mhurhangee/patent-ind-claim-en huggingface dataset:
A device for detecting plant objects, comprising: a movable platform; an image capturing device disposed on the movable platform; an image recognition system in communication with the image capturing device, the image recognition system being trained to recognize a characteristic of a plant that is adapted to receive pollen; a storage reservoir storing pollen therein; an action head adapted to disperse pollen; software configured to detect a presence of a plant that is adapted to receive pollen and to cause the action head to disperse pollen in the proximity of said plant. a movable platform; an image capturing device disposed on the movable platform; an image recognition system in communication with the image capturing device, the image recognition system being trained to recognize a characteristic of a plant that is adapted to receive pollen; a storage reservoir storing pollen therein; an action head adapted to disperse pollen; software configured to detect a presence of a plant that is adapted to receive pollen and to cause the action head to disperse pollen in the proximity of said plant.
A welding wire container having a base element , a plurality of walls which extend upwardly from the base element and circumscribe a space in which a coil of welding wire can be placed, with a reinforcement post being arranged in each of the corners of the space, a spacing rod being provided between adjacent reinforcement posts , characterized in that each of the spacing rods is arranged at a small distance from the upper ends of the reinforcement posts , the distance being in the order of 2,54 to 25,4 cm (1 to 10 inches), wherein each spacing rod is releasably connected with two of the reinforcement posts , wherein the spacing rod has a latch element at its ends and wherein the reinforcement posts are provided with a complementary latch element .
A method for forming hybrid license plates, namely and specifically, for forming plates made up of several superimposed layers, which consist of at least: a rigid lower layer , formed by a support base made of metal, for example aluminum, or of a synthetic material, in the form of a rectangular plate; an intermediate layer , made up of a reflective sheet with symbols and characters printed thereon, which may or may not be smaller in dimension than the lower layer , such that the latter projects along around the perimeter; and an upper layer , having the same dimension as the intermediate layer , consisting of a protective transparent film , and said method comprising at least a prior phase in which the symbols and characters are digitally printed on at least the reflective sheet of the intermediate layer , and two subsequent lamination phases in which all the layers (2, 3 and 7) are respectively bonded togeher by means of an adhesive placed between them, the method being characterized in that in the same digital printing phase for digitally printing the symbols and characters making up the intermediate layer on said reflective sheet with one and the same digital printing machine , the protective transparent film of the upper layer is automatically incorporated on said sheet once printed, laminating both layers together, the lamination of said two bonded layers with the lower layer constituting the support base made of metal or of synthetic material being performed in a later phase.
An encapsulation film for organic electronic element, comprising: a light absorbing layer comprising a light absorbing region comprising an encapsulation resin which is a heat-curable resin or a photocurable resin and a light absorbing material , and having a light transmittance of 15 % or less with respect to a visible light region, and a moisture barrier layer comprising a moisture reactive adsorbent ; wherein the curable resin is a silane-modified epoxy resin; wherein the light absorbing material is comprised at 0.6 to 50 parts by weight with respect to 100 parts by weight of the encapsulation resin. a light absorbing layer comprising a light absorbing region comprising an encapsulation resin which is a heat-curable resin or a photocurable resin and a light absorbing material , and having a light transmittance of 15 % or less with respect to a visible light region, and a moisture barrier layer comprising a moisture reactive adsorbent ; wherein the curable resin is a silane-modified epoxy resin; wherein the light absorbing material is comprised at 0.6 to 50 parts by weight with respect to 100 parts by weight of the encapsulation resin.
