mhurhangee/ep-ind-claims huggingface dataset:
Granulate containing at least one agglomerated reactive bulk material and a binder matrix, wherein the bulk density lies in the range of 0.7 to 1.2, wherein the binder matrix contains at least one organic or inorganic salt as a binder, wherein the melting point of the binder lies below 600 °C, being producible by a method comprising the following steps: - Mixing reactive bulk material, binder and, where appropriate, further auxiliary materials, - Heating the mixture to a temperature of at least the melting temperature of the binder so that the binder at least partially melts, - Cooling the mixture to form the granulate; or comprising the following steps: - Heating the mixture to a temperature of at least the melting temperature of the binder, - Mixing the at least partially molten binder with the reactive bulk material, and, where appropriate, further auxiliary materials, - Cooling the mixture to form the granulate. - Mixing reactive bulk material, binder and, where appropriate, further auxiliary materials, - Heating the mixture to a temperature of at least the melting temperature of the binder so that the binder at least partially melts, - Cooling the mixture to form the granulate; - Heating the mixture to a temperature of at least the melting temperature of the binder, - Mixing the at least partially molten binder with the reactive bulk material, and, where appropriate, further auxiliary materials, - Cooling the mixture to form the granulate.
An apparatus for wrapping a load with packaging material, the apparatus comprising: a packaging material dispenser for dispensing packaging material to the load; a load support for supporting the load during wrapping, wherein the packaging material dispenser and the load support are adapted for rotation relative to one other about a center of rotation; an angle sensor configured to sense an angular relationship between the load and the packaging material dispenser about the center of rotation; and a controller coupled to the angle sensor and the packaging material dispenser and configured to control a dispense rate of the packaging material dispenser during the relative rotation based at least in part on a geometric relationship between the packaging material dispenser and at least one corner of the load during the relative rotation and determined using the sensed angular relationship. a packaging material dispenser for dispensing packaging material to the load; a load support for supporting the load during wrapping, wherein the packaging material dispenser and the load support are adapted for rotation relative to one other about a center of rotation; an angle sensor configured to sense an angular relationship between the load and the packaging material dispenser about the center of rotation; and a controller coupled to the angle sensor and the packaging material dispenser and configured to control a dispense rate of the packaging material dispenser during the relative rotation based at least in part on a geometric relationship between the packaging material dispenser and at least one corner of the load during the relative rotation and determined using the sensed angular relationship.
A system with an output stage and rotational component, comprising: a first rotary component and a second rotary component; a first rotary encoder configured to generate a first output based on an angular position of the first rotary component; a second rotary encoder configured to generate a second output based on an angular position of the second rotary component; and a decoder including a position sensing algorithm configured to determine a position of a final output stage using the first and second outputs, wherein a ratio between the first and the second rotary components is a non-integer ratio with a relatively prime decimation, the angular position of the second rotary component changes an incremental amount for each full rotation of the first rotary component, and combinations of the first and second outputs are unique during a select number of rotations of said rotational component of said output stage; characterized in that the ratio satisfies the inequality: n 1 r 2 > n 1 − 1 y 1 gr where y1(gr) is an encoder output when the numerical value of the ratio revolutions has occurred, n1 is a number of bits for the first encoder, and r2 is a number of bits for the second encoder, wherein the ratio is m/n, and m and n are coprime, and wherein the first and second rotary components comprise gears, and the number of teeth on the first rotary component is greater than a number of rotations of that component for an entire mechanical stroke. a first rotary component and a second rotary component; a first rotary encoder configured to generate a first output based on an angular position of the first rotary component; a second rotary encoder configured to generate a second output based on an angular position of the second rotary component; and a decoder including a position sensing algorithm configured to determine a position of a final output stage using the first and second outputs, wherein a ratio between the first and the second rotary components is a non-integer ratio with a relatively prime decimation, the angular position of the second rotary component changes an incremental amount for each full rotation of the first rotary component, and combinations of the first and second outputs are unique during a select number of rotations of said rotational component of said output stage; characterized in that the ratio satisfies the inequality: n 1 r 2 > n 1 − 1 y 1 gr where y1(gr) is an encoder output when the numerical value of the ratio revolutions has occurred, n1 is a number of bits for the first encoder, and r2 is a number of bits for the second encoder, wherein the ratio is m/n, and m and n are coprime, and wherein the first and second rotary components comprise gears, and the number of teeth on the first rotary component is greater than a number of rotations of that component for an entire mechanical stroke.
