mhurhangee/ep-ind-claims huggingface dataset:
Wind turbine comprising: a nacelle and a rotor mounted on a front end of the nacelle, a yaw control system for yawing the nacelle with respect to the wind direction, an automatic control system for preventing yaw misalignment of the nacelle, the control system comprising an acquisition unit that relates the wind direction (γ) with a deviation (α) of the wind turbine nacelle with respect to the wind direction (γ), a calculation unit of an efficiency function y = f(θ) of the wind turbine and a deviation comparison unit for the deviation of the nacelle, sensors for measuring wind speed, wind direction, power and rotor rotation, a power optimization algorithm associated to the control system, characterized in that the control system is configured for forcing the nacelle oscillate about a yawing axis at a frequency lower than 0,1 Hz and in that the power optimization algorithm is configured for implementing an optimization algorithm of numerical analysis of the efficiency function y = f(θ) that maximizes the wind turbine efficiency, the optimization algorithm including a first filter (k / s) to attenuate low frequencies and a second filter to attenuate high frequencies ( s / s+h), commands being sent to the yaw control system to orient the nacelle of the wind turbine toward an optimal alignment ( θ *) positions that maximizes the efficiency function. a nacelle and a rotor mounted on a front end of the nacelle, a yaw control system for yawing the nacelle with respect to the wind direction, an automatic control system for preventing yaw misalignment of the nacelle, the control system comprising an acquisition unit that relates the wind direction (γ) with a deviation (α) of the wind turbine nacelle with respect to the wind direction (γ), a calculation unit of an efficiency function y = f(θ) of the wind turbine and a deviation comparison unit for the deviation of the nacelle, sensors for measuring wind speed, wind direction, power and rotor rotation, a power optimization algorithm associated to the control system, characterized in that the control system is configured for forcing the nacelle oscillate about a yawing axis at a frequency lower than 0,1 Hz and in that the power optimization algorithm is configured for implementing an optimization algorithm of numerical analysis of the efficiency function y = f(θ) that maximizes the wind turbine efficiency, the optimization algorithm including a first filter (k / s) to attenuate low frequencies and a second filter to attenuate high frequencies ( s / s+h), commands being sent to the yaw control system to orient the nacelle of the wind turbine toward an optimal alignment ( θ *) positions that maximizes the efficiency function.
A transmission apparatus comprising: a multiplexing portion configured to multiplex a shared control channel including control information necessary for demodulation of the shared data channel including a payload with a common pilot channel to be used by plural users, in either one of a frequency dimension and a time dimension, or a combination thereof, multiplex the shared data channel with the multiplexed common pilot channel and shared control channel in the time dimension, and multiplex a dedicated pilot channel, which is used to demodulate the shared data channel, with the shared data channel allocated to a specific user in either one of the frequency dimension and the time dimension, or a combination thereof; a symbol generation portion configured to perform an inverse Fourier transformation on the multiplexed signal so as to generate a symbol; and a transmission portion configured to transmit the generated symbol, wherein the dedicated pilot channel is mapped at predetermined frequency intervals in first sub-carriers in a first time slot and also mapped at the same predetermined frequency intervals in second sub-carriers different from the first sub-carriers in a second time slot. a multiplexing portion configured to multiplex a shared control channel including control information necessary for demodulation of the shared data channel including a payload with a common pilot channel to be used by plural users, in either one of a frequency dimension and a time dimension, or a combination thereof, multiplex the shared data channel with the multiplexed common pilot channel and shared control channel in the time dimension, and multiplex a dedicated pilot channel, which is used to demodulate the shared data channel, with the shared data channel allocated to a specific user in either one of the frequency dimension and the time dimension, or a combination thereof; a symbol generation portion configured to perform an inverse Fourier transformation on the multiplexed signal so as to generate a symbol; and a transmission portion configured to transmit the generated symbol, wherein the dedicated pilot channel is mapped at predetermined frequency intervals in first sub-carriers in a first time slot and also mapped at the same predetermined frequency intervals in second sub-carriers different from the first sub-carriers in a second time slot.
Device for the near-field optical measurement of a specimen comprising a probe, a primary mirror, which is a concave mirror, and at least two secondary mirrors, wherein each one of the secondary mirrors is located in an independent optical pathway, whereby each one independent optical pathway starts at the probe and passes the primary mirror and the secondary mirror, each one of the secondary mirrors is located in the respective independent optical pathway downwards the primary mirror, whereby the optical pathways start at the probe and pass the primary mirror, and the secondary mirrors are arranged such that the parts of different independent optical pathways which are located downwards the secondary mirrors are not parallel to each other, whereby the independent optical pathways start at the probe and pass the primary mirror and the respective secondary mirror.
