mhurhangee/patent-ind-claim-en huggingface dataset:
A non-therapeutic method of modifying a targeted site of a double stranded DNA in a host cell, the method comprising introducing (a) a DNA encoding a crRNA comprising a sequence complementary to a target strand of a target nucleotide sequence in the given double stranded DNA, and (b) a DNA encoding a protein group constituting Cascade and a deaminase, in which the deaminase is capable of forming a complex with CasE in the protein group into the host cell to convert one or more nucleotides in the targeted site to other one or more nucleotides without cleaving the double stranded DNA in the targeted site, wherein the complex lacks Cas3, Cas1, Cas2 and Cas4, and wherein the protein group constituting Cascade comprises CasA, CasB, CasC, CasD and CasE, and wherein the method is not a process for modifying the germ line genetic identity of human beings. (a) a DNA encoding a crRNA comprising a sequence complementary to a target strand of a target nucleotide sequence in the given double stranded DNA, and (b) a DNA encoding a protein group constituting Cascade and a deaminase, in which the deaminase is capable of forming a complex with CasE in the protein group into the host cell to convert one or more nucleotides in the targeted site to other one or more nucleotides without cleaving the double stranded DNA in the targeted site, wherein the complex lacks Cas3, Cas1, Cas2 and Cas4, and wherein the protein group constituting Cascade comprises CasA, CasB, CasC, CasD and CasE, and wherein the method is not a process for modifying the germ line genetic identity of human beings. wherein the complex lacks Cas3, Cas1, Cas2 and Cas4, and wherein the protein group constituting Cascade comprises CasA, CasB, CasC, CasD and CasE, and wherein the method is not a process for modifying the germ line genetic identity of human beings.
A method for indicating system information configuration updates to wireless terminals , the method being performed in a network node of a wireless communication network and comprising: Determining that a system information configuration has been updated; and transmitting a paging message comprising information indicating to a wireless terminal receiving the paging message whether the updated system information configuration is relevant and/or how to react to the update, wherein the paging message comprises system signature indexes, SSIs, and, for each of the SSIs, only the system information parameters of the system information configuration affected by the update, and wherein the paging message further comprises a validity area for the updated system information configuration, the validity area indicating an area wherein the updated system information configuration is applicable. Determining that a system information configuration has been updated; and transmitting a paging message comprising information indicating to a wireless terminal receiving the paging message whether the updated system information configuration is relevant and/or how to react to the update, wherein the paging message comprises system signature indexes, SSIs, and, for each of the SSIs, only the system information parameters of the system information configuration affected by the update, and wherein the paging message further comprises a validity area for the updated system information configuration, the validity area indicating an area wherein the updated system information configuration is applicable.
A system for detecting a position of a dual solenoid device, comprising: a device configured to move between at least a first position and a second position; and a controller having a first monitoring circuit in operable communication with a first channel , wherein the first channel is in operable communication with a first solenoid , and wherein the controller includes a second monitoring circuit in operable communication with a second channel , wherein the second channel is in operable communication with a second solenoid , wherein each solenoid is configured to selectively operate as an active solenoid to move the device when the solenoid and the channel it is in operable communication with are in an active mode, wherein each solenoid is configured to selectively operate as a passive solenoid when the solenoid and the channel it is in operable communication with are in a passive mode to passively move with the active solenoid, each of the monitoring circuits being configured to determine a position of the device when the channel the monitoring circuit is associated with is operating in the passive mode by monitoring an electrical parameter of the passive solenoid associated with that channel. a device configured to move between at least a first position and a second position; and a controller having a first monitoring circuit in operable communication with a first channel , wherein the first channel is in operable communication with a first solenoid , and wherein the controller includes a second monitoring circuit in operable communication with a second channel , wherein the second channel is in operable communication with a second solenoid , wherein each solenoid is configured to selectively operate as an active solenoid to move the device when the solenoid and the channel it is in operable communication with are in an active mode, wherein each solenoid is configured to selectively operate as a passive solenoid when the solenoid and the channel it is in operable communication with are in a passive mode to passively move with the active solenoid, each of the monitoring circuits being configured to determine a position of the device when the channel the monitoring circuit is associated with is operating in the passive mode by monitoring an electrical parameter of the passive solenoid associated with that channel.
A modular percutaneous prosthetic valve device, comprising a plurality of device modules, a first self-assembly member and a second self-assembly member , each in a delivery configuration for mounting in a delivery device, the plurality of device modules including a valve module (150a-150c, 200, 300, 400), said valve module (150a-150c, 200, 300, 400) having a folded, unassembled delivery configuration and characterized in each of said self-assembly member have a delivery configuration substantially parallel to a longitudinal axis of said delivery device and a preset working configuration; wherein said folded, unassembled valve module (150a-150c, 200, 300, 400) is unfolded and assembled into a working configuration via said self-assembly member after deployment from said delivery device.
