mhurhangee/patent-ind-claim-en huggingface dataset:
Method of managing unusable prints by means of a computer in a machine for processing printing materials wherein in the course of the unusable prints management sensors, in particular in the form of an image recording system with at least one image sensor , record printed images on the printed products and compare them to a digital reference and, if the recorded printed images deviate from the digital reference, the printed products that have been identified as defective are removed, wherein unusable prints profiles are created which contain parameters to which specific actions are respectively assigned and the specific actions are carried out as a function of the parameters for printed images that have been recorded and identified as deviating from the digital reference during the image inspection process, wherein different end devices are respectively actuated as a function of the specific actions, characterized in that in the course of the unusable prints management, an inspection surface is defined on a utilized printing substrate to inspect the printed product to be inspected while an additional prewarning level 13 monitors the portion outside the defined inspection surface on the printed product to detect undesired changes, wherein deviations are assigned to an additional defect class for prewarning within the additional prewarning level .
An aerosol generating device comprising: a storage unit for storing an aerosol source or an aerosol base material for holding the aerosol source; a load for atomizing the aerosol source by heat generated by receiving supply of electric power from an electric power source; a sensor for outputting a value relating to temperature of the load ; and a control unit , wherein the control unit is configured to: perform, in response to a request for generation of aerosol, electric power supplying cycles by supplying electric power from the electric power source to the load , characterized in that the control unit is further configured to: determine, based on an index that is a standard deviation or variance of output values of the sensor obtained in a period of time in a single one of the electric power supplying cycles, occurrence of depletion or shortage of the aerosol source in the storage unit or the aerosol base material , wherein the period of time excludes a predetermined period starting from the time of a start of the single one of the electric power supplying cycles; and the single one of the electric power supplying cycles corresponds to a single puff in the aerosol generating device . a storage unit for storing an aerosol source or an aerosol base material for holding the aerosol source; a load for atomizing the aerosol source by heat generated by receiving supply of electric power from an electric power source; a sensor for outputting a value relating to temperature of the load ; and a control unit , determine, based on an index that is a standard deviation or variance of output values of the sensor obtained in a period of time in a single one of the electric power supplying cycles, occurrence of depletion or shortage of the aerosol source in the storage unit or the aerosol base material , wherein the period of time excludes a predetermined period starting from the time of a start of the single one of the electric power supplying cycles; and the single one of the electric power supplying cycles corresponds to a single puff in the aerosol generating device .
A composition for attracting bed bugs comprising: a carrier; methyl diethanolamine (MDEA), dimethyl trisulfide (DMTS) and optionally one or more of monoethanolamine (MEA), diethanolamine (DEA), and triethanolamine (TEA); and optionally one or more amides selected from oleamide, octanamide, nonanamide, laurylamide, urea, biuret, triuret and one or more aliphatic fatty acids; wherein the total concentration of a mixture of components selected from MDEA, MEA, DEA, TEA, DMTS, oleamide, octanamide, nonanamide, laurylamide, urea, biuret, triuret, and aliphatic fatty acids is between 1-100 ppm. a carrier; methyl diethanolamine (MDEA), dimethyl trisulfide (DMTS) and optionally one or more of monoethanolamine (MEA), diethanolamine (DEA), and triethanolamine (TEA); and optionally one or more amides selected from oleamide, octanamide, nonanamide, laurylamide, urea, biuret, triuret and one or more aliphatic fatty acids; wherein the total concentration of a mixture of components selected from MDEA, MEA, DEA, TEA, DMTS, oleamide, octanamide, nonanamide, laurylamide, urea, biuret, triuret, and aliphatic fatty acids is between 1-100 ppm.
Granules comprising a fiber reinforced composition (C), comprising i) a propylene polymer (PP) having a melt flow rate MFR 2 (230 °C, 2.16 kg) determined according to ISO 1133 in the range of 10.0 to 250.0 g/10 min, ii) an elastomeric ethylene copolymer (E) being a copolymer of ethylene and a C 4 -C 10 α-olefin, iii) an adhesion promoter (AP), and iv) short fibers (SF) selected from the group consisting of glass fibers, metal fibers, ceramic fibers, carbon fibers and graphite fibers, wherein said fiber reinforced composition (C) fulfils in-equation (I) w PP w E > 2.0 wherein w(PP) is the weight fraction [in wt.-%] of the propylene polymer (PP), based on the overall weight of the polypropylene composition (C), and w(E) is the weight fraction [in wt.-%] of the elastomeric ethylene copolymer (E), based on the overall weight of the fiber reinforced composition (C). i) a propylene polymer (PP) having a melt flow rate MFR 2 (230 °C, 2.16 kg) determined according to ISO 1133 in the range of 10.0 to 250.0 g/10 min, ii) an elastomeric ethylene copolymer (E) being a copolymer of ethylene and a C 4 -C 10 α-olefin, iii) an adhesion promoter (AP), and iv) short fibers (SF) selected from the group consisting of glass fibers, metal fibers, ceramic fibers, carbon fibers and graphite fibers,
An endoscopic system comprising an endoscope having an elongated shaft insertable into a cavity through an access opening , wherein the endoscope has at least one acceleration sensor for capturing an acceleration acting on the endoscope and at least one angular rate sensor for capturing a rotational movement of the endoscope , an endoscopic insertion device which is maintainable in a fixed relation to the access opening , wherein the insertion device has at least one insertion sensor for capturing an insertion movement of the shaft relative to the insertion device, and a control device which is configured for determining a position and an orientation of the endoscope on the basis of the captured acceleration and rotational movement taking into account the insertion movement, wherein the insertion sensor is implemented as an optical sensor (10, O) for capturing a movement of a surface of the shaft relative to the insertion device, wherein a longitudinal movement as well as a rotational movement of the shaft of the endoscope relative to the insertion device are capturable with the at least one insertion sensor.
A subchannel encoding device, comprising: an information bit string separating unit for separating one information bit string into N groups and M × N subchannels, with M and N each being an integer of two or more a probability distribution shaping-encoding unit provided with N probability distribution shaping-encoding processing units (72-1)-(72-N) for shaping a probability distribution of transmission modulation symbols corresponding to the information bit string belonging to each group separated by the information bit string separating unit on a basis of signal-to-noise ratios of the M × N subchannels, and converting the information bit string belonging to each group into a shaped bit string corresponding to the probability distribution of the shaped transmission modulation symbols; a subchannel signal generating unit for generating each subchannel signal in the M × N subchannels from the N shaped bit strings; and a signal multiplexing unit for multiplexing the M × N subchannel signals generated by the subchannel signal generating unit to generate a subchannel multiplexed signal. an information bit string separating unit for separating one information bit string into N groups and M × N subchannels, with M and N each being an integer of two or more a probability distribution shaping-encoding unit provided with N probability distribution shaping-encoding processing units (72-1)-(72-N) for shaping a probability distribution of transmission modulation symbols corresponding to the information bit string belonging to each group separated by the information bit string separating unit on a basis of signal-to-noise ratios of the M × N subchannels, and converting the information bit string belonging to each group into a shaped bit string corresponding to the probability distribution of the shaped transmission modulation symbols; a subchannel signal generating unit for generating each subchannel signal in the M × N subchannels from the N shaped bit strings; and a signal multiplexing unit for multiplexing the M × N subchannel signals generated by the subchannel signal generating unit to generate a subchannel multiplexed signal.
