mhurhangee/ep-ind-claims huggingface dataset:
An authentication method for a secure data transmission, the method comprising: performing a first authentication protocol by using a first cipher, and performing a second authentication protocol by using a second cipher, and outputting a first seed by the first cipher, characterized by further comprising: generating a first session key based on the first seed, wherein an input for the second authentication protocol is the first session key and wherein the second cipher has a lower security level and a higher performance than the first cipher. performing a first authentication protocol by using a first cipher, and performing a second authentication protocol by using a second cipher, and outputting a first seed by the first cipher, generating a first session key based on the first seed, wherein an input for the second authentication protocol is the first session key and wherein the second cipher has a lower security level and a higher performance than the first cipher.
A method for re-rating a prepaid user in a re-rating management apparatus, the method comprising: receiving from an online charging apparatus a rating information transmission request message comprising a rated call detail record, and extracting the rated call detail record, and receiving from the online charging apparatus an account profile transmission request message comprising a current account profile, and extracting the current account profile, said current account profile comprising a current account balance and a current rating rule; the method further comprising: triggering re-rating and determining a re-rating rule; determining a start point of re-rating, updating the current account profile for the start point of re-rating, called start point account profile, with the re-rating rule, and sending to an offline charging apparatus a start point account profile transmission request comprising the start point account profile for the start point of re-rating; determining call detail records to be re-rated from the start point of re-rating; sending to the offline charging apparatus a re-rating request message comprising one or more call detail records to be re-rated; receiving from the offline charging apparatus a re-rating reply message comprising ore or more re-rated call detail records; and updating the account balance of a corresponding account profile in accordance with the re-rated call detail record, and sending to the online charging apparatus an account profile update request comprising the updated account profile. receiving from an online charging apparatus a rating information transmission request message comprising a rated call detail record, and extracting the rated call detail record, and receiving from the online charging apparatus an account profile transmission request message comprising a current account profile, and extracting the current account profile, said current account profile comprising a current account balance and a current rating rule; triggering re-rating and determining a re-rating rule; determining a start point of re-rating, updating the current account profile for the start point of re-rating, called start point account profile, with the re-rating rule, and sending to an offline charging apparatus a start point account profile transmission request comprising the start point account profile for the start point of re-rating; determining call detail records to be re-rated from the start point of re-rating; sending to the offline charging apparatus a re-rating request message comprising one or more call detail records to be re-rated; receiving from the offline charging apparatus a re-rating reply message comprising ore or more re-rated call detail records; and updating the account balance of a corresponding account profile in accordance with the re-rated call detail record, and sending to the online charging apparatus an account profile update request comprising the updated account profile.
Ultrasonic meter for recording a through-flow rate of a fluid, having a fluid inlet, having a fluid outlet, and having a flow channel which connects the fluid inlet to the fluid outlet, wherein the flow channel has a measurement region which extends in a straight line in a flow direction, wherein, between the measurement region and the fluid outlet, there is arranged a reflection element which can be flowed around by the fluid and by way of which an ultrasonic signal from an ultrasonic transducer, which is arranged on a side wall (8, 18) delimiting the flow cross section of the flow channel, can be reflected into the measurement region or vice versa, wherein, between the measurement region and the reflection element, there is arranged a changeover region of the flow channel, in which changeover region a spacing between a central straight line, running in the flow direction, of the measurement region and the side wall (8, 18) enlarges in a stepwise manner, wherein the changeover region has, in the circumferential direction of the flow channel, several circumferential sections (11, 12, 13, 22, 23, 24) in which the enlargement of the spacing between the central straight line and the side wall (8, 18) takes place or begins at expansion positions (14, 15, 21) which, as viewed in the flow direction, differ from one another, wherein the changeover region is formed as a step diffuser in which the flow cross section of the flow channel increases in size in several steps which follow one another in the flow direction, wherein the individual steps are formed by the enlargement of the spacing between the central straight line and the side wall (8, 18) in one circumferential section (11, 12, 13, 22, 23, 24) in each case or in part of the subsections (11, 12, 13, 22, 23, 24) at a respective one of the expansion positions (14, 15, 21).
