mhurhangee/patent-ind-claim-en huggingface dataset:
A variable image display body comprising a lenticular sheet having a plurality of cylindrical lenses arranged in a first direction, and lenticular images (20, 20a-h) arranged on a surface on an opposite side to a surface of the cylindrical lenses, wherein the lenticular images are composed of display image strips arranged at positions corresponding to the respective cylindrical lenses, characterized in that source images of the lenticular images are a plurality of captured images (20(i)-(iv)) obtained by continuously shooting a moving body as a subject and include subject images which are images of the moving body appearing in the plurality of captured images and moving in at least the first direction and whose motion is shown clearly without incongruity, and the display image strips are obtained by: scaling each of the plurality of captured images so that the subject images appearing in the plurality of captured images have the same size; subjecting a plurality of scaled captured images (20(i)'-(iv)') to position adjustment so that reference portions of the subject images in the plurality of scaled captured images are located at a same position, and superimposing the plurality of scaled captured images, and in the superimposed state, trimming a region in which a predetermined number of the plurality of scaled captured images are overlapped and the subject images are included; and extracting display image strips in the form of lines from each of a plurality of trimmed captured images (20(i)"-20(iv)"). scaling each of the plurality of captured images so that the subject images appearing in the plurality of captured images have the same size; subjecting a plurality of scaled captured images (20(i)'-(iv)') to position adjustment so that reference portions of the subject images in the plurality of scaled captured images are located at a same position, and superimposing the plurality of scaled captured images, and in the superimposed state, trimming a region in which a predetermined number of the plurality of scaled captured images are overlapped and the subject images are included; and extracting display image strips in the form of lines from each of a plurality of trimmed captured images (20(i)"-20(iv)").
A dental furnace, in particular a high-temperature dental furnace for oxide ceramics such as zirconium dioxide having sintering temperatures between 1350 and 1650 degrees Celsius, comprising heating elements which are adapted to deliver heating energy to a firing chamber in the dental furnace , the heating elements being formed as electrical resistance heating elements, wherein each one being supported by at least one heating element support foot below the firing chamber , heating elements extending upwards in an upright position from the heating element support feet and at the top being arranged in an arc , in particular in a semicircular arc or, if appropriate, in a semicircle, without nay upper lateral support, in particular not in the region of the arc .
A soft target movement platform comprising: • at least one drive unit , the or each drive unit having: • a motor carrier , • a drive motor with a central longitudinal axis, journaled in the motor carrier about the central longitudinal axis of the drive motor , • a drive wheel drivingly connected to the drive motor , with the wheel's axis of rotation offset from the central longitudinal axis of the drive motor by a lever arm having a horizontal extent in use, whereby wheel load tends to rotate the motor with respect to the carrier about the central longitudinal axis of the drive motor and • a spring acting between the drive motor and the carrier to counteract the rotation of the drive motor induced by wheel load, wherein: • the central longitudinal axis of the drive motor and an axis of a rotor of the drive motor are coaxial; • the wheel axis is offset from the coaxial axes and • drive transfer means is provided between the drive motor's rotor and the wheel, wherein the drive transfer means provides the lever arm. • at least one drive unit , the or each drive unit having: • a motor carrier , • a drive motor with a central longitudinal axis, journaled in the motor carrier about the central longitudinal axis of the drive motor , • a drive wheel drivingly connected to the drive motor , with the wheel's axis of rotation offset from the central longitudinal axis of the drive motor by a lever arm having a horizontal extent in use, whereby wheel load tends to rotate the motor with respect to the carrier about the central longitudinal axis of the drive motor and • a spring acting between the drive motor and the carrier to counteract the rotation of the drive motor induced by wheel load, • a motor carrier , • a drive motor with a central longitudinal axis, journaled in the motor carrier about the central longitudinal axis of the drive motor , • a drive wheel drivingly connected to the drive motor , with the wheel's axis of rotation offset from the central longitudinal axis of the drive motor by a lever arm having a horizontal extent in use, whereby wheel load tends to rotate the motor with respect to the carrier about the central longitudinal axis of the drive motor and • a spring acting between the drive motor and the carrier to counteract the rotation of the drive motor induced by wheel load, • the central longitudinal axis of the drive motor and an axis of a rotor of the drive motor are coaxial; • the wheel axis is offset from the coaxial axes and • drive transfer means is provided between the drive motor's rotor and the wheel, wherein the drive transfer means provides the lever arm.
