mhurhangee/ep-ind-claims huggingface dataset:
A feed system for feeding a device with workpieces by means of a robot, wherein the feed system comprises a feeding station and at least one transport carriage, wherein the feeding station has a robot fastening section and is designed in such a way that a workpiece holder can be reproducibly held in it unmovably and in a defined receiving position relative to the robot fastening section from which a robot mounted to the robot fastening section can grasp the workpieces, wherein the transport carriage has at least one holding device for holding a workpiece holder in a holding position, wherein the feeding station has a loading device with which a workpiece holder can be brought indirectly from the holding position into the receiving position in the feeding station, wherein the loading device is designed such that it can push and/or pull a workpiece holder and the feeding station has a coupling section through which the transport carriage can be coupled with the aid of a coupling device with the feeding station such that a workpiece holder held in the transport carriage in the holding position after the coupling of the transport carriage with the coupling section has been brought into the receiving position with a horizontal and/or vertical movement of the workpiece holder. wherein the feed system comprises a feeding station and at least one transport carriage, wherein the feeding station has a robot fastening section and is designed in such a way that a workpiece holder can be reproducibly held in it unmovably and in a defined receiving position relative to the robot fastening section from which a robot mounted to the robot fastening section can grasp the workpieces, wherein the transport carriage has at least one holding device for holding a workpiece holder in a holding position, wherein the feeding station has a loading device with which a workpiece holder can be brought indirectly from the holding position into the receiving position in the feeding station, wherein the loading device is designed such that it can push and/or pull a workpiece holder and the feeding station has a coupling section through which the transport carriage can be coupled with the aid of a coupling device with the feeding station such that a workpiece holder held in the transport carriage in the holding position after the coupling of the transport carriage with the coupling section has been brought into the receiving position with a horizontal and/or vertical movement of the workpiece holder.
A photovoltaic power generation system incorporated in a protective vehicle body cover for covering a two-wheeled vehicle to charge a battery of said vehicle, including solar cells (21 a, 21b, 21c) for feeding an electromotive force to said battery, comprising: a display unit (52, 53, 54) configured to display a remaining charging level of said battery and an electricity generated by said solar cells (21 a, 21b, 21c); and a charge and discharge control circuit for controlling a display state of said display unit (52, 53, 54), characterized in that the display unit (52, 53, 54) comprises a plurality of luminous elements each configured to emit a light beam different in color and in that said charge and discharge control circuit is configured to control the display unit (52, 53, 54) such that depending on the remaining charging level of said battery at least one luminous element from among the plurality of luminous elements is selected to be lit, and such that depending on the electricity generated by said solar cells (21 a, 21 b, 21c) a flickering interval of the selected at least one luminous element is varied. a display unit (52, 53, 54) configured to display a remaining charging level of said battery and an electricity generated by said solar cells (21 a, 21b, 21c); and a charge and discharge control circuit for controlling a display state of said display unit (52, 53, 54), characterized in that the display unit (52, 53, 54) comprises a plurality of luminous elements each configured to emit a light beam different in color and in that said charge and discharge control circuit is configured to control the display unit (52, 53, 54) such that depending on the remaining charging level of said battery at least one luminous element from among the plurality of luminous elements is selected to be lit, and such that depending on the electricity generated by said solar cells (21 a, 21 b, 21c) a flickering interval of the selected at least one luminous element is varied.
