mhurhangee/patent-ind-claim-en huggingface dataset:
An initiator head assembly , comprising: an electrical contact component comprising an electrically contactable line-in portion , and an electrically contactable ground portion , a body comprising a head extending from a base , the head including a first surface , a second surface , and an insulating portion extending therebetween, the electrically contactable line-in portion positioned on the first surface , the base including a first end and a second end , wherein the first end is connected to the second surface ; and wherein the electrically contactable ground portion of the electrical contact component is positioned proximal to an opening of the base , and the opening extends at least partially along a length of the base . an electrical contact component comprising an electrically contactable line-in portion , and an electrically contactable ground portion , a body comprising a head extending from a base , the head including a first surface , a second surface , and an insulating portion extending therebetween, the electrically contactable line-in portion positioned on the first surface , the base including a first end and a second end , wherein the first end is connected to the second surface ; and wherein the electrically contactable ground portion of the electrical contact component is positioned proximal to an opening of the base , and the opening extends at least partially along a length of the base .
A method for machining ceramic materials by micro-Electrical-Discharge-Machining, comprising the steps of - arranging a ceramic workpiece in a micro-EDM machine, - setting technological parameters of the micro-EDM considering predefined machining properties, - executing the machining of the ceramic workpiece by applying the set micro-EDM parameters, characterized by the further steps of before setting up the ceramic workpiece in the micro-EDM machine, performing a suitability analysis on a test piece having the same material as the workpiece, during said analysis, determining the electrical conductivity of the test piece, and if the analysed test piece has 10 -2 -10 -6 ohm -1 cm -1 electrical conductivity, then performing preliminary machining experiments on the test piece for forming at least one geometrical shape using no-load erosion voltage, maximum discharge current, frequency, impulse duration, discharge gap setting parameters chosen within predefined parameter ranges of the adjustable parameters of the micro-EDM machine, evaluating the results of the preliminary machining experiment series from the aspect of at least one of a geometrical correctness and further selected quality measures, based on the result of the evaluation, classifying the test pieces as machinable or non-machinable ones, and if one or more test pieces were classified as machinable, defining and setting technical parameter ranges associated with the planned machining of the ceramic workpiece, and executing the machining of the ceramic workpiece by applying a parameter set within the defined parameter ranges. - arranging a ceramic workpiece in a micro-EDM machine, - setting technological parameters of the micro-EDM considering predefined machining properties, - executing the machining of the ceramic workpiece by applying the set micro-EDM parameters,
An active implantable medical device, AIMD, comprising: a) a non-conductive enclosure extending along a first longitudinal axis; b) a printed circuit board, PCB, assembly housed inside the enclosure and comprising a PCB supporting at least one electronic component , wherein the PCB comprises spaced apart edges that extend to and meet with opposed ends with the edges being longer than the ends ; c) a rechargeable electrical power source electrically connected to the PCB assembly ; d) an inductive charging coil that is configured to convert inductive charging signals into inductive energy, wherein the inductive charging coil has at least one wind of an electrically conductive material that wraps around the PCB, the at least one wind having an upper wind portion residing above the PCB and a lower wind portion residing below the PCB and opposed curved ends that are continuous with the upper and lower wind portions and that wrap around the opposed ends of the PCB; and e) a charging circuit that is configured to convert inductive energy received from the inductive charging coil into a direct current voltage to charge the rechargeable electrical power source to power the PCB assembly. a) a non-conductive enclosure extending along a first longitudinal axis; b) a printed circuit board, PCB, assembly housed inside the enclosure and comprising a PCB supporting at least one electronic component , wherein the PCB comprises spaced apart edges that extend to and meet with opposed ends with the edges being longer than the ends ; c) a rechargeable electrical power source electrically connected to the PCB assembly ; d) an inductive charging coil that is configured to convert inductive charging signals into inductive energy, wherein the inductive charging coil has at least one wind of an electrically conductive material that wraps around the PCB, the at least one wind having an upper wind portion residing above the PCB and a lower wind portion residing below the PCB and opposed curved ends that are continuous with the upper and lower wind portions and that wrap around the opposed ends of the PCB; and e) a charging circuit that is configured to convert inductive energy received from the inductive charging coil into a direct current voltage to charge the rechargeable electrical power source to power the PCB assembly.