A terminal comprising: a transmission section configured to transmit a beam failure recovery request signal; and a control section configured to maintain, in a beam failure recovery procedure including the transmission of the beam failure recovery request signal, a monitoring of downlink control information for a random access, characterised in that the control section is configured to, if a medium access control, MAC, layer timer has been running before the beam failure recovery procedure is started, maintain the running of the MAC layer timer until the MAC layer timer expires, and the MAC layer timer comprises a timer started by a timing advance command included in a random access response. a transmission section configured to transmit a beam failure recovery request signal; and a control section configured to maintain, in a beam failure recovery procedure including the transmission of the beam failure recovery request signal, a monitoring of downlink control information for a random access, characterised in that the control section is configured to, if a medium access control, MAC, layer timer has been running before the beam failure recovery procedure is started, maintain the running of the MAC layer timer until the MAC layer timer expires, and the MAC layer timer comprises a timer started by a timing advance command included in a random access response.
A cryogenic austenitic high-manganese steel material having an excellent shape, comprising, by weight%, 0.2 to 0.5 % of C, 23 to 28 % of Mn, 0.05 to 0.5 % of Si, 0.3 to 1 % of Cu, 0.03 % or less of P, 0.005 % or less of S, 0.05 to 0.5 % of Al, 2.5 to 4.5 % of Cr, and 0.0005 to 0.01 % of B, with a remainder of Fe and other unavoidable impurities, wherein Charpy impact toughness at -196°C measured according to ASTM A370 standard is at least 30 J, based on a thickness of 5 mm, a yield strength of 350 MPa or more, a tensile strength of 700 MPa or more, and an elongation of 40% or more, wherein yield strength, tensile strength and elongating are measured according to ASTM A370 standard, and a maximum height difference between a crest and a trough formed within an area of 2 m in a rolling direction is at most 10 mm. wherein Charpy impact toughness at -196°C measured according to ASTM A370 standard is at least 30 J, based on a thickness of 5 mm, a yield strength of 350 MPa or more, a tensile strength of 700 MPa or more, and an elongation of 40% or more, wherein yield strength, tensile strength and elongating are measured according to ASTM A370 standard, and a maximum height difference between a crest and a trough formed within an area of 2 m in a rolling direction is at most 10 mm.
Computer-implemented method to establish a secure channel between a party , for instance a broker, and a software payload of an owner when running into a hardware-based trusted execution environment, HW TEE, at the instance of a cloud service provider, the method comprising the following steps: • sending , by the party , at least a nonce to the software payload ; • generating , by the software payload , a payload key pair: public key and private key; • mixing , by the software payload , the payload public key with the nonce; • computing , by the HW TEE, an attestation using at least this nonce mixed with the payload public key; • sending , by the software payload , at least the attestation, and the payload public key to the party ; • verifying , by the party , the attestation using the sent nonce mixed with the received payload public key; • generating , by the software payload and the party , a session key between them; and • establishing the secure channel between the party and the software payload running into the HW TEE. • sending , by the party , at least a nonce to the software payload ; • generating , by the software payload , a payload key pair: public key and private key; • mixing , by the software payload , the payload public key with the nonce; • computing , by the HW TEE, an attestation using at least this nonce mixed with the payload public key; • sending , by the software payload , at least the attestation, and the payload public key to the party ; • verifying , by the party , the attestation using the sent nonce mixed with the received payload public key; • generating , by the software payload and the party , a session key between them; and • establishing the secure channel between the party and the software payload running into the HW TEE.