An electronic device configured to send or receive messages to other electronic devices over a platform layer, wherein the messages are to cause an operation to occur at the electronic device or at the other electronic devices, wherein the messages comprise: a message format comprising: a message type field, wherein the message type field is configured to indicate a message operation code that specifies a type of message being sent; an exchange ID field immediately following the message type field, wherein the exchange ID field is configured to uniquely identify a discussion in which the message occurs for the electronic device; a profile ID field immediately following the exchange ID field, wherein the profile ID field indicates a profile of a plurality of profiles that enables a receiving device to interpret the message type field and identify at least one schema of a plurality of schemas for transmitted data, wherein each schema of the plurality of schemas indicates an encoding format according to the profile and schema; and an application payload field following the profile ID, wherein the application payload field comprises data associated with an application layer of the electronic device. a message type field, wherein the message type field is configured to indicate a message operation code that specifies a type of message being sent; an exchange ID field immediately following the message type field, wherein the exchange ID field is configured to uniquely identify a discussion in which the message occurs for the electronic device; a profile ID field immediately following the exchange ID field, wherein the profile ID field indicates a profile of a plurality of profiles that enables a receiving device to interpret the message type field and identify at least one schema of a plurality of schemas for transmitted data, wherein each schema of the plurality of schemas indicates an encoding format according to the profile and schema; and an application payload field following the profile ID, wherein the application payload field comprises data associated with an application layer of the electronic device.
A palletizing device for the stacking of filled sacks into a stack of sacks, having a pushing device with a sliding surface and a sliding table arranged next to the sliding surface as well as a pusher for pushing a layer of sacks from the sliding surface onto the sliding table, further having a lifting device for receiving the stack of sacks underneath the sliding table, characterized in that a vibrating device is provided for a vibrating of the stack of sacks for reducing unevennesses of the layers of the filled sacks in the stack of sacks, wherein the lifting device has the vibrating device, wherein a drive for an up and down movement of the lifting device also forms a drive of the vibrating device, wherein the vibrating device for introducing a vibrating movement into the stack of sacks is formed with an up and down movement, wherein an up and down amplitude of the up and down movement is formed which is less than approx. 5 cm.
A multi-pump apparatus comprising: a first component in a fluid heat transfer system, the component including a first interface surface; and a pumping component including a second interface surface, the first and second interface surfaces combining to define two pump cavities (34, 35) each having a separate fluid inlet (38, 39) and separate fluid outlet (40, 41) for connection to separate fluid circuits and a planar interface groove supporting a seal ring that extends around the two pump cavities (34, 35) to prevent leakage of fluid from the pump cavities (34, 35); the pumping component including a pump impeller (36,37) in each of the pump cavities (34, 35) and at least one motor driving the two pump impellers (36, 37); characterized in that the first component is a heat exchanger. a first component in a fluid heat transfer system, the component including a first interface surface; and a pumping component including a second interface surface, the first and second interface surfaces combining to define two pump cavities (34, 35) each having a separate fluid inlet (38, 39) and separate fluid outlet (40, 41) for connection to separate fluid circuits and a planar interface groove supporting a seal ring that extends around the two pump cavities (34, 35) to prevent leakage of fluid from the pump cavities (34, 35); the pumping component including a pump impeller (36,37) in each of the pump cavities (34, 35) and at least one motor driving the two pump impellers (36, 37); characterized in that the first component is a heat exchanger.
