mhurhangee/ep-ind-claims huggingface dataset:
A medical device for assessing a residual insulin time of a patient, comprising a tangible machine-readable storage medium embodying instructions that when performed by one or more processors result in operations comprising: receiving a confirmation that an insulin dose corresponding to an amount of carbohydrates planned to be consumed by the patient has been administered to the patient; repetitively receiving a value corresponding to the patient's blood glucose level; identifying at least two consecutively received values based on a predetermined criteria; and, selecting the residual insulin time corresponding to a time period between the confirmation that the insulin dose has been administered and a time corresponding to the identification of the at least two consecutively received values receiving a confirmation that an insulin dose corresponding to an amount of carbohydrates planned to be consumed by the patient has been administered to the patient; repetitively receiving a value corresponding to the patient's blood glucose level; identifying at least two consecutively received values based on a predetermined criteria; and, selecting the residual insulin time corresponding to a time period between the confirmation that the insulin dose has been administered and a time corresponding to the identification of the at least two consecutively received values
A binary mechanical computing mechanism comprising: an anchor block (301, 303); the binary mechanical computing mechanism is characterized in that it comprises an assembly, configured to conduct a combinatorial logic operation and/or a sequential logic operation with only mechanical link logic primitives, mechanical flexure logic primitives, and/or mechanical cable logic primitives to conduct the combinatorial logic operation and/or the sequential logic operation; wherein one or more of said primitives define one or more inputs (302, 304) for data, encoded by the physical position of the inputs (302, 304), one or more of said primitives define one or more outputs (310, 311) for data, encoded by the physical position of the outputs (310, 311), wherein the primitives being connected with each other to selectively allow or prevent movement of other primitives with respect to the anchor block (301, 303) based on the physical position of the one or more inputs (302, 304), so that the one or more outputs (310, 311) are the result of the logic operation on the one or more inputs (302, 304). an anchor block (301, 303); the binary mechanical computing mechanism is characterized in that it comprises an assembly, configured to conduct a combinatorial logic operation and/or a sequential logic operation with only mechanical link logic primitives, mechanical flexure logic primitives, and/or mechanical cable logic primitives to conduct the combinatorial logic operation and/or the sequential logic operation; wherein one or more of said primitives define one or more inputs (302, 304) for data, encoded by the physical position of the inputs (302, 304), one or more of said primitives define one or more outputs (310, 311) for data, encoded by the physical position of the outputs (310, 311), wherein the primitives being connected with each other to selectively allow or prevent movement of other primitives with respect to the anchor block (301, 303) based on the physical position of the one or more inputs (302, 304), so that the one or more outputs (310, 311) are the result of the logic operation on the one or more inputs (302, 304).
An anti-derailment apparatus for a bogie of a rail vehicle, the anti-derailment apparatus comprises at least one mounting seat which is adapted to be mounted at the bottom of the bogie of the rail vehicle, and an anti-derailment slide plate arranged on the mounting seat and adapted to extend toward a ground rail; the transverse position of the anti-derailment slide plate on the bogie and the extending length of the anti-derailment slide plate in the vertical direction are adapted to be set to meet the following requirements simultaneously when the mounting seat of the anti-derailment apparatus is mounted at the bottom of the bogie of the rail vehicle and when the rail vehicle is on the ground rail: 1) always making the anti-derailment slide plate located at the inside of the ground rail when the rail vehicle runs normally; 2) when at least one wheelset of the bogie of the rail vehicle climbs rail, the anti-derailment slide plate acts on the ground rail to form lateral limitation points so as to limit the freedom of the rail vehicle and make it still constrained by the ground rail, characterized in that: the extending length of the anti-derailment slide plate in the vertical direction is achieved by controlling the height of a lower surface of the anti-derailment apparatus, and the extending length of the anti-derailment slide plate is configured so that the height of the lower surface of the anti-derailment apparatus is aligned with the height of a flange of the wheelset. 1) always making the anti-derailment slide plate located at the inside of the ground rail when the rail vehicle runs normally; 2) when at least one wheelset of the bogie of the rail vehicle climbs rail, the anti-derailment slide plate acts on the ground rail to form lateral limitation points so as to limit the freedom of the rail vehicle and make it still constrained by the ground rail,
A method for processing seismic traces to produce an image of a subsurface area, said method comprising: receiving a series of seismic traces related to the subsurface area and recorded by one or more seismic receivers, wherein the one or more seismic sources are originally generated by a source; applying a 3-dimensional phase encoding function to the series of seismic traces, at least a portion of said seismic traces comprise signals reflected by geological interfaces of the subsurface area; computing a forward wavefield by solving a first wave equation that is modified to include the phase encoding function; computing a backward wavefield by solving a second wave equation that is modified by a 3D harmonic-source reverse time migration of the series of seismic traces encoded with the 3D phase encoding function; and cross-correlating the forward wavefield with the backward wavefield to generate an image of the subsurface. receiving a series of seismic traces related to the subsurface area and recorded by one or more seismic receivers, wherein the one or more seismic sources are originally generated by a source; applying a 3-dimensional phase encoding function to the series of seismic traces, at least a portion of said seismic traces comprise signals reflected by geological interfaces of the subsurface area; computing a forward wavefield by solving a first wave equation that is modified to include the phase encoding function; computing a backward wavefield by solving a second wave equation that is modified by a 3D harmonic-source reverse time migration of the series of seismic traces encoded with the 3D phase encoding function; and cross-correlating the forward wavefield with the backward wavefield to generate an image of the subsurface.