A method for the production of monoalkyl sulfate esters of alkali metal salts or sulfonate esters comprising the steps of - synthesis of boron esters by the methods given in open literature, - mixing boric acid and the alcohol, - heating the mixture, - adding toluene, - removing the water, - removing the toluene, - obtaining of boron ester, and characterized by the steps of - an acidolysis method for production of mono alkyl sulfates of alkali metal salts by reacting boron esters with sulfuric acid; or an acidolysis method for producing alkyl sulfonate esters of alcohols by reacting boron esters with sulfonic acid in high yields, - adding sulfuric acid or sulfonic acid to the boron ester in medium with solvent wherein dichloroethane is used as solvent, or without solvent, - stirring the mixture that is prepared, - removing boric acid which precipitates, - removing the solvent in case it is used, - obtaining sulfate or sulfonate esters wherein in the monoalkyl sulfate esters of alkali metal salts which are obtained "alkyl" represents a group having 1-22 carbons and comprises alkyl groups of primary and secondary alcohols and ethoxylated phenol, ethoxylated amine and ethoxylated amine alcohols; or in the sulfonate esters "alkyl" represents a (C1-C22) alkyl group having 1-22 carbons. - synthesis of boron esters by the methods given in open literature, - mixing boric acid and the alcohol, - heating the mixture, - adding toluene, - removing the water, - removing the toluene, - obtaining of boron ester, and characterized by the steps of - mixing boric acid and the alcohol, - heating the mixture, - adding toluene, - removing the water, - removing the toluene, - obtaining of boron ester, and characterized by the steps of - an acidolysis method for production of mono alkyl sulfates of alkali metal salts by reacting boron esters with sulfuric acid; or an acidolysis method for producing alkyl sulfonate esters of alcohols by reacting boron esters with sulfonic acid in high yields, - adding sulfuric acid or sulfonic acid to the boron ester in medium with solvent wherein dichloroethane is used as solvent, or without solvent, - stirring the mixture that is prepared, - removing boric acid which precipitates, - removing the solvent in case it is used, - obtaining sulfate or sulfonate esters - adding sulfuric acid or sulfonic acid to the boron ester in medium with solvent wherein dichloroethane is used as solvent, or without solvent, - stirring the mixture that is prepared, - removing boric acid which precipitates, - removing the solvent in case it is used, - obtaining sulfate or sulfonate esters
Method for producing a coated implant, comprising the steps: a) coating an unstretched implant preform, comprising polytetrafluoroethylene and/or a copolymer comprising tetrafluoroethylene as a monomer unit, with an antimicrobially effective metal, wherein the coating is carried out by means of ion beam assisted deposition (IBAD) and b) stretching the coated implant preform. a) coating an unstretched implant preform, comprising polytetrafluoroethylene and/or a copolymer comprising tetrafluoroethylene as a monomer unit, with an antimicrobially effective metal, wherein the coating is carried out by means of ion beam assisted deposition (IBAD) and b) stretching the coated implant preform.
A back-illuminated solid-state imaging device comprising a pixel array formed in a semiconductor substrate having a back surface side and an opposite front surface side, each pixel comprising: a photoelectric conversion section that performs photoelectric conversion; a charge retaining section that temporarily retains electric charge converted by the photoelectric conversion section; a first isolation trench formed in the substrate between the photoelectric conversion section and the charge retaining section, the first isolation trench partially penetrates the substrate in the depth direction from the back surface side towards the front surface side such that the first isolation trench is deeper than the photoelectric conversion section; and further comprising an N+ diffusion layer that receives electric charge when the photoelectric conversion section is saturated preventing that electric charge flows into the charge retaining section, the N+ diffusion layer being electrically connected to a pixel reset transistor. a photoelectric conversion section that performs photoelectric conversion; a charge retaining section that temporarily retains electric charge converted by the photoelectric conversion section; a first isolation trench formed in the substrate between the photoelectric conversion section and the charge retaining section, the first isolation trench partially penetrates the substrate in the depth direction from the back surface side towards the front surface side such that the first isolation trench is deeper than the photoelectric conversion section; and further comprising an N+ diffusion layer that receives electric charge when the photoelectric conversion section is saturated preventing that electric charge flows into the charge retaining section, the N+ diffusion layer being electrically connected to a pixel reset transistor.