An edible composition comprising an ingredient which imparts an undesired taste or off-taste, which undesired taste or off-taste is masked by the presence in the composition of from 1 ppb to 10 ppm of a compound selected from the group consisting of C10-GABA, C12-GABA. particularly C12:1-GABA, C14-GABA, C16-GABA, particularly C16:1-GABA, and C18-GABA, particularly C18:1-GABA, C18:1c-GABA, C18:lt-GABA, and 18:2-GABA. Wherein, the aforementioned compounds have the following structure:
A decorative laminate for application to a structural component , the decorative laminate comprising: a substrate layer comprising a nonwoven fabric material with or without a flame retardant material ; an embossable layer disposed upon the substrate layer , the embossable layer comprising an embossing resin material and the flame retardant material ; and a protective layer disposed upon the embossable layer , the protective layer comprising a polyvinyl fluoride-based material and having a decorative material printed on a first side of the protective layer facing the embossable layer , wherein the decorative laminate is applied to the structural component with the substrate layer facing a bonding surface of the structural component and with an adhesive layer applied between the decorative laminate and the bonding surface of the structural component . a substrate layer comprising a nonwoven fabric material with or without a flame retardant material ; an embossable layer disposed upon the substrate layer , the embossable layer comprising an embossing resin material and the flame retardant material ; and a protective layer disposed upon the embossable layer , the protective layer comprising a polyvinyl fluoride-based material and having a decorative material printed on a first side of the protective layer facing the embossable layer , wherein the decorative laminate is applied to the structural component with the substrate layer facing a bonding surface of the structural component and with an adhesive layer applied between the decorative laminate and the bonding surface of the structural component .
A vacuum grip for an end effector , comprising: at least one vacuum draw eyelet connectively associated with a vacuum at a base portion thereof, and having a larger cross-sectional circumference at a topmost portion thereof than at the base portion ; characterized in that the vacuum grip further comprises an extending cup foam portion including a receiving portion suitable for receiving therewithin the larger cross-sectional circumference of the topmost portion; and a wire clip comprising two legs inserted along a cross-sectional plane of the extending cup foam portion , the two legs being suitable to compress the receiving portion into frictional contact at two tangent points on a second cross-sectional circumference of the vacuum draw eyelet below the larger cross-sectional circumference. at least one vacuum draw eyelet connectively associated with a vacuum at a base portion thereof, and having a larger cross-sectional circumference at a topmost portion thereof than at the base portion ; characterized in that the vacuum grip further comprises an extending cup foam portion including a receiving portion suitable for receiving therewithin the larger cross-sectional circumference of the topmost portion; and a wire clip comprising two legs inserted along a cross-sectional plane of the extending cup foam portion , the two legs being suitable to compress the receiving portion into frictional contact at two tangent points on a second cross-sectional circumference of the vacuum draw eyelet below the larger cross-sectional circumference.
A light emitting diode comprising: a substrate (51; 61) having a top surface and a back surface opposite to the top surface; a semiconductor material layer (53,55,57; 65) having a first compound semiconductor layer , an active layer (57; 67) generating a first light and a second compound semiconductor layer disposed on the top surface of the substrate in that order, the semiconductor material layer (53,55,57; 65) emitting the first light via the back surface of the substrate; at least one first conductivity-type electrode (54; 64) connected to the first compound semiconductor layer and at least one second conductivity-type electrode (52; 62) connected to the second compound semiconductor layer , respectively; and a wavelength converting layer (59; 69) disposed on the back surface of the substrate (51; 61) and converting a portion of the first light to a second light having a different wavelength than the first light, wherein the substrate (51; 61) has at least one etched hole (56a; 66a) at the back surface so that the thickness of the substrate (51; 61) is larger at a peripheral region (56b; 66b) of the back surface adjacent the at least one etched hole (56a; 66a) than at the at least one etched hole (56a; 66a); and wherein the wavelength converting layer (59; 69) is disposed on the entire back surface of the substrate such that it fills the at least one etched hole (56a; 66a) and the thickness of the wavelength converting layer (59; 69) is larger at the at least one etched hole (56a; 66a) than at the peripheral region (56b; 66b). a substrate (51; 61) having a top surface and a back surface opposite to the top surface; a semiconductor material layer (53,55,57; 65) having a first compound semiconductor layer , an active layer (57; 67) generating a first light and a second compound semiconductor layer disposed on the top surface of the substrate in that order, the semiconductor material layer (53,55,57; 65) emitting the first light via the back surface of the substrate; at least one first conductivity-type electrode (54; 64) connected to the first compound semiconductor layer and at least one second conductivity-type electrode (52; 62) connected to the second compound semiconductor layer , respectively; and a wavelength converting layer (59; 69) disposed on the back surface of the substrate (51; 61) and converting a portion of the first light to a second light having a different wavelength than the first light, wherein the substrate (51; 61) has at least one etched hole (56a; 66a) at the back surface so that the thickness of the substrate (51; 61) is larger at a peripheral region (56b; 66b) of the back surface adjacent the at least one etched hole (56a; 66a) than at the at least one etched hole (56a; 66a); and wherein the wavelength converting layer (59; 69) is disposed on the entire back surface of the substrate such that it fills the at least one etched hole (56a; 66a) and the thickness of the wavelength converting layer (59; 69) is larger at the at least one etched hole (56a; 66a) than at the peripheral region (56b; 66b).