A surgical instrument configured to treat the tissue of a patient, comprising: a shaft; a distal head, comprising: a tissue compression surface, and an anvil movable toward the tissue compression surface in order to clamp the patient tissue against the tissue compression surface; and a drive system configured to engage the patient tissue and drive or march said distal head across the patient tissue, said drive system comprising: a first foot and a second foot movably connected by a link, wherein the link is coupled to the first foot at a first pivot joint and the second foot at a second pivot joint; and an input comprising a drive shaft connected to the link at a third pivot joint, wherein the first, second and third pivot joints (4281a, 4281b, 4383) allow the feet (4280a, 4280b) to pivot relative to said distal head, wherein the tissue compression surface is defined on the first and second feet. a shaft; a distal head, comprising: a tissue compression surface, and an anvil movable toward the tissue compression surface in order to clamp the patient tissue against the tissue compression surface; and a tissue compression surface, and an anvil movable toward the tissue compression surface in order to clamp the patient tissue against the tissue compression surface; and a drive system configured to engage the patient tissue and drive or march said distal head across the patient tissue, said drive system comprising: a first foot and a second foot movably connected by a link, wherein the link is coupled to the first foot at a first pivot joint and the second foot at a second pivot joint; and an input comprising a drive shaft connected to the link at a third pivot joint, a first foot and a second foot movably connected by a link, wherein the link is coupled to the first foot at a first pivot joint and the second foot at a second pivot joint; and an input comprising a drive shaft connected to the link at a third pivot joint, wherein the first, second and third pivot joints (4281a, 4281b, 4383) allow the feet (4280a, 4280b) to pivot relative to said distal head, wherein the tissue compression surface is defined on the first and second feet.
An elevator system, comprising: an elevator car; a plurality of belts (32, 34, 36, 38, 40) situated relative to the elevator car such that movement of the belts (32, 34, 36, 38, 40) for causing movement of the elevator car is approximately four times a corresponding movement of the elevator car; a first sheave, a second sheave, a third sheave and a fourth sheave all supported for vertical movement with the elevator car and rotational movement relative to the elevator car; and characterized in that each belt (32, 34, 36, 38, 40) has a portion extending across the elevator car between the first and second sheaves (60, 62) that is vertically aligned and having at least some vertical overlap with another portion of the same belt extending across the elevator car between the third and fourth sheaves (68, 70). an elevator car; a plurality of belts (32, 34, 36, 38, 40) situated relative to the elevator car such that movement of the belts (32, 34, 36, 38, 40) for causing movement of the elevator car is approximately four times a corresponding movement of the elevator car; a first sheave, a second sheave, a third sheave and a fourth sheave all supported for vertical movement with the elevator car and rotational movement relative to the elevator car; and characterized in that each belt (32, 34, 36, 38, 40) has a portion extending across the elevator car between the first and second sheaves (60, 62) that is vertically aligned and having at least some vertical overlap with another portion of the same belt extending across the elevator car between the third and fourth sheaves (68, 70).
A movable rail apparatus for transferring a ship, comprising: a main body supporting the ship placed thereon; a front axle provided under a front portion of the main body, the front axle being provided with wheels which are steerable and adjustable in height; a rear axle provided under a rear portion of the main body, the rear axle being provided with a wheel which can be adjusted in height; a support body with a lift actuator provided on an upper surface of the support body, the lift actuator being connected to a predetermined portion of a lower surface of the main body; a rail configured such that the rail is moved upwards or downwards by upward or downward operation of the lift actuator, characterised in that the support body has a wheel provided under a lower surface thereof, in that the rail is movable forwards or backwards while the wheel of the support body is put into contact with an upper surface of the rail; and further characterised by a drive unit provided at a predetermined position under the main body, the drive unit moving the rail forwards or backwards, support bars, and side actuators provided at opposite sides under the main body, the side actuators moving the corresponding support bars upwards or downwards. a main body supporting the ship placed thereon; a front axle provided under a front portion of the main body, the front axle being provided with wheels which are steerable and adjustable in height; a rear axle provided under a rear portion of the main body, the rear axle being provided with a wheel which can be adjusted in height; a support body with a lift actuator provided on an upper surface of the support body, the lift actuator being connected to a predetermined portion of a lower surface of the main body; a rail configured such that the rail is moved upwards or downwards by upward or downward operation of the lift actuator, characterised in that the support body has a wheel provided under a lower surface thereof, in that the rail is movable forwards or backwards while the wheel of the support body is put into contact with an upper surface of the rail; and further characterised by a drive unit provided at a predetermined position under the main body, the drive unit moving the rail forwards or backwards,