A method comprising: receiving, at an analytics platform connected to a network, one or more encapsulated packet headers from one or more network nodes of the network, wherein each encapsulated packet header of the one or more encapsulated packet headers comprises a truncated copy of a header of a data packet of data packets transiting through a network node of the one or more network nodes and a timestamp indicative of a time at which the data packet transited the network node; determining, from the one or more encapsulated packet headers, at least one or more source addresses of the one or more network nodes which transmitted the encapsulated packet headers, and determining, from each of the one or more encapsulated packet headers, the timestamp; and determining, from at least the one or more source addresses and the one or more timestamps, at least one or more of latency or jitter of the data packets transiting through the one or more network nodes. receiving, at an analytics platform connected to a network, one or more encapsulated packet headers from one or more network nodes of the network, wherein each encapsulated packet header of the one or more encapsulated packet headers comprises a truncated copy of a header of a data packet of data packets transiting through a network node of the one or more network nodes and a timestamp indicative of a time at which the data packet transited the network node; determining, from the one or more encapsulated packet headers, at least one or more source addresses of the one or more network nodes which transmitted the encapsulated packet headers, and determining, from each of the one or more encapsulated packet headers, the timestamp; and determining, from at least the one or more source addresses and the one or more timestamps, at least one or more of latency or jitter of the data packets transiting through the one or more network nodes.
Compressed air nail gun comprising: • a working piston which is connected to a driving ram for driving in a fastening means and to which compressed air is applied when a drive-in process is triggered, • a trigger and a contact sensor, the common actuation of which can trigger a drive-in process, • a safety device which has a control volume and is designed to automatically undertake a safety measure if a pressure threshold in the control volume is exceeded or not met, wherein the control volume is filled with air or emptied of air via a throttle in such a way that a delay time, after the expiration of which the pressure threshold is exceeded or not met, is specified by a volume of the control volume and an opening cross-section of the throttle, characterised in that • the control volume has a volume in the range of 0.5 ml to 20 ml and the throttle is a borehole with a diameter in the range of 30 μm to 95 μm. • a working piston which is connected to a driving ram for driving in a fastening means and to which compressed air is applied when a drive-in process is triggered, • a trigger and a contact sensor, the common actuation of which can trigger a drive-in process, • a safety device which has a control volume and is designed to automatically undertake a safety measure if a pressure threshold in the control volume is exceeded or not met, wherein the control volume is filled with air or emptied of air via a throttle in such a way that a delay time, after the expiration of which the pressure threshold is exceeded or not met, is specified by a volume of the control volume and an opening cross-section of the throttle, characterised in that • the control volume has a volume in the range of 0.5 ml to 20 ml and the throttle is a borehole with a diameter in the range of 30 μm to 95 μm.
A recombinant nucleic acid molecule comprising a modified G6PC promoter/enhancer sequence, wherein the modified GPE sequence lacks one or more sequences at least 80% identical to an Alu element, wherein such Alu element is selected from the contiguous nucleotides 934 - 1127 (Alu - 1), 1488 - 1823 (Alu - 2), and 1995 - 2350 (Alu - 3) of SEQ ID NO: 6.
A composition exclusive of hydroquinone comprising at least one polymer selected from the group consisting of poly(3,4-methylenedioxy-thiophene), poly(3,4-methylenedioxythiophene) derivatives, poly(3,4-ethylenedioxythiophene), poly(3,4-ethylenedioxy-thiophene) derivatives, poly(3,4-propylene dioxythiophene), poly(3,4-propylenedioxythiophene) derivatives, poly(3,4-butylenedioxythiophene), poly(3,4-butylenedioxythiophene) derivatives and copolymers therewith, a polyanion, at least one aromatic compound exclusive of sulfo groups and containing at least two hydroxy groups and at least one polyhydroxy- and/or carboxy group or amide or lactam group containing aliphatic compound.
Motor drive comprising a rectifier bridge for connection with mains, a converter bridge configured to be connected with an elevator motor and an intermediate DC circuit in-between, whereby between a positive and a negative branch (30, 32) of the intermediate DC circuit at least one capacitor and/or battery is connected, whereby at the mains side of the rectifier bridge a controlled main relay with contacts (16a, 16b, 16c) is arranged, which are configured to connect or disconnect the rectifier bridge with the corresponding mains phase (L1, L2, L3), which motor drive comprises a charging circuit, which comprises at least one charging switch connected in series with at least one current limiting component, and which motor drive comprises a voltage sensor connected between the positive and the negative branch (30, 32) of the intermediate DC circuit, which voltage sensor is connected to a circuit comprising at least one reference value and a comparator, which evaluation circuit is configured compare the actual sensor signal of the voltage sensor to the reference value and to operate the main relay dependent on the comparison result, characterized in that the charging circuit is connected between the mains and the intermediate DC circuit bypassing the rectifier bridge, and that the circuit is a fault evaluation circuit, configured for detecting an earth fault of the elevator motor.