Method for incorporating a recognition sequence in a protein, said method comprising the steps of a. generating at least one genetic construct comprising a nucleotide sequence coding for said protein comprising the recognition sequence; b. expressing in a natural host said at least one genetic construct using a vector comprising said at least one genetic construct; and c. using a plant-based over-expression system with a constitutive promoter to over-express said vector, said plant-based over-expression system is based on at least one plant and/or on at least one plant cells suspension; characterized in that said recognition sequence comprises at least one stretch of amino acids with as sequence Phe-x 1 -x 2 -Tyr, wherein Phe is phenylalanine, x 1 and x 2 are amino acid residues and Tyr is tyrosine and in that said plant-based over-expression system has an enzymatic activity which converts the phenylalanine residue of said recognition sequence into a didehydro-phenylalanine residue. a. generating at least one genetic construct comprising a nucleotide sequence coding for said protein comprising the recognition sequence; b. expressing in a natural host said at least one genetic construct using a vector comprising said at least one genetic construct; and c. using a plant-based over-expression system with a constitutive promoter to over-express said vector, said plant-based over-expression system is based on at least one plant and/or on at least one plant cells suspension;
Method for automatically determining the contours of heights of the relief, such as hillocks and hills, of a geographical area, in particular terrestrial or submarine, according to which method the following successive operations are performed automatically: a) on the basis of an image of said geographical area, which contains altimetric data of points therein, the background surface of the relief which illustrates the gradual variations in the altitudes of said geographical area is eliminated, by implementing what is known as a top hat algorithm, which uses a structuring element which is adjustable; b) on the basis of the results of step a), thresholding is performed to form a binary image of the relief seen from above, containing only reliefs having heights above a threshold value which is adjustable, said thresholding being performed so as to preserve only the reliefs which are high enough to be exploited; c) from this binary image which comprises two different types (Z1, Z2) of area, rough contours of the heights of the relief are extracted, illustrating the boundaries between these two different types (Z1, Z2) of area; d) said rough contours are simplified so as to obtain a set of polygons (P1, P2, P3) illustrating the contours (C1, C2, C3) of the heights of the relief of said geographical area; and in an additional step, said set of polygons (P1, P2, P3) is analysed in order to define at least one attribute making it possible to characterise said polygons (P1, P2, P3), characterised in that said at least one attribute comprises at least high points, and, for determining the high points, points having local maximum heights (M1, and M2) are sought, by means of a threshold which is adjustable, and all the points found which are outside said rough contours are excluded. a) on the basis of an image of said geographical area, which contains altimetric data of points therein, the background surface of the relief which illustrates the gradual variations in the altitudes of said geographical area is eliminated, by implementing what is known as a top hat algorithm, which uses a structuring element which is adjustable; b) on the basis of the results of step a), thresholding is performed to form a binary image of the relief seen from above, containing only reliefs having heights above a threshold value which is adjustable, said thresholding being performed so as to preserve only the reliefs which are high enough to be exploited; c) from this binary image which comprises two different types (Z1, Z2) of area, rough contours of the heights of the relief are extracted, illustrating the boundaries between these two different types (Z1, Z2) of area; d) said rough contours are simplified so as to obtain a set of polygons (P1, P2, P3) illustrating the contours (C1, C2, C3) of the heights of the relief of said geographical area; and
Crown wheel gear, with a housing, a pinion shaft mounted so as to be rotatable relative to the housing, a pinion connected to the pinion shaft, a crown wheel shaft mounted so as to be rotatable relative to the housing, and a crown wheel connected to the crown wheel shaft, wherein the pinion and the crown wheel are in toothed engagement with one another, wherein the crown wheel shaft has a crown wheel shaft axis characterized in that the crown wheel and the crown wheel shaft are rotatable relative to the housing but are fixed in position, and the pinion is displaceable relative to the crown wheel in order to adjust a torsional backlash between the crown wheel and the pinion, wherein the pinion is displaceable parallel to the crown wheel shaft axis, wherein the pinion shaft is rotatably mounted in a flange and the flange is displaceable relative to the housing, wherein at least one longitudinal fit arranged parallel to the crown wheel shaft axis is arranged between the housing and the flange in order to align the pinion shaft.
A disk-like liquid crystal compound that is a compound represented by Formula, in Formula, A 2X, A 3X, and A 4X each independently represent -CH= or -N=, R 17X R 18X, and R 19X each independently represent ∗ -X 211X -(Z 21X -X 212X) n21X -L 21X -Q, * represents a position of binding to a central ring, X 211X and X 212X each independently represent a single bond, -O-, -C(=O)-, -NH-, -OC(=O)-, -OC(=O)O-, -OC(=O)NH-, -OC(=O)S-, -C(=O)O-, -C(=O)NH-, -C(=O)S-, -NHC(=O)-, -NHC(=O)O-, -NHC(=O)NH-, -NHC(=O)S-, -S-, -SC(=O)-, -SC(=O)O-, -SC(=O)NH-, or -SC(=O)S-, Z 21X 's each independently represent a 5-membered or 6-membered aromatic ring group or a 5-membered or 6-membered non-aromatic ring group, L 21X represents a single bond or a divalent linking group, Q's each independently represent a reactive functional group selected from the group consisting of a hydroxyl group, a carboxylic acid group, a carboxylic acid anhydride group, an amino group, a cyanate ester group, and a thiol group, n21X represents an integer of 0 to 3, and in a case where n21X is equal to or greater than 2, a plurality of groups represented by (Z 21X -X 212X) may be the same as or different from each other. in Formula, A 2X, A 3X, and A 4X each independently represent -CH= or -N=, R 17X R 18X, and R 19X each independently represent ∗ -X 211X -(Z 21X -X 212X) n21X -L 21X -Q, * represents a position of binding to a central ring, X 211X and X 212X each independently represent a single bond, -O-, -C(=O)-, -NH-, -OC(=O)-, -OC(=O)O-, -OC(=O)NH-, -OC(=O)S-, -C(=O)O-, -C(=O)NH-, -C(=O)S-, -NHC(=O)-, -NHC(=O)O-, -NHC(=O)NH-, -NHC(=O)S-, -S-, -SC(=O)-, -SC(=O)O-, -SC(=O)NH-, or -SC(=O)S-, Z 21X 's each independently represent a 5-membered or 6-membered aromatic ring group or a 5-membered or 6-membered non-aromatic ring group, L 21X represents a single bond or a divalent linking group, Q's each independently represent a reactive functional group selected from the group consisting of a hydroxyl group, a carboxylic acid group, a carboxylic acid anhydride group, an amino group, a cyanate ester group, and a thiol group, n21X represents an integer of 0 to 3, and in a case where n21X is equal to or greater than 2, a plurality of groups represented by (Z 21X -X 212X) may be the same as or different from each other.
A method of preventing reduction in a molecular weight of an organopolysiloxane compound in which a poly(N-acylalkyleneimine) segment comprising repeating units represented by formula: wherein R 1 is a hydrogen atom, an alkyl group having 1 to 22 carbon atoms, an aralkyl group, or an aryl group, and n is 2 or 3, is bonded to a terminal end and/or a side chain of an organopolysiloxane segment, the method comprising: a step (a) of subjecting a cyclic imino ether compound represented by formula: wherein R 1 and n are the same as those defined above with respect to R 1 and n of formula, to ring opening polymerization in a solvent, thereby preparing a terminal reactive poly(N-acylalkyleneimine) solution; a step (b) of mixing a modified organopolysiloxane having an amino group at a terminal end and/or a side chain of its molecular chain and a solvent, thereby preparing a modified organopolysiloxane solution; a step (c) of mixing the terminal reactive poly(N-acylalkyleneimine) solution obtained in step (a) and the modified organopolysiloxane solution obtained in step (b), thereby allowing amino groups in the modified organopolysiloxane to react with the terminal reactive poly(N-acylalkyleneimine); and a step (d) of removing the solvent at 100 to 200 °C after completing step (c), wherein 65 to 95 mol % of total amino groups in the modified organopolysiloxane is allowed to react with the terminal reactive poly(N-acylalkyleneimine) in step (c), thereby preventing the molecular weight of the organopolysiloxane compound from being reduced in step (d). a step (a) of subjecting a cyclic imino ether compound represented by formula: wherein R 1 and n are the same as those defined above with respect to R 1 and n of formula, a step (b) of mixing a modified organopolysiloxane having an amino group at a terminal end and/or a side chain of its molecular chain and a solvent, thereby preparing a modified organopolysiloxane solution; a step (c) of mixing the terminal reactive poly(N-acylalkyleneimine) solution obtained in step (a) and the modified organopolysiloxane solution obtained in step (b), thereby allowing amino groups in the modified organopolysiloxane to react with the terminal reactive poly(N-acylalkyleneimine); and a step (d) of removing the solvent at 100 to 200 °C after completing step (c),
A method for calibrating a first valve in a vacuum system, comprising: measuring conductance of a second reference valve as a function of second reference valve angular position to determine a desired reference profile of conductance versus angular valve position; measuring conductance of the first valve as a function of angular valve position; determining a conductance map or function for the first valve by comparing the measured conductance of the first valve as a function of angular valve position to the desired reference profile of conductance versus angular valve position; and storing the conductance map or function and the desired reference profile for use during operation of the first valve. measuring conductance of a second reference valve as a function of second reference valve angular position to determine a desired reference profile of conductance versus angular valve position; measuring conductance of the first valve as a function of angular valve position; determining a conductance map or function for the first valve by comparing the measured conductance of the first valve as a function of angular valve position to the desired reference profile of conductance versus angular valve position; and storing the conductance map or function and the desired reference profile for use during operation of the first valve.
A brassiere (10, 110) comprising a cradle (18, 118), two straps (16, 116) and two moulded preformed foam cups (12, 112) each for receiving a breast, each of the cups (12, 112) having an underarm edge section, a neckline edge section, a centre edge section, an apex, and an around cup edge section, wherein the brassiere further comprises a Y shaped control panel (24, 124) generally extending from the straps (16, 116) across the top of the neckline edge section of each of the cups (12, 112) and down the centre edge section of each of the cups (12, 112) to the cradle (18, 118) wherein the cradle (18, 118) comprises an under band (20, 120), two side panels (22, 122) extending from the under band (20, 120) and two wings (14, 114) extending from the side panels (22, 122); characterised in that the Y shaped control panel (24, 124), the two side panels (22,122) and the under band (20,120) each comprises a rigid double bonded fabric and the Y shaped control panel (24, 124) connects to the under band (20, 120) of the cradle (18, 118) and surrounds neckline edge sections and centre edge sections of the cups (12, 112).
A method for determining an effective amount of iloperidone or a pharmaceutically acceptable salt thereof for treating a patient, comprising the steps of: determining the patient's CYP2D6 genotype in a biological sample of said patient; and determining the effective amount of iloperidone or a pharmaceutically acceptable salt thereof based on the patient's CYP2D6 genotype, wherein the amount of iloperidone is 12 mg/day or less in a case in which the patient has a CYP2D6 poor metabolizer genotype, and wherein the amount of iloperidone is 24 mg/day in a case in which the patient has a CYP2D6 normal metabolizer genotype or a CYP2D6 extensive metabolizer genotype. determining the patient's CYP2D6 genotype in a biological sample of said patient; and determining the effective amount of iloperidone or a pharmaceutically acceptable salt thereof based on the patient's CYP2D6 genotype, wherein the amount of iloperidone is 12 mg/day or less in a case in which the patient has a CYP2D6 poor metabolizer genotype, and wherein the amount of iloperidone is 24 mg/day in a case in which the patient has a CYP2D6 normal metabolizer genotype or a CYP2D6 extensive metabolizer genotype.
Method for determining a valve position (o, g) of a process valve, comprising: determining, by means of at least one acceleration sensor, the acceleration sensor being fixedly arranged relative to an adjusting axis of a process valve, at least one acceleration signal (a) which represents a relative acceleration of at least one part of the process valve; determining, by means of at least one evaluation unit, on the basis of the at least one acceleration signal (a) and of a control signal (c) associated with a valve drive, at least one diagnostic result of the process valve, which result comprises the valve position (o, g); and providing, by means of at least one interface, the at least one diagnostic result. determining, by means of at least one acceleration sensor, the acceleration sensor being fixedly arranged relative to an adjusting axis of a process valve, at least one acceleration signal (a) which represents a relative acceleration of at least one part of the process valve; determining, by means of at least one evaluation unit, on the basis of the at least one acceleration signal (a) and of a control signal (c) associated with a valve drive, at least one diagnostic result of the process valve, which result comprises the valve position (o, g); and providing, by means of at least one interface, the at least one diagnostic result.