mhurhangee/ep-ind-claims huggingface dataset:
A method of playback of a video stream comprising: receiving, by a content server, from a first user device first media content associated with said video stream; associating with said first media content a time stamp indicating the time (T 1, T 2, T 3) at which said first media content is received with respect to a reference time (T 0) associated with the start of said video stream; and during delayed playback of said video stream on a second user device, transmitting, by the content server, at the time indicated by said time stamp, said first media content for display by said second user device; and during said delayed playback prior to transmission of said first media content, receiving, periodically, at the content server, from said second user device a request for media content along with an indication of a current runtime of said video stream on said second user device, wherein said media content is one of: one or more comments entered via an input module of said first user device; one or more images captured by said first user device; one or more sounds captured by said first user device; and a comment entered on a social networking website via said first user device. receiving, by a content server, from a first user device first media content associated with said video stream; associating with said first media content a time stamp indicating the time (T 1, T 2, T 3) at which said first media content is received with respect to a reference time (T 0) associated with the start of said video stream; and during delayed playback of said video stream on a second user device, transmitting, by the content server, at the time indicated by said time stamp, said first media content for display by said second user device; and during said delayed playback prior to transmission of said first media content, receiving, periodically, at the content server, from said second user device a request for media content along with an indication of a current runtime of said video stream on said second user device, wherein said media content is one of: one or more comments entered via an input module of said first user device; one or more images captured by said first user device; one or more sounds captured by said first user device; and a comment entered on a social networking website via said first user device. one or more comments entered via an input module of said first user device; one or more images captured by said first user device; one or more sounds captured by said first user device; and a comment entered on a social networking website via said first user device.
A base station apparatus comprising: measuring means for carrying out a measurement of a radio signal coming from an adjacent cell while suspending at least one of radio transmission to and radio reception from a mobile station; and characterised by transmitting means for transmitting first information about an execution of the measurement to the mobile station. measuring means for carrying out a measurement of a radio signal coming from an adjacent cell while suspending at least one of radio transmission to and radio reception from a mobile station; and characterised by transmitting means for transmitting first information about an execution of the measurement to the mobile station.
A method for profile handling of a communications device, the method being performed by a local profile assistant of a proxy device, the method comprising: obtaining an indication of handling a profile of the communications device; establishing a first secure communications link with a local profile assistant of the communications device; establishing a second secure communications link with a subscription management entity of the communications device; receiving information pertaining to handling of the profile by the local profile assistant of the communications device, the information being received from the subscription management entity over the second secure communications link; providing the information to the local profile assistant of the communications device over the first secure communications link; and the method being characterised in that it comprises providing (S120a) an InstallBPP message to the communications device, wherein the InstallBPP message comprises the profile but lacks transaction ID. obtaining an indication of handling a profile of the communications device; establishing a first secure communications link with a local profile assistant of the communications device; establishing a second secure communications link with a subscription management entity of the communications device; receiving information pertaining to handling of the profile by the local profile assistant of the communications device, the information being received from the subscription management entity over the second secure communications link; providing the information to the local profile assistant of the communications device over the first secure communications link; and the method being characterised in that it comprises providing (S120a) an InstallBPP message to the communications device, wherein the InstallBPP message comprises the profile but lacks transaction ID.
Pneumatic vehicle tyre for passenger cars, with a tread, sidewalls and a tyre tread pattern comprising individual tread bars, wherein the tread bars are separated from one another by a number of circumferential grooves running around in the circumferential direction and by a multiplicity of transverse grooves, wherein a wedge-shaped tread bar (4, 11) is arranged substantially symmetrically to two adjacent tread bars (5, 6), wherein the wedge-shaped tread bar (4, 11) projects with the arrow-shaped point centrally into the adjacent tread bars (5, 6), wherein the wedge-shaped tread bar (4, 11) and the two adjacent tread bars (5, 6) are separated from one another by way of a Y-shaped sipe in the circumferential direction of the vehicle tyre, characterized in that during a braking or accelerating operation, the wedge-shaped tread bar (4, 11) comes into contact with the two adjacent tread bars (5, 6) and pushes these adjacent tread bars (5, 6) apart transversely to the circumferential direction, whereby the adjacent tread bars (5, 6) are supported in each case on two laterally supporting tread elements (9, 10, 12) and a stiffening of the tyre tread pattern is thereby brought about, wherein the width of the Y-shaped sipe is between about 0.6 and 2 mm, wherein the distance between the adjacent tread bars (5, 6) and the laterally supporting tread elements (9, 10, 12) is in each case a maximum of 5 mm, wherein the laterally supporting tread elements take the form of individual supporting bars, which are separated from one another by transverse grooves, and wherein the supporting bars have a laterally arranged sloping flank.
