mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting data in wireless mesh networks, the method comprising the steps of: establishing a mesh peer link with a mesh point, MP (121, 122, 123); generating an aggregate-medium access control service data unit, A-MSDU, including a plurality of A-MSDU sub-frames; and transmitting the A-MSDU to the MP (121, 122, 123) through the mesh peer link, wherein each of the plurality of A-MSDU sub-frames comprises a sub-frame header unit, a medium access control service data unit, MSDU, unit containing mesh data, and a padding unit for making each of the plurality of A-MSDU sub-frames a multiple of 4 octets in length, wherein the sub-frame header unit comprises a mesh destination address, DA, field containing a medium access control, MAC, address of a destination MP (121, 122, 123) of the mesh data contained in the MSDU unit, a mesh source address, SA, field containing a MAC address of a source MP (121, 122, 123) of the mesh data contained in the MSDU unit, and characterised by the sub-frame header further comprising a mesh header field; wherein the mesh header field comprises a mesh flags subfield, a mesh time-to-live, TTL, subfield, a sequence number subfield and an address extension subfield, the mesh flags subfield including an address extension mode subfield indicating contents of the address extension subfield, the mesh TTL subfield indicating a remaining number of hops that the corresponding A-MSDU sub-frame is forwarded, the sequence number subfield being used for filtering duplicate reception of the corresponding A-MSDU sub-frame, and the address extension subfield is for a mesh address extension of the corresponding A-MSDU sub-frame. establishing a mesh peer link with a mesh point, MP (121, 122, 123); generating an aggregate-medium access control service data unit, A-MSDU, including a plurality of A-MSDU sub-frames; and transmitting the A-MSDU to the MP (121, 122, 123) through the mesh peer link,
Power converter, wherein the power converter comprises an n-phase transformer and a power converter circuit comprising n MMC modules, and the number n is at least three, wherein each MMC module comprises at least two submodules connected in series, wherein each submodule comprises a submodule half-bridge and a submodule capacitance, which is connected in parallel with the submodule half-bridge, wherein each submodule branch (41z, 42z) of each submodule half-bridge comprises in each case one semiconductor switch (41, 42), wherein the MMC modules are connected in series, and in each case an electrical tap is provided between MMC modules which are electrically connected directly to one another, wherein the power converter comprises coupling-out capacitors for feeding electrical energy to the transformer and/or for drawing electrical energy from the transformer, wherein in each case one winding on a first side of the transformer forms a series circuit with in each case one of the coupling-out capacitors, wherein each of the series circuits is connected in parallel with in each case one of the MMC modules, characterized in that only one common electrical feedline to the tap is provided for two series circuits, which are electrically connected to the same tap.
A controller (10; 30; 40; 50) for a floating wind turbine comprising a rotor with a plurality of rotor blades connected to a generator, wherein the controller comprises: an active damping controller (12; 32; 42; 52) for calculating one or more outputs for damping both a first motion of the floating wind turbine in a first frequency range and a second motion of the floating wind turbine in a second frequency range based on an input of the first motion and an input of the second motion, wherein the first motion is a rigid body motion and the second motion is a rigid body motion; wherein the active damping controller comprises a first control loop (16; 36) and a second control loop (18; 38), wherein the first control loop receives the input of the first motion and the second control loop receives the input of the second motion, wherein the active damping controller comprises a low pass filter, wherein a first low pass filter frequency for the first control loop and a second low pass filter frequency for the second control loop is set according to the first frequency range and the second frequency range respectively, and wherein the controller (10; 30; 40; 50) is arranged to calculate an output for controlling a blade pitch of one or more of the plurality of rotor blades and/or for controlling a torque of the generator based on an actual rotor speed, a target rotor speed, and the one or more outputs from the active damping controller such that both the first motion and the second motion will be damped. an active damping controller (12; 32; 42; 52) for calculating one or more outputs for damping both a first motion of the floating wind turbine in a first frequency range and a second motion of the floating wind turbine in a second frequency range based on an input of the first motion and an input of the second motion, wherein the first motion is a rigid body motion and the second motion is a rigid body motion; wherein the active damping controller comprises a first control loop (16; 36) and a second control loop (18; 38), wherein the first control loop receives the input of the first motion and the second control loop receives the input of the second motion, wherein the active damping controller comprises a low pass filter, wherein a first low pass filter frequency for the first control loop and a second low pass filter frequency for the second control loop is set according to the first frequency range and the second frequency range respectively, and wherein the controller (10; 30; 40; 50) is arranged to calculate an output for controlling a blade pitch of one or more of the plurality of rotor blades and/or for controlling a torque of the generator based on an actual rotor speed, a target rotor speed, and the one or more outputs from the active damping controller such that both the first motion and the second motion will be damped.
