mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling the milking by a milking machine, which comprises at least one teat cup having a flexible teat receiving liner arranged inside a teat cup shell, wherein, during milking, a vacuum is applied to a lower part of the interior of the flexible teat receiving liner to draw milk from a teat received therein while the flexible teat receiving liner is periodically opened and collapsed by application of a pulsating massage vacuum between the flexible teat receiving liner and the teat cup shell, said method comprising the steps of: - measuring repeatedly a vacuum level in an upper part of the interior of the flexible teat receiving liner by a pressure sensor; and - depending on said repeatedly measured vacuum level interrupting said periodic opening and collapsing of the flexible teat receiving liner by keeping the flexible teat receiving liner collapsed by operating interrupting means, wherein said method is characterized by the steps of: - receiving the repeatedly measured vacuum level from the pressure sensor by a control device connected to the pressure sensor; - controlling the operation of the interrupting means by the control device, wherein the control device is connected to the interrupting means and comprises a decision algorithm for determining when said periodic opening and collapsing of the flexible teat receiving liner shall be interrupted. - measuring repeatedly a vacuum level in an upper part of the interior of the flexible teat receiving liner by a pressure sensor; and - depending on said repeatedly measured vacuum level interrupting said periodic opening and collapsing of the flexible teat receiving liner by keeping the flexible teat receiving liner collapsed by operating interrupting means, wherein said method is characterized by the steps of: - receiving the repeatedly measured vacuum level from the pressure sensor by a control device connected to the pressure sensor; - controlling the operation of the interrupting means by the control device, wherein the control device is connected to the interrupting means and comprises a decision algorithm for determining when said periodic opening and collapsing of the flexible teat receiving liner shall be interrupted.
An electric power tool, comprising: an electric motor (18; 76) that is adapted to generate a driving force to rotate an object to be driven; a rotation speed detection device (14, 17; 14A, 75) that is adapted to detect a rotation speed of the electric motor (18; 76); a brake device that is adapted to execute braking control to brake the electric motor (18; 76); and a rotation speed-based activation device that is adapted to activate the brake device when a rotation speed detected by the rotation speed detection device (14A, 17; 14A, 75) becomes equal to or less than a specified rotation speed, which is arbitrarily set, after a stop command to shut off an electric current supply to the electric motor (18; 76) is issued. an electric motor (18; 76) that is adapted to generate a driving force to rotate an object to be driven; a rotation speed detection device (14, 17; 14A, 75) that is adapted to detect a rotation speed of the electric motor (18; 76); a brake device that is adapted to execute braking control to brake the electric motor (18; 76); and a rotation speed-based activation device that is adapted to activate the brake device when a rotation speed detected by the rotation speed detection device (14A, 17; 14A, 75) becomes equal to or less than a specified rotation speed, which is arbitrarily set, after a stop command to shut off an electric current supply to the electric motor (18; 76) is issued.
Method for determining the transfer function of a signal processing system from at least two representations I 1 ( x) and I 2 ( x) of an object, which the system has produced from differently scaled input signals stemming from the object, or from a representation I 1 ( x) of a first object and from a representation I 2 ( x) of an object that is geometrically identical to it up to a scale factor, in which through its presence the object changes a physical measured variable depending on location and/or time and through this produces the input signal, in which the method determines the transfer function without knowing a nominal input signal, in which • both representations are transformed into a work space, in which they may be represented as a product of the transfer function with the unknown input signal; • sections of both representations I 1 ( x) and I 2 ( x), which relate to the same area or equivalent areas of the object or objects and therefore go back to the same unknown input signal, are selected; • these sections are expressed in the work space as functions I 1 ( g) and I 2 ( g); • the quotient Q( g)=I 2 ( g)/I 1 ( g) is formed from both these functions, so that the unknown input signal is suppressed and the numerators and denominators contain the transfer function sought with differently scaled arguments; • the course of the transfer function sought is evaluated from the course of the quotient, characterised in that the sections of both representations are selected, in which a similarity measure is optimised, in which the position and extent of the section from the second representation are the free parameters of optimisation. • both representations are transformed into a work space, in which they may be represented as a product of the transfer function with the unknown input signal; • sections of both representations I 1 ( x) and I 2 ( x), which relate to the same area or equivalent areas of the object or objects and therefore go back to the same unknown input signal, are selected; • these sections are expressed in the work space as functions I 1 ( g) and I 2 ( g); • the quotient Q( g)=I 2 ( g)/I 1 ( g) is formed from both these functions, so that the unknown input signal is suppressed and the numerators and denominators contain the transfer function sought with differently scaled arguments; • the course of the transfer function sought is evaluated from the course of the quotient,