A method for receiving push information, comprising: receiving, by a terminal, information about a network access interface sent by a network access point, wherein the information about the network access interface comprises address information of a push server and access information of a wireless local area network, WLAN, access hotspot, wherein the wireless local area network access hotspot is different from the network access point; acquiring, by the terminal, the address information of the push server comprised in the information about the network access interface; accessing, by the terminal, the WLAN access hotspot based on the access information of the WLAN access hotspot, and establishing a push connection channel between the terminal and the push server according to the address information of the push server by using the WLAN access hotspot; and receiving, by the terminal by using the established push connection channel, push information sent by the push server. receiving, by a terminal, information about a network access interface sent by a network access point, wherein the information about the network access interface comprises address information of a push server and access information of a wireless local area network, WLAN, access hotspot, wherein the wireless local area network access hotspot is different from the network access point; acquiring, by the terminal, the address information of the push server comprised in the information about the network access interface; accessing, by the terminal, the WLAN access hotspot based on the access information of the WLAN access hotspot, and establishing a push connection channel between the terminal and the push server according to the address information of the push server by using the WLAN access hotspot; and receiving, by the terminal by using the established push connection channel, push information sent by the push server.
A method for a Control Node of a Core Network for late activation of a User Plane between a Radio Station (eNudeB, NodeB, BTS) and a control node (RNC, BSC) of a Radio Access Network (eUTRAN, UTRAN, URAN, GERAN, GRAN, RAN) of a call to be set-up, comprising the steps of: • Receiving an indication that a call involving said Control node of a Core Network and said control node (RNC, BSC) of said Radio Access Network (eUTRAN, UTRAN, URAN, GERAN, GRAN, RAN) shall be set-up, • Graining knowledge that said control node (RNC, BSC) of said Radio Access Network ( eUTRAN, UTRAN, URAN, GERAN, GRAN, RAN) is adapted for a late User Plane Activation, • instructing said control node (RNC, BSC) of said Radio Access Network (eUTRAN, UTRAN, URAN, GERAN, GRAN, RAN) that the User Plane between the Radio Station and the control node (BSC, RNC) of said Radio Access Network shall be reserved, • Detecting that the User Plane of said call shall be through connected, and • Upon detection that the User Plane of said call shall be through connected, instructing the control node (RNC, BSC) of said Radio Access Network (eUTRAN, UTRAN, URAN, GERAN, GRAN, RAN) to activate the reserved User Plane between the Radio Station and the control node (BSC, RNC) of said Radio Access Network, • Receiving an indication that a call involving said Control node of a Core Network and said control node (RNC, BSC) of said Radio Access Network (eUTRAN, UTRAN, URAN, GERAN, GRAN, RAN) shall be set-up, • Graining knowledge that said control node (RNC, BSC) of said Radio Access Network ( eUTRAN, UTRAN, URAN, GERAN, GRAN, RAN) is adapted for a late User Plane Activation, • instructing said control node (RNC, BSC) of said Radio Access Network (eUTRAN, UTRAN, URAN, GERAN, GRAN, RAN) that the User Plane between the Radio Station and the control node (BSC, RNC) of said Radio Access Network shall be reserved, • Detecting that the User Plane of said call shall be through connected, and • Upon detection that the User Plane of said call shall be through connected, instructing the control node (RNC, BSC) of said Radio Access Network (eUTRAN, UTRAN, URAN, GERAN, GRAN, RAN) to activate the reserved User Plane between the Radio Station and the control node (BSC, RNC) of said Radio Access Network,
Walkable structure of docking in boats comprising: - a main transit platform which mainly develops along a longitudinal axis and defines an upper decking; - at least one front gripping and/or support rod coupled with at least one of the side edges (2a, 2b) and at the access end of said main transit platform and operatively connected with actuation means suitable to place said front rod selectively between a rest position, in which said front rod is positioned along a first linear direction (Z') parallel to said longitudinal axis of said main transit platform, and an operating position, in which said front rod protrudes upwardly, in such a manner as to be available for the gripping of the hand of the user, from at least one of said side edges (2a, 2b) of said main transit platform along a second linear direction which defines an angle with said longitudinal axis of said main transit platform, characterized in that it comprises locking and safety means operatively connected with said front rod in such a way as to make said front rod in said operating position stably bound and resistant to loads applied to it, counteracting its pliability, also under the traction or thrust exerted by said user on said front rod. - a main transit platform which mainly develops along a longitudinal axis and defines an upper decking; - at least one front gripping and/or support rod coupled with at least one of the side edges (2a, 2b) and at the access end of said main transit platform and operatively connected with actuation means suitable to place said front rod selectively between a rest position, in which said front rod is positioned along a first linear direction (Z') parallel to said longitudinal axis of said main transit platform, and an operating position, in which said front rod protrudes upwardly, in such a manner as to be available for the gripping of the hand of the user, from at least one of said side edges (2a, 2b) of said main transit platform along a second linear direction which defines an angle with said longitudinal axis of said main transit platform,
A pharmaceutical composition comprising zaltoprofen for use in the prevention or treatment of giant cell tumors occurring in a bone and soft tissue or chondrosarcoma.