A floating module , comprising: - a reinforced concrete shell having a rectangular top slab and sidewalls extending from the edges of the rectangular top slab to define a cavity therein, - a floating element arranged inside the cavity to provide buoyancy, and - a corner element at each corner of the rectangular top slab , the corner element comprising at least two attachment points , characterised in that the floating module comprises: - a side element at each longer side of the rectangular top slab , the side element comprising at least two attachment points , and - at least one elastic element that is arranged in connection with the lower portion of one of the sidewalls . - a reinforced concrete shell having a rectangular top slab and sidewalls extending from the edges of the rectangular top slab to define a cavity therein, - a floating element arranged inside the cavity to provide buoyancy, and - a corner element at each corner of the rectangular top slab , the corner element comprising at least two attachment points , - a side element at each longer side of the rectangular top slab , the side element comprising at least two attachment points , and - at least one elastic element that is arranged in connection with the lower portion of one of the sidewalls .
A process of obtaining arabonic acid from a hemicellulose-containing material, wherein a) the hemicellulose-containing material is hydrolyzed enzymatically or non-enzymatically and the obtained hydrolysate includes arabinose and xylose as released sugars, and b) the obtained hydrolysate is subjected to conversion, characterized by a combination of the following provisos: - the arabinose is converted into the γ-arabinolactone by means of an oxidoreductase and γ-arabinolactone is hydrolyzed into arabonic acid, wherein redox cofactors are reduced to NADH and/or NADPH by the oxidoreductase, and - the reduced redox cofactors NADH and/or NADPH are converted into the oxidized state NAD + and/or NADP + in the same reaction batch by means of an alcohol dehydrogenase, a lactate dehydrogenase, a xylose reductase, an oxidase and/or one or several redox enzymes coupled to an electrode. a) the hemicellulose-containing material is hydrolyzed enzymatically or non-enzymatically and the obtained hydrolysate includes arabinose and xylose as released sugars, and b) the obtained hydrolysate is subjected to conversion, characterized by a combination of the following provisos: - the arabinose is converted into the γ-arabinolactone by means of an oxidoreductase and γ-arabinolactone is hydrolyzed into arabonic acid, wherein redox cofactors are reduced to NADH and/or NADPH by the oxidoreductase, and - the reduced redox cofactors NADH and/or NADPH are converted into the oxidized state NAD + and/or NADP + in the same reaction batch by means of an alcohol dehydrogenase, a lactate dehydrogenase, a xylose reductase, an oxidase and/or one or several redox enzymes coupled to an electrode. - the arabinose is converted into the γ-arabinolactone by means of an oxidoreductase and γ-arabinolactone is hydrolyzed into arabonic acid, wherein redox cofactors are reduced to NADH and/or NADPH by the oxidoreductase, and - the reduced redox cofactors NADH and/or NADPH are converted into the oxidized state NAD + and/or NADP + in the same reaction batch by means of an alcohol dehydrogenase, a lactate dehydrogenase, a xylose reductase, an oxidase and/or one or several redox enzymes coupled to an electrode.
An imaging device comprising: a photosensitive array of pixels that comprises a photosensitive surface; a light source configured to produce light in a predetermined wavelength in the ultraviolet, visible, or X-ray spectrum; and a collimator configured to collimate light from the light source along an optical path toward the photosensitive surface, wherein the light is composed substantially only of the predetermined wavelength, wherein the imaging device is configured to receive a specimen at a distance from the photosensitive surface such that light emitted or scattered from a point on the specimen impinges upon and excites the pixel directly below the point of the specimen and in which some of the light from the point on the specimen may also impinge upon and excite additional pixels beyond the pixel directly below the point of the specimen, in which a distance between the specimen and the photosensitive surface is approximately equal to less than the predetermined wavelength. a photosensitive array of pixels that comprises a photosensitive surface; a light source configured to produce light in a predetermined wavelength in the ultraviolet, visible, or X-ray spectrum; and a collimator configured to collimate light from the light source along an optical path toward the photosensitive surface, wherein the light is composed substantially only of the predetermined wavelength, wherein the imaging device is configured to receive a specimen at a distance from the photosensitive surface such that light emitted or scattered from a point on the specimen impinges upon and excites the pixel directly below the point of the specimen and in which some of the light from the point on the specimen may also impinge upon and excite additional pixels beyond the pixel directly below the point of the specimen, in which a distance between the specimen and the photosensitive surface is approximately equal to less than the predetermined wavelength.
A thermoplastic resin composition, comprising: a first copolymer formed by polymerizing a monomer mixture of a (meth)acrylate-based monomer, a vinyl cyan-based monomer and a maleimide-based monomer, and having a refractive index of 1.5170 or less as measured using an Abbe refractometer and a glass transition temperature of 115.0 °C or more as measured by differential scanning calorimetry; and a second copolymer formed by graft-copolymerizing an aromatic vinyl-based monomer and a vinyl cyan-based monomer onto an acrylic rubber polymer, wherein the monomer mixture does not comprise an aromatic vinyl-based monomer. a first copolymer formed by polymerizing a monomer mixture of a (meth)acrylate-based monomer, a vinyl cyan-based monomer and a maleimide-based monomer, and having a refractive index of 1.5170 or less as measured using an Abbe refractometer and a glass transition temperature of 115.0 °C or more as measured by differential scanning calorimetry; and a second copolymer formed by graft-copolymerizing an aromatic vinyl-based monomer and a vinyl cyan-based monomer onto an acrylic rubber polymer, wherein the monomer mixture does not comprise an aromatic vinyl-based monomer.
