mhurhangee/patent-ind-claim-en huggingface dataset:
A method of optically writing to a read light valve comprising a photoreceptor layer and an electro-optic layer, the method comprising, during a read valve video frame : applying a selected write cell voltage at a pixel location of an optical write valve ; after the pixel location achieves an optically stable state, illuminating the pixel location with a light source pulse modulated in amplitude or duration or both so as to emit from the pixel location a write light pulse ; directing the write light pulse to a localized portion of said photoreceptor layer of an optical read light valve ; and sequentially repeating during said frame the applying, illuminating and directing for a plurality of said selected write cell voltages and modulated light source pulses ; and further comprising, for the duration of the frame, applying a drive voltage to the combined photoreceptor and electro-optic layers of the read light valve and continuously integrating, at the localized portion of the optical read light valve over the frame, electrical charges induced in said photoreceptor layer and corresponding to optical powers of the write light pulses; and wherein the resulting modulation of the electro-optic layer of the optical read valve as a function of the integrated optical power of the write light pulses results in a monotonic control of the read-light output intensity. applying a selected write cell voltage at a pixel location of an optical write valve ; after the pixel location achieves an optically stable state, illuminating the pixel location with a light source pulse modulated in amplitude or duration or both so as to emit from the pixel location a write light pulse ; directing the write light pulse to a localized portion of said photoreceptor layer of an optical read light valve ; and sequentially repeating during said frame the applying, illuminating and directing for a plurality of said selected write cell voltages and modulated light source pulses ; and further comprising, for the duration of the frame, applying a drive voltage to the combined photoreceptor and electro-optic layers of the read light valve and continuously integrating, at the localized portion of the optical read light valve over the frame, electrical charges induced in said photoreceptor layer and corresponding to optical powers of the write light pulses; and wherein the resulting modulation of the electro-optic layer of the optical read valve as a function of the integrated optical power of the write light pulses results in a monotonic control of the read-light output intensity.
A seat reclining device comprising: a mobile flange comprising: a gear unit having an internal gear ; a collar provided at a center of the gear unit ; and a flange part connecting the collar and the gear unit to each other, wherein the mobile flange is configured such that a radial cross-section of the flange part circumferentially repeatedly changes, characterized in that , in the radial cross-section of the flange part of the mobile flange , an inclined portion forming an inclined surface gradually protruding in a direction opposite to a protruding direction of the collar as radially going toward the collar from the gear unit , and a plane portion being perpendicular to a central axis of the mobile flange as radially going toward the collar from the gear unit are circumferentially disposed. a gear unit having an internal gear ; a collar provided at a center of the gear unit ; and a flange part connecting the collar and the gear unit to each other, wherein the mobile flange is configured such that a radial cross-section of the flange part circumferentially repeatedly changes, characterized in that , in the radial cross-section of the flange part of the mobile flange , an inclined portion forming an inclined surface gradually protruding in a direction opposite to a protruding direction of the collar as radially going toward the collar from the gear unit , and a plane portion being perpendicular to a central axis of the mobile flange as radially going toward the collar from the gear unit are circumferentially disposed.
A slider garage , comprising: an overmolded body, the overmolded body oriented on a zipper , the overmolded body including an overmolded male portion and an overmolded female portion , the overmolded male and female portions positioned on an end of the zipper, such that each is on one side of the zipper, the overmolded male portion being shaped such that it fits in the overmolded female portion in a watertight fashion.
A virtual image display device for presenting a virtual image to a user (E) via a virtual image presentation plate , comprising: a display unit configured to generate an image display light (L); a concave mirror configured to reflect the image display light and to project the image display light toward the virtual image presentation plate; and a driving mechanism configured to change an orientation of the concave mirror to change an incidence angle (φ) of the image display light on the concave mirror, and configured to move the display unit to change a distance (a) from the concave mirror to the display unit in accordance with a change in a focal distance within a meridional plane of the concave mirror caused by a change in an incidence angle of the image display light on the concave mirror, wherein the driving mechanism is configured to maintain an astigmatic difference (δD) between a sagittal image plane and a meridional image plane as viewed from the user to be 0.25 [m -1 ] or smaller, while maintaining that the sagittal image plane is presented in front of the meridional image plane as viewed from the user, by changing the distance from the concave mirror to the display unit in response to the change in the focal distance within the meridional plane of the concave mirror caused by the change in the incidence angle (φ) of the image display light on the concave mirror . a display unit configured to generate an image display light (L); a concave mirror configured to reflect the image display light and to project the image display light toward the virtual image presentation plate; and a driving mechanism configured to change an orientation of the concave mirror to change an incidence angle (φ) of the image display light on the concave mirror, and configured to move the display unit to change a distance (a) from the concave mirror to the display unit in accordance with a change in a focal distance within a meridional plane of the concave mirror caused by a change in an incidence angle of the image display light on the concave mirror, wherein the driving mechanism is configured to maintain an astigmatic difference (δD) between a sagittal image plane and a meridional image plane as viewed from the user to be 0.25 [m -1 ] or smaller, while maintaining that the sagittal image plane is presented in front of the meridional image plane as viewed from the user, by changing the distance from the concave mirror to the display unit in response to the change in the focal distance within the meridional plane of the concave mirror caused by the change in the incidence angle (φ) of the image display light on the concave mirror .