Mixing device for mixing a fluid in a container of a fluid system of a printing machine, having a fluid feed and at least one outlet arm with an outlet opening, wherein the fluid feed is fluidically connected to the at least one outlet arm, wherein the outlet opening is oriented to discharge the fluid with an outlet direction in order to set at least part of the fluid in the container in rotation, wherein at least part of the at least one outlet arm is curved along a curve, wherein a multiplicity of outlet arms are formed and all the outlet arms are curved in the same direction, characterized in that a spiral design for the outlet arms is provided so as to continuously push the rotation of the fluid in the container.
A method for generating a pulse clock comprising: configuring a pulse clock generation circuit to output the pulse clock in a high voltage domain based on a raw clock input at a low voltage domain, the pulse clock generation circuit comprising a built-in level shifter configured to provide voltage level shifting from the low voltage domain to the high voltage domain, wherein a rising edge of the pulse clock is delayed from a rising edge of the raw clock by a programmable rising edge delay provided by a selective delay logic, and wherein a programmable pulse width of the pulse clock is based on a feedback path from the output of the pulse clock generation circuit in the high voltage domain to the input of the pulse clock generation circuit in the low voltage domain, the feedback path comprising a selective pulse width widening logic to provide the programmable pulse width and a read delay mimic logic to provide a read delay to match an expected memory array read access delay corresponding to the delay which is incurred in accessing a memory cell in the memory array. configuring a pulse clock generation circuit to output the pulse clock in a high voltage domain based on a raw clock input at a low voltage domain, the pulse clock generation circuit comprising a built-in level shifter configured to provide voltage level shifting from the low voltage domain to the high voltage domain, wherein a rising edge of the pulse clock is delayed from a rising edge of the raw clock by a programmable rising edge delay provided by a selective delay logic, and wherein a programmable pulse width of the pulse clock is based on a feedback path from the output of the pulse clock generation circuit in the high voltage domain to the input of the pulse clock generation circuit in the low voltage domain, the feedback path comprising a selective pulse width widening logic to provide the programmable pulse width and a read delay mimic logic to provide a read delay to match an expected memory array read access delay corresponding to the delay which is incurred in accessing a memory cell in the memory array.
A method of texture prediction and re-sampling for scalable video coding, wherein video data is configured into a Base Layer, BL, and an Enhancement Layer, EL and wherein the EL has higher spatial resolution than the BL or better video quality than the BL, the method comprising: determining information of texture of the BL; and deriving a predictor of texture of the EL by re-sampling the texture of the BL; characterized in that the texture of the BL is re-sampled using a filter to produce re-sampled BL texture and the filter is one or a combination of a Discrete Cosine Transform Interpolation Filter, DCTIF, and a Discrete Sine Transform Interpolation Filter, DSTIF. determining information of texture of the BL; and deriving a predictor of texture of the EL by re-sampling the texture of the BL; characterized in that the texture of the BL is re-sampled using a filter to produce re-sampled BL texture and the filter is one or a combination of a Discrete Cosine Transform Interpolation Filter, DCTIF, and a Discrete Sine Transform Interpolation Filter, DSTIF.
