mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a cantilever lift in a motor vehicle, having a raisable and lowerable platform with a lifting mechanism and with connection components for securing the lifting mechanism to the vehicle, wherein in all lifting positions the platform is capable of being kept in a selected position, and wherein a load stress of the cantilever lift is monitored, the method including: detecting or ascertaining a deformation of the platform, lifting mechanism or connection components when cargo is brought from the cargo space of the motor vehicle onto the platform, for which purpose at least one angle of inclination sensor or acceleration sensor (32, 34), provided on the platform, and at least one further angle of inclination sensor or acceleration sensor, provided on the lifting mechanism or on the connection components or in a manner affixed to the vehicle is used, characterized by monitoring of the load stress on the basis of the detected or ascertained deformation, and further characterized in that upon monitoring the load stress, a check is thereupon made as to whether it meets a predetermined criterion corresponding to an overloading situation; and that a log entry is deposited in a data store and/or a warning report for a user of the cantilever lift is generated, or a lock that prevents operation is implemented in controlling the cantilever lift, so that the user is forced to reduce the load on the cantilever lift if the load stress meets the criterion.
Vehicle seat (10, 10"') with a swivelling device (11, 11', 11 ", 11"', 11'") for swivelling the vehicle seat (10, 10"') out of a vehicle and back into the vehicle, comprising a base element (12, 12', 12", 12"') which is connectable to the vehicle, an intermediate element (16, 16', 16", 16"') which is guided linearly on the base element (12, 12', 12", 12"') and a swivel element (20, 20', 20", 20"') which is mounted rotatably on the intermediate element (16, 16', 16", 16"') by means of a pivot bearing (22, 22', 22") and to which a seat part (24, 24"') of the vehicle seat (10, 10"') is fastened, wherein a lever mechanism (32, 32', 32", 32"') is arranged between the base element (12, 12', 12", 12"') and the swivel element (20, 20', 20", 20"'), with which lever mechanism (32, 32', 32", 32"') the linear movement between base element (12, 12', 12", 12"') and intermediate element (16, 16', 16", 16'") and the rotary movement of the swivel element (20, 20', 20", 20"') are controllable, characterised in that the lever mechanism (32, 32', 32", 32"') is so configured that a swivelling-out curve on which the swivel element (20, 20', 20", 20"') moves when swivelling out of the vehicle follows a different path to a swivelling-in curve on which the swivel element (20, 20', 20", 20"') moves when swivelling into the vehicle.
A machining apparatus for grinding, milling, polishing or the like of a dental workpiece, comprising - a machining tool, - a housing to which the machining tool is mounted rotatably about an axis of rotation relative to the housing, and - a holding device to which the housing is fixed, characterised in that the housing is mounted yieldingly movably to the holding device in dependence on forces exerted on the machining tool, wherein the housing is mounted movably with respect to the holding device substantially in the direction of the axis of rotation and wherein the housing is mounted movably with respect to the holding device about a pivot point. - a machining tool, - a housing to which the machining tool is mounted rotatably about an axis of rotation relative to the housing, and - a holding device to which the housing is fixed,
A method for production of an affinity chromatography resin comprising an N-terminal split intein fragment as an affinity ligand, comprising the following steps: a) expression of an N-terminal split intein fragment as insoluble protein in inclusion bodies in bacterial cells, b) harvesting said inclusion bodies; c) solubilizing said inclusion bodies and releasing expressed protein; d) binding said protein on a solid support; e) refolding said protein; f) releasing said protein from the solid support; and g) immobilizing said protein as ligands on a chromatography resin to form an affinity chromatography resin, wherein the ligand density on said chromatography resin is 2-10 mg ligand/ml resin, preferably ≥3mg ligand/ml resin, most preferably ≥5 mg ligand/ ml resin. a) expression of an N-terminal split intein fragment as insoluble protein in inclusion bodies in bacterial cells, b) harvesting said inclusion bodies; c) solubilizing said inclusion bodies and releasing expressed protein; d) binding said protein on a solid support; e) refolding said protein; f) releasing said protein from the solid support; and g) immobilizing said protein as ligands on a chromatography resin to form an affinity chromatography resin, wherein the ligand density on said chromatography resin is 2-10 mg ligand/ml resin, preferably ≥3mg ligand/ml resin, most preferably ≥5 mg ligand/ ml resin.