A method of analysing ribonucleic acid-ribonucleic acid (RNA-RNA) interactions comprising: a. cross-linking base-paired nucleotides of at least one RNA molecule and/or at least one pair of RNA molecules using a biotin-tagged, reversible cross-linking agent to produce at least one cross-linked RNA molecule and/or at least one pair of cross-linked RNA molecules; b. fragmenting the said cross-linked RNA molecule and/or pair of cross-linked RNA molecules to produce a plurality of fragments comprising at least one cross-linked RNA fragment; c. using said biotin to extract said cross-linked RNA fragment(s) from said plurality of fragments; d. ligating the said cross-linked RNA fragment(s) to produce cross-linked ligated RNA chimera(s); e. reversing the cross-linking of the said agent to the said RNA molecule and/or pair of RNA molecules to produce a ligated RNA chimera molecule(s) and/or RNA chimera pair(s); f. preparing a sequence library by sequencing the ligated RNA chimera molecule(s) or pair(s); and g. analysing the sequence library to determine RNA-RNA interactions. a. cross-linking base-paired nucleotides of at least one RNA molecule and/or at least one pair of RNA molecules using a biotin-tagged, reversible cross-linking agent to produce at least one cross-linked RNA molecule and/or at least one pair of cross-linked RNA molecules; b. fragmenting the said cross-linked RNA molecule and/or pair of cross-linked RNA molecules to produce a plurality of fragments comprising at least one cross-linked RNA fragment; c. using said biotin to extract said cross-linked RNA fragment(s) from said plurality of fragments; d. ligating the said cross-linked RNA fragment(s) to produce cross-linked ligated RNA chimera(s); e. reversing the cross-linking of the said agent to the said RNA molecule and/or pair of RNA molecules to produce a ligated RNA chimera molecule(s) and/or RNA chimera pair(s); f. preparing a sequence library by sequencing the ligated RNA chimera molecule(s) or pair(s); and g. analysing the sequence library to determine RNA-RNA interactions.
An oral appliance , comprising: a generally u-shaped base portion having a tray and a labial flange , the labial flange having a plurality of recesses sized and shaped to receive corresponding circuitry components in a force fit; circuitry arranged on the labial flange and having components arranged in respective recesses of the plurality of recesses ; and a cover portion sealingly arranged on the labial flange and covering the circuitry . a generally u-shaped base portion having a tray and a labial flange , the labial flange having a plurality of recesses sized and shaped to receive corresponding circuitry components in a force fit; circuitry arranged on the labial flange and having components arranged in respective recesses of the plurality of recesses ; and a cover portion sealingly arranged on the labial flange and covering the circuitry .
A safety shutter for an air circuit breaker adapted to be coupled to a cradle, the safety shutter comprising: a base unit ; a shutter unit coupled to the base unit ; and a cam unit extending from the base unit in a protruding manner, wherein the cam unit passes through the shutter unit , wherein the shutter unit includes: a holding plate having a hole , and a first plate having a first opening ; a second plate having a second opening , wherein the first plate is configured to slide in a second direction and the second plate is configured to slide in a first direction opposite to the second direction, when the air circuit breaker moves toward the base unit and retracts into the cradle , whereby the first opening and the second opening are aligned with the hole , wherein the first plate is configured to slide in the first direction and the second plate is configured to slide in the second direction, when the air circuit breaker moves away from the base unit and extends from the cradle , whereby the first opening and the second opening are misaligned with the hole , characterized in that the shutter unit is spaced apart from the base unit by a predetermined spacing, the first plate is disposed between the base unit and the holding plate , and in that the second plate is disposed between the first plate and the base unit . a base unit ; a shutter unit coupled to the base unit ; and a cam unit extending from the base unit in a protruding manner, wherein the cam unit passes through the shutter unit , wherein the shutter unit includes: a holding plate having a hole , and a first plate having a first opening ; a second plate having a second opening , a holding plate having a hole , and a first plate having a first opening ; a second plate having a second opening , wherein the first plate is configured to slide in a second direction and the second plate is configured to slide in a first direction opposite to the second direction, when the air circuit breaker moves toward the base unit and retracts into the cradle , whereby the first opening and the second opening are aligned with the hole , wherein the first plate is configured to slide in the first direction and the second plate is configured to slide in the second direction, when the air circuit breaker moves away from the base unit and extends from the cradle , whereby the first opening and the second opening are misaligned with the hole , characterized in that the shutter unit is spaced apart from the base unit by a predetermined spacing, the first plate is disposed between the base unit and the holding plate , and in that the second plate is disposed between the first plate and the base unit .
