mhurhangee/ep-ind-claims huggingface dataset:
A machine for dispensing an aerosol precursor composition for use with aerosol delivery devices, the machine comprising: a plurality of sources of dispensable, liquid aerosol precursor components (12, 14, 16) within the machine, the plurality of sources (12, 14, 16) differing in the liquid aerosol precursor components dispensable therefrom; a user interface configured to allow a user to select an amount of the liquid aerosol precursor components for dispensing; and a dispenser configured to dispense the aerosol precursor components into a reservoir within a cartridge usable with an aerosol delivery device in response to the selection made on the user interface; characterised by an access aperture for dispensing the filled cartridge to the user; and a vending system configured to convey the filled cartridge from within the machine to the access aperture for the user. a plurality of sources of dispensable, liquid aerosol precursor components (12, 14, 16) within the machine, the plurality of sources (12, 14, 16) differing in the liquid aerosol precursor components dispensable therefrom; a user interface configured to allow a user to select an amount of the liquid aerosol precursor components for dispensing; and a dispenser configured to dispense the aerosol precursor components into a reservoir within a cartridge usable with an aerosol delivery device in response to the selection made on the user interface; characterised by an access aperture for dispensing the filled cartridge to the user; and a vending system configured to convey the filled cartridge from within the machine to the access aperture for the user.
An advanced basic culture medium for mesenchymal stem cells comprising the components and their respective amounts in mg/L as given in the following table: component amount [mg/l] Glycine 30 L-alanine 9 L-arginine monohydrochloride 211 L-asparagine anhydrous 50 L-aspartic acid 20 L-cystine dihydrochloride 62.6 L-glutamic acid 20 L-glutamine 584 L-histidine monohydrochloride 42 L-hydroxy-L-proline 20 L-isoleucine 105 L-leucine 105 L-lysine monohydrochloride 146 L-methionine 30 L-phenylalanine 66 L-proline 34.5 L-serine 42 L-threonine 95 L-tryptophan 16 L-tyrosine disodium salt dihydrate 103.79 L-valine 94 Calcium chloride dihydrate 265 Cupric sulfate pentahydrate 0.0025 Ferrous sulfate heptahydrate 0.834 Magnesium sulfate anhydrous 97.67 Potassium chloride 400 Sodium chloride 6400 Sodium phosphate dibasic anhydrous 142.04 Zinc sulfate heptahydrate 0.863 Ascorbic acid phosphate 50 Choline chloride 13.96 D-biotin 0.2 D-Ca panthothenate 4 Folic acid 4 Myo-inositol 35 Nicotinamide (nicotinic acid amide) 4 p-aminobenzoic acid (PABA) 1 Pyridoxal hydrochloride 4 Riboflavin 0.4 Thiamine hydrochloride 4 Vitamine B12 1.36 D-glucose anhydrous 4500 hypoxanthine 4.08 L-glutathione reduced 1 Linoleic acid 0.084 Phenol red sodium salt 15.9 Putrescine+2HCl 0.161 Sodium pyruvate 110 Thioctic acid 0.21 thymidine 0.73
A method of controlling a heat-generating element that generates heat when electric current is passed therethrough to control an ambient temperature within a space in which a sensor for sensing temperatures is at least partially located, the method comprising: (a) sensing an initial temperature; (b) permitting passage of the electric current through the heat-generating element at a preselected output for a preselected initial time period (t 1); (c) after the electric current has passed through the heat-generating element for the preselected initial time period (t 1), sensing a second temperature; (d) determining a first temperature difference between the initial temperature and the second temperature; and (e) determining a calculated offset between: a sensed temperature sensed at a selected time after the initial time period, and the ambient temperature at the selected time, in accordance with a predetermined relationship between the first temperature difference and the calculated offset. (a) sensing an initial temperature; (b) permitting passage of the electric current through the heat-generating element at a preselected output for a preselected initial time period (t 1); (c) after the electric current has passed through the heat-generating element for the preselected initial time period (t 1), sensing a second temperature; (d) determining a first temperature difference between the initial temperature and the second temperature; and (e) determining a calculated offset between: a sensed temperature sensed at a selected time after the initial time period, and the ambient temperature at the selected time, a sensed temperature sensed at a selected time after the initial time period, and the ambient temperature at the selected time,
An engagement device comprising: an engaged body configured to rotate in conjunction with a rotary shaft; an engaging body arranged coaxially with the engaged body and configured to engage with the engaged body by movement in an axial direction; a power source configured to provide thrust to the engaging body in the axial direction; and a hub member configured to couple the engaging body to a torque receiver which receives torque transmitted from the engaged body at a time the engaging body engages with the engaged body, the engagement device being characterized in that the engaged body, the engaging body, and the power source are accommodated in a closed space, and the hub member is at least a part of an outer shell forming the closed space. an engaged body configured to rotate in conjunction with a rotary shaft; an engaging body arranged coaxially with the engaged body and configured to engage with the engaged body by movement in an axial direction; a power source configured to provide thrust to the engaging body in the axial direction; and a hub member configured to couple the engaging body to a torque receiver which receives torque transmitted from the engaged body at a time the engaging body engages with the engaged body, the engagement device being characterized in that the engaged body, the engaging body, and the power source are accommodated in a closed space, and the hub member is at least a part of an outer shell forming the closed space.