Compositions comprising, 1) as component I the: compound I-3 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-1-(1,2,4-triazol-1-yl)propan-2-ol; and 2) as component II a biopesticide selected from : Bacillus amyloliquefaciens ssp. plantarum MBI 600 (II-27), Bacillus pumilus INR-7 (II-29), Bacillus subtilis FB17 (II-176). 1) as component I the: compound I-3 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-1-(1,2,4-triazol-1-yl)propan-2-ol; and 2) as component II a biopesticide selected from : Bacillus amyloliquefaciens ssp. plantarum MBI 600 (II-27), Bacillus pumilus INR-7 (II-29), Bacillus subtilis FB17 (II-176). Bacillus amyloliquefaciens ssp. plantarum MBI 600 (II-27), Bacillus pumilus INR-7 (II-29), Bacillus subtilis FB17 (II-176).
A method of analyzing purity of a composition comprising cysteamine comprising: (i) injecting a sample solution comprising cysteamine onto a reverse-phase HPLC column; (ii) eluting the sample from the column using a mobile phase comprising an alkyl sulfonic acid, a buffer, acetonitrile, and methanol; and (iii) measuring the eluted sample using a UV detector at a wavelength of 170 nm to 250 nm. (i) injecting a sample solution comprising cysteamine onto a reverse-phase HPLC column; (ii) eluting the sample from the column using a mobile phase comprising an alkyl sulfonic acid, a buffer, acetonitrile, and methanol; and (iii) measuring the eluted sample using a UV detector at a wavelength of 170 nm to 250 nm.
A process of forming an electronic device comprising: forming a masking layer over a first major surface of a die substrate ; etching the die substrate to define a first feature and a first trench surrounding the first feature, the first trench having a depth of at least approximately 40 microns; and completely thermally oxidizing the first feature; characterized in that from a top view, the first feature has a shape of an I-beam, the segments of the first feature having a width less than 2.0 microns; the first feature has notches at opposite ends thereof at the intersections between each horizontal segment and the vertical segment of the first feature so that during the thermal oxidation of the first feature complete oxidation along all sides thereof at any particular elevation occurs simultaneously. forming a masking layer over a first major surface of a die substrate ; etching the die substrate to define a first feature and a first trench surrounding the first feature, the first trench having a depth of at least approximately 40 microns; and completely thermally oxidizing the first feature; characterized in that from a top view, the first feature has a shape of an I-beam, the segments of the first feature having a width less than 2.0 microns; the first feature has notches at opposite ends thereof at the intersections between each horizontal segment and the vertical segment of the first feature so that during the thermal oxidation of the first feature complete oxidation along all sides thereof at any particular elevation occurs simultaneously.
Method of charging a coke oven with coal, said method comprising the following steps: a) charging coal into a coke oven chamber , whereby a heap of coal forms in said chamber; b) leveling said heap of coal; characterized in that said leveling step b) comprises: - introducing a blasting end of a blasting pipe into said heap of coal, the blasting pipe being in communication with a pressurized gas storage vessel configured to release gas blasts; - releasing at least one gas blast through said blasting end in said heap of coal in order to collapse said heap under the blast impact force and cause a leveling thereof; - removing the blasting pipe from said chamber. a) charging coal into a coke oven chamber , whereby a heap of coal forms in said chamber; b) leveling said heap of coal; characterized in that said leveling step b) comprises: - introducing a blasting end of a blasting pipe into said heap of coal, the blasting pipe being in communication with a pressurized gas storage vessel configured to release gas blasts; - releasing at least one gas blast through said blasting end in said heap of coal in order to collapse said heap under the blast impact force and cause a leveling thereof; - removing the blasting pipe from said chamber. - introducing a blasting end of a blasting pipe into said heap of coal, the blasting pipe being in communication with a pressurized gas storage vessel configured to release gas blasts; - releasing at least one gas blast through said blasting end in said heap of coal in order to collapse said heap under the blast impact force and cause a leveling thereof; - removing the blasting pipe from said chamber.
