mhurhangee/ep-ind-claims huggingface dataset:
A polyethylene comprising an ethylene repeating unit and a 1-hexene repeating unit, wherein the polyethylene has a density of 0.916 g/cm 3 or more and 0.920 g/cm 3 or less, measured according to ASTM D1505, a molecular weight distribution of 2 or more and 2.70 or less, and has three elution temperatures of Te1, Te2, and Te3 corresponding to elution temperatures of first to third semicrystalline polymers, respectively, in a temperature range of 20 to 120 °C when analyzed by temperature rising elution fractionation (TREF), wherein Te2 is lower than Te3 and higher than Te1, Te1 is 25 to 30 °C, and the first semicrystalline polymer has a weight average molecular weight of 200,000 g/mol or more, and is contained in an amount of 5 wt% or more based on a total weight of the polyethylene; wherein the molecular weight distribution is defined as the ratio of the weight-average molecular weight Mw to the number-average molecular weight Mn (ratio of Mw/Mn), and the weight-average molecular weight Mw and the number-average molecular weight Mn are determined by gel permeation chromatography as set out in the section " GPC analysis" of Experimental Example 1 of the specification, and wherein the TREF measurement is conducted as set out in the section " TREF analysis" of Experimental Example 1 of the specification. wherein the polyethylene has a density of 0.916 g/cm 3 or more and 0.920 g/cm 3 or less, measured according to ASTM D1505, a molecular weight distribution of 2 or more and 2.70 or less, and has three elution temperatures of Te1, Te2, and Te3 corresponding to elution temperatures of first to third semicrystalline polymers, respectively, in a temperature range of 20 to 120 °C when analyzed by temperature rising elution fractionation (TREF), wherein Te2 is lower than Te3 and higher than Te1, Te1 is 25 to 30 °C, and the first semicrystalline polymer has a weight average molecular weight of 200,000 g/mol or more, and is contained in an amount of 5 wt% or more based on a total weight of the polyethylene; wherein the molecular weight distribution is defined as the ratio of the weight-average molecular weight Mw to the number-average molecular weight Mn (ratio of Mw/Mn), and the weight-average molecular weight Mw and the number-average molecular weight Mn are determined by gel permeation chromatography as set out in the section " GPC analysis" of Experimental Example 1 of the specification, and wherein the TREF measurement is conducted as set out in the section " TREF analysis" of Experimental Example 1 of the specification.
A method of protecting stiffeners of composite panels (P A), characterized in that it consists in coupling a structural section (1, 10, 100, 300) to each stiffener to be protected including an edge and lateral flanks, the structural section having an upper section (11, 111, 112) extending at a distance from the edge and configured in the form of an envelope adapted to absorb impacts on the edge by plastic deformation, a so-called lower section (13, 132, 133) framing the lateral flanks and an intermediate section (12, 121, 122) bearing at least partially on the edge so as to minimize the propagation of impact forces to the lower section (13, 132, 133) and thereafter to couple the lower section (13, 132) framing the lateral flanks demountably by detachment of fixing elements (3, 4, 5) without deformation of the structural section (1, 10, 100).
A method of filling a medical washer/disinfector having a washing chamber for receiving medical articles to be washed/disinfected and a circulation pump for circulating a liquid to and from the washing chamber, the method comprising: - determining a desired pump speed for a phase of a process cycle, - identifying a predefined filling level in the washing chamber associated with the desired pump speed, characterized in that the method further comprises: - feeding liquid into the washing chamber while the circulation pump is running at less than said desired pump speed, - while continuing to feed liquid into the washing chamber so that the liquid level rises, controlling the pump speed to be increased based on the rising liquid level until said desired pump speed is reached, - when the pump is running at said desired pump speed, detecting when the liquid has been filled to the predefined filling level in the washing chamber, and - upon detection that the liquid has been filled to the predefined filling level, interrupting the feeding of the liquid into the washing chamber. - determining a desired pump speed for a phase of a process cycle, - identifying a predefined filling level in the washing chamber associated with the desired pump speed, characterized in that the method further comprises: - feeding liquid into the washing chamber while the circulation pump is running at less than said desired pump speed, - while continuing to feed liquid into the washing chamber so that the liquid level rises, controlling the pump speed to be increased based on the rising liquid level until said desired pump speed is reached, - when the pump is running at said desired pump speed, detecting when the liquid has been filled to the predefined filling level in the washing chamber, and - upon detection that the liquid has been filled to the predefined filling level, interrupting the feeding of the liquid into the washing chamber.
A computer-implemented method of determining a state of a machine-executable contract implemented on a blockchain, the method including: a) for a given state among a plurality of states of a machine-executable smart contract generating an information public key based on metadata associated with the given state; b) combining the information public key with an agent public key of an agent associated with an unspent output (UTXO) in the blockchain corresponding to the given state; c) constructing a search term based on the combination in step (b); d) providing the search term in a mapping data structure that is external to the blockchain; e) identifying unspent outputs (UXTO's) in the blockchain matching the search term, the method further comprising the steps of: f) extracting information from the unspent outputs (UXTO's) matching a search term in the mapping data structure; and g) determining the state of the machine-executable smart contract from the extracted information. a) for a given state among a plurality of states of a machine-executable smart contract generating an information public key based on metadata associated with the given state; b) combining the information public key with an agent public key of an agent associated with an unspent output (UTXO) in the blockchain corresponding to the given state; c) constructing a search term based on the combination in step (b); d) providing the search term in a mapping data structure that is external to the blockchain; e) identifying unspent outputs (UXTO's) in the blockchain matching the search term, the method further comprising the steps of: f) extracting information from the unspent outputs (UXTO's) matching a search term in the mapping data structure; and g) determining the state of the machine-executable smart contract from the extracted information.
A money handling apparatus configured to perform at least a process of dispensing money and a process of counting the money, the apparatus comprising: a storage unit including a plurality of storage modules each configured to store the money and feed the stored money; a recognition unit configured to recognize at least whether the money is normal money or money to be rejected; one single dispensing unit to which the money is dispensed; and a control unit configured to allow feeding of a specified number of pieces of the money of a specified denomination from the storage unit, recognition of the fed money by the recognition unit, and dispensing of the recognized money to the one single dispensing unit in the dispensing process, wherein the control unit allows dispensing of at least the money rejected by the recognition unit to the one single dispensing unit in the dispensing process, and then goes into standby from which a counting process to count the money dispensed to the one single dispensing unit is started by a predetermined operation of an operator, whereby the money dispensed to the one single dispensing unit is placed by the operator into a depositing unit of the money handling apparatus and counted by the recognition unit. a storage unit including a plurality of storage modules each configured to store the money and feed the stored money; a recognition unit configured to recognize at least whether the money is normal money or money to be rejected; one single dispensing unit to which the money is dispensed; and a control unit configured to allow feeding of a specified number of pieces of the money of a specified denomination from the storage unit, recognition of the fed money by the recognition unit, and dispensing of the recognized money to the one single dispensing unit in the dispensing process, wherein the control unit allows dispensing of at least the money rejected by the recognition unit to the one single dispensing unit in the dispensing process, and then goes into standby from which a counting process to count the money dispensed to the one single dispensing unit is started by a predetermined operation of an operator, whereby the money dispensed to the one single dispensing unit is placed by the operator into a depositing unit of the money handling apparatus and counted by the recognition unit.
A double frame system for a window, a French window or the like with a fitting assembly, comprising a basic frame with a profiling in the direction of an outer frame, the outer frame with in each case a profiling (5, 6) in the direction of the basic frame and of an inner frame, wherein the inner frame has a profiling in the direction of the outer frame, wherein at least one pair of hinges at least pivotably connects the outer frame to the inner frame and at least one pair of hinges at least pivotably connects the outer frame to the basic frame, wherein the inner frame is at least pivotable completely independently of the outer frame and the fitting assembly can be operated via an actuating element, so that the closing of outer frame and inner frame can be produced together with the basic frame, characterized in that a drive rod fitting with a drive rod is arranged on the outer frame for switching at least one part of the opening and closing functions of outer frame and inner frame.
Method for monitoring a flame cutting process, which comprises a preheating phase, a piercing phase following the preheating phase and a cutting phase following the piercing phase, wherein a cutting torch applies a flame generated by combustion of a gas mixture to an electrically conductive workpiece and wherein an electric current flowing between an electrically conductive part of the cutting torch and the workpiece is measured by means of a current measuring device during a measuring period, characterized in that an ignition point at which piercing of a hole through the workpiece by means of the flame starts due to oxidation of the workpiece is detected by a change in the measured current, that a constant voltage is applied by means of a voltage source between the electrically conductive part of the cutting torch and the workpiece at least during the measuring period, that the voltage is at most as large as a first predetermined voltage and that the ignition point is detected by a drop in the measured current.
A channel access method performed by a station, STA, the method comprising: • monitoring (step 101) a channel state of an entire channel comprising at least two sub-channels without monitoring a channel state of any sub-channel of the at least two sub-channels, • sending (step 102), when it is monitored that the entire channel is in an idle state, a request to send frame to an access point, AP, via at least one sub-channel in the entire channel, and • if an access response frame fed back by the AP is received and the access response frame comprises identification information and channel resource allocation information of the STA, determining (step 103) that channel access succeeds, wherein the identification information and the channel resource allocation information of the STA are used for indicating a channel resource allocated to the STA for data transmission by the AP. • monitoring (step 101) a channel state of an entire channel comprising at least two sub-channels without monitoring a channel state of any sub-channel of the at least two sub-channels, • sending (step 102), when it is monitored that the entire channel is in an idle state, a request to send frame to an access point, AP, via at least one sub-channel in the entire channel, and • if an access response frame fed back by the AP is received and the access response frame comprises identification information and channel resource allocation information of the STA, determining (step 103) that channel access succeeds, wherein the identification information and the channel resource allocation information of the STA are used for indicating a channel resource allocated to the STA for data transmission by the AP.
A helmet including left and right chin guard support mechanisms provided on a main cap body, and a chin guard whose regions including left and right ends and vicinities thereof are pivotally attached to said left and right chin guard support mechanisms, respectively, each of said left and right chin guard support mechanisms including a first fixed-side member fixed to said main cap body, and a first moving-side member fixed to said chin guard, characterized in that each of said left and right chin guard support mechanisms further includes a second fixed-side member fixed to said first fixed-side member, a convex or concave annular followed surface is provided on said second fixed-side member, a concave or convex annular following surface capable of pivoting forward and backward while following said convex or concave annular followed surface is provided on said first moving-side member, and when said chin guard pivots forward from a down position in a rising direction, said annular following surface pivots forward while following said annular followed surface to make said chin guard rise while moving forward.
A method of operating a switched mode power supply comprising a switched mode converter and a control arrangement for controlling the switched mode converter, the switched mode converter being provided for converting an input voltage (V I) to an output voltage (V O) and including, on a primary side, a primary winding (X p) and a controllable switch based circuitry connecting the input voltage over the primary winding; and, on a secondary side, a secondary winding (X s) coupled to the primary winding, and an LC filter including an inductive element and a capacitive element, wherein the output voltage is obtained as the voltage over the capacitive element and wherein the duty cycle of the switched mode converter can be controlled by controlling the switch based circuitry, the method comprising the steps of: - constantly receiving measurements of said input and output voltages; and - controlling the switched mode converter depending on the measurements of said input and output voltages in a hybrid regulated ratio control scheme, characterized by the steps of: - providing a maximum current, which is equal to or lower than an available current I out given by I out = I sat − I pk − pk V I / 2 wherein I sat is the saturation current for the inductive element and I pk-pk is the peak-to-peak ripple current, which is dependent on the measured input voltage V I; and - shutting off the power, or limiting the current, of the switched mode power supply when a current of the switched mode power supply reaches said maximum current. - constantly receiving measurements of said input and output voltages; and - controlling the switched mode converter depending on the measurements of said input and output voltages in a hybrid regulated ratio control scheme, characterized by the steps of: - providing a maximum current, which is equal to or lower than an available current I out given by I out = I sat − I pk − pk V I / 2 wherein I sat is the saturation current for the inductive element and I pk-pk is the peak-to-peak ripple current, which is dependent on the measured input voltage V I; and - shutting off the power, or limiting the current, of the switched mode power supply when a current of the switched mode power supply reaches said maximum current.
A hydrotreater reactor device comprising: a reactor chamber including at least a first bed and a second bed, said reactor chamber further including a first input disposed so as to provide a hydrocarbon vapor stream to said first bed and a second input disposed so as to bypass said first bed and provide a hydrocarbon vapor stream to said second bed; a differential temperature controller provided to measure a temperature difference across said first bed; a control valve provided at said second input and connected to said differential temperature controller, wherein said control valve is operable to adjust an amount of the hydrocarbon vapor stream admitted through said second input based on the temperature difference measured by said differential temperature controller; a charge heater providing a vapor phase hydrocarbon stream as an output through an output line, said output line including a split so that a first branch of said output line is connected to said first input and in fluid communication with said first bed and a second branch of said output line is connected to said second input and in fluid communication with said second bed; and a restrictor positioned downstream of said split between said charge heater and said first input to control a pressure drop at said first input.
A gas-generating apparatus comprising: a reaction chamber having a shut-off valve and containing a fuel, wherein the fuel reacts to form hydrogen, wherein, when the shut-off valve is open, the hydrogen is transported through the shut-off valve to be used by a device that consumes hydrogen and wherein the gas-generating apparatus further comprises a fuel cell with its anode facing the reaction chamber and in contact with the hydrogen, and wherein said fuel cell consumes hydrogen in the reaction chamber to minimize a pressure in the reaction chamber when the shut-off valve is closed. a reaction chamber having a shut-off valve and containing a fuel, wherein the fuel reacts to form hydrogen, wherein, when the shut-off valve is open, the hydrogen is transported through the shut-off valve to be used by a device that consumes hydrogen and wherein the gas-generating apparatus further comprises a fuel cell with its anode facing the reaction chamber and in contact with the hydrogen, and wherein said fuel cell consumes hydrogen in the reaction chamber to minimize a pressure in the reaction chamber when the shut-off valve is closed.
Device for operating a high pressure discharge lamp comprising: a discharge lamp, wherein the discharge lamp further comprises: a silica glass discharge vessel housing a pair of opposed electrodes separated by a distance that is less than or equal to 1.5 mm, wherein the discharge vessel is filled with at leash 0.15 mg/mm 3 of mercury, and bromine in the range of 10 -6 μmol/mm 3 to 10 -2 μmol/mm 3; and a feed device that supplies an alternating current to operate the discharge lamp, characterized in that the feed device controls the discharge lamp such that when the operating voltage of the discharge lamp is reduced, the discharge wattage is also reduced and when the operating voltage of the discharge lamp is increased, the discharge wattage is also increased, and that the control of the discharge wattage is carried out without interruption with respect to the change of the voltage with a rate of change of the discharge wattage in a range from 0.2 WN to 1.0 W/V at least in a range between a lower and an upper boundary value of the lamp wattage. a discharge lamp, wherein the discharge lamp further comprises: a silica glass discharge vessel housing a pair of opposed electrodes separated by a distance that is less than or equal to 1.5 mm, wherein the discharge vessel is filled with at leash 0.15 mg/mm 3 of mercury, and bromine in the range of 10 -6 μmol/mm 3 to 10 -2 μmol/mm 3; and a feed device that supplies an alternating current to operate the discharge lamp, a silica glass discharge vessel housing a pair of opposed electrodes separated by a distance that is less than or equal to 1.5 mm, wherein the discharge vessel is filled with at leash 0.15 mg/mm 3 of mercury, and bromine in the range of 10 -6 μmol/mm 3 to 10 -2 μmol/mm 3; and a feed device that supplies an alternating current to operate the discharge lamp,
A boundary layer ingestion engine (120, 300, 400) comprising: a gas generator (130, 310); a turbine (140, 320) fluidly connected to the gas generator (130, 310); a fan (330, 406) mechanically linked to the turbine (140, 320) via a shaft such that rotation of the turbine (140, 320) is translated to the fan (330, 406), wherein the fan (330, 406) is positioned aft of the turbine (140, 320); a boundary layer ingestion inlet (122, 342, 404) configured to be aligned with an expected boundary layer, such that said boundary layer ingestion inlet (122, 342, 404) is configured to ingest fluid from a boundary layer during operation of the boundary layer ingestion engine (120, 300, 400), wherein the boundary layer ingestion inlet (122, 342, 404) is an inlet of a fan duct, and the gas generator (130, 310) is positioned fore of the fan duct inlet and is configured to be positioned within a fuselage of an aircraft; at least one turbine exhaust duct connected to an exhaust outlet of the turbine (140, 320), at least a portion of the at least one turbine exhaust duct passing radially outwards of the fan duct; characterized in that it further comprises an electric generator mechanically connected to said fan (330, 406) such that rotation of the fan (330, 406) drives rotation of the electric generator. a gas generator (130, 310); a turbine (140, 320) fluidly connected to the gas generator (130, 310); a fan (330, 406) mechanically linked to the turbine (140, 320) via a shaft such that rotation of the turbine (140, 320) is translated to the fan (330, 406), wherein the fan (330, 406) is positioned aft of the turbine (140, 320); a boundary layer ingestion inlet (122, 342, 404) configured to be aligned with an expected boundary layer, such that said boundary layer ingestion inlet (122, 342, 404) is configured to ingest fluid from a boundary layer during operation of the boundary layer ingestion engine (120, 300, 400), wherein the boundary layer ingestion inlet (122, 342, 404) is an inlet of a fan duct, and the gas generator (130, 310) is positioned fore of the fan duct inlet and is configured to be positioned within a fuselage of an aircraft; at least one turbine exhaust duct connected to an exhaust outlet of the turbine (140, 320), at least a portion of the at least one turbine exhaust duct passing radially outwards of the fan duct; characterized in that it further comprises an electric generator mechanically connected to said fan (330, 406) such that rotation of the fan (330, 406) drives rotation of the electric generator.