A method of detecting a material discontinuity in a magnetisable article comprising: traversing a magnet along the article so that lines of magnetic flux from an active magnetic field of the magnet loop through the article and magnetically couple the magnet to the article; placing at least one magnetic field coupling sensor (S; Sn) at a fixed position relative to the magnet and in the active magnetic field of the magnet , wherein the at least one coupling sensor (S; Sn) traverses along the article with the magnet to sample magnetic coupling between the magnet and the article; analysing the measured magnetic coupling in the active magnetic field for a change in the magnetic coupling during the traversing of the magnet and using the change in magnetic coupling to detect a discontinuity in the article; acquiring longitudinal samples of the magnetic field along the article from displacement sensors (Bn) simultaneously with acquisition of samples of magnetic coupling from one or more coupling sensors (S; Sn); between instants at which the samples are acquired, moving: the magnet , the at least one coupling sensor (S; Sn) and the displacement sensors (Bn) in a fixed juxtaposition relative to each other along the article; and using the samples from the displacement sensors (Bn) to provide an estimate of the displacement of the magnet along the article between successive sampling instants. traversing a magnet along the article so that lines of magnetic flux from an active magnetic field of the magnet loop through the article and magnetically couple the magnet to the article; placing at least one magnetic field coupling sensor (S; Sn) at a fixed position relative to the magnet and in the active magnetic field of the magnet , wherein the at least one coupling sensor (S; Sn) traverses along the article with the magnet to sample magnetic coupling between the magnet and the article; analysing the measured magnetic coupling in the active magnetic field for a change in the magnetic coupling during the traversing of the magnet and using the change in magnetic coupling to detect a discontinuity in the article; acquiring longitudinal samples of the magnetic field along the article from displacement sensors (Bn) simultaneously with acquisition of samples of magnetic coupling from one or more coupling sensors (S; Sn); between instants at which the samples are acquired, moving: the magnet , the at least one coupling sensor (S; Sn) and the displacement sensors (Bn) in a fixed juxtaposition relative to each other along the article; and using the samples from the displacement sensors (Bn) to provide an estimate of the displacement of the magnet along the article between successive sampling instants.
A first mobile device for sharing energy with a second mobile device , the first mobile device comprising: a battery ; an inductive coil ; a charge sensor unit configured to identify a charge state of the battery of the first mobile device ; a user interface unit configured to receive an input for selecting a source mode for the first mobile device , wherein in the source mode the first mobile device operates to supply energy to the second mobile device ; and characterized by an inverter circuit configured to convert direct current DC voltage provided from the battery of the first mobile device to alternating current AC voltage when the source mode is selected, and configured to supply the energy to the second mobile device based on the AC voltage through the inductive coil if the identified charge state of the battery is not less than a predefined level to prevent the charge state of the battery from being less than the predefined level, and based on the identified charge state of the battery of the first mobile device , the user interface unit is configured to output information on whether the first mobile device is operable in the source mode to supply the energy to the second mobile device . a battery ; an inductive coil ; a charge sensor unit configured to identify a charge state of the battery of the first mobile device ; a user interface unit configured to receive an input for selecting a source mode for the first mobile device , wherein in the source mode the first mobile device operates to supply energy to the second mobile device ; and characterized by an inverter circuit configured to convert direct current DC voltage provided from the battery of the first mobile device to alternating current AC voltage when the source mode is selected, and configured to supply the energy to the second mobile device based on the AC voltage through the inductive coil if the identified charge state of the battery is not less than a predefined level to prevent the charge state of the battery from being less than the predefined level, and based on the identified charge state of the battery of the first mobile device , the user interface unit is configured to output information on whether the first mobile device is operable in the source mode to supply the energy to the second mobile device .
A polypeptide that specifically binds to an autophagic cell, comprising an amino acid sequence selected from the group consisting of SEQ ID NO:1 to SEQ ID NO:4 .