A charging member comprising a substrate, an elastic layer and a surface layer; wherein, the surface layer comprises a high-molecular compound having: an Si-O-B linkage; and a constitutional unit represented by the following formula and a constitutional unit represented by the following formula: [Chemical Formula 2] Formula BO 3/2 where, in Formula, R 1 and R 2 each independently represent any of structures represented by the following formulas to: where, in the formulas to, R 3 to R 7, R 10 to R 14, R 19, R 20, R 25 and R 26 each independently represent a hydrogen atom, an alkyl group having 1 to 4 carbon atom(s), a hydroxyl group, a carboxyl group or an amino group; R 8, R 9, R 15 to R 18, R 23, R 24 and R 29 to R 32 each independently represent a hydrogen atom or an alkyl group having 1 to 4 carbon atom(s); R 21, R 22, R 27 and R 28 each independently represent a hydrogen atom or an alkoxyl group or alkyl group having 1 to 4 carbon atom(s); n, m, 1, q, s and t each independently represent an integer of 1 to 8, p and r each independently represent an integer of 4 to 12, and x and y each independently represent 0 or 1; and an asterisk * and a double asterisk ** each represent the position of bonding with the silicon atom and oxygen atom, respectively, in the formula. an Si-O-B linkage; and a constitutional unit represented by the following formula and a constitutional unit represented by the following formula: [Chemical Formula 2] Formula BO 3/2 where, in Formula, R 1 and R 2 each independently represent any of structures represented by the following formulas to: where, in the formulas to, R 3 to R 7, R 10 to R 14, R 19, R 20, R 25 and R 26 each independently represent a hydrogen atom, an alkyl group having 1 to 4 carbon atom(s), a hydroxyl group, a carboxyl group or an amino group; R 8, R 9, R 15 to R 18, R 23, R 24 and R 29 to R 32 each independently represent a hydrogen atom or an alkyl group having 1 to 4 carbon atom(s); R 21, R 22, R 27 and R 28 each independently represent a hydrogen atom or an alkoxyl group or alkyl group having 1 to 4 carbon atom(s); n, m, 1, q, s and t each independently represent an integer of 1 to 8, p and r each independently represent an integer of 4 to 12, and x and y each independently represent 0 or 1; and an asterisk * and a double asterisk ** each represent the position of bonding with the silicon atom and oxygen atom, respectively, in the formula.
A programmable logic controller, configured for connecting to external equipment through a communication interface device, and the programmable logic controller comprising: a memory, containing a user program and a setting document, wherein the user program is configured to record both of a command for the communication interface device and command target information thereof, wherein the command target information comprises a device type, an identity and a port number of the communication interface device and wherein the command for the communication interface device is a communication command to be transmitted between the programmable logic controller and the external equipment through the communication interface device, and the setting document is configured to save address information corresponding to the command target information, wherein the address information indicates a connector of a coupler unit, a connector of the programmable logic controller or a slot of the programmable logic controller which the communication interface device connects to; and a processor, reading the user program and the setting document to execute the command for the communication interface device. a memory, containing a user program and a setting document, wherein the user program is configured to record both of a command for the communication interface device and command target information thereof, wherein the command target information comprises a device type, an identity and a port number of the communication interface device and wherein the command for the communication interface device is a communication command to be transmitted between the programmable logic controller and the external equipment through the communication interface device, and the setting document is configured to save address information corresponding to the command target information, wherein the address information indicates a connector of a coupler unit, a connector of the programmable logic controller or a slot of the programmable logic controller which the communication interface device connects to; and a processor, reading the user program and the setting document to execute the command for the communication interface device.
An edge ring (324, 424, 524, 526) configured to be raised and lowered relative to a substrate support (300, 400, 500), via one or more lift pins (332, 432, 532), in a substrate processing system, such that the edge ring has a tunable range, wherein the edge ring is further configured to interface with a guide feature (348, 460, 540) extending upward from a bottom ring and/or a middle ring of the substrate support during tuning of the edge ring, the edge ring comprising: an upper surface; an annular inner diameter; an annular outer diameter; a lower surface; and an annular groove (356, 468, 548) arranged in the lower surface of the edge ring to interface with the guide feature, wherein walls of the annular groove are substantially vertical, wherein a depth of the groove is at least 50% of a thickness of the edge ring and the depth of the groove is selected according to a tunable range of the edge ring. an upper surface; an annular inner diameter; an annular outer diameter; a lower surface; and an annular groove (356, 468, 548) arranged in the lower surface of the edge ring to interface with the guide feature, wherein walls of the annular groove are substantially vertical,
A process for preparing a compound of formula wherein R is hydrogen, benzyl and an optionally branched (C 1 -C 6)-alkyl group and R 1 is a (C 1 -C 4)-alkoxy-(C 1 -C 4)-alkyl group; or a lactone derivative thereof of formula wherein R 1 is defined above which comprises a. reacting a compound of formula wherein R 1 is defined above and R 2 is hydrogen, carboxy, cyano and alkoxy-carbonyl; with a compound of formula wherein R is defined above; in the presence of a basic species or a catalyst; b. optionally lactonizing a compound of formula Ia into a compound of formula Ib. a. reacting a compound of formula wherein R 1 is defined above and R 2 is hydrogen, carboxy, cyano and alkoxy-carbonyl; with a compound of formula wherein R is defined above; in the presence of a basic species or a catalyst; b. optionally lactonizing a compound of formula Ia into a compound of formula Ib.