A method executed by a computing device (102, 200, 402), the method comprising: storing applications (212, 216, 218) in a computer-readable medium of the computing device (102, 200, 402); associating the applications with respective virtual private networks, VPNs, in configuration data stored in the computer-readable medium, wherein the VPNs are each associated with distinct geographic locations and wherein the configuration data associates at least one of the applications with at least two of the VPNs; determining that a current geographic location of the computing device (102, 200, 402) is within a particular geographic location that is associated with a first VPN of said at least two of the VPNs in the configuration data; in response to determining that the current geographic location of the computing device is within the particular geographic location associated with the first VPN, establishing a connection with the first VPN by the computing device; determining that a first application of said applications to be executed is associated with the first VPN; and binding a communication interface of the first application (212, 216, 218) to the connection with the first VPN. storing applications (212, 216, 218) in a computer-readable medium of the computing device (102, 200, 402); associating the applications with respective virtual private networks, VPNs, in configuration data stored in the computer-readable medium, wherein the VPNs are each associated with distinct geographic locations and wherein the configuration data associates at least one of the applications with at least two of the VPNs; determining that a current geographic location of the computing device (102, 200, 402) is within a particular geographic location that is associated with a first VPN of said at least two of the VPNs in the configuration data; in response to determining that the current geographic location of the computing device is within the particular geographic location associated with the first VPN, establishing a connection with the first VPN by the computing device; determining that a first application of said applications to be executed is associated with the first VPN; and binding a communication interface of the first application (212, 216, 218) to the connection with the first VPN.
A Al-Mg-Si-based, casting aluminum alloy with excellent yield strength comprising by mass, 4-6% of Mg, 3.1-4.5% of Si, 0.5-1% of Mn, 0.1-0.3% ofCr, 0-1-0.4% of Cu, and optionally 0.05-0.3% by mass of Ti, the balance being Al and inevitable impurities.
An apparatus comprising: a receiver that receives a configuration message, wherein the configuration message comprises information that configures one or more gap periods within a transmission period; and a transmitter that transmits data in the transmission period, wherein the receiver further receives a control indication message in the one or more gap periods, wherein the control indication message adjusts a next one or more transmission duration and/or a next one or more gap duration. a receiver that receives a configuration message, wherein the configuration message comprises information that configures one or more gap periods within a transmission period; and a transmitter that transmits data in the transmission period, wherein the receiver further receives a control indication message in the one or more gap periods, wherein the control indication message adjusts a next one or more transmission duration and/or a next one or more gap duration.
Use of a cross-linkable rubber composition as a seal material at an oilfield or gas well in the presence of hydrogen sulfide, wherein the cross-linkable rubber composition comprises a nitrile group-containing copolymer rubber which contains α,β-ethylenically unsaturated nitrile monomer units 10 to 60 wt% and has an iodine value of 120 or less, an α,β-ethylenically unsaturated carboxylic acid metal salt, and an organic peroxide cross-linking agent.
A method of operating a network node in a communication network, the communication network comprising a mobile device, a first base station and a second base station, the first base station having a lower transmission power than the second base station and being located within the coverage area of the second base station, the mobile device being located within an imbalanced region between the first base station and the second base station and being served by the first base station, the method in the network node comprising: configuring the mobile device, the first base station and the second base station such that the mobile device transmits uplink data to the first base station, and the mobile device receives downlink data only from the second base station, wherein, prior to the step of configuring, the second base station is not included in an active set of the mobile device. configuring the mobile device, the first base station and the second base station such that the mobile device transmits uplink data to the first base station, and the mobile device receives downlink data only from the second base station, wherein, prior to the step of configuring, the second base station is not included in an active set of the mobile device.
A stimulator device, comprising: a plurality of electrode nodes, each electrode node configured to be coupled to one of a plurality of electrodes configured to contact a patient's tissue; and stimulation circuitry configured to provide in a single timing channel a sequence of pulses at at least two of the electrode nodes selected to create a stimulation current through the patient's tissue, wherein the stimulation circuitry is configured to form each pulse at the selected electrode nodes with a first phase and a second phase, wherein the first phase at each selected electrode node comprises a plurality of first monophasic sub-phase pulses of a first polarity and separated by gaps during which no current is issued to the tissue, wherein the second phase at each selected electrode node comprises a plurality of second monophasic sub-phase pulses of a second polarity opposite the first polarity and separated by gaps during which no current is issued to the tissue, and wherein at each selected electrode node a first total charge of the plurality of first monophasic sub-phase pulses is equal but opposite a second total charge of the plurality of second monophasic sub-phase pulses, wherein each of the first monophasic sub-phase pulses has the same constant current amplitude, and wherein each of the second monophasic sub-phase pulses has the same constant current amplitude. a plurality of electrode nodes, each electrode node configured to be coupled to one of a plurality of electrodes configured to contact a patient's tissue; and stimulation circuitry configured to provide in a single timing channel a sequence of pulses at at least two of the electrode nodes selected to create a stimulation current through the patient's tissue, wherein the stimulation circuitry is configured to form each pulse at the selected electrode nodes with a first phase and a second phase, wherein the first phase at each selected electrode node comprises a plurality of first monophasic sub-phase pulses of a first polarity and separated by gaps during which no current is issued to the tissue, wherein the second phase at each selected electrode node comprises a plurality of second monophasic sub-phase pulses of a second polarity opposite the first polarity and separated by gaps during which no current is issued to the tissue, and wherein at each selected electrode node a first total charge of the plurality of first monophasic sub-phase pulses is equal but opposite a second total charge of the plurality of second monophasic sub-phase pulses, wherein each of the first monophasic sub-phase pulses has the same constant current amplitude, and wherein each of the second monophasic sub-phase pulses has the same constant current amplitude.
An interior lighting system comprising: an arrangement of lighting panels mounted at least on opposite lateral sides of a window and adjacent to the window for providing lighting visible as luminance at a wall surface around the outside of the window; a light sensor arrangement for sensing the exterior lighting level outside or through the window; and a controller for controlling the lighting delivered by the arrangement of lighting panels in dependence on the sensed exterior lighting level. an arrangement of lighting panels mounted at least on opposite lateral sides of a window and adjacent to the window for providing lighting visible as luminance at a wall surface around the outside of the window; a light sensor arrangement for sensing the exterior lighting level outside or through the window; and a controller for controlling the lighting delivered by the arrangement of lighting panels in dependence on the sensed exterior lighting level.
A method for assessing the state of hair, using a self assessment device, said device comprising a series of rough patches of increasing roughness and which may be contacted by user and compared with the roughness of a hair sample in order to provide an indication to the user as to the relative state of the hair sample, by performing the steps of - contacting a hair sample (step A), and - contacting one or more rough patches on the device (step B) in that order or in reverse order, - optionally repeating step A or step B before - concluding as to which of the rough patches has the most similar roughness to the hair sample, wherein the contacting is by the user's finger. - contacting a hair sample (step A), and - contacting one or more rough patches on the device (step B) in that order or in reverse order, - optionally repeating step A or step B before - concluding as to which of the rough patches has the most similar roughness to the hair sample,
A method for a solid-phase synthesis of a cyanuric acid-6-amino-1,3-dimethyluracil complex zinc salt, wherein comprising a plurality of following steps: mixing cyanuric acid and zinc oxide under a shearing condition to conduct a reaction and obtain zinc cyanurate; mixing the zinc cyanurate with uracil under a shearing condition to conduct a reaction to prepare cyanuric acid-uracil complex zinc salt; wherein the step of mixing the cyanuric acid and the zinc oxide under the shearing condition to conduct the reaction to obtain the zinc cyanurate comprises: placing the cyanuric acid, the zinc oxide and a plurality of oily substances compatible with the PVC into a ball mill for a ball milling treatment, reacting and preparing the zinc cyanurate; and wherein the oily substances compatible with the PVC is an epoxidized soybean oil. mixing cyanuric acid and zinc oxide under a shearing condition to conduct a reaction and obtain zinc cyanurate; mixing the zinc cyanurate with uracil under a shearing condition to conduct a reaction to prepare cyanuric acid-uracil complex zinc salt; wherein the step of mixing the cyanuric acid and the zinc oxide under the shearing condition to conduct the reaction to obtain the zinc cyanurate comprises: placing the cyanuric acid, the zinc oxide and a plurality of oily substances compatible with the PVC into a ball mill for a ball milling treatment, reacting and preparing the zinc cyanurate; and wherein the oily substances compatible with the PVC is an epoxidized soybean oil. placing the cyanuric acid, the zinc oxide and a plurality of oily substances compatible with the PVC into a ball mill for a ball milling treatment, reacting and preparing the zinc cyanurate; and wherein the oily substances compatible with the PVC is an epoxidized soybean oil.