An automatic torsion correction system , the system comprising: a processor having access to memory media storing instructions or sets of instructions executable by the processor to: access information regarding a first infrared or white light image and a corresponding, concurrently captured first ophthalmic diagnostic image ; access information regarding a second infrared or white light image and a corresponding, concurrently captured second ophthalmic diagnostic image ; identify at least two ophthalmic features (230a, 230b; 330) in the first infrared or white light image and the second infrared or white light image; using the at least two ophthalmic features, determine a first torsion, if any, of the first infrared or white light image with respect to a vertical axis and a second torsion of the second infrared or white light image with respect to the vertical axis; if a first torsion exists, determine a first torsion correction to align the first infrared or white light image with respect to the vertical axis and apply the first torsion correction to the first ophthalmic diagnostic image; determine a second torsion correction to align the second infrared or white light image with respect to the vertical axis and apply the second torsion correction to the second ophthalmic diagnostic image; and send the first ophthalmic diagnostic image and the second ophthalmic diagnostic image to a display; and a display operable to display the first ophthalmic diagnostic image and the second ophthalmic diagnostic image. access information regarding a first infrared or white light image and a corresponding, concurrently captured first ophthalmic diagnostic image ; access information regarding a second infrared or white light image and a corresponding, concurrently captured second ophthalmic diagnostic image ; identify at least two ophthalmic features (230a, 230b; 330) in the first infrared or white light image and the second infrared or white light image; using the at least two ophthalmic features, determine a first torsion, if any, of the first infrared or white light image with respect to a vertical axis and a second torsion of the second infrared or white light image with respect to the vertical axis; if a first torsion exists, determine a first torsion correction to align the first infrared or white light image with respect to the vertical axis and apply the first torsion correction to the first ophthalmic diagnostic image; determine a second torsion correction to align the second infrared or white light image with respect to the vertical axis and apply the second torsion correction to the second ophthalmic diagnostic image; and send the first ophthalmic diagnostic image and the second ophthalmic diagnostic image to a display; and a display operable to display the first ophthalmic diagnostic image and the second ophthalmic diagnostic image.
Method for coating a narrow side of a planar workpiece with a coating material , in particular a strip-shaped or band-shaped coating material , by means of a coating device, wherein the coating material , before being applied to the narrow side of the workpiece , is imbued with a base color at least in an edge region assigned to an adhesive surface of the coating material or the coating material is fully imbued with the base color or the coating material is fully impregnated with the base color , wherein the base color is color-coordinated with a shade and/or pattern and/or decoration of a surface of the workpiece , such that a homogeneous color transition between the imbued coating material and the shade and/or pattern and/or decoration of the surface of the workpiece is formed after the coating material has been applied to the narrow side of the workpiece , characterised in that the coating material , in particular a narrow surface that is opposite the adhesive surface and that extends along the coating material and/or at least one transition region of the coating material that extends along the narrow surface , is printed on by means of a printing apparatus that comprises at least one printing stage after said coating material has been applied to the narrow side of the workpiece . wherein the coating material , before being applied to the narrow side of the workpiece , is imbued with a base color at least in an edge region assigned to an adhesive surface of the coating material or the coating material is fully imbued with the base color or the coating material is fully impregnated with the base color , wherein the base color is color-coordinated with a shade and/or pattern and/or decoration of a surface of the workpiece , such that a homogeneous color transition between the imbued coating material and the shade and/or pattern and/or decoration of the surface of the workpiece is formed after the coating material has been applied to the narrow side of the workpiece , characterised in that the coating material , in particular a narrow surface that is opposite the adhesive surface and that extends along the coating material and/or at least one transition region of the coating material that extends along the narrow surface , is printed on by means of a printing apparatus that comprises at least one printing stage after said coating material has been applied to the narrow side of the workpiece .
Frame structure for a window, a door or a fixed glazing, comprising: - a frame profile , the material of which has a thermal conductivity of less than 1.0 W/mK and - a sash or leaf frame as well as - a fixed frame ; - a vacuum insulated glass unit that is held at an insertion depth (S3) of the frame structure ; wherein - the vacuum insulated glass unit has a heat transfer coefficient Ug of at most 1.0 W/(m 2 K); characterized in that - the frame structure comprises a thermal coupling element (5; 15) on the interior side in the region of the insertion depth with a thermal conductivity that is increased with respect to the material of the frame profile of the sash or leaf frame by a factor of at least 10 and preferably a thermal conductivity that is increased by a factor of 20 and particularly preferably a thermal conductivity that is increased by a factor of 300; and - an outer insulation thickness (S1) in the heat flow direction that is greater than the thickness (S2) of an inner seal by a factor of at least 3, preferably by a factor of at least 4. - a frame profile , the material of which has a thermal conductivity of less than 1.0 W/mK and - a sash or leaf frame as well as - a fixed frame ; - a vacuum insulated glass unit that is held at an insertion depth (S3) of the frame structure ; wherein - the vacuum insulated glass unit has a heat transfer coefficient Ug of at most 1.0 W/(m 2 K); characterized in that - the frame structure comprises a thermal coupling element (5; 15) on the interior side in the region of the insertion depth with a thermal conductivity that is increased with respect to the material of the frame profile of the sash or leaf frame by a factor of at least 10 and preferably a thermal conductivity that is increased by a factor of 20 and particularly preferably a thermal conductivity that is increased by a factor of 300; and - an outer insulation thickness (S1) in the heat flow direction that is greater than the thickness (S2) of an inner seal by a factor of at least 3, preferably by a factor of at least 4.