Aqueous polyolefin dispersion comprising a. from 50 to 100 wt.% of a aqueous dispersion A comprising the following ingredients: a. from 30 to 90 wt.% of A1, a copolymer of polyethylene and (meth)acrylic acid [E(M)AA] or a mixture of different copolymers of polyethylene and (meth)acrylic acid, b. from 10 to 70 wt.% of A2, another polymer, not being a copolymer of polyethylene and (meth)acrylic acid, or a mixture of other polymers, and c. from 0 - 15 wt.% of additive b. from 0 to 50 wt.% of a compound B, where compound B is a material dispersable or soluble in water and different from any of the ingredients of dispersion A wherein - the wt.% of A and B is based on the solid content of the whole aqueous polyolefin dispersion, - the wt% of the ingredients of dispersion A is based on the solid content of dispersion A, - the sum of the wt.% of ingredients i to iii of dispersion A is 100%, and - A2 is selected from the group consisting of copolymers of ethylene and vinyl acetate (EVA), copolymers of ethylene and vinyl acetate (EVA) modified with maleic anhydride, polyolefins modified with maleic anhydride, polyolefin elastomers, styrene butadiene block copolymers (SBS), random copolymers (SBC), ethylene-propylene-non-conjugated diene terpolymer (EPDM), maleic anhydride modified ethylene-propylene-non-conjugated diene terpolymer, and co- and terpolymers of ethane, propene, and 1-butene. a. from 50 to 100 wt.% of a aqueous dispersion A comprising the following ingredients: a. from 30 to 90 wt.% of A1, a copolymer of polyethylene and (meth)acrylic acid [E(M)AA] or a mixture of different copolymers of polyethylene and (meth)acrylic acid, b. from 10 to 70 wt.% of A2, another polymer, not being a copolymer of polyethylene and (meth)acrylic acid, or a mixture of other polymers, and c. from 0 - 15 wt.% of additive a. from 30 to 90 wt.% of A1, a copolymer of polyethylene and (meth)acrylic acid [E(M)AA] or a mixture of different copolymers of polyethylene and (meth)acrylic acid, b. from 10 to 70 wt.% of A2, another polymer, not being a copolymer of polyethylene and (meth)acrylic acid, or a mixture of other polymers, and c. from 0 - 15 wt.% of additive b. from 0 to 50 wt.% of a compound B, where compound B is a material dispersable or soluble in water and different from any of the ingredients of dispersion A - the wt.% of A and B is based on the solid content of the whole aqueous polyolefin dispersion, - the wt% of the ingredients of dispersion A is based on the solid content of dispersion A, - the sum of the wt.% of ingredients i to iii of dispersion A is 100%, and - A2 is selected from the group consisting of copolymers of ethylene and vinyl acetate (EVA), copolymers of ethylene and vinyl acetate (EVA) modified with maleic anhydride, polyolefins modified with maleic anhydride, polyolefin elastomers, styrene butadiene block copolymers (SBS), random copolymers (SBC), ethylene-propylene-non-conjugated diene terpolymer (EPDM), maleic anhydride modified ethylene-propylene-non-conjugated diene terpolymer, and co- and terpolymers of ethane, propene, and 1-butene.
A welding head comprising a welding element for welding a lid to an opening device of a container and a compensating device operable for compensating a misalignment between the welding element and the lid , thereby centering the welding element relative to the lid , characterized in that the compensating device is configured to allow the welding element to slide in a plane that, in use, is arranged transversely, in particular perpendicularly, to an axis of the lid .