An aqueous pharmaceutical formulation with pH between 3.4 and 4.6 comprising insulin glargine, wherein the concentration of insulin glargine is 200-500 U/mL being equimolar to 200-500 IU human insulin.
Method for driving machines in an ethylene plant steam generation circuit, the method including the steps of: - recovering heat as high pressure steam from a cracking furnace; - providing said high pressure steam to at least one steam turbine, wherein the steam turbine is configured to drive a machine, such as a process compressor; - condensing at least part of the high pressure steam in a condenser; - pumping condensed steam as boiler feed water back to the cracking furnace; characterized in that the method also includes the step of: - recovering heat as high pressure steam from a waste heat recovery boiler of a power plant circuit; - providing at least part of the high pressure steam from the power plant circuit to the at least one steam turbine of the ethylene plant steam generation circuit; and wherein excess fuel from the cracking furnace of the ethylene plant steam generation circuit is provided to the waste heat recovery boiler of the power plant circuit for auxiliary firing. - recovering heat as high pressure steam from a cracking furnace; - providing said high pressure steam to at least one steam turbine, wherein the steam turbine is configured to drive a machine, such as a process compressor; - condensing at least part of the high pressure steam in a condenser; - pumping condensed steam as boiler feed water back to the cracking furnace; - recovering heat as high pressure steam from a waste heat recovery boiler of a power plant circuit; - providing at least part of the high pressure steam from the power plant circuit to the at least one steam turbine of the ethylene plant steam generation circuit; and
An addition valve control method for intermittently adding an additive to suppress clogging of an addition valve that supplies the additive to an exhaust passage of an internal combustion engine, the addition valve control method characterised by comprising: calculating a particulate discharge amount within the exhaust passage based on an engine operation state; calculating exhaust energy from an exhaust gas temperature and an exhaust gas flow rate; and calculating an amount of the additive to be added when intermittently adding the additive, based on the particulate discharge amount and the exhaust energy, wherein the addition amount is calculated based on a corrected particulate discharge amount, which is obtained by correcting the particulate discharge amount in accordance with a degree of change in the intake air amount that is a value equivalent to the exhaust gas flow rate, and the exhaust energy. calculating a particulate discharge amount within the exhaust passage based on an engine operation state; calculating exhaust energy from an exhaust gas temperature and an exhaust gas flow rate; and calculating an amount of the additive to be added when intermittently adding the additive, based on the particulate discharge amount and the exhaust energy, wherein the addition amount is calculated based on a corrected particulate discharge amount, which is obtained by correcting the particulate discharge amount in accordance with a degree of change in the intake air amount that is a value equivalent to the exhaust gas flow rate, and the exhaust energy.
A yarn comprising an intimate blend of cut-resistant ultrahigh molecular weight polyethylene fibers and moisture-wicking polyester fibers capable of transporting moisture along their length by capillary action, wherein said cut-resistant fibers and said moisture-wicking fibers are staple fibers, and wherein said moisture-wicking polyester fibers having a "W" shape with a 180 degree axis of symmetry.
A method for making an electric generator comprising thermoelectric and piezoelectric components, said method comprising: forming a plurality of lateral p-n junctions across a face of a piezoelectric film and coupling an electrode to the piezoelectric film, the lateral p-n junctions being established at interfaces between p-type regions comprising electrically conductive particles dispersed on the piezoelectric film and n-type regions comprising electrically conductive particles dispersed on the piezoelectric film. forming a plurality of lateral p-n junctions across a face of a piezoelectric film and coupling an electrode to the piezoelectric film, the lateral p-n junctions being established at interfaces between p-type regions comprising electrically conductive particles dispersed on the piezoelectric film and n-type regions comprising electrically conductive particles dispersed on the piezoelectric film.