A method for an apparatus, wherein the apparatus is a first station, in the following also referred to as STA, comprising: establishing a wireless communication link between a first station and a second STA in a 6-GHz band; and communicating between the first STA and the second STA in the 6-GHz band using a low-power indoor, in the following also referred to as LPI, long range, in the following also referred to as LR, physical-layer protocol data unit, in the following also referred to as PPDU,, wherein the LPI LR PPDU comprises a legacy preamble, a universal signal field, in the following also referred to as U-SIG, an extreme-high-throughput signal field, in the following also referred to as EHT-SIG, an extreme-high-throughput short training field, in the following also referred to as EHT-STF, an extreme-high-throughput long training field, in the following also referred to as EHT-LTF, and a payload, wherein each of the legacy preamble, U-SIG and EHT-SIG is modulated and duplicated over multiple 20-MHz subchannels for a 80-MHz, 160-MHz or 320-MHz bandwidth over which the LPI LR PPDU is transmitted, and wherein each of the EHT-STF, EHT-LTF and payload is modulated and transmitted on an entirety of the 80-MHz, 160-MHz or 320-MHz bandwidth. establishing a wireless communication link between a first station and a second STA in a 6-GHz band; and communicating between the first STA and the second STA in the 6-GHz band using a low-power indoor, in the following also referred to as LPI, long range, in the following also referred to as LR, physical-layer protocol data unit, in the following also referred to as PPDU,, wherein the LPI LR PPDU comprises a legacy preamble, a universal signal field, in the following also referred to as U-SIG, an extreme-high-throughput signal field, in the following also referred to as EHT-SIG, an extreme-high-throughput short training field, in the following also referred to as EHT-STF, an extreme-high-throughput long training field, in the following also referred to as EHT-LTF, and a payload, wherein each of the legacy preamble, U-SIG and EHT-SIG is modulated and duplicated over multiple 20-MHz subchannels for a 80-MHz, 160-MHz or 320-MHz bandwidth over which the LPI LR PPDU is transmitted, and wherein each of the EHT-STF, EHT-LTF and payload is modulated and transmitted on an entirety of the 80-MHz, 160-MHz or 320-MHz bandwidth.
A system for thermally shielding a portion of a gas turbine shroud assembly, comprising: a shroud seal support formed from a non-ceramic matrix composite material and having a forward wall axially spaced from an aft wall, the forward wall having a front side axially spaced from a back side and a radially inner surface that extends axially between the front and back sides (96, 98), the forward wall further having a radially inner bottom portion; a shroud seal formed from a ceramic matrix composite material and mounted to the shroud seal support, the shroud seal having a leading edge portion that extends towards the forward wall of the shroud seal support and a trailing edge portion that extends towards the aft wall of the shroud seal support, wherein a radial gap is defined between a top surface of the leading edge portion of the shroud seal and the radially inner surface of the forward wall; and a thermal shield formed from a ceramic matrix composite material wherein a first end section at one distal end of the thermal shield is arranged at the radially inner bottom portion of the forward wall, and a second end section at the other distal end of the thermal shield extends to the shroud seal so that the thermal shield at least partially seals the radial gap. a shroud seal support formed from a non-ceramic matrix composite material and having a forward wall axially spaced from an aft wall, the forward wall having a front side axially spaced from a back side and a radially inner surface that extends axially between the front and back sides (96, 98), the forward wall further having a radially inner bottom portion; a shroud seal formed from a ceramic matrix composite material and mounted to the shroud seal support, the shroud seal having a leading edge portion that extends towards the forward wall of the shroud seal support and a trailing edge portion that extends towards the aft wall of the shroud seal support, wherein a radial gap is defined between a top surface of the leading edge portion of the shroud seal and the radially inner surface of the forward wall; and a thermal shield formed from a ceramic matrix composite material wherein a first end section at one distal end of the thermal shield is arranged at the radially inner bottom portion of the forward wall, and a second end section at the other distal end of the thermal shield extends to the shroud seal so that the thermal shield at least partially seals the radial gap.
A method for removal, separation or degradation of one or more persistent organic pollutant(s) (POPs) present in a substrate, the method comprising - provision of a POP-contaminated substrate, - a first reaction stage comprising i. adding to the substrate a basic solution (solution 1), and optionally one or more additives selected from the group comprising a transphase catalyst and a hydrogen peroxide dissociation catalyst, and ii. incubating the substrate with solution 1 and optionally the one or more additives for at least 15 minutes, and - a second reaction stage comprising i. adding to the substrate a hydrogen peroxide solution (solution 2) and optionally one or more additives selected from the group comprising a TPC and a hydrogen peroxide dissociation catalyst, wherein a hydrogen peroxide dissociation catalyst and a TPC are added during the first and/or the second reaction stage. - provision of a POP-contaminated substrate, - a first reaction stage comprising i. adding to the substrate a basic solution (solution 1), and optionally one or more additives selected from the group comprising a transphase catalyst and a hydrogen peroxide dissociation catalyst, and ii. incubating the substrate with solution 1 and optionally the one or more additives for at least 15 minutes, and i. adding to the substrate a basic solution (solution 1), and optionally one or more additives selected from the group comprising a transphase catalyst and a hydrogen peroxide dissociation catalyst, and ii. incubating the substrate with solution 1 and optionally the one or more additives for at least 15 minutes, and - a second reaction stage comprising i. adding to the substrate a hydrogen peroxide solution (solution 2) and optionally one or more additives selected from the group comprising a TPC and a hydrogen peroxide dissociation catalyst, wherein a hydrogen peroxide dissociation catalyst and a TPC are added during the first and/or the second reaction stage. i. adding to the substrate a hydrogen peroxide solution (solution 2) and optionally one or more additives selected from the group comprising a TPC and a hydrogen peroxide dissociation catalyst,
A switching circuit (1041 to 1046) comprising: a first switching element (Q1, Q2); a resistor (11, 21) inserted between a control electrode of the first switching element and an output terminal of a control circuit (13, 23) configured to perform switching control on the first switching element; and a first capacitor (15, 25) and a second switching element (14, 24) connected between the control electrode of the first switching element and a low potential-side electrode of the first switching element, wherein a high potential-side electrode of the second switching element is connected to the control electrode of the first switching element, a low potential-side electrode of the second switching element is connected to one electrode of the first capacitor, the other electrode of the first capacitor is connected to the low potential-side electrode of the first switching element, and a control electrode of the second switching element is connected to an electrode of the resistor, the electrode connected to the control circuit. a first switching element (Q1, Q2); a resistor (11, 21) inserted between a control electrode of the first switching element and an output terminal of a control circuit (13, 23) configured to perform switching control on the first switching element; and a first capacitor (15, 25) and a second switching element (14, 24) connected between the control electrode of the first switching element and a low potential-side electrode of the first switching element, wherein a high potential-side electrode of the second switching element is connected to the control electrode of the first switching element, a low potential-side electrode of the second switching element is connected to one electrode of the first capacitor, the other electrode of the first capacitor is connected to the low potential-side electrode of the first switching element, and a control electrode of the second switching element is connected to an electrode of the resistor, the electrode connected to the control circuit.
A silicone composition comprising: a polyalkylsiloxane and an in situ softening promoter, wherein the polyalkylsiloxane optionally comprises vinyl, hydride, and phenyl functional groups, wherein the in situ softening promoter includes a vinyl group containing silsesquioxane, the vinyl-containing silsesquioxane including R'SiO 3/2 units, wherein R' is a vinyl group, an alkyl group, a phenyl group, or any combination thereof, the in situ softening promoter optionally further including R 2 SiO 2/2 units, R 3 SiO 1/2 units and SiO 4/2 units, wherein R is an alkyl radical, phenyl radical, or any combination thereof, wherein adding the in situ softening promoter decreases the shore A durometer of the cured silicone composition by at least 35%, wherein the cured silicone composition has a shore A durometer of less than 40 when measured following the procedure of ASTM D-2240 and wherein the silicone composition has a viscosity greater than 500 Pa·s when measured on a TA Instrument ARES rotational rheometer at 1 Hz frequency and 25°C. a polyalkylsiloxane and an in situ softening promoter, wherein the polyalkylsiloxane optionally comprises vinyl, hydride, and phenyl functional groups, wherein the in situ softening promoter includes a vinyl group containing silsesquioxane, the vinyl-containing silsesquioxane including R'SiO 3/2 units, wherein R' is a vinyl group, an alkyl group, a phenyl group, or any combination thereof, the in situ softening promoter optionally further including R 2 SiO 2/2 units, R 3 SiO 1/2 units and SiO 4/2 units, wherein R is an alkyl radical, phenyl radical, or any combination thereof, wherein adding the in situ softening promoter decreases the shore A durometer of the cured silicone composition by at least 35%, wherein the cured silicone composition has a shore A durometer of less than 40 when measured following the procedure of ASTM D-2240 and wherein the silicone composition has a viscosity greater than 500 Pa·s when measured on a TA Instrument ARES rotational rheometer at 1 Hz frequency and 25°C.
A sampling tool for sampling a coating formed on either a substrate or an underlying plating film, wherein the sampling tool comprises: a sampler that has a convex sampling surface with a predetermined curvature, wherein the sampling surface has a contact surface that contacts the coating to hold a sampled coating characterised in that the sampling surface has a recess formed on the contact surface; and the surface area of the contact surface is greater than the surface area of the recess. a sampler that has a convex sampling surface with a predetermined curvature, wherein the sampling surface has a contact surface that contacts the coating to hold a sampled coating characterised in that the sampling surface has a recess formed on the contact surface; and the surface area of the contact surface is greater than the surface area of the recess.