A process for enriching an enantiomer from an enantiomer mixture by a fractionating melt crystallization in a melt crystallization apparatus, comprising: i) a crystallization step to obtain a crystallizate and a mother melt and removal of the mother melt from the crystallizate to afford a mother melt fraction, ii) sweating of the crystallizate obtained in step i) to afford a molten sweating fraction and a sweated crystallizate, and iii) subsequent melting of the sweated crystallizate to afford a molten crystallizate fraction, wherein the optical rotation at least of the sweating fraction is determined online using a polarimeter and the changeover from step ii) to step iii) is controlled online by means of at least one control unit. i) a crystallization step to obtain a crystallizate and a mother melt and removal of the mother melt from the crystallizate to afford a mother melt fraction, ii) sweating of the crystallizate obtained in step i) to afford a molten sweating fraction and a sweated crystallizate, and iii) subsequent melting of the sweated crystallizate to afford a molten crystallizate fraction,
A cocktail composition comprising at least one recombinant bacteriophage constructed from LMA4, comprising: (i) an indicator gene, and (ii) an exogenous promoter controlling transcription of the indicator gene, inserted into a late gene region of the bacteriophage genome; wherein the indicator gene is not contiguous with a gene encoding a structural bacteriophage protein and does not yield a fusion protein, and wherein expression of the indicator gene results in an indicator protein product, and wherein the recombinant bacteriophage specifically infects Listeria spp. (i) an indicator gene, and (ii) an exogenous promoter controlling transcription of the indicator gene, inserted into a late gene region of the bacteriophage genome; wherein the indicator gene is not contiguous with a gene encoding a structural bacteriophage protein and does not yield a fusion protein, and wherein expression of the indicator gene results in an indicator protein product, and wherein the recombinant bacteriophage specifically infects Listeria spp. inserted into a late gene region of the bacteriophage genome; wherein the indicator gene is not contiguous with a gene encoding a structural bacteriophage protein and does not yield a fusion protein, and wherein expression of the indicator gene results in an indicator protein product, and wherein the recombinant bacteriophage specifically infects Listeria spp.
A fuel composition comprising a Fischer-Tropsch derived middle distillate fuel and a middle distillate flow improver, the remainder of the composition being another fuel component or mixture of fuel components, the other fuel component being selected from a petroleum derived middle distillate fuel, hydrogenated vegetable oil, fatty acid methyl esters, and other Fischer Tropsch products such as light F-T base oil; wherein the amount of the Fischer-Tropsch derived middle distillate fuel is more than 80% v/v of the total composition; the maximum weight content in the carbon number distribution of the n-paraffins in the Fischer-Tropsch derived middle distillate fuel is below C16 and the weight ratio of iso to normal paraffins in the Fischer-Tropsch derived middle distillate fuel is 3.5:1 or higher; and wherein the middle distillate flow improver is a substituted ethylene polymer, being a single long alkyl chain substituted with acetate ester groups and 2-ethylhexanoate ester groups and further carrying some methyl branches, wherein the average ratio of acetate to 2-ethylhexanoate is 1:8, the mole percentage of acetate is 2 % and 2-ethylhexanoate 16 %, and the average number of methyl branches per 100 methylene groups is 4.9; and wherein the middle distillate flow improver is present in the composition at a treat rate of 125 - 4000 mg/kg.