A computer-implemented method comprising: generating rendered frames of a scene using locations of filter taps of spatial filters that are jittered, wherein for each rendered frame of a plurality of the rendered frames, generating the rendered frame comprises: determining a size of a spatial filter of the spatial filters for pixels of the rendered frame based at least in part on render data representative of ray-traced samples of the scene; selecting the locations of the filter taps of the spatial filter that correspond to a subset of pixel positions of the spatial filter; and applying the spatial filter to the pixels using the filter taps to sparsely sample data values that correspond to ray-traced samples of lighting conditions of the scene.
Method for sharing a reference key (AppKey) between an object able to be connected to a network of connected objects and at least one server , the method comprising the steps of: • applying , by the object , a predetermined first function (f) to at least one first piece of data (DevEUI, AppEUI, DevNonce) and to a key (KSE) specific to a secure element of the object , so as to generate the reference key (AppKey), • transmitting to the server a join-request of the object to the network of connected objects, the join-request comprising the first piece of data (DevEUI, AppEUI, DevNonce), the key (KSE) specific to the secure element however not being transmitted by the object to the server , • generating, by the server , of the key (KSE) specific to the secure element based on the join-request, • applying , by the server , the predetermined first function (f) to the first piece of data (DevEUI, AppEUI, DevNonce) and to the key (KSE) obtained by the server , so as to obtain the reference key (AppKey). • applying , by the object , a predetermined first function (f) to at least one first piece of data (DevEUI, AppEUI, DevNonce) and to a key (KSE) specific to a secure element of the object , so as to generate the reference key (AppKey), • transmitting to the server a join-request of the object to the network of connected objects, the join-request comprising the first piece of data (DevEUI, AppEUI, DevNonce), the key (KSE) specific to the secure element however not being transmitted by the object to the server , • generating, by the server , of the key (KSE) specific to the secure element based on the join-request, • applying , by the server , the predetermined first function (f) to the first piece of data (DevEUI, AppEUI, DevNonce) and to the key (KSE) obtained by the server , so as to obtain the reference key (AppKey).
A method for wireless communications, comprising: identifying one or more data layers and one or more preamble layers for transmission ; determining a set of signature sequences for scrambling the one or more data layers and the one or more preamble layers ; assigning a first set of signature sequences of the set of signature sequences to a data layer of the one or more data layers, based at least in part on a cross-correlation metric of the each signature sequence , the first set of signature sequences corresponding to cross-correlation values that are lower than cross-correlation values of a second set of signature sequences of the set of signature sequences; assigning the second set of signature sequences to a preamble layer of the one or more preamble layers; scrambling the one or more data layers and the one or more preamble layers into a shared signal using the assigned each signature sequence ; and transmitting the shared signal . identifying one or more data layers and one or more preamble layers for transmission ; determining a set of signature sequences for scrambling the one or more data layers and the one or more preamble layers ; assigning a first set of signature sequences of the set of signature sequences to a data layer of the one or more data layers, based at least in part on a cross-correlation metric of the each signature sequence , the first set of signature sequences corresponding to cross-correlation values that are lower than cross-correlation values of a second set of signature sequences of the set of signature sequences; assigning the second set of signature sequences to a preamble layer of the one or more preamble layers; scrambling the one or more data layers and the one or more preamble layers into a shared signal using the assigned each signature sequence ; and transmitting the shared signal .