A composition comprising: a (co)polyester resin comprising the reaction product of at least one diol and at least one diacid or diester and having a heat of fusion of 0.1 to 8 J/g, preferably 0.2 to 5 J/g, most preferably 0.5 to 3 J/g and a glass transition temperature between about 50°C and 100°C, preferably between about 60°C and about 90°C, and most preferably between about 65°C and about 85°C; and an antifog agent; wherein the composition has a heat of fusion of greater than the heat of fusion of the (co)polyester resin and a glass transition temperature less than the glass transition temperature of the (co)polyester resin, wherein the heat of fusion is the value upon the first heat, determined according to ASTM E793-01, except that the scanning temperature is 15°C per minute instead of 10°C per minute, and the glass transition temperature is the value upon the second heat of the sample, determined according to ASTM E1356-08. a (co)polyester resin comprising the reaction product of at least one diol and at least one diacid or diester and having a heat of fusion of 0.1 to 8 J/g, preferably 0.2 to 5 J/g, most preferably 0.5 to 3 J/g and a glass transition temperature between about 50°C and 100°C, preferably between about 60°C and about 90°C, and most preferably between about 65°C and about 85°C; and an antifog agent; wherein the composition has a heat of fusion of greater than the heat of fusion of the (co)polyester resin and a glass transition temperature less than the glass transition temperature of the (co)polyester resin, wherein the heat of fusion is the value upon the first heat, determined according to ASTM E793-01, except that the scanning temperature is 15°C per minute instead of 10°C per minute, and the glass transition temperature is the value upon the second heat of the sample, determined according to ASTM E1356-08.
A process for installing subsea equipment comprising a subsea Xmas tree or manifold in an installation region of seafloor, the process comprising: (a) wet parking the equipment on the seafloor in proximity to the installation region using a marine vessel with a crane , including lowering the equipment through the splash zone at a time when the significant wave height is less than 3 m (or between 3 m and 0.01 m); (b) subsequently repositioning the equipment into the installation region, wherein the equipment remains underwater throughout the repositioning operation; characterised in that : prior to step (b), a subsea template comprising a plurality of template slots is installed in the installation region and, also prior to step (b), a plurality of Xmas trees and/or manifolds are wet parked on the wet parking area, and wherein step (b) involves installing a plurality of Xmas trees and/or manifolds in respective template slots in the template . (a) wet parking the equipment on the seafloor in proximity to the installation region using a marine vessel with a crane , including lowering the equipment through the splash zone at a time when the significant wave height is less than 3 m (or between 3 m and 0.01 m); (b) subsequently repositioning the equipment into the installation region, wherein the equipment remains underwater throughout the repositioning operation;
An apparatus for inspecting a failure of an electrode assembly before injecting an electrolyte, the apparatus comprising: a short-circuit tester configured to detect a short circuit of the electrode assembly by applying a predetermined voltage to a positive electrode and a negative electrode of the electrode assembly ; a multimeter electrically connected to the short-circuit tester and configured to measure a voltage and a current of the electrode assembly over a predetermined period of time; and a failure determination part connected to the multimeter and configured to monitor changes in voltage and current measured by the multimeter and determine a type of a failure of the electrode assembly from data on the changes in voltage and current over the predetermined period of time, wherein the failure determination part is configured to detect a false negative of the electrode assembly by comparing voltage and current waveforms, wherein, when a peak of the current waveform, which is determined according to a size type of the electrode assembly , is less than or equal to a predetermined magnitude when the voltage waveform is a normal waveform, the failure determination part determines the failure as the false negative. a short-circuit tester configured to detect a short circuit of the electrode assembly by applying a predetermined voltage to a positive electrode and a negative electrode of the electrode assembly ; a multimeter electrically connected to the short-circuit tester and configured to measure a voltage and a current of the electrode assembly over a predetermined period of time; and a failure determination part connected to the multimeter and configured to monitor changes in voltage and current measured by the multimeter and determine a type of a failure of the electrode assembly from data on the changes in voltage and current over the predetermined period of time, wherein the failure determination part is configured to detect a false negative of the electrode assembly by comparing voltage and current waveforms, wherein, when a peak of the current waveform, which is determined according to a size type of the electrode assembly , is less than or equal to a predetermined magnitude when the voltage waveform is a normal waveform, the failure determination part determines the failure as the false negative.