A method for cleaning a ceramic filter having impurities deposited therein, said method comprising: reducing a pressure of a space on a secondary side of the uncleaned ceramic filter, while supplying a cleaning medium to a space on a primary side of the uncleaned ceramic filter, thereby passing the cleaning medium through the uncleaned ceramic filter, so that the uncleaned ceramic filter is cleaned by removing the deposited impurities, wherein the pressure in the primary side space is from 100 kPa to 1000 kPa, and the pressure in the secondary side space is from 0.03 to 50 kPa, characterized in that the cleaning medium is a cleaning gas, and a temperature of the cleaning gas is from 200 to 450°C. reducing a pressure of a space on a secondary side of the uncleaned ceramic filter, while supplying a cleaning medium to a space on a primary side of the uncleaned ceramic filter, thereby passing the cleaning medium through the uncleaned ceramic filter, so that the uncleaned ceramic filter is cleaned by removing the deposited impurities, wherein the pressure in the primary side space is from 100 kPa to 1000 kPa, and the pressure in the secondary side space is from 0.03 to 50 kPa, characterized in that the cleaning medium is a cleaning gas, and a temperature of the cleaning gas is from 200 to 450°C.
A process for producing monobranched fatty acids or alkyl esters thereof which comprises; (i) isomerising unsaturated C 10 -C 26 fatty acids or alkyl esters thereof in the presence of a catalyst which comprises both a zeolite and a Lewis base, (ii) separating the reaction product of step (i) from the used zeolite, (iii) optionally hydrogenating the reaction product of step (ii), (iv) obtaining a composition comprising monobranched C 10 -C 26 fatty acids or alkyl esters thereof from the reaction product of step (ii) or (iii), and wherein the process steps (i) to (iv) are repeated using zeolite which comprises used zeolite which has been obtained in step (ii). (i) isomerising unsaturated C 10 -C 26 fatty acids or alkyl esters thereof in the presence of a catalyst which comprises both a zeolite and a Lewis base, (ii) separating the reaction product of step (i) from the used zeolite, (iii) optionally hydrogenating the reaction product of step (ii), (iv) obtaining a composition comprising monobranched C 10 -C 26 fatty acids or alkyl esters thereof from the reaction product of step (ii) or (iii), and (ii) separating the reaction product of step (i) from the used zeolite, (iii) optionally hydrogenating the reaction product of step (ii), (iv) obtaining a composition comprising monobranched C 10 -C 26 fatty acids or alkyl esters thereof from the reaction product of step (ii) or (iii), and wherein the process steps (i) to (iv) are repeated using zeolite which comprises used zeolite which has been obtained in step (ii).
Process for the manufacturing of alkanesulfonic acid, R-SO 3 H, wherein R stands for C 1 -C 4 alkyl, by reaction of an anhydride with sulfuric acid and an alkane, R-H, in the presence of a peroxide starter at ambient temperature or higher and under pressure higher than ambient pressure, wherein the anhydride is chosen from the group consisting of RSO 2 OSO 2 R.
A method for compositional analysis of a material in which an electron beam is caused to impinge upon the material, the method comprising:- detecting low loss electrons (LLEs) that have been backscattered from a first region of the material due to interaction with the electron beam and generating corresponding LLE data; detecting x-rays received from a second region of the material due to interaction with the electron beam and generating corresponding x-ray data, wherein the LLEs are detected using energy filtering such that the first region is contained within and is substantially smaller in volume than the second region; and combining the LLE data and the x-ray data so as to generate compositional data representative of the composition of the first region wherein the LLE data is processed to obtain an effective atomic number representative of the element or elements within the first region, the method further comprising selecting a candidate material for the first region, based upon the LLE data, and calculating simulated x-ray data for the candidate material, the simulated x-ray data being that which would be received only from the first region, wherein the simulated x-ray data and the x-ray data are compared so as to determine which elemental contributions to the x-ray data from the first region are detectable within the x-ray data. detecting low loss electrons (LLEs) that have been backscattered from a first region of the material due to interaction with the electron beam and generating corresponding LLE data; detecting x-rays received from a second region of the material due to interaction with the electron beam and generating corresponding x-ray data, wherein the LLEs are detected using energy filtering such that the first region is contained within and is substantially smaller in volume than the second region; and combining the LLE data and the x-ray data so as to generate compositional data representative of the composition of the first region wherein the LLE data is processed to obtain an effective atomic number representative of the element or elements within the first region, the method further comprising selecting a candidate material for the first region, based upon the LLE data, and calculating simulated x-ray data for the candidate material, the simulated x-ray data being that which would be received only from the first region, wherein the simulated x-ray data and the x-ray data are compared so as to determine which elemental contributions to the x-ray data from the first region are detectable within the x-ray data.
