = 64 − p ≪ 1 + S c 2 = p ≪ 1 + S c 3 = − S wherein c 0 , c 1 , c 2 , c 3 are the filter coefficients, and the filter strength parameter S is defined as follows: S = 48 − 3 p − 48 8 . obtaining a set of reference samples; obtaining a 1/32 fractional sample position p in a range from 0 to 31; and filtering, using a subpixel interpolation filter, the set of reference samples to obtain a predicted sample value, wherein filter coefficients of the subpixel interpolation filter satisfy a linear combination of p and a filter strength parameter S, wherein the linear combination includes c 0 = − S c 1 = 64 − p ≪ 1 + S c 2 = p ≪ 1 + S c 3 = − S wherein c 0 , c 1 , c 2 , c 3 are the filter coefficients, and the filter strength parameter S is defined as follows: S = 48 − 3 p − 48 8 .
An internal combustion engine comprising an oil circuit, wherein the oil circuit is configured to supply at least one component of the internal combustion engine with lubricating oil, and at least one oil reservoir configured to provide the lubricating oil for the oil circuit, wherein - at least one collecting container separate from the at least one oil reservoir is provided, wherein the at least one collecting container is configured to collect the lubricating oil in the oil circuit downstream of the at least one component, and - at least one oil remover is provided by means of which at least a part of the lubricating oil collected in the at least one collecting container from the at least one oil circuit is removable, characterized on that the at least one component includes at least one turbocharger and/or a blow-by filter . - at least one collecting container separate from the at least one oil reservoir is provided, wherein the at least one collecting container is configured to collect the lubricating oil in the oil circuit downstream of the at least one component, and - at least one oil remover is provided by means of which at least a part of the lubricating oil collected in the at least one collecting container from the at least one oil circuit is removable,
An equine boot comprising a shell having: a bottom portion for engaging with the underside of a hoof; and an upper for enclosing at least a portion of a hoof wall of the hoof, the upper comprising two opposed side walls , wherein a rear of the shell is substantially open such that a rear of the hoof is substantially uncovered by the shell, characterized by each of the two opposed side walls having an elongate opening for accommodating hoof growth, each opening being formed through a respective side wall of the upper where it meets the bottom portion . a bottom portion for engaging with the underside of a hoof; and an upper for enclosing at least a portion of a hoof wall of the hoof, the upper comprising two opposed side walls , wherein a rear of the shell is substantially open such that a rear of the hoof is substantially uncovered by the shell, characterized by each of the two opposed side walls having an elongate opening for accommodating hoof growth, each opening being formed through a respective side wall of the upper where it meets the bottom portion .
A method of decoding video data comprising: determining a merge candidate set for a current prediction unit of a current coding unit, wherein the merge candidate set includes spatial merge candidates and a temporal merge candidate, wherein the spatial merge candidates are a left above merge candidate, an above merge candidate, a right above merge candidate, a left merge candidate, and a below left merge candidate wherein the location of spatial merge candidates are specified relative to the current prediction unit; removing from the merge candidate set for the current prediction unit all merge candidates that are within another prediction unit of the current coding unit by, when the current coding unit has a 2NxN, a 2NxnU or a 2NxnD partition type which includes a prediction unit 0 positioned above a prediction unit 1, removing the above merge candidate from the merge candidate set for prediction unit 1, and when the current coding unit has an Nx2N, an nLx2N or an nRx2N partition type which includes a prediction unit 0 positioned to the left of a prediction unit 1, removing the left merge candidate from the merge candidate set for prediction unit 1; and performing a merge motion vector prediction process for the current prediction unit using the merge candidate set. determining a merge candidate set for a current prediction unit of a current coding unit, wherein the merge candidate set includes spatial merge candidates and a temporal merge candidate, wherein the spatial merge candidates are a left above merge candidate, an above merge candidate, a right above merge candidate, a left merge candidate, and a below left merge candidate wherein the location of spatial merge candidates are specified relative to the current prediction unit; removing from the merge candidate set for the current prediction unit all merge candidates that are within another prediction unit of the current coding unit by, when the current coding unit has a 2NxN, a 2NxnU or a 2NxnD partition type which includes a prediction unit 0 positioned above a prediction unit 1, removing the above merge candidate from the merge candidate set for prediction unit 1, and when the current coding unit has an Nx2N, an nLx2N or an nRx2N partition type which includes a prediction unit 0 positioned to the left of a prediction unit 1, removing the left merge candidate from the merge candidate set for prediction unit 1; and performing a merge motion vector prediction process for the current prediction unit using the merge candidate set.