An engineering device comprising a movable stage and a driving system configured to drive the movable stage by giving a control input, the driving system comprising: a first measuring instrument configured to measure a first controlled variable (X 1) related to a position of a first measurement point provided at a first section of the movable stage, a second measuring instrument (18X 1) configured to measure a second controlled variable (X 2) related to a position of a second measurement point provided at a second section of the movable stage, a controlling section configured to obtain the control input by performing a control operation based on measurement results of the first and the second measuring instruments and a desired value of a controlled variable of the movable stage related to the position of the movable stage, and to give the control input to a control point provided at the movable stage, characterised in that: the first section is configured to vibrate in opposite phase to the second section in a predetermined vibration state when the control input is given to the control point, the second measurement point and the control point being provided at the same rigid body, and wherein the control operation determines the control input so as to suppress vibration of the first section relative to the second section in the predetermined vibration state. a first measuring instrument configured to measure a first controlled variable (X 1) related to a position of a first measurement point provided at a first section of the movable stage, a second measuring instrument (18X 1) configured to measure a second controlled variable (X 2) related to a position of a second measurement point provided at a second section of the movable stage, a controlling section configured to obtain the control input by performing a control operation based on measurement results of the first and the second measuring instruments and a desired value of a controlled variable of the movable stage related to the position of the movable stage, and to give the control input to a control point provided at the movable stage, characterised in that: the first section is configured to vibrate in opposite phase to the second section in a predetermined vibration state when the control input is given to the control point, the second measurement point and the control point being provided at the same rigid body, and wherein the control operation determines the control input so as to suppress vibration of the first section relative to the second section in the predetermined vibration state. the first section is configured to vibrate in opposite phase to the second section in a predetermined vibration state when the control input is given to the control point, the second measurement point and the control point being provided at the same rigid body, and wherein the control operation determines the control input so as to suppress vibration of the first section relative to the second section in the predetermined vibration state.
Rotor feeder unit for an agricultural machine comprising a rotor feeder and a drive for driving said rotor feeder, said drive comprises: - an input that is configured to be coupled to a power source; - an output coupled to the rotor feeder for rotating the rotor feeder about its axis of rotation; and - a mechanical continuously variable ratio transmission coupling said input and said output, characterised in that the mechanical continuously variable ratio transmission is of the belt type comprising a variable-diameter input pulley, a variable-diameter output pulley, and a belt arranged between said input pulley and said output pulley. - an input that is configured to be coupled to a power source; - an output coupled to the rotor feeder for rotating the rotor feeder about its axis of rotation; and - a mechanical continuously variable ratio transmission coupling said input and said output,
A method for manufacturing a photovoltaic element comprising: a) a step of electrically connecting, in series, a plurality of photovoltaic cells, comprising a first face and a second face, arranged in a row, said row extending in a direction E, the connection between two adjacent photovoltaic cells being ensured by a plurality of conductive tracks; b) a step of cutting, along cutting lines disposed on the first face, each photovoltaic cell into a plurality of photovoltaic sub-cells, the cutting step being carried out in the direction E so as to form a plurality of sub-rows of photovoltaic sub-cells, the cutting step also being carried out so that, in each sub-row, the sub-cells are connected in series, step b) comprising a cleavage of the photovoltaic cells by mechanical action at the cutting lines; c) a step of electrically connecting at least two sub-rows of sub-cells, so that all the sub-cells of the at least two sub-rows are connected in series, the method further comprises a step a1), preceding step b), advantageously step a), said step a1) being a step of weakening each photovoltaic cell along the cutting lines, step a1) comprising the formation of trenches along the cutting lines in the photovoltaic cells, advantageously, the formation of the trenches being carried out by a LASER treatment the trenches extending over a depth