A metal treatment system comprising: a metal treatment furnace having a furnace entrance for accepting a moving metal sheet, the metal treatment furnace comprising a sensor for measuring an atmospheric temperature within the metal treatment furnace; a fast response heater positionable proximate the furnace entrance to pre-heat the metal sheet, wherein the fast response heater comprises an induction heater or a direct flame impingement heater or, wherein the fast response heater comprises an induction heater and a direct flame impingement heater; a controller coupled to the sensor and the fast response heater to automatically control heat output of the fast response heater using the atmospheric temperature within the metal treatment furnace; and wherein the fast response heater includes a plurality of individual heating elements spaced across the fast response heater to selectively apply heat to individual portions across a width of the metal sheet, and wherein the controller is configured to individually control a heat output of each of the plurality of individual heating elements such that the plurality of individual heating elements selectively pre-heat the metal sheet across the width of the metal sheet. a metal treatment furnace having a furnace entrance for accepting a moving metal sheet, the metal treatment furnace comprising a sensor for measuring an atmospheric temperature within the metal treatment furnace; a fast response heater positionable proximate the furnace entrance to pre-heat the metal sheet, wherein the fast response heater comprises an induction heater or a direct flame impingement heater or, wherein the fast response heater comprises an induction heater and a direct flame impingement heater; a controller coupled to the sensor and the fast response heater to automatically control heat output of the fast response heater using the atmospheric temperature within the metal treatment furnace; and wherein the fast response heater includes a plurality of individual heating elements spaced across the fast response heater to selectively apply heat to individual portions across a width of the metal sheet, and wherein the controller is configured to individually control a heat output of each of the plurality of individual heating elements such that the plurality of individual heating elements selectively pre-heat the metal sheet across the width of the metal sheet.
An anti-BMP9 antagonist antibody for use in a method of treating or preventing a fibrotic disorder in a subject, particularly a human, comprising administering to said subject an effective amount of an anti-BMP9 antibody.
Coil of cutting wire for a vegetation cutting machine, wherein the wire is coiled on itself so as to form at least two temporarily bonded turns and a central void, characterized in that at least a part of the innermost turn of the coil is permanently welded to the most adjacent turn.
A method for releasing an Internet Protocol Address "IP Address" by a packet data network gateway "PGW" in a mobile network, the method comprising: allocating an IPv4 address and an IPv6 address to a User Equipment "UE" to activate a Packet Data Network "PDN" connection between the UE and the PGW; if the UE releases the IPv4 address, transmitting to a serving gateway "SGW" a binding revocation message characterized in that the binding revocation message comprises an indication to release only the IPv4 address from the PDN connection. allocating an IPv4 address and an IPv6 address to a User Equipment "UE" to activate a Packet Data Network "PDN" connection between the UE and the PGW; if the UE releases the IPv4 address, transmitting to a serving gateway "SGW" a binding revocation message characterized in that the binding revocation message comprises an indication to release only the IPv4 address from the PDN connection.
Straddle-type vehicle comprising: a front cover assembly comprising a first front cover and a second front cover disposed rearward of the first front cover; and a headlight installed in the first front cover; wherein a first air inlet is formed in the first front cover, the first air inlet having a first front opening and a first rear opening; and a second air inlet is formed in the second front cover, the second air inlet having a second front opening and a second rear opening for directing cooling air to in-vehicle parts; characterized in that when seen in a front view, the first front opening has a larger opening area than the second rear opening. a front cover assembly comprising a first front cover and a second front cover disposed rearward of the first front cover; and a headlight installed in the first front cover; wherein a first air inlet is formed in the first front cover, the first air inlet having a first front opening and a first rear opening; and a second air inlet is formed in the second front cover, the second air inlet having a second front opening and a second rear opening for directing cooling air to in-vehicle parts; characterized in that when seen in a front view, the first front opening has a larger opening area than the second rear opening.