Flying drone comprising: • a memory for storing a 3D coordinate; • a control and command computer for driving drone directional and motorization means, said control and command computer being connected to the memory for reading 3D coordinate so that the flying drone is able to move to the 3D coordinate; characterized in that the memory stores a list of 3D coordinates points defining a forecasted flying trajectory, each 3D coordinate point being associated a time relative to either the time of the previous 3D coordinates point either to a reference time, said times constituting a timeline, and said control and command computer is adapted to read the forecasted flying directory in order to move sequentially the flying drone to each 3D coordinate at the corresponding time; the flying drone further comprises: • a wireless receptor able to receive a synchronization signal emitted from a central coordinator comprising a timecode , said timecode comprising a sequence of digital codes generated at predetermined intervals, said synchronization signal allowing the flying drone to be synchronized with other flying drones; and • the control and command computer is adapted for synchronizing the flying drone timeline with the synchronization signal . • a memory for storing a 3D coordinate; • a control and command computer for driving drone directional and motorization means, said control and command computer being connected to the memory for reading 3D coordinate so that the flying drone is able to move to the 3D coordinate; the memory stores a list of 3D coordinates points defining a forecasted flying trajectory, each 3D coordinate point being associated a time relative to either the time of the previous 3D coordinates point either to a reference time, said times constituting a timeline, and said control and command computer is adapted to read the forecasted flying directory in order to move sequentially the flying drone to each 3D coordinate at the corresponding time; the flying drone further comprises: • a wireless receptor able to receive a synchronization signal emitted from a central coordinator comprising a timecode , said timecode comprising a sequence of digital codes generated at predetermined intervals, said synchronization signal allowing the flying drone to be synchronized with other flying drones; and • the control and command computer is adapted for synchronizing the flying drone timeline with the synchronization signal . • a wireless receptor able to receive a synchronization signal emitted from a central coordinator comprising a timecode , said timecode comprising a sequence of digital codes generated at predetermined intervals, said synchronization signal allowing the flying drone to be synchronized with other flying drones; and • the control and command computer is adapted for synchronizing the flying drone timeline with the synchronization signal .
An electromechanical power-split system with a mechanical drive branch comprising an internal combustion engine , and with an electric drive branch comprising a first motor-generator block including a first motor-generator and a second motor-generator block including a second motor-generator , wherein the first motor-generator is connectable to the internal combustion engine and to the second motor-generator , wherein the system comprises a planetary gearset with dual planet gears and four input/output members for altering the flow ratio of the mechanical and electric drive branch, wherein each input/output member is either an input or output member, wherein each dual planet gear is connected to the four input/output members, which are a first pair of input/output members formed by a first sun gear and a ring gear , and a second pair of input/output members formed by a second sun gear and a planet carrier , wherein any one of said two pairs of input/output members comprises two input members of the planetary gearset , wherein one of the two input members is connectable to the internal combustion engine and the other of the two input members is connected to the second motor-generator , whereas the remaining other of said two pairs of input/output members comprises two output members of the planetary gearset , wherein the output members of the planetary gearset are connectable to a two-branch output block , and mechanically further via the output block to an output shaft , wherein each of the output members is connectable to only one of the branches of the output block , wherein a rotor of the second motor-generator is connected to the planetary gearset by means of a shaft, characterised in that a second motor-generator rotor brake is mounted on the shaft connecting the rotor of the second motor-generator and the planetary gearset .
A filter press comprising: a stack of filter plates , a body carrying said stack of filter plates, characterized by the filter press further comprising a weighing device disposed between the body and the stack of filter plates for supporting and carrying the weight of said stack of filter plates , wherein the weighing device comprises at least one weighing sensor for weighing filter cake formation in the stack of filter plates and an attachment structure attaching the stack of filter plates and the body together such that vertical movement of the stack of filter plates relative to the body is allowed.