A system for data exchange in an aircraft between at least two on-board devices connected to each other by a communication link clocked at a predetermined link frequency, characterized in that a first device comprises a buffer memory and is configured to: - acquire measurement signals at frequencies native to said measurement signals, the values of said native frequencies being greater than or equal to said predetermined link frequency, - produce frames from said measurement signals according to said native frequencies by storing said measurement signals in buffer memory several times at different instants, and - simultaneously transmit said frames at said predetermined link frequency via said communication link to a second device . - acquire measurement signals at frequencies native to said measurement signals, the values of said native frequencies being greater than or equal to said predetermined link frequency, - produce frames from said measurement signals according to said native frequencies by storing said measurement signals in buffer memory several times at different instants, and - simultaneously transmit said frames at said predetermined link frequency via said communication link to a second device .
A filter assembly for a water purifier comprising: a filter holder into which a part of a filter is insertable; and a lock mounted to the filter holder and configured to lock the filter to or release the filter from the filter holder , wherein the lock comprises: a guide coupled to the filter holder and configured to be linearly movable to transmit a force in a direction into which the filter is inserted; a pusher including an elastic member , and the pusher configured to transmit a force in a direction opposite to the direction, into which the filter is inserted, by the elastic member ; a stopper rotatably received in the pusher to be arranged between the pusher and the guide , and configured to linearly move the filter holder by being linearly moved by the guide and the pusher ; and a cam configured to lock the filter to the filter holder or release the filter from the filter holder by guiding rotation and linear movement of the stopper . a filter holder into which a part of a filter is insertable; and a lock mounted to the filter holder and configured to lock the filter to or release the filter from the filter holder , wherein the lock comprises: a guide coupled to the filter holder and configured to be linearly movable to transmit a force in a direction into which the filter is inserted; a pusher including an elastic member , and the pusher configured to transmit a force in a direction opposite to the direction, into which the filter is inserted, by the elastic member ; a stopper rotatably received in the pusher to be arranged between the pusher and the guide , and configured to linearly move the filter holder by being linearly moved by the guide and the pusher ; and a cam configured to lock the filter to the filter holder or release the filter from the filter holder by guiding rotation and linear movement of the stopper . a guide coupled to the filter holder and configured to be linearly movable to transmit a force in a direction into which the filter is inserted; a pusher including an elastic member , and the pusher configured to transmit a force in a direction opposite to the direction, into which the filter is inserted, by the elastic member ; a stopper rotatably received in the pusher to be arranged between the pusher and the guide , and configured to linearly move the filter holder by being linearly moved by the guide and the pusher ; and a cam configured to lock the filter to the filter holder or release the filter from the filter holder by guiding rotation and linear movement of the stopper .
A computer-implemented method for execution on a computing device , the method comprising: receiving input data indicating a direction or a location of an input target on a graphical user interface rendered on a display device ; analyzing the input data to determine if the direction of the input target or the location of the input target meets one or more criteria with respect to a detection area that is positioned in proximity to one or more selectable graphical elements associated with one or more application components ; in response to determining that the direction of the input target or the location of the input target meets the one or more criteria with respect to the detection area , adjusting at least one dimension of the detection area; monitoring the input data to determine that the location of the input target is within the detection area ; and in response to determining that the location of the input target is within the detection area , causing the computing device to load the one or more application components into memory or causing the computing device to execute the one or more application components to improve a response time for an application utilizing the one or more application components . receiving input data indicating a direction or a location of an input target on a graphical user interface rendered on a display device ; analyzing the input data to determine if the direction of the input target or the location of the input target meets one or more criteria with respect to a detection area that is positioned in proximity to one or more selectable graphical elements associated with one or more application components ; in response to determining that the direction of the input target or the location of the input target meets the one or more criteria with respect to the detection area , adjusting at least one dimension of the detection area; monitoring the input data to determine that the location of the input target is within the detection area ; and in response to determining that the location of the input target is within the detection area , causing the computing device to load the one or more application components into memory or causing the computing device to execute the one or more application components to improve a response time for an application utilizing the one or more application components .