P, from the first face or from the second face, comprised between 2.5% and 50% of the total thickness of the photovoltaic cell and advantageously between 5% and 20% of the total thickness. a) a step of electrically connecting, in series, a plurality of photovoltaic cells, comprising a first face and a second face, arranged in a row, said row extending in a direction E, the connection between two adjacent photovoltaic cells being ensured by a plurality of conductive tracks; b) a step of cutting, along cutting lines disposed on the first face, each photovoltaic cell into a plurality of photovoltaic sub-cells, the cutting step being carried out in the direction E so as to form a plurality of sub-rows of photovoltaic sub-cells, the cutting step also being carried out so that, in each sub-row, the sub-cells are connected in series, step b) comprising a cleavage of the photovoltaic cells by mechanical action at the cutting lines; c) a step of electrically connecting at least two sub-rows of sub-cells, so that all the sub-cells of the at least two sub-rows are connected in series,
A positive electrode active substance for a secondary cell, wherein graphite as a water-insoluble electrically conductive carbon material and carbon obtained by carbonizing glucose as a water-soluble carbon precursor material are supported on a compound containing at least iron or manganese, the compound represented by formula, or: LiFe a Mn b M 1 c PO 4... wherein M 1 represents Mg, Ca, Sr, Y, Zr, Mo, Ba, Pb, Bi, La, Ce, Nd, or Gd, and a, b, and c each represent a number satisfying 0≤a≤1, 0≤b≤1, 0≤c≤0.2, 2a + 2b + (valence of M 1) × c = 2, and a + b ≠ 0; and NaFe g Mn h Q i PO 4... wherein Q represents Mg, Ca, Co, Sr, Y, Zr, Mo, Ba, Pb, Bi, La, Ce, Nd, or Gd, and g, h, and i each represent a number satisfying 0≤g≤1, 0≤h≤1, 0≤i<1, 2g + 2h + (valence of Q) × i = 2, and g + h ≠ 0; wherein the amount of carbon supported for the carbon obtained by carbonizing glucose, is 0.5 to 8.0 mass% in the positive electrode active substance for a secondary cell; and wherein the amount of the absorbed water in the positive electrode active substance is less than 850 ppm, as determined according to the description.
An apparatus for wireless communication, comprising: means for measuring one or more reference signals, RS, associated with a beam direction from a base station; means for selecting the beam direction for downlink transmission from one or more beam directions based on the measured RS for each of the one or more beam directions; means for determining whether the selected beam direction is in a restricted-beam set, wherein the restricted- beam set identifies at least one beam direction restricted for an uplink transmission; means for receiving a configuration from the base station to report to the base station when the restricted-beam set should be changed based on the RS measurements; and means for receiving a signal from the base station changing the restricted-beam set. means for measuring one or more reference signals, RS, associated with a beam direction from a base station; means for selecting the beam direction for downlink transmission from one or more beam directions based on the measured RS for each of the one or more beam directions; means for determining whether the selected beam direction is in a restricted-beam set, wherein the restricted- beam set identifies at least one beam direction restricted for an uplink transmission; means for receiving a configuration from the base station to report to the base station when the restricted-beam set should be changed based on the RS measurements; and means for receiving a signal from the base station changing the restricted-beam set.
A dynamic adaptable environment resource processor implemented method, comprising: receiving a request to initiate a heat blast or a cool blast at a resource management device; creating a temporary blast schedule based on the request; overriding a current environment schedule with the temporary blast schedule for a duration of the temporary blast schedule; calculating a temporary blast schedule termination delay based on a duration of the temporary blast schedule, or based on a difference between a final temperature of the temporary blast schedule and a regular schedule temperature of the current environment schedule; implementing the temporary blast schedule termination delay after the temporary blast schedule ends; and restoring the current environment schedule after the temporary blast schedule termination delay. receiving a request to initiate a heat blast or a cool blast at a resource management device; creating a temporary blast schedule based on the request; overriding a current environment schedule with the temporary blast schedule for a duration of the temporary blast schedule; calculating a temporary blast schedule termination delay based on a duration of the temporary blast schedule, or based on a difference between a final temperature of the temporary blast schedule and a regular schedule temperature of the current environment schedule; implementing the temporary blast schedule termination delay after the temporary blast schedule ends; and restoring the current environment schedule after the temporary blast schedule termination delay.