A method effected by a source local content centric network, CCN, protocol, CCNx, node in a mobile CCN, the method comprising: in response to detecting a user equipment, UE, performing a handover, caching a source content among contents directed to the UE; transmitting, to a target local CCNx node, a first request that the target local CCNx node excludes a first content, from transmission from the target local CCNx node to the UE of the contents directed to the UE, wherein the first content has been transmitted to the UE by the source local CCNx node; receiving, from the target local CCNx node, a second request that the source local CCNx node excludes a second content, from transmission from the source local CCNx node to the target local CCNx node of the cached contents directed to the UE, wherein the second content is being cached by the target local CCNx node; and transmitting, to the target local CCNx node, the source content except the second content. in response to detecting a user equipment, UE, performing a handover, caching a source content among contents directed to the UE; transmitting, to a target local CCNx node, a first request that the target local CCNx node excludes a first content, from transmission from the target local CCNx node to the UE of the contents directed to the UE, wherein the first content has been transmitted to the UE by the source local CCNx node; receiving, from the target local CCNx node, a second request that the source local CCNx node excludes a second content, from transmission from the source local CCNx node to the target local CCNx node of the cached contents directed to the UE, wherein the second content is being cached by the target local CCNx node; and transmitting, to the target local CCNx node, the source content except the second content.
An axial flux motor comprising: one or more rotating disks; a stator, having a cavity formed between walls (40a, 40b) and containing therein more than one electro-magnetic coil assemblies, each electro-magnetic coil assembly comprising one pole piece having an axially extending shank portion; first and second radially extending end shoes at ends of said shank portion; and one coil wound around the shank portion, wherein: said end shoes include one or more outer surfaces joined to one or other of said walls (40a, 40b); characterised in that one or both of said first or second shoes further comprise a heat exchange surface (72a1, 72b1) facing the coil such as to define one or more first cooling channels (100a, 100b) between one or both of said heat exchange surface (72a1, 72b1) and said coil; and the motor further includes a second flow channel defined by the spacing of the said coil and adjacent coils. one or more rotating disks; a stator, having a cavity formed between walls (40a, 40b) and containing therein more than one electro-magnetic coil assemblies, each electro-magnetic coil assembly comprising one pole piece having an axially extending shank portion; first and second radially extending end shoes at ends of said shank portion; and one coil wound around the shank portion, wherein: said end shoes include one or more outer surfaces joined to one or other of said walls (40a, 40b); characterised in that one or both of said first or second shoes further comprise a heat exchange surface (72a1, 72b1) facing the coil such as to define one or more first cooling channels (100a, 100b) between one or both of said heat exchange surface (72a1, 72b1) and said coil; and the motor further includes a second flow channel defined by the spacing of the said coil and adjacent coils.
A wireless communication system comprising: a base station; a relay node; and a wireless equipment configured to receive a downlink signal from the base station without the relay node being involved and to transmit an uplink signal to the base station via the relay node; wherein the relay node is configured to transmit a discovery signal to the wireless equipment, in response to which the wireless equipment is configured to transmit a response signal that includes an identifier of the wireless equipment, wherein the base station is configured to control a timing at which the wireless equipment transmits the uplink signal, through communication over the downlink signal, using information relating to first timing advance between the base station and the relay node and information relating to second timing advance between the wireless equipment and the relay node, and wherein the relay node is configured to: receive the response signal to the transmitted discovery signal from the wireless equipment and thus to estimate information relating to the second timing advance between the wireless equipment and the relay node,and transmit the identifier, the information relating to the first timing advance, and the information relating to the second timing advance to the base station. a base station; a relay node; and a wireless equipment configured to receive a downlink signal from the base station without the relay node being involved and to transmit an uplink signal to the base station via the relay node; wherein the relay node is configured to transmit a discovery signal to the wireless equipment, in response to which the wireless equipment is configured to transmit a response signal that includes an identifier of the wireless equipment, wherein the base station is configured to control a timing at which the wireless equipment transmits the uplink signal, through communication over the downlink signal, using information relating to first timing advance between the base station and the relay node and information relating to second timing advance between the wireless equipment and the relay node, and wherein the relay node is configured to: receive the response signal to the transmitted discovery signal from the wireless equipment and thus to estimate information relating to the second timing advance between the wireless equipment and the relay node,and transmit the identifier, the information relating to the first timing advance, and the information relating to the second timing advance to the base station. receive the response signal to the transmitted discovery signal from the wireless equipment and thus to estimate information relating to the second timing advance between the wireless equipment and the relay node,and transmit the identifier, the information relating to the first timing advance, and the information relating to the second timing advance to the base station.