A method for balancing electric consumption generated by a plurality of electric loads, the method comprising following steps: - actuating a scheduling of electric consumption in accordance with a determined strategy, - estimating an absorbed energy (E k) by the loads in a predetermined time interval, and - if a value of the estimation of absorbed energy (E k) by the loads is not within an interval defined by a minimum (THR k,min) and a maximum (THR k,max) consumption threshold, - calculating a quantity of energy to be varied in accordance with a difference (Δ h) between the value of the estimation of the absorbed energy (E k) and an expected value of energy (THR k,exp), - verifying the effects of the scheduling of electric consumption by means of the calculation of a difference between the effects of the scheduling in action and a theoretical forecast of the effects, - if the calculated difference is greater than a margin of tolerance, - determining available actions and corresponding variations (Vr i) of energy which can be supplied to the loads, - determining a new strategy comprising at least one of the determined actions (Vr i) to be carried out to vary the energy supplied to the single loads, with an aim of reducing the difference (Δ h) between the estimated absorbed energy (E k) and the expected value (THR k,exp) thereof, - actuating a scheduling of electric consumption in accordance with the new determined strategy. - actuating a scheduling of electric consumption in accordance with a determined strategy, - estimating an absorbed energy (E k) by the loads in a predetermined time interval, and - if a value of the estimation of absorbed energy (E k) by the loads is not within an interval defined by a minimum (THR k,min) and a maximum (THR k,max) consumption threshold, - calculating a quantity of energy to be varied in accordance with a difference (Δ h) between the value of the estimation of the absorbed energy (E k) and an expected value of energy (THR k,exp), - verifying the effects of the scheduling of electric consumption by means of the calculation of a difference between the effects of the scheduling in action and a theoretical forecast of the effects, - if the calculated difference is greater than a margin of tolerance, - determining available actions and corresponding variations (Vr i) of energy which can be supplied to the loads, - determining a new strategy comprising at least one of the determined actions (Vr i) to be carried out to vary the energy supplied to the single loads, with an aim of reducing the difference (Δ h) between the estimated absorbed energy (E k) and the expected value (THR k,exp) thereof, - actuating a scheduling of electric consumption in accordance with the new determined strategy.
Process for preparing vinyl acetate-ethylene copolymers in the form of aqueous dispersions by means of radically initiated emulsion polymerization in a continuously operated tubular reactor, characterized in that one or more dividing plates bearing liquid-permeable openings are mounted in the tubular reactor transverse to the flow direction of the reactor contents.
A biometric information detecting apparatus comprising: a band unit; a case unit that is attached to the band unit; a sensor unit that is provided in the case unit; and a processing unit that is provided in the case unit and detects biometric information based on a detection signal from the sensor unit, wherein the band unit includes an inner surface having a first curved surface shape on a side thereof that faces a test object when wearing the biometric information detecting apparatus, the case unit includes an outer surface having a second curved surface shape that faces the inner surface of the band unit, and a circuit board on which the processing unit is mounted and a sensor substrate on which the sensor unit is mounted are provided in the case unit, characterized in that: a shock absorber is provided between the circuit board and the sensor substrate. a band unit; a case unit that is attached to the band unit; a sensor unit that is provided in the case unit; and a processing unit that is provided in the case unit and detects biometric information based on a detection signal from the sensor unit, wherein the band unit includes an inner surface having a first curved surface shape on a side thereof that faces a test object when wearing the biometric information detecting apparatus, the case unit includes an outer surface having a second curved surface shape that faces the inner surface of the band unit, and a circuit board on which the processing unit is mounted and a sensor substrate on which the sensor unit is mounted are provided in the case unit, a circuit board on which the processing unit is mounted and a sensor substrate on which the sensor unit is mounted are provided in the case unit, characterized in that: a shock absorber is provided between the circuit board and the sensor substrate. a shock absorber is provided between the circuit board and the sensor substrate.