A high efficiency fuel cell system comprising: a topping fuel cell assembly comprising a topping cathode portion and a topping anode portion; a bottoming fuel cell assembly comprising a bottoming cathode portion and a bottoming anode portion, wherein the bottoming anode portion receives anode exhaust output from the topping anode portion; a flue gas generating device configured to provide a portion of the flue gas to each of the topping cathode portion and the bottoming cathode portion in parallel; an oxidizer assembly configured to (i) oxidize anode exhaust output from the bottoming anode portion with air and/or oxygen to generate carbon dioxide-containing exhaust and (ii) generate waste heat for heating the flue gas before the flue gas is provided to the topping cathode portion and/or the bottoming cathode portion; and a separation assembly configured to receive the carbon dioxide-containing exhaust from the oxidizer assembly and to separate carbon dioxide from the carbon dioxide-containing exhaust. a topping fuel cell assembly comprising a topping cathode portion and a topping anode portion; a bottoming fuel cell assembly comprising a bottoming cathode portion and a bottoming anode portion, wherein the bottoming anode portion receives anode exhaust output from the topping anode portion; a flue gas generating device configured to provide a portion of the flue gas to each of the topping cathode portion and the bottoming cathode portion in parallel; an oxidizer assembly configured to (i) oxidize anode exhaust output from the bottoming anode portion with air and/or oxygen to generate carbon dioxide-containing exhaust and (ii) generate waste heat for heating the flue gas before the flue gas is provided to the topping cathode portion and/or the bottoming cathode portion; and a separation assembly configured to receive the carbon dioxide-containing exhaust from the oxidizer assembly and to separate carbon dioxide from the carbon dioxide-containing exhaust.
A semiconductor device comprising: first and second terminals which serve as external terminals of a semiconductor chip, the first terminal being a grounding terminal (GND), the second terminal being a power source terminal (VDD); an electrostatic destruction protection transistor (MN), being an N-type MOS transistor, whose source is coupled to the first terminal (GND) and whose drain is coupled to the second terminal (VDD); a single PN diode (D1) which is coupled between a back gate of the electrostatic destruction protection transistor (MN) and the first terminal (GND), the back gate being coupled with a cathode of the PN diode (D1); and an RC circuit coupled to the first terminal (GND) and the second terminal (VDD), the RC circuit comprising a resistor (R1) and a capacitor (C1), wherein the resistor (R1) is coupled to the first terminal (GND) at one end, and is coupled to a gate and to the back gate of the electrostatic destruction protection transistor (MN) at the other end, the resistor (R1) being coupled in parallel with the PN diode (D1), the capacitor (C1) is coupled to the gate of the electrostatic destruction protection transistor (MN) at one end, and is coupled to the second terminal (VDD) at the other end, and the PN diode (D1) is arranged that a polarity thereof which occurs in a coupling direction is reversed to the polarity of a parasitic diode which is formed between the back gate and the source of the electrostatic destruction protection transistor (MN). first and second terminals which serve as external terminals of a semiconductor chip, the first terminal being a grounding terminal (GND), the second terminal being a power source terminal (VDD); an electrostatic destruction protection transistor (MN), being an N-type MOS transistor, whose source is coupled to the first terminal (GND) and whose drain is coupled to the second terminal (VDD); a single PN diode (D1) which is coupled between a back gate of the electrostatic destruction protection transistor (MN) and the first terminal (GND), the back gate being coupled with a cathode of the PN diode (D1); and an RC circuit coupled to the first terminal (GND) and the second terminal (VDD), the RC circuit comprising a resistor (R1) and a capacitor (C1), wherein the resistor (R1) is coupled to the first terminal (GND) at one end, and is coupled to a gate and to the back gate of the electrostatic destruction protection transistor (MN) at the other end, the resistor (R1) being coupled in parallel with the PN diode (D1), the capacitor (C1) is coupled to the gate of the electrostatic destruction protection transistor (MN) at one end, and is coupled to the second terminal (VDD) at the other end, and the PN diode (D1) is arranged that a polarity thereof which occurs in a coupling direction is reversed to the polarity of a parasitic diode which is formed between the back gate and the source of the electrostatic destruction protection transistor (MN).