A toner comprising toner particles wherein each of the toner particles comprises a core-shell structure composed of a core and a shell phase formed on the core, the shell phase contains a resin, and the core contains a binder resin, a colorant and a wax, wherein the toner particles contain the resin in an amount equal to or greater than 3.0 parts by weight and equal to or less than 15.0 parts by weight per 100.0 parts by weight of the core, and where a solubility parameter (SP value) of the binder resin, obtained by the Fedors method, is denoted by SP [(cal/cm 3) 1/2], an SP value of the resin, obtained by the Fedors method, is denoted by SP [(cal/cm 3) 1/2], an SP value of a repeating unit with the smallest SP value from among repeating units constituting the resin, obtained by the Fedors method, is denoted by SP [(cal/cm 3) 1/2], and an SP value of the wax, obtained by the Fedors method, is denoted by SP [(cal/cm 3) 1/2], SP is equal to or greater than 9.00 (cal/cm 3) 1/2 and equal to or less than 12.00 (cal/cm 3) 1/2, SP is equal to or greater than 7.50 (cal/cm 3) 1/2 and equal to or less than 9.50 (cal/cm 3) 1/2, and each of SP, SP, SP and SP satisfy relationships represented by Formulas and below: 0.00 < SP A - SP B ≤ 2.00 0.00 < SP W - SP C ≤ 2.00
An impact tool, comprising: a motor; a hammer comprising a first drive member rotatably driven by the motor; an anvil comprising a second drive member, the first drive member of the hammer periodically engaging and disengaging the second drive member of the anvil such that the first and second drive members (44, 46) impact against each other; a tool housing enclosing the hammer and a portion of the anvil and comprising a handle grippable by a user; a bushing disposed between the anvil and the tool housing; and a first vibration isolator disposed circumferentially between the anvil and the tool housing to reduce transmission of vibrations from the hammer to the tool housing; characterised in that the impact tool further comprises a second vibration isolator, different from the first vibration isolator, disposed axially between the second drive member of the anvil and the tool housing. a motor; a hammer comprising a first drive member rotatably driven by the motor; an anvil comprising a second drive member, the first drive member of the hammer periodically engaging and disengaging the second drive member of the anvil such that the first and second drive members (44, 46) impact against each other; a tool housing enclosing the hammer and a portion of the anvil and comprising a handle grippable by a user; a bushing disposed between the anvil and the tool housing; and a first vibration isolator disposed circumferentially between the anvil and the tool housing to reduce transmission of vibrations from the hammer to the tool housing; characterised in that the impact tool further comprises a second vibration isolator, different from the first vibration isolator, disposed axially between the second drive member of the anvil and the tool housing.