A pumping system including a pump, or pumps in a system of pumps, or a system of pumps and a pump controller having a signal processor or processing module, characterized in that the signal processor or processing module is configured to: receive signaling containing information about three corresponding discrete arrays with respect to a discrete motor speed for each of a plurality of positions (C vj) of the pumping system, with j = 1, 2,..., M, at a motor speed, the three corresponding discrete arrays derived from 3D discrete distribution surfaces of motor power, pump differential pressure and flow rate by respective numerical interpolations; determine corresponding signaling containing information to control the pump, or the pumps in a system of pumps, or the system of pumps based upon a pump differential pressure and a flow rate at a motor speed for a motor power value, the pump differential pressure and the flow rate determined using a numerical interpolation of the three corresponding discrete arrays, and the signaling received, and provide the corresponding signaling determined as control signaling to control the pump, or the pumps in a system of pumps, or the system of pumps. receive signaling containing information about three corresponding discrete arrays with respect to a discrete motor speed for each of a plurality of positions (C vj) of the pumping system, with j = 1, 2,..., M, at a motor speed, the three corresponding discrete arrays derived from 3D discrete distribution surfaces of motor power, pump differential pressure and flow rate by respective numerical interpolations; determine corresponding signaling containing information to control the pump, or the pumps in a system of pumps, or the system of pumps based upon a pump differential pressure and a flow rate at a motor speed for a motor power value, the pump differential pressure and the flow rate determined using a numerical interpolation of the three corresponding discrete arrays, and the signaling received, and provide the corresponding signaling determined as control signaling to control the pump, or the pumps in a system of pumps, or the system of pumps.
A method of monitoring a determined wheel speed of a wheel, the method comprising: receiving a first wheel speed value from a first wheel speed sensor, the first wheel speed value being indicative a measured wheel speed of a first wheel of a vehicle; receiving a second wheel speed value from a second wheel speed sensor, the second wheel speed value being indicative of a measured wheel speed of a second wheel of the vehicle; receiving a third wheel speed value from a third wheel speed sensor, the third wheel speed value being indicative of a measured wheel speed of a third wheel of the vehicle; determining an estimated wheel speed value for a fourth wheel of the vehicle based on at least two values selected from a group consisting of the first wheel speed value, the second wheel speed value, and the third wheel speed value; determining a calculated wheel speed value for the fourth wheel based on information received from a transmission output speed sensor; and determining that a fault condition exists based on deviations between the estimated wheel speed value for the fourth wheel and the calculated wheel speed value for the fourth wheel; wherein the estimated and calculated wheel speed values for the fourth wheel do not include any direct measurement of a wheel speed of the fourth wheel. receiving a first wheel speed value from a first wheel speed sensor, the first wheel speed value being indicative a measured wheel speed of a first wheel of a vehicle; receiving a second wheel speed value from a second wheel speed sensor, the second wheel speed value being indicative of a measured wheel speed of a second wheel of the vehicle; receiving a third wheel speed value from a third wheel speed sensor, the third wheel speed value being indicative of a measured wheel speed of a third wheel of the vehicle; determining an estimated wheel speed value for a fourth wheel of the vehicle based on at least two values selected from a group consisting of the first wheel speed value, the second wheel speed value, and the third wheel speed value; determining a calculated wheel speed value for the fourth wheel based on information received from a transmission output speed sensor; and determining that a fault condition exists based on deviations between the estimated wheel speed value for the fourth wheel and the calculated wheel speed value for the fourth wheel; wherein the estimated and calculated wheel speed values for the fourth wheel do not include any direct measurement of a wheel speed of the fourth wheel.
An oxygenator for an extracorporeal ventilation system, the oxygenator comprising a gas passage and a blood passage arranged to allow gas exchange of an oxygenation gas supply with blood via a gas-blood interface, wherein the gas passage leads from a gas inlet zone via the gas-blood interface to a gas exhaust zone, and wherein the blood passage leads from a blood inlet via the gas-blood interface to a blood outlet, wherein the oxygenator comprises a supply gas distribution arrangement allowing the oxygenation gas supply to be modulated differently for different interface regions of the gas-blood interface, wherein the different interface regions are arranged successively in blood flow direction for blood directed through the gas-blood interface to pass each interface region, and wherein the supply gas distribution arrangement comprises a plurality of gas inlet ports each suitable for supplying oxygenation gas to the gas inlet zone, characterized in that the gas-blood interface is uniformly distributed within the blood passage. wherein the oxygenator comprises a supply gas distribution arrangement allowing the oxygenation gas supply to be modulated differently for different interface regions of the gas-blood interface, wherein the different interface regions are arranged successively in blood flow direction for blood directed through the gas-blood interface to pass each interface region, and wherein the supply gas distribution arrangement comprises a plurality of gas inlet ports each suitable for supplying oxygenation gas to the gas inlet zone, characterized in that the gas-blood interface is uniformly distributed within the blood passage.