A method of providing vanilla beany flavor in an orally-receivable product, comprising adding to a product base at least one compound selected from those according to Formula I in which R' is selected from the group consisting of hydrogen and methyl, and R is selected from the group consisting of hydrogen, methyl, ethyl, propyl, isopropyl, n-butyl, 1- and 2-methylpropyl, n-pentyl, 1-, 2- and 3-methylbutyl, 1-, 2-, 3-, and 4-methylpentyl, 1-methylbut-2-ene, hydroxyethyl, ethylcarboxy, 2-tetrahydrofuranyl and a group of the formula VII
A modular fluid application device comprising: a module base; a first fluid passageway extending within the module base; a second fluid passageway extending within the module base and intersecting the first fluid passageway to form a nozzle fluid supply passageway downstream from the first and second fluid passageways; a fluid outlet formed on a nozzle mounting surface of the module base and fluidically connected to the nozzle fluid supply passageway; a base air passageway extending in the module base; an air outlet formed on the nozzle mounting surface and fluidically connected to the base air passageway; a first module bank removably mounted on the module base, the first module bank comprising at least one first module having a first valve configured to control a flow of fluid in the first fluid passageway; and a second module bank removably mounted on the module base, the second module bank comprising at least one second module having a second valve configured to control a flow of fluid in the second fluid passageway, wherein the first module and the second module are mounted at an angle relative to one another and; characterized by further comprising a filter block removably secured and fluidically connected to the module base; wherein the filter block comprises first and second fluid supply inputs (36, 38) and first and second filters (40, 42) fluidically connected to the first and second fluid supply inputs, respectively, such that the first and second filters are configured to receive the fluid from respective first and second fluid supply inputs. a module base; a first fluid passageway extending within the module base; a second fluid passageway extending within the module base and intersecting the first fluid passageway to form a nozzle fluid supply passageway downstream from the first and second fluid passageways; a fluid outlet formed on a nozzle mounting surface of the module base and fluidically connected to the nozzle fluid supply passageway; a base air passageway extending in the module base; an air outlet formed on the nozzle mounting surface and fluidically connected to the base air passageway; a first module bank removably mounted on the module base, the first module bank comprising at least one first module having a first valve configured to control a flow of fluid in the first fluid passageway; and a second module bank removably mounted on the module base, the second module bank comprising at least one second module having a second valve configured to control a flow of fluid in the second fluid passageway, wherein the first module and the second module are mounted at an angle relative to one another and; characterized by further comprising a filter block removably secured and fluidically connected to the module base; wherein the filter block comprises first and second fluid supply inputs (36, 38) and first and second filters (40, 42) fluidically connected to the first and second fluid supply inputs, respectively, such that the first and second filters are configured to receive the fluid from respective first and second fluid supply inputs.
A valve arrangement for underground control of a fluid flow, said valve arrangement comprising a valve including a valve housing containing fluid control means for controlling a flow of fluid through pipe means arranged below the surface of the ground, wherein said fluid control means is actuated by means of mechanical manipulation of an operating device of said valve, said operating device being coupled to said fluid control means, and wherein said valve further comprises valve identification means including data regarding the specific valve type, an extension device comprising an extension device housing substantially surrounding an extension rod, wherein said extension rod is rotatably supported by said extension device housing, said extension rod being mechanically coupled to said operating device to enable said mechanical manipulation being performed at said ground surface, wherein said extension device further comprises dedicated connection means extending between a valve end and a ground surface end of said extension device, said valve end being arranged at said valve housing and said ground surface end being arranged at the opposite end of said extension device, wherein said dedicated connection means enable that said data regarding said specific valve type may be communicated to said ground surface, wherein said valve arrangement comprises fastening means such as cotters, screws, bolts or clamping devices for connecting said valve and said extension device together.
