mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising, as an active ingredient, one or more species of Lactobacillus, one or more species of Bifidobacterium and a Streptococcus or Leuconostoc species, in a capsule, tablet, dry powder, food or beverage, for use in a method for preventing or ameliorating obesity or an obesity-related condition.
A method comprising: transmitting , by a user terminal to a state server , a request for state change information of a service provided by a master server to the user terminal, wherein the state server is another server other than the master server , and wherein the master server signals changes in state information to the state server ; receiving , by the user terminal , an indication of said state change information from the state server ; and using , by the user terminal , said received indication to determine whether or not to suppress a polling relating to said service of the master server . transmitting , by a user terminal to a state server , a request for state change information of a service provided by a master server to the user terminal, wherein the state server is another server other than the master server , and wherein the master server signals changes in state information to the state server ; receiving , by the user terminal , an indication of said state change information from the state server ; and using , by the user terminal , said received indication to determine whether or not to suppress a polling relating to said service of the master server .
Gearwheel pairing for a transmission, with a first gearwheel and with a second gearwheel which is in engagement with the first gearwheel , the first gearwheel being manufactured from a material which is less elastic and/or less soft in comparison with the second gearwheel , characterized in that the first gearwheel and the second gearwheel have different setpoint normal engagement pitches.
A cork-based infill mixture for an artificial turf system , wherein the infill mixture comprises a predominance of cork particulates and a quantity of smooth, hard granules interspersed between the particulates to prevent compaction of the cork particulates, wherein the cork particulates have irregular shapes, wherein the material of the granules has a hardness of at least Shore D 40, wherein the granules have a surface for which the frictional coefficient is less than 0.5, the frictional coefficient being a static frictional coefficient measured for two surfaces of the same material in contact according to ASTM G115 - 10 , and wherein the granules have a mean size which is larger than the mean particulate size of the cork particulates.
A motor controller configured to control movement of a motor to a mechanical end position, the motor controller comprising: a motor output configured to control an amount of energy being supplied to the motor ; a motor input configured to measure a back electromotive force, EMF, voltage over the motor ; and a control unit being configured to control the amount of energy being supplied on the motor output based on back EMF measurements from the motor input when the motor output is in a state of not supplying energy to the motor characterized in that the control unit is configured to detect an end position of the motor based on changes of back EMF measurements. a motor output configured to control an amount of energy being supplied to the motor ; a motor input configured to measure a back electromotive force, EMF, voltage over the motor ; and a control unit being configured to control the amount of energy being supplied on the motor output based on back EMF measurements from the motor input when the motor output is in a state of not supplying energy to the motor characterized in that the control unit is configured to detect an end position of the motor based on changes of back EMF measurements.
A polymer composition comprising: (a) a first ethylene-α-olefin copolymer and (b) a second ethylene-α-olefin copolymer, wherein (c) the first ethylene-α-olefin copolymer (a) has an ethylene content from about 60 to about 80 wt%; (d) the second ethylene-α-olefin copolymer (b) has an ethylene content of less than about 60 wt%; (e) the first ethylene-α-olefin copolymer (a) has a Melt Flow Rate Ratio (MFRR), defined as the ratio of the MFR measured at 230°C/21.6 kg and at 230°C/2.16 kg, of greater than 34 and has a Melt Flow Rate (MFR) of 2.5 to 5.5 g/10 min measured by ASTM D 1238 condition L (230°C/2.16 kg), and (f) the blend of the first ethylene-α-olefin copolymer and the second ethylene-α-olefin copolymer has a MFRR of 33-37. (a) a first ethylene-α-olefin copolymer and (b) a second ethylene-α-olefin copolymer, wherein (c) the first ethylene-α-olefin copolymer (a) has an ethylene content from about 60 to about 80 wt%; (d) the second ethylene-α-olefin copolymer (b) has an ethylene content of less than about 60 wt%; (e) the first ethylene-α-olefin copolymer (a) has a Melt Flow Rate Ratio (MFRR), defined as the ratio of the MFR measured at 230°C/21.6 kg and at 230°C/2.16 kg, of greater than 34 and has a Melt Flow Rate (MFR) of 2.5 to 5.5 g/10 min measured by ASTM D 1238 condition L (230°C/2.16 kg), and (f) the blend of the first ethylene-α-olefin copolymer and the second ethylene-α-olefin copolymer has a MFRR of 33-37.