A center pillar weather strip attached to a center pillar of a car body of an automobile comprising: an attachment base that is attached to the center pillar; a front side linkage part that extends obliquely upward in a front direction of the car body from the attachment base; a rear side linkage part that extends from the attachment base to a rear direction of the car body; a hollow seal part that is linked to tips of the front side linkage part and the rear side linkage part and formed in a shape curved convex to a car outside; and a front side seal lip that extends from a connection portion between the front side linkage part and the hollow seal part toward an extending direction of the hollow seal part and formed in a shape curved convex to the center pillar side, characterized in that an angle formed by the front side linkage part and the center pillar is 5 to 45 degrees. an attachment base that is attached to the center pillar; a front side linkage part that extends obliquely upward in a front direction of the car body from the attachment base; a rear side linkage part that extends from the attachment base to a rear direction of the car body; a hollow seal part that is linked to tips of the front side linkage part and the rear side linkage part and formed in a shape curved convex to a car outside; and a front side seal lip that extends from a connection portion between the front side linkage part and the hollow seal part toward an extending direction of the hollow seal part and formed in a shape curved convex to the center pillar side, characterized in that an angle formed by the front side linkage part and the center pillar is 5 to 45 degrees.
A bone plate system comprising: a substantially rigid plate including a first slot oriented along a first, longitudinal axis; a slider, longitudinally displaceable along said first slot; said slider including a second slot oriented along a second axis that is transverse to the first longitudinal axis; a fastener; wherein, when said fastener is inserted through said second slot and loosely engaged to an underlying bone, said plate can be repositioned proximally and/or distally along said first longitudinal axis, laterally skewed along said second axis and circularly rotated around said fastener. a substantially rigid plate including a first slot oriented along a first, longitudinal axis; a slider, longitudinally displaceable along said first slot; said slider including a second slot oriented along a second axis that is transverse to the first longitudinal axis; a fastener; wherein, when said fastener is inserted through said second slot and loosely engaged to an underlying bone, said plate can be repositioned proximally and/or distally along said first longitudinal axis, laterally skewed along said second axis and circularly rotated around said fastener.
A method for obtaining data for manufacturing a dental component and a physical dental model (60, 61, 62) of at least a part of a dental structure, comprising obtaining a first data record for manufacturing the dental component, the first data record comprising information based on a portion of a digital dental model (50, 51, 52); obtaining a second data record for manufacturing the physical dental model (60, 61, 62), the second data record comprising information based on at least the portion of the digital dental model (50, 51, 52); characterized by obtaining at least one digital impression (60, 61, 62) of a portion of a physical impression (30, 31, 32) by controlling a scanner device, the portion of the physical impression (30, 31, 32) comprising an impression of a portion of the dental structure; and generating the digital dental model (50, 51, 52) based on the digital impression (60, 61, 62).
Flow rate regulator for an outlet of a liquid container, in particular for an outlet of a basin, wherein the flow rate regulator has a float and has a screen (10; 28) which can be actuated by means of the float and which serves to variably screen off an outlet opening for the liquid, and with means for varying the flow characteristics of the screen (10; 28), wherein the means have a base disc, which can be actuated by the float and is pivotable about a stationary, horizontally arranged axis, and a control disc, which is connected to the base disc and can be arranged in different positions with respect to this base disc, wherein the control disc is provided with a control curve, characterized in that the control disc is connectable to the base disc in the different positions in such a way that the distance of several points (15, 16) of the control curve from the axis of the base disc is varied.
A two-wheel air cycle machine comprising: a tie rod defining an axis; a turbine mounted on the tie rod; a compressor mounted on the tie rod, the compressor comprising a rotor portion and a disk portion having at least one disk aperture; a compressor inlet fluidly connecting the compressor and an inlet air source; at least one thrust bearing disposed between the turbine and the compressor; and a compressor end shaft coaxial with the tie rod and abutting the compressor disk portion, the compressor end shaft comprising a radially-extending seal disk portion and an axially-extending shaft portion, the axially extending shaft portion having at least one shaft aperture; wherein the at least one disk aperture and the at least one shaft aperture are fluidly connected by a compressor disk cavity defined by a gap between the tie rod and the compressor disk portion; and wherein the at least one disk aperture, the compressor disk cavity, and the at least one shaft aperture at least partially define a compressor inlet flow path; and characterized in that a radially outermost edge of the seal disk portion comprises a knife edge. a tie rod defining an axis; a turbine mounted on the tie rod; a compressor mounted on the tie rod, the compressor comprising a rotor portion and a disk portion having at least one disk aperture; a compressor inlet fluidly connecting the compressor and an inlet air source; at least one thrust bearing disposed between the turbine and the compressor; and a compressor end shaft coaxial with the tie rod and abutting the compressor disk portion, the compressor end shaft comprising a radially-extending seal disk portion and an axially-extending shaft portion, the axially extending shaft portion having at least one shaft aperture; wherein the at least one disk aperture and the at least one shaft aperture are fluidly connected by a compressor disk cavity defined by a gap between the tie rod and the compressor disk portion; and