A method of making a compound of formula or pharmaceutically acceptable salt thereof, comprising the steps of: reacting a compound of formula (A-I) with a borylating agent to form an organoboron intermediate; converting the organoboron intermediate to a compound of Formula (A-III) and hydrolyzing the compound of Formula (A-III) to form the compound of Formula, wherein: R 1 is a carboxylic acid protecting group, optionally wherein R 1 is C 1-6 alkyl, for example wherein R 1 is ethyl; further optionally: (i) wherein the organoboron intermediate has a structure of formula (A-II) wherein R a is OH or optionally substituted -O-C 1-6 alkyl, or (ii) wherein the organoboron intermediate is combined with one or more chiral auxiliaries to form a chiral complex having a structure of formula (A-II') wherein R c and R d with any intervening atoms form an optionally substituted 4-7 membered heterocyclyl ring. reacting a compound of formula (A-I) with a borylating agent to form an organoboron intermediate; converting the organoboron intermediate to a compound of Formula (A-III) and hydrolyzing the compound of Formula (A-III) to form the compound of Formula, wherein: R 1 is a carboxylic acid protecting group, optionally wherein R 1 is C 1-6 alkyl, for example wherein R 1 is ethyl; (i) wherein the organoboron intermediate has a structure of formula (A-II) wherein R a is OH or optionally substituted -O-C 1-6 alkyl, or (ii) wherein the organoboron intermediate is combined with one or more chiral auxiliaries to form a chiral complex having a structure of formula (A-II') wherein R c and R d with any intervening atoms form an optionally substituted 4-7 membered heterocyclyl ring.
An inverted OLED device (15/18), comprising in sequence: a. a substrate; b. a cathode (30/31a,31b) in contact with the substrate; c. second electron-accepting layer including a second electron-deficient organic material constituting more than 50% by volume of the second electron-accepting layer and having a reduction potential greater than -0.5 V vs. a Saturated Calomel Electrode measured by cyclic voltammetry; d. an electron-transporting layer; e. at least one light-emitting layer (50b, 50y); f. a hole-transporting layer; g. a first electron-accepting layer including a first electron-deficient organic material constituting more than 50% by volume of the first electron-accepting layer and having a reduction potential greater than -0.5 V vs. a Saturated Calomel Electrode measured by cyclic voltammetry; and h. an anode; characterized in that if the OLED device is bottom-emitting, the cathode is a transparent conductive oxide, or a combination of a transparent conductive oxide and a metal having a thickness of less than 25 nm and, if the OLED device is top-emitting, the cathode is a transparent conductive oxide, or a combination of a transparent conductive oxide and a metal. a. a substrate; b. a cathode (30/31a,31b) in contact with the substrate; c. second electron-accepting layer including a second electron-deficient organic material constituting more than 50% by volume of the second electron-accepting layer and having a reduction potential greater than -0.5 V vs. a Saturated Calomel Electrode measured by cyclic voltammetry; d. an electron-transporting layer; e. at least one light-emitting layer (50b, 50y); f. a hole-transporting layer; g. a first electron-accepting layer including a first electron-deficient organic material constituting more than 50% by volume of the first electron-accepting layer and having a reduction potential greater than -0.5 V vs. a Saturated Calomel Electrode measured by cyclic voltammetry; and h. an anode; characterized in that if the OLED device is bottom-emitting, the cathode is a transparent conductive oxide, or a combination of a transparent conductive oxide and a metal having a thickness of less than 25 nm and, if the OLED device is top-emitting, the cathode is a transparent conductive oxide, or a combination of a transparent conductive oxide and a metal.