A system of elements configured to interlock as a refractory metal core assembly configurable in a die for forming a seal slot having a curved trailing edge portion in a turbine vane shroud assembly, said system comprising a first element having a longitudinally extending slot and a second element having a longitudinally extending slot for receiving a portion of said first element so that the first element and the second element interlock, characterised in that said second element has a planar portion and a non-planar portion comprising a curved portion adjacent said planar portion , wherein said curved portion is configured in a shape to form a curved trailing edge portion of a said seal slot .
A laundry composition comprising 0.01 to 5 w.t. % anionic silicone and a perfume, wherein the anionic groups on the anionic silicone are located in pendent positions on the silicone and the anionic silicone and perfume are pre-mixed prior to addition to the base laundry composition.
A system for an elevator, comprising: an energy exchanger coupled to the at least one battery ; an energy storage device coupled to the energy exchanger ; wherein the energy exchanger is configured to enable bi-directional power flow between the battery and the energy storage device, and is further configured to let a DC bus float between a first voltage and a second voltage; wherein the energy storage device is configured to provide energy to the elevator when demand for energy by the elevator exceeds a threshold; wherein the energy storage device is configured to recapture energy that is not recaptured by the at least one battery during a run of the elevator; and wherein the energy storage device is configured to charge from the at least one battery when the energy storage device discharges beyond a threshold. characterized in that the system comprises at least one lead acid battery ; wherein the battery is configured to provide a majority of energy required by a load; and the energy storage device is configured to provide any deficiency in power in a peak shaving way. an energy exchanger coupled to the at least one battery ; an energy storage device coupled to the energy exchanger ; wherein the energy exchanger is configured to enable bi-directional power flow between the battery and the energy storage device, and is further configured to let a DC bus float between a first voltage and a second voltage; wherein the energy storage device is configured to provide energy to the elevator when demand for energy by the elevator exceeds a threshold; wherein the energy storage device is configured to recapture energy that is not recaptured by the at least one battery during a run of the elevator; and wherein the energy storage device is configured to charge from the at least one battery when the energy storage device discharges beyond a threshold. characterized in that the system comprises at least one lead acid battery ; wherein the battery is configured to provide a majority of energy required by a load; and the energy storage device is configured to provide any deficiency in power in a peak shaving way.
A turbine ring comprising: a cylindrical support ; and one or more sectors forming a circle configured to define a segment of an air passage, each sector being fastened to the support by an attachment device ; wherein the attachment device comprises a hook portion belonging to the support and projecting towards the sector , and a hook portion belonging to the sector and projecting towards the support , the hook portions of the support and of the sector being configured to co-operate in order to fasten the sector to the support ; the ring being characterized in that it further comprises a damper device provided within the attachment device and stressed radially between a portion of the sector and a portion of the support so as to damp relative movements between the sector and the support ; and in that the damper device comes into contact in alternation, in the circumferential direction, with the inner surface of the support and with the outer surface of the hook portion of the sector . a cylindrical support ; and one or more sectors forming a circle configured to define a segment of an air passage, each sector being fastened to the support by an attachment device ; wherein the attachment device comprises a hook portion belonging to the support and projecting towards the sector , and a hook portion belonging to the sector and projecting towards the support , the hook portions of the support and of the sector being configured to co-operate in order to fasten the sector to the support ; the ring being characterized in that it further comprises a damper device provided within the attachment device and stressed radially between a portion of the sector and a portion of the support so as to damp relative movements between the sector and the support ; and in that the damper device comes into contact in alternation, in the circumferential direction, with the inner surface of the support and with the outer surface of the hook portion of the sector .
A service data processing method, comprising: receiving (S101), by a server, user speech information collected by a first terminal, and obtaining (S101) a target service operation code according to the user speech information, wherein the first terminal is a screenless terminal device or a terminal device without a character input function, the target service operation code is used for identifying target service operation information; transmitting (S102), by the server, the target service operation code to the first terminal, so that the first terminal plays the target service operation code by using a speech; and receiving (S103), by the server, the speech collected and transmitted by a second terminal, extracting the target service operation code from the speech, searching for (S103) a target execution page corresponding to the target service operation code, and transmitting (S103) the target execution page to the second terminal, so that the second terminal executes a service operation corresponding to the target service operation information in the target execution page, wherein the second terminal is a screened terminal device with the character input function. receiving (S101), by a server, user speech information collected by a first terminal, and obtaining (S101) a target service operation code according to the user speech information, wherein the first terminal is a screenless terminal device or a terminal device without a character input function, the target service operation code is used for identifying target service operation information; transmitting (S102), by the server, the target service operation code to the first terminal, so that the first terminal plays the target service operation code by using a speech; and receiving (S103), by the server, the speech collected and transmitted by a second terminal, extracting the target service operation code from the speech, searching for (S103) a target execution page corresponding to the target service operation code, and transmitting (S103) the target execution page to the second terminal, so that the second terminal executes a service operation corresponding to the target service operation information in the target execution page, wherein the second terminal is a screened terminal device with the character input function.