A pharmaceutical solution comprising at least dopamine for use in treating Parkinson's disease, wherein said pharmaceutical solution is kept under anaerobic conditions from its formulation to its administration.
A stacking device for alternately stacking a separator-electrode assembly and a second electrode, the separator-electrode assembly including a first electrode sandwiched by separators, the second electrode having a different polarity from the first electrode, the stacking device comprising: a first table on which the separator-electrode assembly is placed; a second table on which the second electrode is placed; a stacking table on which the separator-electrode assembly and the second electrode are alternately stacked; a first adjustment unit configured to adjust the position of the separator-electrode assembly placed on the first table; a second adjustment unit configured to adjust the position of the second electrode placed on the second table; a first holding unit configured to hold and release the separator-electrode assembly; and a second holding unit configured to hold and release the second electrode, wherein the first holding unit reciprocates between the first table and the stacking table and the second holding unit reciprocates between the stacking table and the second table, when the first holding unit holds the separator-electrode assembly whose position has been adjusted on the first table, the second holding unit releases the second electrode over the stacking table, and when the first holding unit releases the separator-electrode assembly over the stacking table, the second holding unit holds the second electrode whose position has been adjusted on the second table, characterized in that, the first adjustment unit is configured to move and rotate the first table in a horizontal plane; and the second adjustment unit is configured to move and rotate the second table in a horizontal plane. a first table on which the separator-electrode assembly is placed; a second table on which the second electrode is placed; a stacking table on which the separator-electrode assembly and the second electrode are alternately stacked; a first adjustment unit configured to adjust the position of the separator-electrode assembly placed on the first table; a second adjustment unit configured to adjust the position of the second electrode placed on the second table; a first holding unit configured to hold and release the separator-electrode assembly; and a second holding unit configured to hold and release the second electrode, wherein the first holding unit reciprocates between the first table and the stacking table and the second holding unit reciprocates between the stacking table and the second table, when the first holding unit holds the separator-electrode assembly whose position has been adjusted on the first table, the second holding unit releases the second electrode over the stacking table, and when the first holding unit releases the separator-electrode assembly over the stacking table, the second holding unit holds the second electrode whose position has been adjusted on the second table, characterized in that, the first adjustment unit is configured to move and rotate the first table in a horizontal plane; and the second adjustment unit is configured to move and rotate the second table in a horizontal plane.
A method for a wireless access point (302, 402) to provide immediate delivery of low-latency multicast/broadcast data packets to at least one of a plurality of virtual local area networks, the method comprising, at the wireless access point (302, 402), the steps of: monitoring all of the plurality of virtual local area networks comprising at least one station associated with the wireless access point; identifying at least one of the plurality of virtual local area networks having all associated stations not in a power save mode; and transmitting low-latency multicast/broadcast data packets immediately to the at least one of the plurality of virtual local area networks identified as having all associated stations not in the power save mode. monitoring all of the plurality of virtual local area networks comprising at least one station associated with the wireless access point; identifying at least one of the plurality of virtual local area networks having all associated stations not in a power save mode; and transmitting low-latency multicast/broadcast data packets immediately to the at least one of the plurality of virtual local area networks identified as having all associated stations not in the power save mode.
A device for forming a tissue flap from a first wall portion of a vessel, comprising: an elongated member having a longitudinal axis, a proximal portion and a distal portion having a distal end, the distal portion having a taper on one side of the distal portion; an exit port; and a sub-intimal access mechanism configured to exit from the exit port to penetrate a tissue layer; wherein the device further includes a wall tensioning mechanism (15/16); the exit port is located at the taper, wherein the taper is at approximately the same longitudinal and radial position as the exit port; and the wall tensioning mechanism (15/16) is configured to cause the tissue layer of the vessel to conform to the taper, and the sub-intimal access mechanism is configured to penetrate the tissue layer at a desired angle relative to the tissue layer while the tissue layer is conformed to the taper. an elongated member having a longitudinal axis, a proximal portion and a distal portion having a distal end, the distal portion having a taper on one side of the distal portion; an exit port; and a sub-intimal access mechanism configured to exit from the exit port to penetrate a tissue layer; wherein the device further includes a wall tensioning mechanism (15/16); the exit port is located at the taper, wherein the taper is at approximately the same longitudinal and radial position as the exit port; and the wall tensioning mechanism (15/16) is configured to cause the tissue layer of the vessel to conform to the taper, and the sub-intimal access mechanism is configured to penetrate the tissue layer at a desired angle relative to the tissue layer while the tissue layer is conformed to the taper.