An electrosurgical system comprising: an electrosurgical instrument comprising a first jaw and a second jaw arranged to open and close relative to each other, the first jaw comprising: a first electrode and a second electrode which curve over and extend along respective opposed sides of the first jaw , to cover or occupy a majority of the total surface area of the first jaw; and a third electrode extending along the length of the first jaw between and substantially perpendicular to the first and second electrodes , which third electrode is generally rectangular in shape and extends out of the first jaw towards the second jaw ; and an electrosurgical generator arranged to supply radiofrequency (RF) energy to the electrosurgical instrument removably coupled to the electrosurgical generator, the generator being arranged to supply RF energy between the first electrode and the second electrode to coagulate tissue therebetween, to determine a pre-cut condition based on a phase difference between an applied voltage and an applied current of the supplied RF energy during the supply of RF energy to coagulate tissue; and the generator, after determining the pre-cut condition has been met, is arranged to supply RF energy between the first, second and third electrodes to cut tissue therebetween. an electrosurgical instrument comprising a first jaw and a second jaw arranged to open and close relative to each other, the first jaw comprising: a first electrode and a second electrode which curve over and extend along respective opposed sides of the first jaw , to cover or occupy a majority of the total surface area of the first jaw; and a third electrode extending along the length of the first jaw between and substantially perpendicular to the first and second electrodes , which third electrode is generally rectangular in shape and extends out of the first jaw towards the second jaw ; and a first electrode and a second electrode which curve over and extend along respective opposed sides of the first jaw , to cover or occupy a majority of the total surface area of the first jaw; and a third electrode extending along the length of the first jaw between and substantially perpendicular to the first and second electrodes , which third electrode is generally rectangular in shape and extends out of the first jaw towards the second jaw ; and an electrosurgical generator arranged to supply radiofrequency (RF) energy to the electrosurgical instrument removably coupled to the electrosurgical generator, the generator being arranged to supply RF energy between the first electrode and the second electrode to coagulate tissue therebetween, to determine a pre-cut condition based on a phase difference between an applied voltage and an applied current of the supplied RF energy during the supply of RF energy to coagulate tissue; and the generator, after determining the pre-cut condition has been met, is arranged to supply RF energy between the first, second and third electrodes to cut tissue therebetween.
A method of producing a mixture having a predetermined concentration of an additive comprising the steps of: providing a first polymer compound, the first polymer compound comprising a polymer resin and a first concentration of the additive, wherein the first concentration is from 0 wt.% to the predetermined concentration; providing a second polymer compound, the second polymer compound comprising the polymer resin and a second concentration of the additive, wherein the second concentration is greater than the predetermined concentration and the first polymer compound polymer resin is identical to the second polymer compound polymer resin, wherein two polymer resins are identical if they are an identical grade of polymer or based from the same manufacturing process; and combining the first and second polymer compounds to achieve a mixture having the predetermined concentration of the additive, wherein the mixture has a predetermined concentration of a second additive, and the second polymer compound comprises a second additive in a concentration greater than the predetermined concentration of the second additive, wherein the first additive is a lubricant selected from the group consisting of ethylene bis stearamide, zinc stearate and calcium stearate, and the second additive is a heat stabilizer selected from the group consisting of metallic halides. providing a first polymer compound, the first polymer compound comprising a polymer resin and a first concentration of the additive, wherein the first concentration is from 0 wt.% to the predetermined concentration; providing a second polymer compound, the second polymer compound comprising the polymer resin and a second concentration of the additive, wherein the second concentration is greater than the predetermined concentration and the first polymer compound polymer resin is identical to the second polymer compound polymer resin, wherein two polymer resins are identical if they are an identical grade of polymer or based from the same manufacturing process; and combining the first and second polymer compounds to achieve a mixture having the predetermined concentration of the additive, wherein the mixture has a predetermined concentration of a second additive, and the second polymer compound comprises a second additive in a concentration greater than the predetermined concentration of the second additive, wherein the first additive is a lubricant selected from the group consisting of ethylene bis stearamide, zinc stearate and calcium stearate, and the second additive is a heat stabilizer selected from the group consisting of metallic halides.
A system comprising a pressing device configured to be arranged between a column (C) of a resin insulated dry electric transformer (T) and a yoke clamp (P), said pressing device comprising a first body and a second body , wherein the first body and the second body are configured to translate away with respect to each other in a guided manner to block the column (C) with respect to the yoke clamp (P), a barrier support configured to support, at the top and/or at the bottom, a barrier (B), in the form of a plate of electrically insulating material, between a first winding and a second winding of said electrical transformer (T), the barrier support comprising a vertical body and a horizontal leg connected to each other substantially at 90°, wherein said horizontal leg is configured so as to be coupled removably to the pressing device , wherein said horizontal leg comprises two half-legs shaped so as to form a circular arc opening , and wherein said vertical body comprises a pair of substantially parallel walls separated by a slit , said walls forming a housing for said barrier (B).