A hair conditioning composition comprising by weight: (a) from about 0.1% to about 8% of a cationic surfactant; (b) from about 1% to about 15% of a high melting point fatty compound; (c) from about 0.05% to about 6% of a deposition polymer which is a copolymer comprising: a vinyl monomer with a carboxyl group in the structure; and a vinyl monomer expressed by the following formula: CH 2 =C(R 1)-CO-X-(Q-O) r -R 2 wherein: R 1 represents a hydrogen atom or a methyl group; R 2 represents a hydrogen atom or an alkyl group with from 1 to 5 carbon atoms, which may have a substitution group; Q represents an alkylene group with from 2 to 4 carbon atoms which may also have a substitution group; r represents an integer from 2 to 15; and X represents an oxygen atom or an NH group; and, in the following structure - (Q - O) r - R 2, the number of atoms bonded in a straight chain is 70 or less; and wherein the vinyl monomer is contained at a level of from about 10 mass% to about 50 mass%, and the vinyl monomer is contained at level of from about 50 mass% to about 90 mass%; and (d) an aqueous carrier; wherein the mole % of the cationic surfactant to a sum of the cationic surfactant and the high melting point fatty compound is from about 20% to about 60%. (a) from about 0.1% to about 8% of a cationic surfactant; (b) from about 1% to about 15% of a high melting point fatty compound; (c) from about 0.05% to about 6% of a deposition polymer which is a copolymer comprising: a vinyl monomer with a carboxyl group in the structure; and a vinyl monomer expressed by the following formula: CH 2 =C(R 1)-CO-X-(Q-O) r -R 2 wherein: R 1 represents a hydrogen atom or a methyl group; R 2 represents a hydrogen atom or an alkyl group with from 1 to 5 carbon atoms, which may have a substitution group; Q represents an alkylene group with from 2 to 4 carbon atoms which may also have a substitution group; r represents an integer from 2 to 15; and X represents an oxygen atom or an NH group; and, in the following structure - (Q - O) r - R 2, the number of atoms bonded in a straight chain is 70 or less; and wherein the vinyl monomer is contained at a level of from about 10 mass% to about 50 mass%, and the vinyl monomer is contained at level of from about 50 mass% to about 90 mass%; and (d) an aqueous carrier; wherein the mole % of the cationic surfactant to a sum of the cationic surfactant and the high melting point fatty compound is from about 20% to about 60%.
A method for decoying an interception and/or jamming system involving generating at least one dummy synchronisation sequence (SYNC F) in a signal to be transmitted that comprises data (D U, T) generated by an application and intended to be transmitted to a receiver, so as to decoy said system, whilst maintaining the synchronisation with a receiver of said transmitted signal, said method comprising the following steps: - defining said dummy synchronisation sequence (SYNC F) and its time and/or frequency position within said signal to be transmitted, the values of the symbols of said dummy sequence and their time and/or frequency positions being different to those of the symbols of a synchronisation sequence (SYNC) that comprises said signal; - estimating the value and the position of the dummy bits (B F) to be inserted into the sequence of data (D U, T) to be transmitted at the input of the transmission chain or of a sub-part of said transmission chain so as to obtain, in the sequence produced at the output of said transmission chain, the predefined value and time position of the symbols of said dummy synchronisation sequence (SYNC F); - inserting said dummy bits (B F) into said sequence of data (D U, T) at the obtained positions. - defining said dummy synchronisation sequence (SYNC F) and its time and/or frequency position within said signal to be transmitted, the values of the symbols of said dummy sequence and their time and/or frequency positions being different to those of the symbols of a synchronisation sequence (SYNC) that comprises said signal; - estimating the value and the position of the dummy bits (B F) to be inserted into the sequence of data (D U, T) to be transmitted at the input of the transmission chain or of a sub-part of said transmission chain so as to obtain, in the sequence produced at the output of said transmission chain, the predefined value and time position of the symbols of said dummy synchronisation sequence (SYNC F); - inserting said dummy bits (B F) into said sequence of data (D U, T) at the obtained positions.