Sanitary insert unit which can be fitted on the water outlet of a sanitary outlet fitting, with a throughflow-quantity regulator unit which, in at least one annular throughflow channel , has at least one annular flow-restricting body of elastic material, which at least one flow-restricting body , between itself and an adjacent channel wall bearing a control profiling , bounds a control gap , the passage cross section of which can be varied by the flow-restricting body deforming under the differential pressure forming during the flow therethrough, and with a jet regulator which is arranged on the outflow side of the throughflow-quantity regulator unit and has a jet splitter which divides the water coming from the throughflow-quantity regulator unit into a multiplicity of individual jets, characterized in that at least one throughflow hole is provided in the central region of the jet splitter , which central region is bounded by the projection of the at least one throughflow channel , and in that the throughflow holes of the jet splitter have an inflow hole portion and an outflow hole portion .
Process for the preparation of diosmin from hesperidin comprising the following steps: a) acylating hesperidin with the anhydride of a C 2 -C 4 carboxylic acid; b) treating the mixture obtained in step a) with a halogen selected from iodine and bromine, in aqueous medium; c) treating the mixture obtained in step b) with an inorganic base to reach a pH value in the range 3.5-6.5; d) deacylating the acylated diosmin obtained in step c) by treatment with an inorganic base; wherein no organic solvent is added throughout the process. a) acylating hesperidin with the anhydride of a C 2 -C 4 carboxylic acid; b) treating the mixture obtained in step a) with a halogen selected from iodine and bromine, in aqueous medium; c) treating the mixture obtained in step b) with an inorganic base to reach a pH value in the range 3.5-6.5; d) deacylating the acylated diosmin obtained in step c) by treatment with an inorganic base; wherein no organic solvent is added throughout the process.
Parking assistance system for a motor vehicle allowing the vehicle to be parked from a traffic lane into an available parking space and allowing it to leave said parking space to move onto the traffic lane, said motor vehicle comprising an obstacle detection system, a parking space detection system, steering angle-controllable electric power steering, a torque-controllable engine and braking system, an automatic transmission or what is known as a "shift-by-wire" system, at least one odometric sensor, an accelerometer, and a means for activating an automatic control function, characterized in that the parking assistance system comprises a module for determining the acceleration of the vehicle, able to deliver an acceleration setpoint (A) on the basis of the speed (V) of the vehicle and of the distance (D) to an obstacle and a torque control module able to calculate a braking torque setpoint (C FF ) and an engine torque setpoint (C MF ) on the basis of the acceleration setpoint (A), of the speed of the vehicle (V) and of the gradient (P) of the road.
System for detecting wear of a conveying system, in particular of an airport baggage conveying system, comprising a sliding contact which has a current collector and a current-carrying conductor , wherein the current collector can be mounted on a vehicle and the vehicle can be supplied with energy via the current collector , in addition comprising a vibration sensor on the current collector side and a background system , characterised in that - the vibration sensor on the current collector side, mounted on the current collector , is designed to register vibrations produced by driving motion of the vehicle along the current-carrying conductor and to wirelessly transmit said vibrations to the background system ; and - the background system is designed to subject data transmitted to the background system , in particular the registered vibrations, to an analysis and to signal wear of the conveying system, in particular of the current collector and/or of the current-carrying conductor , on the basis of this analysis. - the vibration sensor on the current collector side, mounted on the current collector , is designed to register vibrations produced by driving motion of the vehicle along the current-carrying conductor and to wirelessly transmit said vibrations to the background system ; and - the background system is designed to subject data transmitted to the background system , in particular the registered vibrations, to an analysis and to signal wear of the conveying system, in particular of the current collector and/or of the current-carrying conductor , on the basis of this analysis.
Transdermal therapeutic system for the transdermal administration of asenapine comprising a self-adhesive layer structure comprising a therapeutically effective amount of asenapine, said self-adhesive layer structure comprising: A) a backing layer; B) an asenapine-containing layer comprising: 1. asenapine in the form of the free base; and 2. a polymer selected from the group consisting of polysiloxanes and polyisobutylenes in an amount of more than 50 % by weight based on the total weight of the asenapine-containing layer; and C) optionally an additional skin contact layer; wherein the asenapine-containing layer comprises a crystallization inhibitor being polyvinylpyrrolidone in an amount of 0.5 to 10 % by weight based on the total weight of the asenapine-containing layer. A) a backing layer; B) an asenapine-containing layer comprising: 1. asenapine in the form of the free base; and 2. a polymer selected from the group consisting of polysiloxanes and polyisobutylenes in an amount of more than 50 % by weight based on the total weight of the asenapine-containing layer; and 1. asenapine in the form of the free base; and 2. a polymer selected from the group consisting of polysiloxanes and polyisobutylenes in an amount of more than 50 % by weight based on the total weight of the asenapine-containing layer; C) optionally an additional skin contact layer;
A nucleic acid molecule comprising a nucleic acid sequence that is at least 98% identical to SEQ ID NO: 1, or a complement thereof, which confers expression of the insecticidal proteins mCry3A and eCry3.1Ab when introduced into a cell.
An apparatus for performing a seismic survey, comprising: a housing and a data package disposed in the housing , wherein the data package includes sensor configured to acquire seismic data, a processor , a memory module , a battery , and a GPS module , wherein the apparatus comprises: a flexible tether connected to the housing at a first end and having a second end, the tether including at least one signal carrying wire and a tension conveying member ; and an antenna connected to the second end of the tether , the data package in signal communication with the antenna via the at least one signal carrying wire , wherein the antenna is external to the housing and the GPS module is in signal communication with the antenna via the at least one signal carrying wire . a flexible tether connected to the housing at a first end and having a second end, the tether including at least one signal carrying wire and a tension conveying member ; and an antenna connected to the second end of the tether , the data package in signal communication with the antenna via the at least one signal carrying wire , wherein the antenna is external to the housing and the GPS module is in signal communication with the antenna via the at least one signal carrying wire .
An apparatus for stapling tissue comprising: (a) a body ; (b) a trigger pivotably mounted to the body; (c) an actuator extending longitudinally within the body and operable to actuate longitudinally therein; (d) a lockout member pivotably mounted to the body, wherein the lockout member is pivotable from a first position, in which the lockout member is engaged with the trigger, to a second position, in which the lockout member is disengaged from the trigger; and (e) a securing feature associated with the lockout member and the actuator, wherein the securing feature is operable to restrict the longitudinal actuation of actuator, and characterised in that the securing feature comprises a brake having an engagement tab , wherein the actuator comprises a longitudinal slot , wherein the lockout member is operable to cam the brake such that the engagement tab inserts into the slot when the lockout member is pivoted to the second position. (a) a body ; (b) a trigger pivotably mounted to the body; (c) an actuator extending longitudinally within the body and operable to actuate longitudinally therein; (d) a lockout member pivotably mounted to the body, wherein the lockout member is pivotable from a first position, in which the lockout member is engaged with the trigger, to a second position, in which the lockout member is disengaged from the trigger; and (e) a securing feature associated with the lockout member and the actuator, wherein the securing feature is operable to restrict the longitudinal actuation of actuator, and characterised in that the securing feature comprises a brake having an engagement tab , wherein the actuator comprises a longitudinal slot , wherein the lockout member is operable to cam the brake such that the engagement tab inserts into the slot when the lockout member is pivoted to the second position.
A rolling element for use in a rolling-element bearing, comprising an outer shell and a bore hole , the bore hole being provided along a centerline of the rolling element , the rolling element having at least one sensor arranged in the bore hole for load measurement and a radio module for transmitting the data measured by the sensor , wherein the rolling element has a micro-generator being provided to provide the energy required for operation of the sensor and/or of the radio module , wherein the micro-generator is an inductive generator configured to interact with magnets which are arranged on a cage of a rolling-element bearing, characterized in that a plurality of coils is arranged on a circular path between the bore hole and the outer shell .
A microwave-heating crisp plate , comprising: a body defining a food-supporting surface and an outer surface opposite the food-supporting surface , characterized by a coating applied over at least a portion of the outer surface , including: a base polymer material defining a matrix ; carbon nanotubes having a low Curie temperature of about 210 °C; and ferrite particles having a high Curie temperature of about 350 °C; wherein the carbon nanotubes and the ferrite particles are dispersed throughout the matrix . a body defining a food-supporting surface and an outer surface opposite the food-supporting surface , characterized by a coating applied over at least a portion of the outer surface , including: a base polymer material defining a matrix ; carbon nanotubes having a low Curie temperature of about 210 °C; and ferrite particles having a high Curie temperature of about 350 °C; a base polymer material defining a matrix ; carbon nanotubes having a low Curie temperature of about 210 °C; and ferrite particles having a high Curie temperature of about 350 °C; wherein the carbon nanotubes and the ferrite particles are dispersed throughout the matrix .