A resonator comprising: a resonant chamber , the chamber comprising a first wall , a second wall opposite the first wall, and side walls ; in which the resonant chamber houses two resonator posts , the two resonator posts being separated by a gap and in proximity with each other for magnetic field coupling of the two posts; one of the two posts being grounded on the first wall so as to extend into the chamber from the first wall; the other of the two posts being grounded on the second wall so as to extend into the chamber from the second wall; the resonator further comprising a tuning screw which intrudes into the resonant chamber; characterised in that each of the resonator posts is shaped to have a respective longitudinal channel along its gap-facing surface providing a recess for a body portion of the tuning screw to extend into the gap separating the two resonator posts .
A torque-transmitting device , comprising a torque converter arranged at least in sections within a housing of the torque-transmitting device and having a pump wheel , a turbine wheel and a guide wheel , wherein the guide wheel is connected to a stator shaft rotatable relative to the housing of the torque converter , wherein an actuator is coupled to the stator shaft and is provided for exerting a torque on the guide wheel via the stator shaft , characterized in that a vibration damping device is provided, which is arranged outside the housing of the torque-transmitting device on the transmission side, in that a power branching device is arranged between the torque converter and a transmission input shaft inside the housing of the torque-transmitting device, and in that the vibration damping device is supported on a transmission housing by means of the or a further actuator .
A method for controlling transportation between warehouses, executed by an Automated Guided Vehicle, AGV , in a system for controlling transportation between warehouses, the system further comprising a source Robot Cooperative System, RCS , and a target RCS , wherein the method comprises: receiving, from the source RCS , first transportation information which comprises information of a first to-be-transported object (S101); transporting the first to-be-transported object to a handover area (S102); transferring a control over the AGV from the source RCS to the target RCS ; receiving a location of a first target storage space from the target RCS (S103); and transporting the first to-be-transported object from the handover area to the first target storage space (S104); wherein the handover area is an overlap of an area under the control of the source RCS and an area under the control of the target RCS , and the AGV located in the handover area can be controlled by both the source RCS and the target RCS ; characterized in that transferring the control over the AGV from the source RCS to the target RCS comprises: sending a suspension request to the source RCS (S1031), receiving a first address from the source RCS (S1032), sending a takeover request to a target RCS corresponding to the first address (S1033), and receiving a message of successful takeover from the target RCS (S1034). receiving, from the source RCS , first transportation information which comprises information of a first to-be-transported object (S101); transporting the first to-be-transported object to a handover area (S102); transferring a control over the AGV from the source RCS to the target RCS ; receiving a location of a first target storage space from the target RCS (S103); and transporting the first to-be-transported object from the handover area to the first target storage space (S104); wherein the handover area is an overlap of an area under the control of the source RCS and an area under the control of the target RCS , and the AGV located in the handover area can be controlled by both the source RCS and the target RCS ; characterized in that transferring the control over the AGV from the source RCS to the target RCS comprises: sending a suspension request to the source RCS (S1031), receiving a first address from the source RCS (S1032), sending a takeover request to a target RCS corresponding to the first address (S1033), and receiving a message of successful takeover from the target RCS (S1034). sending a suspension request to the source RCS (S1031), receiving a first address from the source RCS (S1032), sending a takeover request to a target RCS corresponding to the first address (S1033), and receiving a message of successful takeover from the target RCS (S1034).