A thermochemical energy storage device comprising: a vessel defining an interior volume, the vessel including a first opening and a second opening; a porous bed disposed within the interior volume and being in fluid communication with the first opening and the second opening, the porous bed comprising a reactive material , the reactive material being configured to release oxygen upon being heated to a reduction temperature, and generate heat when exposed to oxygen; and a heater configured to heat the reactive material, the heater being in contact with the reactive material or including a heating element that is embedded in the reactive material , characterized in that the heater includes one or both of (A) A heating element embedded in the reactive material with ends electrically connected to an electricity source, and/or (B) A first pair of ceramic electrodes having the porous bed disposed therebetween and a second pair of ceramic electrodes having the first pair of ceramic electrodes and the porous bed disposed therebetween. a vessel defining an interior volume, the vessel including a first opening and a second opening; a porous bed disposed within the interior volume and being in fluid communication with the first opening and the second opening, the porous bed comprising a reactive material , the reactive material being configured to release oxygen upon being heated to a reduction temperature, and generate heat when exposed to oxygen; and a heater configured to heat the reactive material, the heater being in contact with the reactive material or including a heating element that is embedded in the reactive material , characterized in that the heater includes one or both of (A) A heating element embedded in the reactive material with ends electrically connected to an electricity source, and/or (B) A first pair of ceramic electrodes having the porous bed disposed therebetween and a second pair of ceramic electrodes having the first pair of ceramic electrodes and the porous bed disposed therebetween. (A) A heating element embedded in the reactive material with ends electrically connected to an electricity source, and/or (B) A first pair of ceramic electrodes having the porous bed disposed therebetween and a second pair of ceramic electrodes having the first pair of ceramic electrodes and the porous bed disposed therebetween.
Manufacturing station for workpieces , in particular body parts, with the manufacturing station having a processing area with a processing point and a processing apparatus , as well as a security partition , in particular a fence, enclosing a processing area , with a secure access point for workpiece transport, and an automatic loading apparatus with loading robots , with the loading apparatus being designed to load and unload workpieces onto and off a conveyor means as well as to transport the workpieces into and out of the processing area , characterized in that the automated loading apparatus is designed to be multifunctional and is located within the security partition , along with the workpiece support , in the work area of the loading robots and that a loading robot makes available workpieces unloaded there and performs a setup process.
An in vitro method for obtaining cells for reptile leather production comprising the steps of: a. obtaining cells from a hatched reptile egg, and b. isolating and/or culturing keratinocytes, fibroblasts, melanocytes, stem cells, or precursor cells. a. obtaining cells from a hatched reptile egg, and b. isolating and/or culturing keratinocytes, fibroblasts, melanocytes, stem cells, or precursor cells.
A method performed by a point-of-sale host device , the method for detecting scanning anomalies and comprising: receiving , from a scanning device for reading optical codes, a first event notification, the first event notification being an item-entry event notification; initiating one or more first anomaly-detection actions responsive to the received first event notification; receiving , from the scanning device , a second event notification, the second event notification being one of a scanned-item-identifier event notification or an item-exit event notification; and initiating one or more second anomaly-detection actions responsive to the second event notification, wherein each of said first and second anomaly detection-action comprises at least one of a scanning-device-enable command, a scanning-device-disable command, a command for commencement of video recording, a command for cessation of video recording, a command for generation of a scanning-anomaly notification, a command for storage of a record indicating that a scanned-item-identifier event notification was not received, and a command for commencement of a fraud analysis, and characterized in that each one of the first event notification and the second event notification comprises a code that is indicative of the corresponding event, each code having the same format as the optical codes readable by the scanning device .
A computer implemented method of manufacturing at least a part of a sports article, comprising the steps: a. estimating a printability by 3D-printing associated with a region of the part of the sports article, comprising: i. determining a plurality of structural features within the region, ii. determining, for each structural feature, a feature value, iii. mapping each feature value to the printability, wherein the mapping is based on a machine learning algorithm from a limited plurality of samples, and wherein each sample associates a feature value with a value of the printability, and iv. using the mapping to estimate the printability for the region; and b. optimizing the printability using the estimate and considering at least one structural constraint for the part of the sports article; and c. manufacturing the part of the sports article, wherein the step of manufacturing comprises additive manufacturing. a. estimating a printability by 3D-printing associated with a region of the part of the sports article, comprising: i. determining a plurality of structural features within the region, ii. determining, for each structural feature, a feature value, iii. mapping each feature value to the printability, wherein the mapping is based on a machine learning algorithm from a limited plurality of samples, and wherein each sample associates a feature value with a value of the printability, and iv. using the mapping to estimate the printability for the region; and i. determining a plurality of structural features within the region, ii. determining, for each structural feature, a feature value, iii. mapping each feature value to the printability, wherein the mapping is based on a machine learning algorithm from a limited plurality of samples, and wherein each sample associates a feature value with a value of the printability, and iv. using the mapping to estimate the printability for the region; and b. optimizing the printability using the estimate and considering at least one structural constraint for the part of the sports article; and c. manufacturing the part of the sports article, wherein the step of manufacturing comprises additive manufacturing.