Guiding apparatus (100, 200, 300, 400) for guiding a working device, comprising a connecting element (120, 220, 420); a drawbar element (130, 230, 330, 430) which is connected to the connecting element (120, 220, 420), can be moved relative to the connecting element (120, 220, 420) to a first position or a second position and can be connected by the connecting element (120, 220, 420) to the working device; and a support element (140, 240, 340, 440) which is connected by a deformable spring element (150, 250, 350) to the connecting element (120, 220, 420) and holds the drawbar element (130, 230, 330, 430) in the first position by supporting the drawbar element (130, 230, 330, 430) on the support element (140, 240, 340, 440); wherein the spring element (150, 250, 350) can be deformed by displacing the support element (140, 240, 340, 440); the drawbar element (130, 230, 330, 430) can be pivoted to the second position after deformation of the spring element (150, 250, 350); the support element (140, 240, 340, 440) has a pedal as a force-transmitting element (260, 360, 460); the spring element (150, 250, 350) can be deformed by exerting a force upon the pedal (260, 360, 460); characterised in that the drawbar element (230, 430) has at least one securing element (235, 435); the support element (240, 440) has at least one support stop (242, 442); and wherein the securing element (235, 435) adjoins the support stop (242, 442) if the support element (240, 440) holds the drawbar element (230, 430) in the first position.
A compound having the formula: wherein R is selected from 2-fluorophenyl, 3-fluorophenyl, 4-fluorophenyl; R 6 is hydrogen, methyl, or ethyl; or a pharmaceutically acceptable salt thereof. wherein R is selected from 2-fluorophenyl, 3-fluorophenyl, 4-fluorophenyl; R 6 is hydrogen, methyl, or ethyl; or a pharmaceutically acceptable salt thereof.
A method implemented in a user equipment, UE, for use in a wireless system for single carrier frequency division multiple access, SC-FDMA, wherein said UE comprises a plurality of antennas and has a plurality of associated user identifiers, IDs, the method comprising: receiving (710, 2810) an assignment of a recurring scheduling request resource in the wireless system comprising a plurality of subcarriers, wherein the recurring scheduling request resource is assigned to a plurality of UEs; selecting an antenna of the plurality of antennas for transmission by measuring signals transmitted from an eNB on the plurality of antennas; associating the selected antenna with one of the user IDs; encoding the user ID associated with the selected antenna; and transmitting (730, 2830) an SC-FDMA uplink control channel signal comprising the encoded user ID on the plurality of subcarriers of the assigned scheduling request resource to the eNB, using at least the selected antenna. receiving (710, 2810) an assignment of a recurring scheduling request resource in the wireless system comprising a plurality of subcarriers, wherein the recurring scheduling request resource is assigned to a plurality of UEs; selecting an antenna of the plurality of antennas for transmission by measuring signals transmitted from an eNB on the plurality of antennas; associating the selected antenna with one of the user IDs; encoding the user ID associated with the selected antenna; and transmitting (730, 2830) an SC-FDMA uplink control channel signal comprising the encoded user ID on the plurality of subcarriers of the assigned scheduling request resource to the eNB, using at least the selected antenna.
A method for producing stable cell lines of mammalian neural precursor cells in vitro, comprising the steps of: a) preparing a culture of neural precursor cells in a serum-free medium; b) culturing the neural precursor cells in the presence of a first mitogen, wherein said first mitogen is selected from the group consisting of aFGF, bFGF, EGF, TGFα and combinations thereof; c) contacting the cells with an agent capable of being taken up by the cells and capable of expressing a c-myc gene, wherein the c-myc gene is fused with other DNA elements comprising DNA for at least one ligand binding domain of a nuclear receptor; and d) further culturing the cells through at least thirty cell doublings in a medium comprising the first mitogen and a second mitogen prior to differentiation of the cells, wherein said second mitogen is serum, wherein said medium comprising the first mitogen and the second mitogen further comprises a myc-activating agent capable of binding to the ligand binding domain, wherein the neural precursor cells do not originate from human embryonic cells a) preparing a culture of neural precursor cells in a serum-free medium; b) culturing the neural precursor cells in the presence of a first mitogen, wherein said first mitogen is selected from the group consisting of aFGF, bFGF, EGF, TGFα and combinations thereof; c) contacting the cells with an agent capable of being taken up by the cells and capable of expressing a c-myc gene, wherein the c-myc gene is fused with other DNA elements comprising DNA for at least one ligand binding domain of a nuclear receptor; and d) further culturing the cells through at least thirty cell doublings in a medium comprising the first mitogen and a second mitogen prior to differentiation of the cells,