mhurhangee/ep-ind-claims huggingface dataset:
A shisha device for use with a first cartridge containing an aerosol-generating substrate, wherein the first cartridge comprises a housing surrounding the aerosol-generating substrate, the shisha device comprising: a vessel defining an interior configured to contain liquid and defining an outlet in communication with the interior of the vessel; a first receptacle configured to receive the first cartridge; and a first electrical heating element configured to heat the aerosol-generating substrate in the first cartridge to generate an aerosol when the first cartridge is received by the first receptacle, wherein the first heating element is configured to heat the aerosol-generating substrate to an extent sufficient to generate an aerosol without combusting the aerosol-generating substrate, wherein the first heating element is actuatable from a first position in which the first heating element does not extend into the first receptacle to a second position in which the first heating element extends into the first receptacle, wherein actuation of the first heating element from the first position to the second position causes the first heating element to pierce the first cartridge when the first cartridge is received by the receptacle, wherein insertion of the first cartridge into the first receptacle causes the first heating element to move from the first position to the second position. a vessel defining an interior configured to contain liquid and defining an outlet in communication with the interior of the vessel; a first receptacle configured to receive the first cartridge; and a first electrical heating element configured to heat the aerosol-generating substrate in the first cartridge to generate an aerosol when the first cartridge is received by the first receptacle, wherein the first heating element is configured to heat the aerosol-generating substrate to an extent sufficient to generate an aerosol without combusting the aerosol-generating substrate, wherein the first heating element is actuatable from a first position in which the first heating element does not extend into the first receptacle to a second position in which the first heating element extends into the first receptacle, wherein actuation of the first heating element from the first position to the second position causes the first heating element to pierce the first cartridge when the first cartridge is received by the receptacle, wherein insertion of the first cartridge into the first receptacle causes the first heating element to move from the first position to the second position.
A compound having formula: or a salt, tautomer or stereoisomer thereof, wherein: X is F, Cl, I, B(OR +) 2 or Sn(n-butyl) 3; each R + is independently hydrogen or substituted or unsubstituted C 1-3 alkyl, or each R +, together with the boron atom and the atoms to which they are attached, form a cyclic boronate; R 2 is unsubstituted C 1-8 alkyl or substituted cycloalkyl; and R 3 is H, or a substituted or unsubstituted C 1-8 alkyl; or a compound having formula: or salt, tautomer or stereoisomer thereof, wherein: Hal is a halogen; R is H or C 1-4 alkyl; R 2 is unsubstituted C 1-8 alkyl or substituted cycloalkyl; and R 3 is H, or a substituted or unsubstituted C 1-8 alkyl. X is F, Cl, I, B(OR +) 2 or Sn(n-butyl) 3; each R + is independently hydrogen or substituted or unsubstituted C 1-3 alkyl, or each R +, together with the boron atom and the atoms to which they are attached, form a cyclic boronate; R 2 is unsubstituted C 1-8 alkyl or substituted cycloalkyl; and R 3 is H, or a substituted or unsubstituted C 1-8 alkyl; or a compound having formula: Hal is a halogen; R is H or C 1-4 alkyl; R 2 is unsubstituted C 1-8 alkyl or substituted cycloalkyl; and R 3 is H, or a substituted or unsubstituted C 1-8 alkyl.
A circuit arrangement for operating lamps, in particular for operating one or more LEDs, having: • a circuit which can be supplied with voltage and is clocked by means of at least one switch, and by means of which circuit a transformer for transmitting electrical energy is fed from a primary winding to a secondary winding, wherein the lamps can be supplied with current via the secondary winding of the transformer, and • a control unit for alternatingly activating the switch, wherein the supply voltage (U DC) for the transformer is a rectified, non-smoothed alternating voltage, characterized in that the control unit is designed to adapt the following parameter for controlling the switch, depending on the supply voltage (U DC) for the transformer: the slope of the rising and/or falling edge, wherein the control of the controllable switch takes place via an RC element with an adjustable resistance. • a circuit which can be supplied with voltage and is clocked by means of at least one switch, and by means of which circuit a transformer for transmitting electrical energy is fed from a primary winding to a secondary winding, wherein the lamps can be supplied with current via the secondary winding of the transformer, and • a control unit for alternatingly activating the switch, wherein the supply voltage (U DC) for the transformer is a rectified, non-smoothed alternating voltage, characterized in that the control unit is designed to adapt the following parameter for controlling the switch, depending on the supply voltage (U DC) for the transformer: the slope of the rising and/or falling edge, wherein the control of the controllable switch takes place via an RC element with an adjustable resistance.
A transmitting method for a multi-user transmission in a wireless local area network, comprising: transmitting a high efficiency signal field A, HE SIG A field, and a high efficiency signal field B, HE SIG B field, wherein the HE SIG A field comprises a transmission mode indication field and a #sym HE-SIG B field; the HE SIG B field comprises a user specific field, the user specific field comprises one or more user scheduling information subfields; wherein each of the one or more user scheduling information subfields comprising information of a scheduled station; wherein when an OFDMA transmission mode is indicated by the transmission mode indication field, the #sym HE SIG B field indicates a number of the symbols in the HE SIG B field; when a non-OFDMA transmission mode is indicated by the transmission mode indication field, the #sym HE SIG B field indicates a number of scheduled stations; wherein in the multi-user transmission, the non-OFDMA transmission mode is a full bandwidth MU-MIMO transmission. transmitting a high efficiency signal field A, HE SIG A field, and a high efficiency signal field B, HE SIG B field, wherein the HE SIG A field comprises a transmission mode indication field and a #sym HE-SIG B field; the HE SIG B field comprises a user specific field, the user specific field comprises one or more user scheduling information subfields; wherein each of the one or more user scheduling information subfields comprising information of a scheduled station; wherein when an OFDMA transmission mode is indicated by the transmission mode indication field, the #sym HE SIG B field indicates a number of the symbols in the HE SIG B field; when a non-OFDMA transmission mode is indicated by the transmission mode indication field, the #sym HE SIG B field indicates a number of scheduled stations; wherein in the multi-user transmission, the non-OFDMA transmission mode is a full bandwidth MU-MIMO transmission. wherein when an OFDMA transmission mode is indicated by the transmission mode indication field, the #sym HE SIG B field indicates a number of the symbols in the HE SIG B field; when a non-OFDMA transmission mode is indicated by the transmission mode indication field, the #sym HE SIG B field indicates a number of scheduled stations; wherein in the multi-user transmission, the non-OFDMA transmission mode is a full bandwidth MU-MIMO transmission.
A refrigerator comprising: a cabinet having a storage compartment provided therein; a main door pivotably mounted at the cabinet for opening and closing the storage compartment, the main door including an opening; an auxiliary door disposed at a front of the main door and pivotably mounted at the main door for opening and closing the opening of the main door; a first upper hinge bracket fixed to an upper wall of the cabinet, the first upper hinge bracket including a rotation shaft; and a second upper hinge bracket fixed to an upper portion of the auxiliary door, wherein the second upper hinge bracket including a fastening part fastened to a rear side of the auxiliary door, an extension part extending backward from the fastening part and a rotation shaft vertically formed at an end of the extension part; wherein the rotation shafts (164, 224) of the first upper hinge bracket and the second upper hinge bracket are coupled on an upper portion of the main door; and wherein the rotation shaft of the second upper hinge bracket is positioned more forward toward the auxiliary door than the rotation shaft of the first upper hinge bracket. a cabinet having a storage compartment provided therein; a main door pivotably mounted at the cabinet for opening and closing the storage compartment, the main door including an opening; an auxiliary door disposed at a front of the main door and pivotably mounted at the main door for opening and closing the opening of the main door; a first upper hinge bracket fixed to an upper wall of the cabinet, the first upper hinge bracket including a rotation shaft; and a second upper hinge bracket fixed to an upper portion of the auxiliary door, wherein the second upper hinge bracket including a fastening part fastened to a rear side of the auxiliary door, an extension part extending backward from the fastening part and a rotation shaft vertically formed at an end of the extension part; wherein the rotation shafts (164, 224) of the first upper hinge bracket and the second upper hinge bracket are coupled on an upper portion of the main door; and wherein the rotation shaft of the second upper hinge bracket is positioned more forward toward the auxiliary door than the rotation shaft of the first upper hinge bracket.
A electrode assembly for a battery assembly, the electrode assembly comprising: a first electrode having a first coated portion coated with a first electrode active material and a first uncoated portion; a second electrode having a second coated portion coated with a second electrode active material and a second uncoated portion; a separator interposed between the first and second electrodes (110, 120); a first electrode tab that is coupled to the first uncoated portion of the first electrode; a second electrode tab that is coupled to the second uncoated portion of the second electrode; and at least one lamination layer, 270, 370) positioned to cover all of a surface of a respective one of the uncoated portions of one electrode. wherein the electrode assembly is prepared by stacking the first electrode, the second electrode and the separator and winding into a jelly roll shape, the electrode assembly comprises an inner periphery defined as the portion where the winding starts and an outer periphery defined as the portion where the winding ends, wherein the first electrode tab and the second electrode tab are positioned on the outer periphery of the electrode assembly and the lamination layer is positioned on the inner periphery of the electrode assembly. a first electrode having a first coated portion coated with a first electrode active material and a first uncoated portion; a second electrode having a second coated portion coated with a second electrode active material and a second uncoated portion; a separator interposed between the first and second electrodes (110, 120); a first electrode tab that is coupled to the first uncoated portion of the first electrode; a second electrode tab that is coupled to the second uncoated portion of the second electrode; and at least one lamination layer, 270, 370) positioned to cover all of a surface of a respective one of the uncoated portions of one electrode. wherein the electrode assembly is prepared by stacking the first electrode, the second electrode and the separator and winding into a jelly roll shape, the electrode assembly comprises an inner periphery defined as the portion where the winding starts and an outer periphery defined as the portion where the winding ends, wherein the first electrode tab and the second electrode tab are positioned on the outer periphery of the electrode assembly and the lamination layer is positioned on the inner periphery of the electrode assembly.
A method of range measurement between one or more wireless stations, STAs, and a first access point, AP, the method comprising: synchronizing a clock of the first AP with clocks of one or more synchronized APs; performing, by the first AP, a synchronization session with the one or more STAs; and broadcasting, by the first AP to the one or more STAs, one or more Broadcast time-of-departure, TOD, frames, each of the one or more Broadcast TOD frames including a time of departure of a Broadcast TOD frame from the first AP. synchronizing a clock of the first AP with clocks of one or more synchronized APs; performing, by the first AP, a synchronization session with the one or more STAs; and broadcasting, by the first AP to the one or more STAs, one or more Broadcast time-of-departure, TOD, frames, each of the one or more Broadcast TOD frames including a time of departure of a Broadcast TOD frame from the first AP.
Method for interchanging messages, having the following method steps of: a) receiving a first message having a first digital signature of a first communication partner by means of a second communication partner; b) checking the first digital signature by means of the second communication partner, wherein a first checksum is calculated for the first message for the purpose of checking the first digital signature; c) providing a second checksum for a second message by means of the second communication partner, wherein - the second message is divided into second message parts, - a second subchecksum is formed using the second message parts, apart from a last message part of the second message parts, - the second checksum is formed on the basis of the second subchecksum and taking into account the last message part; d) forming a second digital signature for the second message on the basis of the second checksum by means of the second communication partner; e) calculating a second nonce on the basis of the second subchecksum and taking into account the last message part by means of the second communication partner, wherein - for this calculation, the first checksum is attached to the last message part; f) transmitting the second message having the second digital signature to the first communication partner by means of the second communication partner. a) receiving a first message having a first digital signature of a first communication partner by means of a second communication partner; b) checking the first digital signature by means of the second communication partner, wherein a first checksum is calculated for the first message for the purpose of checking the first digital signature; c) providing a second checksum for a second message by means of the second communication partner, wherein - the second message is divided into second message parts, - a second subchecksum is formed using the second message parts, apart from a last message part of the second message parts, - the second checksum is formed on the basis of the second subchecksum and taking into account the last message part; - the second message is divided into second message parts, - a second subchecksum is formed using the second message parts, apart from a last message part of the second message parts, - the second checksum is formed on the basis of the second subchecksum and taking into account the last message part; d) forming a second digital signature for the second message on the basis of the second checksum by means of the second communication partner; e) calculating a second nonce on the basis of the second subchecksum and taking into account the last message part by means of the second communication partner, wherein - for this calculation, the first checksum is attached to the last message part; - for this calculation, the first checksum is attached to the last message part; f) transmitting the second message having the second digital signature to the first communication partner by means of the second communication partner.
A method of handling a hash-tree based data signature, the method being performed in a client device and comprising: - receiving, from a gateway device, a hash-tree based data signature, wherein the method is characterised by further comprising: - determining, based on the received hash-tree based data signature, a first partial signature, P1, and - using the first partial signature in a verification procedure towards a keyless signature infrastructure, KSI, system for verifying integrity of a data asset., wherein the using comprises: - requesting a second partial signature, P2, from the gateway device, - assembling a data signature based on the first partial signature, P1, and the received second partial signature, P2, and - sending the assembled data signature in a verification request to the gateway device for conveyance to the KSI system. - receiving, from a gateway device, a hash-tree based data signature, wherein the method is characterised by further comprising: - determining, based on the received hash-tree based data signature, a first partial signature, P1, and - using the first partial signature in a verification procedure towards a keyless signature infrastructure, KSI, system for verifying integrity of a data asset., wherein the using comprises: - requesting a second partial signature, P2, from the gateway device, - assembling a data signature based on the first partial signature, P1, and the received second partial signature, P2, and - sending the assembled data signature in a verification request to the gateway device for conveyance to the KSI system. - determining, based on the received hash-tree based data signature, a first partial signature, P1, and - using the first partial signature in a verification procedure towards a keyless signature infrastructure, KSI, system for verifying integrity of a data asset., wherein the using comprises: - requesting a second partial signature, P2, from the gateway device, - assembling a data signature based on the first partial signature, P1, and the received second partial signature, P2, and - sending the assembled data signature in a verification request to the gateway device for conveyance to the KSI system. - requesting a second partial signature, P2, from the gateway device, - assembling a data signature based on the first partial signature, P1, and the received second partial signature, P2, and - sending the assembled data signature in a verification request to the gateway device for conveyance to the KSI system.
Method for the calculation of the working fluid loss in an organic Rankine cycle plant, comprising at least one evaporator, a preheater, a turbine, a condenser, a pump, a collecting well and a process piping, wherein said working fluid, when the plant is stopped, is in part present in known volumes inside the plant and partly drained in at least a storage tank comprising at least three rooms or volumes: - a first volume (Vck) for storing the fluid to be measured, - a second volume (Vc) having a restricted section for measuring the volume of fluid stored in said first volume, - a third volume (Vckd) containing the portion of the fluid already measured, wherein in said method the working fluid loss of the plant is calculated as the difference between the fluid amount measured in two different instants of time. - a first volume (Vck) for storing the fluid to be measured, - a second volume (Vc) having a restricted section for measuring the volume of fluid stored in said first volume, - a third volume (Vckd) containing the portion of the fluid already measured,
Nozzle tip for an injection moulding nozzle for use in an injection moulding tool and for processing a free-flowing substance, comprising a flow channel with an entry opening and an exit opening, a cylindrical first sealing surface formed radially to a longitudinal axis, wherein, taken from the first sealing surface, the diameter of the first sealing surface radial to the longitudinal axis is greater than or equal to the maximum diameter (Dmax1) of the nozzle tip radial to the longitudinal axis in the direction of the entry opening, and an abutment surface which is arranged between the first sealing surface and the exit opening and is oriented transversely to the longitudinal axis and pointing in the direction of the exit opening, characterised by • a coupling means arranged radially to the longitudinal axis for securing the nozzle tip in a mould sprue opening of a mould plate, wherein the coupling means is an external thread or a bayonet means, and wherein the coupling means is arranged between the abutment surface and the exit opening. • a coupling means arranged radially to the longitudinal axis for securing the nozzle tip in a mould sprue opening of a mould plate, wherein the coupling means is an external thread or a bayonet means, and wherein the coupling means is arranged between the abutment surface and the exit opening.
A method of protecting activated silicoaluminophosphate molecular sieve from loss of catalytic activity, comprising contacting the activated silicoaluminophosphate molecular sieve with a gas containing water at a temperature of from 150 °C to 300 °C and water partial pressure effective to maintain a catalytic activity index of at least 0.7, wherein the temperature is less than water critical temperature and the CAI is represented by the formula: CAI = exp f T * f ⁢ PP water n * alpha * t wherein t = time of contact of catalyst with water (hours) T = temperature at contact (°C) PP water = Partial Pressure of water in contact gas (psia) alpha = -0.1 to -0.005 n=2 f T = exp ea ⁢ 1 / T + 273 - 1 / T o + 273 ea = -5500°K T o = 200°C f PP water = 26.2 * PP water / P sat + 1.14 * 0.175, for T ≥ 180°C (453°K) f PP water = 26.2 + 0.272 * 180 - T * PP water / P sat + 1.14 * 0.175, for 180°C (453°K) > T ≥ 150°C (423°K) P sat = Saturation pressure of water at T (psia). t = time of contact of catalyst with water (hours) T = temperature at contact (°C) PP water = Partial Pressure of water in contact gas (psia) alpha = -0.1 to -0.005 n=2 f T = exp ea ⁢ 1 / T + 273 - 1 / T o + 273 ea = -5500°K T o = 200°C f PP water = 26.2 * PP water / P sat + 1.14 * 0.175, for T ≥ 180°C (453°K) f PP water = 26.2 + 0.272 * 180 - T * PP water / P sat + 1.14 * 0.175, for 180°C (453°K) > T ≥ 150°C (423°K) P sat = Saturation pressure of water at T (psia).