A vitrectomy apparatus, comprising: a vitrectomy handpiece comprising a vitrectomy cutting device; a sensing arrangement configured to sense pressure; tubing connecting the vitrectomy handpiece to the sensing arrangement; a cut valve connected to the sensing arrangement; and a pressure source configured to provide pressure to the cut valve ; wherein the sensing arrangement comprises a sensor and a controller configured to receive data from the sensor and provide selectively timed on and off commands to the cut valve to facilitate a vitrectomy procedure; wherein the controller is configured to monitor pressures encountered and alter cut valve timing based on pressure conditions previously encountered, wherein the controller is configured to monitor and maintain a peak pressure value and trough pressure value encountered, wherein peak pressure encountered represents a maximum pressure encountered and trough pressure comprises a minimum pressure encountered, wherein the controller is further configured to alter cut valve timing based on a pressure encountered relative to the peak pressure value and the trough pressure value, characterised in that the controller is further configured to monitor a time following transition between issuing a command to the cut valve and one from the group consisting of the peak pressure value and the trough pressure value, and altering a future command time for a future command issued to the cut valve based on the time following transition. a vitrectomy handpiece comprising a vitrectomy cutting device; a sensing arrangement configured to sense pressure; tubing connecting the vitrectomy handpiece to the sensing arrangement; a cut valve connected to the sensing arrangement; and a pressure source configured to provide pressure to the cut valve ; wherein the sensing arrangement comprises a sensor and a controller configured to receive data from the sensor and provide selectively timed on and off commands to the cut valve to facilitate a vitrectomy procedure; wherein the controller is configured to monitor pressures encountered and alter cut valve timing based on pressure conditions previously encountered, wherein the controller is configured to monitor and maintain a peak pressure value and trough pressure value encountered, wherein peak pressure encountered represents a maximum pressure encountered and trough pressure comprises a minimum pressure encountered, wherein the controller is further configured to alter cut valve timing based on a pressure encountered relative to the peak pressure value and the trough pressure value, characterised in that the controller is further configured to monitor a time following transition between issuing a command to the cut valve and one from the group consisting of the peak pressure value and the trough pressure value, and altering a future command time for a future command issued to the cut valve based on the time following transition.
A vibration motor assembly comprising: a capsule having a cavity ; a vibration motor having a shaft and configured to rotate the shaft , wherein the vibration motor comprises a motor casing , and wherein a distal portion of the shaft protrudes from the motor casing ; an eccentric mass connected to the shaft , wherein the eccentric mass is rotatable with the shaft , and wherein the eccentric mass is connected to the distal portion of the shaft ; an end cap having a second connecting structure connecting the capsule to the end cap , wherein the second connecting structure comprises a second section of a body of the end cap having a second outer periphery, and wherein the second section is received within an open end of the capsule and engages an inner surface of the capsule to connect the capsule to the end cap ; and wherein the vibration motor and eccentric mass are disposed in the cavity and, so disposed, the vibration motor and eccentric mass are enclosed by the so-connected end cap and capsule , so as to enable the vibration motor assembly to withstand fabrication conditions, characterized in that the end cap has a first connecting structure connecting the end cap to the vibration motor , wherein the first connecting structure comprises a first section of a body of the end cap having a first outer periphery received within a first end of the motor casing and engaging an inner surface of the first end of the motor casing to connect the end cap to the vibration motor , wherein the second outer periphery is larger than the first outer periphery. a capsule having a cavity ; a vibration motor having a shaft and configured to rotate the shaft , wherein the vibration motor comprises a motor casing , and wherein a distal portion of the shaft protrudes from the motor casing ; an eccentric mass connected to the shaft , wherein the eccentric mass is rotatable with the shaft , and wherein the eccentric mass is connected to the distal portion of the shaft ; an end cap having a second connecting structure connecting the capsule to the end cap , wherein the second connecting structure comprises a second section of a body of the end cap having a second outer periphery, and wherein the second section is received within an open end of the capsule and engages an inner surface of the capsule to connect the capsule to the end cap ; and wherein the vibration motor and eccentric mass are disposed in the cavity and, so disposed, the vibration motor and eccentric mass are enclosed by the so-connected end cap and capsule , so as to enable the vibration motor assembly to withstand fabrication conditions, characterized in that the end cap has a first connecting structure connecting the end cap to the vibration motor , wherein the first connecting structure comprises a first section of a body of the end cap having a first outer periphery received within a first end of the motor casing and engaging an inner surface of the first end of the motor casing to connect the end cap to the vibration motor , wherein the second outer periphery is larger than the first outer periphery.