Fire detector, which has - a detection unit working on the optical scattered-light principle, - an electronic evaluation unit, - a detector (5, 6) for outputting an acoustic and/or optical alarm (AA, OA) when a fire is detected, - an energy store, in particular a battery, for the autarkic supply of electrical power to the fire detector, - a voltage measuring unit for measuring a battery voltage (U Bat) present at the energy store, - warning means for outputting an acoustic warning if the battery voltage (U Bat) falls below a first voltage threshold (U Low), - a sensor sensitive to ambient light as well as - means for suppressing the output of the acoustic warning if the ambient light falls below a predefinable brightness threshold, characterised in that the detection unit is an open scattered-light detection unit with a detection space situated outside the fire detector and that the sensor sensitive to ambient light is at the same time an optical receiver of the scattered-light detection unit. - a detection unit working on the optical scattered-light principle, - an electronic evaluation unit, - a detector (5, 6) for outputting an acoustic and/or optical alarm (AA, OA) when a fire is detected, - an energy store, in particular a battery, for the autarkic supply of electrical power to the fire detector, - a voltage measuring unit for measuring a battery voltage (U Bat) present at the energy store, - warning means for outputting an acoustic warning if the battery voltage (U Bat) falls below a first voltage threshold (U Low), - a sensor sensitive to ambient light as well as - means for suppressing the output of the acoustic warning if the ambient light falls below a predefinable brightness threshold,
An in-line fuel properties measurement unit for in-line assembly in a fluid flow path, comprising: a compensator section for measuring the permittivity of a fluid, the compensator section including an inner cylinder arranged within an outer cylinder, and being configured to measure a permittivity of fluid passing between the inner and outer cylinders, and a circuit card which has a plurality of tabs, the circuit card being positioned at an end of the compensator section the tabs are exposed to the flow of fuel flowing from or to the space between the inner and outer cylinders, the inner cylinder being attached and electrically connected to a first one of the tabs and the outer cylinder being connected to a second one of the tabs, characterised in that the positioning of the circuit card at an end of the compensator section is such that the tabs are subjected to full pressure and flow of fuel flowing from or to the space between the inner and outer cylinders, the outer cylinder comprises a notch for receiving the first tab so that an air gap is maintained between the outer cylinder and the first tab, and the tabs are spoke-like tabs and. a compensator section for measuring the permittivity of a fluid, the compensator section including an inner cylinder arranged within an outer cylinder, and being configured to measure a permittivity of fluid passing between the inner and outer cylinders, and a circuit card which has a plurality of tabs, the circuit card being positioned at an end of the compensator section the tabs are exposed to the flow of fuel flowing from or to the space between the inner and outer cylinders, the inner cylinder being attached and electrically connected to a first one of the tabs and the outer cylinder being connected to a second one of the tabs, characterised in that the positioning of the circuit card at an end of the compensator section is such that the tabs are subjected to full pressure and flow of fuel flowing from or to the space between the inner and outer cylinders, the outer cylinder comprises a notch for receiving the first tab so that an air gap is maintained between the outer cylinder and the first tab, and the tabs are spoke-like tabs and.
A reproduction method comprising: receiving a visible light signal by a sensor of a terminal device from a transmitter which transmits the visible light signal by a light source changing in luminance; transmitting a request signal for requesting a content associated with the visible light signal, from the terminal device to a server; receiving, by the terminal device, the content including time points and data to be reproduced at the time points, from the server; and reproducing the data included in the content at a time point of a clock included in the terminal device. receiving a visible light signal by a sensor of a terminal device from a transmitter which transmits the visible light signal by a light source changing in luminance; transmitting a request signal for requesting a content associated with the visible light signal, from the terminal device to a server; receiving, by the terminal device, the content including time points and data to be reproduced at the time points, from the server; and reproducing the data included in the content at a time point of a clock included in the terminal device.
A packed body production method for producing a packed body (1, 1a) by packing a layered body of cartons containing paper material, the packed body production method comprising: a first step in which the layered body is formed by stacking the cartons containing paper material and an insertion section (34, 44) into which a fork unit of a forklift is inserted is formed at a predetermined position in the layered body; a second step in which a first packing film (20, 21, 22, 23) is wound spirally around at least side surfaces of the layered body; and a third step in which a second packing film (20, 21, 22, 23) is wound around the layered body so as to completely cover the front side, the rear side, the right side, and the left side of the insertion section (34, 44), wherein in the first step, the cartons are stacked in such a manner that the insertion section (34, 44) is formed at such a position as to enable the layered body to be lifted using the fork unit of the forklift, in the second step, the first packing film (20, 21, 22, 23) is wound around the layered body so as to retain the layered body entirely, and in the third step, the layered body is laid sideways and the second packing film (20, 21, 22, 23) is subsequently wound around the layered body so as to generate such a fixation strength that the layered body does not collapse when the layered body is lifted using the fork unit of the forklift. a first step in which the layered body is formed by stacking the cartons containing paper material and an insertion section (34, 44) into which a fork unit of a forklift is inserted is formed at a predetermined position in the layered body; a second step in which a first packing film (20, 21, 22, 23) is wound spirally around at least side surfaces of the layered body; and a third step in which a second packing film (20, 21, 22, 23) is wound around the layered body so as to completely cover the front side, the rear side, the right side, and the left side of the insertion section (34, 44), wherein in the first step, the cartons are stacked in such a manner that the insertion section (34, 44) is formed at such a position as to enable the layered body to be lifted using the fork unit of the forklift, in the second step, the first packing film (20, 21, 22, 23) is wound around the layered body so as to retain the layered body entirely, and in the third step, the layered body is laid sideways and the second packing film (20, 21, 22, 23) is subsequently wound around the layered body so as to generate such a fixation strength that the layered body does not collapse when the layered body is lifted using the fork unit of the forklift.