A recovery vehicle comprising a wrecker for recovering other, disabled vehicles , comprising: a vehicle frame extending along a longitudinal axis, the vehicle frame supporting a travel base assembly carrying a boom with a lift cylinder , wherein the boom can extend or retract, the travel base assembly is capable of moving along the longitudinal axis of the frame, wherein the movements of the travel base assembly and the boom are used in recovering disabled vehicles ; two or more traveler rollers located between the vehicle frame and the travel base assembly ; travel tubes supported by the vehicle frame, wherein the traveller rollers ride along the travel tubes ; the traveler rollers supporting the travel base assembly and facilitating longitudinal movement of the travel base assembly relative to the vehicle frame characterised in each of the traveler rollers comprising a plurality of individual rollers linked by a chain assembly (44/60) and movable about a load-bearing member and along the vehicle frame; and wherein, using the boom , a disabled vehicle may be lifted and moved. a vehicle frame extending along a longitudinal axis, the vehicle frame supporting a travel base assembly carrying a boom with a lift cylinder , wherein the boom can extend or retract, the travel base assembly is capable of moving along the longitudinal axis of the frame, wherein the movements of the travel base assembly and the boom are used in recovering disabled vehicles ; two or more traveler rollers located between the vehicle frame and the travel base assembly ; travel tubes supported by the vehicle frame, wherein the traveller rollers ride along the travel tubes ; the traveler rollers supporting the travel base assembly and facilitating longitudinal movement of the travel base assembly relative to the vehicle frame characterised in each of the traveler rollers comprising a plurality of individual rollers linked by a chain assembly (44/60) and movable about a load-bearing member and along the vehicle frame; and wherein, using the boom , a disabled vehicle may be lifted and moved.
A control device of an internal combustion engine having an ionic current value detection unit that detects an ionic current value during combustion, the control device comprising: an ionic current signal processing unit that performs signal processing of the ionic current value; a detection unit that detects a combustion state of the internal combustion engine based on a processing result by the ionic current signal processing unit ; wherein the ionic current signal processing unit includes a differentiating unit that calculates a differential value of the ionic current value; characterized in the control device further comprising a drive circuit that controls ignition timing of an ignition system of the internal combustion engine based on a vibration strength of the internal combustion engine detected by the detection unit depending on the signal processing of the ionic current value, wherein the ionic current signal processing unit further includes a frequency analyzer that conducts frequency analysis of the differential value, and an operation unit that calculates the vibration strength by integrating, among analysis results sent from the frequency analyzer , the signal level of a knocking frequency band. an ionic current signal processing unit that performs signal processing of the ionic current value; a detection unit that detects a combustion state of the internal combustion engine based on a processing result by the ionic current signal processing unit ; wherein the ionic current signal processing unit includes a differentiating unit that calculates a differential value of the ionic current value; characterized in the control device further comprising a drive circuit that controls ignition timing of an ignition system of the internal combustion engine based on a vibration strength of the internal combustion engine detected by the detection unit depending on the signal processing of the ionic current value, wherein the ionic current signal processing unit further includes a frequency analyzer that conducts frequency analysis of the differential value, and an operation unit that calculates the vibration strength by integrating, among analysis results sent from the frequency analyzer , the signal level of a knocking frequency band.
A method of processing audio content for reproduction by a first apparatus, the method comprising: obtaining (S810, S1010), by the first apparatus, pose information indicative of a position and/or orientation of a user; transmitting (S820, S1020), by the first apparatus, the pose information to a second apparatus that provides the audio content; obtaining (S830a, S1030a), by the second apparatus, predicted pose information based on the pose information and previous pose information; rendering (S830b, S1030b), by the second apparatus, the audio content based on the predicted pose information to obtain the rendered audio content; transmitting (S840, S1040, 51050), by the second apparatus, the predicted pose information to the first apparatus together with the rendered audio content for reproduction; receiving (S840, S1040, S1050), by the first apparatus, the predicted pose information and the rendered audio content; comparing (S1060), by the first apparatus, the predicted pose information to actual pose information; and updating (S1070), by the first apparatus, the rendered audio content based on a result of the comparison; wherein the predicted pose information is obtained further based on an estimate of a time that is necessary for encoding and decoding the rendered audio content and an estimate of a time that is necessary for transmitting the rendered audio content from the second apparatus to the first apparatus. obtaining (S810, S1010), by the first apparatus, pose information indicative of a position and/or orientation of a user; transmitting (S820, S1020), by the first apparatus, the pose information to a second apparatus that provides the audio content; obtaining (S830a, S1030a), by the second apparatus, predicted pose information based on the pose information and previous pose information; rendering (S830b, S1030b), by the second apparatus, the audio content based on the predicted pose information to obtain the rendered audio content; transmitting (S840, S1040, 51050), by the second apparatus, the predicted pose information to the first apparatus together with the rendered audio content for reproduction; receiving (S840, S1040, S1050), by the first apparatus, the predicted pose information and the rendered audio content; comparing (S1060), by the first apparatus, the predicted pose information to actual pose information; and updating (S1070), by the first apparatus, the rendered audio content based on a result of the comparison; wherein the predicted pose information is obtained further based on an estimate of a time that is necessary for encoding and decoding the rendered audio content and an estimate of a time that is necessary for transmitting the rendered audio content from the second apparatus to the first apparatus.