A communication control method in a mobile communication system for supporting dual connectivity communication using a master base station for establishing RRC connection with a user terminal and a secondary base station for providing additional radio resources to the user terminal, comprising: an inter-master base station handover procedure for performing handover of the user terminal from a source master base station (200M1) to a target master base station (200M2) without changing the secondary base station, wherein the inter-master base station handover procedure includes a step in which the source master base station (200M1) transmits, to the target master base station (200M2), a handover request for requesting handover of the user terminal, wherein the handover request includes information related to the secondary base station; a step in which the target master base station (200M2) receives the handover request; a step in which the target master base station (200M2) transmits, to the secondary base station, a first message related to a change of master base station, wherein the first message includes information indicating whether a bearer to be used by the secondary base station is a secondary cell group bearer that does not pass through a master base station or a split bearer that passes through a master base station; a step in which the secondary base station receives the first message; and a step in which the secondary base station transmits, to the target master base station (200M2), a second message which is a positive response to the first message. an inter-master base station handover procedure for performing handover of the user terminal from a source master base station (200M1) to a target master base station (200M2) without changing the secondary base station, wherein the inter-master base station handover procedure includes a step in which the source master base station (200M1) transmits, to the target master base station (200M2), a handover request for requesting handover of the user terminal, wherein the handover request includes information related to the secondary base station; a step in which the target master base station (200M2) receives the handover request; a step in which the target master base station (200M2) transmits, to the secondary base station, a first message related to a change of master base station, wherein the first message includes information indicating whether a bearer to be used by the secondary base station is a secondary cell group bearer that does not pass through a master base station or a split bearer that passes through a master base station; a step in which the secondary base station receives the first message; and a step in which the secondary base station transmits, to the target master base station (200M2), a second message which is a positive response to the first message.
A compound of formula I: or a pharmaceutically acceptable salt, or solvate thereof, wherein A 1 and A 2 are independently C-R 22; A 3 and A 5 are N; A 4 is N or C-R 7; n is 1; R 1 and R 2 are hydrogen; R 3 and R 4 are independently H or methyl; R 5 and R 6 are independently H, methyl or oxygen, wherein when both R 5 and R 6 are oxygen, R 5 and R 6 are an oxygen atom which forms a double bond (=O); G and G' are carbon; V and V' are independently N or C-R 7; R 7 is selected from hydrogen, halogen, haloalkyl, CN, cyanoalkyl, trifluoromethyl, alkyl, alkenyl, alkynyl, amino, oxygen, hydroxyl, sulfur, hydrosulfuryl, alkoxy, acyloxy, acylamino, urea, carbamoyloxy, thiourea, sulfone, sulfoxide, sulfonamide, azido, alkylalkenyl, alkylalkynyl, alkylamino, alkylacyloxy, alkylsulphonyl, alkylsulfinyl, alkylsulfonamide, azidoalkyl, cycloalkyl, cycloalkenyl, 3-12 membered heterocycle, aryl, and 5-12 membered heteroaryl; W is V 6 -V 7, wherein V 6 is N or C-R 7, V 7 is C-R 23, V 6 connects with V', and V 7 connects with V; U is R 20 to R 22 are independently selected from hydrogen, halogen, haloalkyl, alkyl, trifluoromethyl, alkylsulfonyl, alkylsulfinyl, alkylsulfonamide, sulfonamide, and alkylacyloxy; and R 23 is selected from the group consisting of: A 1 and A 2 are independently C-R 22; A 3 and A 5 are N; A 4 is N or C-R 7; n is 1; R 1 and R 2 are hydrogen; R 3 and R 4 are independently H or methyl; R 5 and R 6 are independently H, methyl or oxygen, wherein when both R 5 and R 6 are oxygen, R 5 and R 6 are an oxygen atom which forms a double bond (=O); G and G' are carbon; V and V' are independently N or C-R 7; R 7 is selected from hydrogen, halogen, haloalkyl, CN, cyanoalkyl, trifluoromethyl, alkyl, alkenyl, alkynyl, amino, oxygen, hydroxyl, sulfur, hydrosulfuryl, alkoxy, acyloxy, acylamino, urea, carbamoyloxy, thiourea, sulfone, sulfoxide, sulfonamide, azido, alkylalkenyl, alkylalkynyl, alkylamino, alkylacyloxy, alkylsulphonyl, alkylsulfinyl, alkylsulfonamide, azidoalkyl, cycloalkyl, cycloalkenyl, 3-12 membered heterocycle, aryl, and 5-12 membered heteroaryl; W is V 6 -V 7, wherein V 6 is N or C-R 7, V 7 is C-R 23, V 6 connects with V', and V 7 connects with V; U is R 20 to R 22 are independently selected from hydrogen, halogen, haloalkyl, alkyl, trifluoromethyl, alkylsulfonyl, alkylsulfinyl, alkylsulfonamide, sulfonamide, and alkylacyloxy; and R 23 is selected from the group consisting of: