mhurhangee/patent-ind-claim-en huggingface dataset:
An anti-counterfeiting device for verification of the origin of a product when the anti-counterfeiting device is associated with the product, the anti-counterfeiting device comprising: - a supporting element ; - a multifaceted precious stone , arranged at least partially inside said supporting element in such a way that said multifaceted precious stone is in a first predetermined fixed position with respect to said supporting element and has a first part exposed to the outside, said first part comprising at least a first portion of a first facet termed "table" and/or at least a second portion of at least a second facet disposed on a part of said multifaceted precious stone termed "crown" (C); and - lighting means for lighting said multifaceted precious stone , where said lighting means are configured to emit a light radiation and arranged in a second predetermined fixed position with respect to said supporting element and to said multifaceted precious stone in such a way that said light radiation insists on a second part of said multifaceted precious stone , different from said first part, where said second part comprises at least a third portion of at least a third facet arranged on a part of said multifaceted precious stone termed "pavilion" (P) and wherein said lighting means are arranged inside said supporting element . - a supporting element ; - a multifaceted precious stone , arranged at least partially inside said supporting element in such a way that said multifaceted precious stone is in a first predetermined fixed position with respect to said supporting element and has a first part exposed to the outside, said first part comprising at least a first portion of a first facet termed "table" and/or at least a second portion of at least a second facet disposed on a part of said multifaceted precious stone termed "crown" (C); and - lighting means for lighting said multifaceted precious stone , where said lighting means are configured to emit a light radiation and arranged in a second predetermined fixed position with respect to said supporting element and to said multifaceted precious stone in such a way that said light radiation insists on a second part of said multifaceted precious stone , different from said first part, where said second part comprises at least a third portion of at least a third facet arranged on a part of said multifaceted precious stone termed "pavilion" (P) and wherein said lighting means are arranged inside said supporting element .
A laundry treatment apparatus comprising: a cabinet ; a drawer retractably provided in the cabinet ; a tub provided in the drawer and having a space for containing water; a drum rotatably provided in the tub and having a space for containing laundry; a guider comprising: a first body having a first end and a second end, the first end of the first body being rotatably connected to a rear panel of the cabinet , and a second body having a first end and a second end, the first end of the second body being rotatably coupled to the drawer , and the second end of the second body being rotatably coupled to the second end of the first body ; a discharge unit (F) provided on a lower portion of a rear surface of the drawer and configured to discharge water in the tub to the outside of the tub ; a discharge pipe provided on the rear panel of the cabinet and extending through the rear panel of the cabinet toward an outside of the cabinet ; a discharge channel defined by the first body , wherein the discharge channel serves as a part of a water discharge line and the guider guiding a movement of the water discharge line; a first pipe configured to connect the discharge unit (F) and the discharge channel ; and a second pipe configured to connect the discharge channel and the discharge pipe , wherein the second pipe is extensible from the discharge pipe to the first body forming the discharge channel . a cabinet ; a drawer retractably provided in the cabinet ; a tub provided in the drawer and having a space for containing water; a drum rotatably provided in the tub and having a space for containing laundry; a guider comprising: a first body having a first end and a second end, the first end of the first body being rotatably connected to a rear panel of the cabinet , and a second body having a first end and a second end, the first end of the second body being rotatably coupled to the drawer , and the second end of the second body being rotatably coupled to the second end of the first body ; a first body having a first end and a second end, the first end of the first body being rotatably connected to a rear panel of the cabinet , and a second body having a first end and a second end, the first end of the second body being rotatably coupled to the drawer , and the second end of the second body being rotatably coupled to the second end of the first body ; a discharge unit (F) provided on a lower portion of a rear surface of the drawer and configured to discharge water in the tub to the outside of the tub ; a discharge pipe provided on the rear panel of the cabinet and extending through the rear panel of the cabinet toward an outside of the cabinet ; a discharge channel defined by the first body , wherein the discharge channel serves as a part of a water discharge line and the guider guiding a movement of the water discharge line; a first pipe configured to connect the discharge unit (F) and the discharge channel ; and a second pipe configured to connect the discharge channel and the discharge pipe , wherein the second pipe is extensible from the discharge pipe to the first body forming the discharge channel .
A vaccine consisting of: a) determinant 'a' of the HBsAg protein of the HBV virus, subtype adw2, encoded by the following sequence: b) and region 412-425 of the E2 envelope glycoprotein of the HCV encoded by the following sequence: 5'-CAACTGATCAACACCAACGGCAGTTGGCACATCAATAGCACG-3'. a) determinant 'a' of the HBsAg protein of the HBV virus, subtype adw2, encoded by the following sequence: b) and region 412-425 of the E2 envelope glycoprotein of the HCV encoded by the following sequence: 5'-CAACTGATCAACACCAACGGCAGTTGGCACATCAATAGCACG-3'.
Method for providing feedback on an input to a user, comprising the steps of: - evaluating the input, - classifying the input and, as a function of the determined class, - modifying an orientation of a surface of a display element displayed on a display unit of a means of locomotion , wherein the modification of the orientation is automatically undone after the input is stopped. - evaluating the input, - classifying the input and, as a function of the determined class, - modifying an orientation of a surface of a display element displayed on a display unit of a means of locomotion , wherein the modification of the orientation is automatically undone after the input is stopped.
A method for preventing offload return of a wireless device , the method comprising, by the wireless device: establishing a first wireless communication session with a first cell , the first cell providing the wireless device with a first wireless signal comprising a first value for a first signal characteristic; establishing a second wireless communication session with a second cell , the second cell replacing the first cell , the second cell providing the wireless device , at the time of establishing the second wireless communication session, with a second wireless signal comprising a second value for the first signal characteristic, the second value less than the first value; and suppressing a handover triggering event to prevent a handover from the second cell back to the first cell , wherein suppressing the handover triggering event comprises sending a suppression message, the suppression message causing a network controller to prevent the handover of the wireless device from the second cell back to the first cell . establishing a first wireless communication session with a first cell , the first cell providing the wireless device with a first wireless signal comprising a first value for a first signal characteristic; establishing a second wireless communication session with a second cell , the second cell replacing the first cell , the second cell providing the wireless device , at the time of establishing the second wireless communication session, with a second wireless signal comprising a second value for the first signal characteristic, the second value less than the first value; and suppressing a handover triggering event to prevent a handover from the second cell back to the first cell , wherein suppressing the handover triggering event comprises sending a suppression message, the suppression message causing a network controller to prevent the handover of the wireless device from the second cell back to the first cell .
An expanding and radiative flow mechanism combined with a to-be-adsorbed object, wherein the mechanism has a bottom surface, the bottom surface is provided with a fluid supply port, the bottom surface of the mechanism and a surface of the to-be-adsorbed object configured to form a gap between themselves for adsorbing the to-be-adsorbed object to the mechanism with a fluid flowing out from the fluid supply port, entering the gap and flowing out along the gap, and the gap is an expanding gap, wherein a radial length exists with the fluid supply port as an initial point the flow, and a height of the gap continuously increases in an outward radial direction within the radial length, characterized in that an inner side of the bottom surface, within the radial length, is a conical or arc-shaped surface, wherein the height of the gap keeps unchanged in the outward radial direction beyond the radial length, wherein an expanding and radiative flow is formed between the conical or arc-shaped surface and the to-be-adsorbed surface, and the radial length is 10 or more times a height of the gap at a fluid inlet of the expanding gap.
A coupling plug , in particular for a kingpin, comprising a first coupling part , a second coupling part and a third coupling part , wherein the second coupling part is arranged at least partially within the first coupling part and the third coupling part is arranged at least partially within the second coupling part , wherein the coupling parts extend coaxially to a first axis (R) in the area of their overlap, wherein a first pressure chamber (D 1 ) is formed between the first coupling part and the second coupling part , wherein a second pressure chamber (D 2 ) is formed between the second coupling part and the third coupling part , wherein the third coupling part is hollow and forms a third pressure chamber (D 3 ), wherein in a first plug area (A 1 ) of the coupling plug at least the first and third coupling parts are designed for fluid-tight connection to a fluid pressure system of a trailer (H), wherein in a second plug area (A 2 ) of the coupling plug at least the first and the third coupling part are designed for connection to a coupling receptacle , characterized in that the second pressure chamber (D 2 ) in the area of the first plug area (A 1 ) is closed in a fluid-tight manner or opens into the environment or is connected to a leakage monitor .
Fuel cell vehicle comprising a fuel cell unit, an electric drive unit, a thermal circuit and a fuel cell vehicle thermal system for thermal management of heat exchanged between an electrochemical fuel cell unit, the electric drive unit and the thermal circuit , the thermal circuit comprising: a fuel cell thermal loop having a pump for circulating a fuel cell coolant between a thermal fuel cell section for thermal conditioning of the fuel cell unit and a fuel cell heat exchanger ; and a drive thermal loop having a pump for circulating a drive coolant between a thermal drive section for thermal conditioning of the electric drive unit and a drive heat exchanger ; characterized by further comprising an ambient thermal loop having a pump for circulating an ambient coolant between at least the fuel cell heat exchanger , the drive heat exchanger and an ambient heat exchanger ; wherein the fuel cell heat exchanger is a liquid to liquid heat exchanger arranged between the fuel cell thermal loop and the ambient thermal loop for exchanging heat between the fuel cell coolant and the ambient coolant; the drive heat exchanger is a liquid to liquid heat exchanger arranged between the drive thermal loop and the ambient thermal loop for exchanging heat between the drive coolant and the ambient coolant; and the ambient heat exchanger is a liquid to air heat exchanger arranged between the ambient thermal loop and an ambient air for exchanging heat between the ambient coolant and the ambient air. a fuel cell thermal loop having a pump for circulating a fuel cell coolant between a thermal fuel cell section for thermal conditioning of the fuel cell unit and a fuel cell heat exchanger ; and a drive thermal loop having a pump for circulating a drive coolant between a thermal drive section for thermal conditioning of the electric drive unit and a drive heat exchanger ; characterized by further comprising an ambient thermal loop having a pump for circulating an ambient coolant between at least the fuel cell heat exchanger , the drive heat exchanger and an ambient heat exchanger ; wherein the fuel cell heat exchanger is a liquid to liquid heat exchanger arranged between the fuel cell thermal loop and the ambient thermal loop for exchanging heat between the fuel cell coolant and the ambient coolant; the drive heat exchanger is a liquid to liquid heat exchanger arranged between the drive thermal loop and the ambient thermal loop for exchanging heat between the drive coolant and the ambient coolant; and the ambient heat exchanger is a liquid to air heat exchanger arranged between the ambient thermal loop and an ambient air for exchanging heat between the ambient coolant and the ambient air.
A base station for a cleaning robot , provided for the cleaning robot to dock, wherein the cleaning robot is connectable to a mopping module of the cleaning robot , wherein the base station comprises: an operating position for the cleaning robot to dock to replace the mopping module ; a storage module , configured to store at least one mopping module ; and a transfer module, configured to transfer the mopping module between the storage module and the operating position; characterized in that the storage module is located above the operating position. an operating position for the cleaning robot to dock to replace the mopping module ; a storage module , configured to store at least one mopping module ; and a transfer module, configured to transfer the mopping module between the storage module and the operating position; characterized in that the storage module is located above the operating position.
Electrically conductive part , intended to provide electrical impedance matching when connecting a connector with a cable, comprising at least one pair of twisted electrical wires, comprising: - a front portion , the shape of which has a continuous outer profile and which defines on the inside two cylindrical housings , each of which is suitable for housing the unstripped portion of a single cable wire; - a rear portion , extending from the front portion, the shape of which has a discontinuous outer profile defined by fins taking a shape that is complementary to that of the unstripped portion of the wire of a cable , in which part the front and rear portions of the part are configured to decrease the distance between the conductive cores of the wires and the electrical ground of the connector so as to recreate an electrical ground as close as possible to the cable. - a front portion , the shape of which has a continuous outer profile and which defines on the inside two cylindrical housings , each of which is suitable for housing the unstripped portion of a single cable wire; - a rear portion , extending from the front portion, the shape of which has a discontinuous outer profile defined by fins taking a shape that is complementary to that of the unstripped portion of the wire of a cable ,
An apparatus comprising at least one processor and at least one memory including computer program code, the at least one memory and the computer program code being configured to, with the at least one processor, cause the apparatus to at least: determine at least one reference value configured to evaluate at least one beam change condition based on at least one measurement; determine , for evaluation of fulfillment of the at least one beam change condition, whether at least one beam has changed based on the at least one reference value; upon determining that at least one timer T has expired, determine that the at least one beam change condition has been fulfilled; and determine, based at least on fulfilment of the at least one beam change condition, whether at least one condition for adapting radio resource management measurements is fulfilled. determine at least one reference value configured to evaluate at least one beam change condition based on at least one measurement; determine , for evaluation of fulfillment of the at least one beam change condition, whether at least one beam has changed based on the at least one reference value; upon determining that at least one timer T has expired, determine that the at least one beam change condition has been fulfilled; and determine, based at least on fulfilment of the at least one beam change condition, whether at least one condition for adapting radio resource management measurements is fulfilled.
An access point, AP, of a wireless communication system , the AP comprising: a receiver adapted to receive a plurality of messages each originated from one of a plurality of client devices and indicative of a spectral mask capability thereof, wherein the spectral mask capability defines a number of spectral masks, which are available for use by the respective client device , and wherein each of the number of spectral masks has a different distribution of signal power across each of a plurality of channels; a processor adapted to calculate a channel assignment scheme for allocating bandwidth and/or communication channels to the plurality of client devices based on the spectral mask capability of each of the plurality of client devices ; a transmitter adapted to transmit to each of the plurality of client devices instructions to set a transmission frequency based on the calculated channel assignment scheme. a receiver adapted to receive a plurality of messages each originated from one of a plurality of client devices and indicative of a spectral mask capability thereof, wherein the spectral mask capability defines a number of spectral masks, which are available for use by the respective client device , and wherein each of the number of spectral masks has a different distribution of signal power across each of a plurality of channels; a processor adapted to calculate a channel assignment scheme for allocating bandwidth and/or communication channels to the plurality of client devices based on the spectral mask capability of each of the plurality of client devices ; a transmitter adapted to transmit to each of the plurality of client devices instructions to set a transmission frequency based on the calculated channel assignment scheme.
A combined assay for measuring thrombin generated (TG) in a blood sample and determining both the amount of measured TG that is dependent on Tissue Factor (TF) activation of FVIII to FVIIIa and the amount of measured TG that is independent of TF activation of FVIII to FVIIIa in the blood sample, comprising: (i) incubating the blood sample with Tissue Factor (TF), FIXa, and CaCl 2 for up to 5 minutes; and measuring TG in the blood sample by using H-D-cyclohexyl-alanyl-alanyl-argininyl-amidomethylcoumarin (AMC) and/or butyloxycarbonyl-valyl-prolinyl-argininyl-AMC (V-P-R-AMC), wherein the measured TG is dependent on TF activation of FVIII to FVIIIa, and (ii) incubating the blood sample with Tissue Factor (TF) and CaCl 2 but without FIXa, for up to 5 minutes; and measuring TG in the blood sample by using H-D-cyclohexyl-alanyl-alanyl-argininyl-amidomethylcoumarin (AMC) and/or butyloxycarbonyl-valyl-prolinyl-argininyl-AMC (V-P-R-AMC), wherein the measured TG is independent of TF activation of FVIII to FVIIIa. (i) incubating the blood sample with Tissue Factor (TF), FIXa, and CaCl 2 for up to 5 minutes; and measuring TG in the blood sample by using H-D-cyclohexyl-alanyl-alanyl-argininyl-amidomethylcoumarin (AMC) and/or butyloxycarbonyl-valyl-prolinyl-argininyl-AMC (V-P-R-AMC), wherein the measured TG is dependent on TF activation of FVIII to FVIIIa, and (ii) incubating the blood sample with Tissue Factor (TF) and CaCl 2 but without FIXa, for up to 5 minutes; and measuring TG in the blood sample by using H-D-cyclohexyl-alanyl-alanyl-argininyl-amidomethylcoumarin (AMC) and/or butyloxycarbonyl-valyl-prolinyl-argininyl-AMC (V-P-R-AMC), wherein the measured TG is independent of TF activation of FVIII to FVIIIa.
A modular power distribution system comprising: (a) a chassis ; (b) a backplane including a plurality of module connection locations and a power input ; (c) a plurality of modules removably mounted in the chassis, each module mounted to a module connection location of the backplane, at least one of the plurality of modules including: (i) a circuit protection device operable at a plurality of selectable trip levels; (ii) a microprocessor configured to control the circuit protection device , to monitor outgoing current over time, to set a breaker trip level for a given load based on a learning algorithm, to calculate a margin of error, and to add the margin of error to create a load dependent trip level for each module ; (iii) an OR-ing diode configured to support redundant, dual feed, applications, wherein the heat dissipated by the OR-ing diode is evenly distributed in the chassis , thereby preventing a localized hot spot; and (iv) a port assembly configured to output power trough a single power output connector or a plurality of separate power output connectors . (a) a chassis ; (b) a backplane including a plurality of module connection locations and a power input ; (c) a plurality of modules removably mounted in the chassis, each module mounted to a module connection location of the backplane, at least one of the plurality of modules including: (i) a circuit protection device operable at a plurality of selectable trip levels; (ii) a microprocessor configured to control the circuit protection device , to monitor outgoing current over time, to set a breaker trip level for a given load based on a learning algorithm, to calculate a margin of error, and to add the margin of error to create a load dependent trip level for each module ; (iii) an OR-ing diode configured to support redundant, dual feed, applications, wherein the heat dissipated by the OR-ing diode is evenly distributed in the chassis , thereby preventing a localized hot spot; and (iv) a port assembly configured to output power trough a single power output connector or a plurality of separate power output connectors . (i) a circuit protection device operable at a plurality of selectable trip levels; (ii) a microprocessor configured to control the circuit protection device , to monitor outgoing current over time, to set a breaker trip level for a given load based on a learning algorithm, to calculate a margin of error, and to add the margin of error to create a load dependent trip level for each module ; (iii) an OR-ing diode configured to support redundant, dual feed, applications, wherein the heat dissipated by the OR-ing diode is evenly distributed in the chassis , thereby preventing a localized hot spot; and (iv) a port assembly configured to output power trough a single power output connector or a plurality of separate power output connectors .