A lift-assisted mobility device for assisting the motion of or supporting a body of a mammal having a body weight moving between a seated position and a standing position, such device comprising: (a) a pressure-tight suit adapted to being worn over at least one part of the mammal's body having at least one opening for inserting the body part into the suit ; (b) means for providing a pressure-tight seal connected adjacent to the opening of the suit for operative engagement of the body part surface of the mammal; (c) inlet means in the suit for introduction of at least one source of positive pressure or vacuum to an interior of the suit between the mammal body and the suit to create a differential pressure condition therein between the positive pressure or vacuum condition inside the suit , and a pressure condition existing outside the suit ; (d) a lift-assistance device connected to the suit for counteracting a downwards force applied to the suit when it is placed under the differential pressure condition, comprising a constant-force adjustment system that lifts the suit vertically as the mammal rises from the seated position to the standing position; (e) whereby the differential pressure condition exerts an upwards force upon the body part to offload a desired portion of the weight of the body to the lift-assistance device, whereupon the mammal may stand easily with reduced effort, and move about with body weight support. (a) a pressure-tight suit adapted to being worn over at least one part of the mammal's body having at least one opening for inserting the body part into the suit ; (b) means for providing a pressure-tight seal connected adjacent to the opening of the suit for operative engagement of the body part surface of the mammal; (c) inlet means in the suit for introduction of at least one source of positive pressure or vacuum to an interior of the suit between the mammal body and the suit to create a differential pressure condition therein between the positive pressure or vacuum condition inside the suit , and a pressure condition existing outside the suit ; (d) a lift-assistance device connected to the suit for counteracting a downwards force applied to the suit when it is placed under the differential pressure condition, comprising a constant-force adjustment system that lifts the suit vertically as the mammal rises from the seated position to the standing position; (e) whereby the differential pressure condition exerts an upwards force upon the body part to offload a desired portion of the weight of the body to the lift-assistance device, whereupon the mammal may stand easily with reduced effort, and move about with body weight support.
A resin composition, comprising: carbon nanotubes (A); and a resin (B), which is an ethylene-unsaturated carboxylic acid copolymer (B2), wherein: a content of an unsaturated carboxylic acid unit in the ethylene-unsaturated carboxylic acid copolymer (B2) is from 1% by mass to 25% by mass, with respect to a total amount of the ethylene-unsaturated carboxylic acid copolymer (B2), and the content of the resin (B) is from 85% by mass to 99.9% by mass with respect to the total amount of the resin composition. carbon nanotubes (A); and a resin (B), which is an ethylene-unsaturated carboxylic acid copolymer (B2), wherein: a content of an unsaturated carboxylic acid unit in the ethylene-unsaturated carboxylic acid copolymer (B2) is from 1% by mass to 25% by mass, with respect to a total amount of the ethylene-unsaturated carboxylic acid copolymer (B2), and the content of the resin (B) is from 85% by mass to 99.9% by mass with respect to the total amount of the resin composition.
An ultrasound imaging apparatus comprising: an ultrasound probe ; a signal transceiver configured to transmit/receive an ultrasound signal to/from the ultrasound probe; and a variable inductor device configured to successively change inductance for impedance matching with the ultrasound probe during a transmission/reception time period of the ultrasound signal, characterised in that the variable inductor device is configured to successively change the inductance according to a change in center frequency of the ultrasound signal reflected from an object, the center frequency being lowered in proportion to a movement distance of the reflected ultrasound signal from the object to the ultrasound probe. an ultrasound probe ; a signal transceiver configured to transmit/receive an ultrasound signal to/from the ultrasound probe; and a variable inductor device configured to successively change inductance for impedance matching with the ultrasound probe during a transmission/reception time period of the ultrasound signal, characterised in that the variable inductor device is configured to successively change the inductance according to a change in center frequency of the ultrasound signal reflected from an object, the center frequency being lowered in proportion to a movement distance of the reflected ultrasound signal from the object to the ultrasound probe.
A method for recovering data, comprising: collecting one or more identity factors at a user device, wherein hashes of the one or more identity factors are configured to be stored at a server; generating at the user device a dynamic password based on the one or more identity factors and a Salt configured to be generated by the server and configured to be delivered to the user device; generating at the user device a data key and encrypting the data key using the dynamic password to generate an encrypted data key, wherein the encrypted data key is configured to be stored at the server; and encrypting at the user device one or more data items using the data key to generate one or more encrypted data items, wherein the one or more encrypted data items are configured to be stored at the server, wherein the one or more data items are recoverable by presenting the one or more identity factors to the server. collecting one or more identity factors at a user device, wherein hashes of the one or more identity factors are configured to be stored at a server; generating at the user device a dynamic password based on the one or more identity factors and a Salt configured to be generated by the server and configured to be delivered to the user device; generating at the user device a data key and encrypting the data key using the dynamic password to generate an encrypted data key, wherein the encrypted data key is configured to be stored at the server; and encrypting at the user device one or more data items using the data key to generate one or more encrypted data items, wherein the one or more encrypted data items are configured to be stored at the server, wherein the one or more data items are recoverable by presenting the one or more identity factors to the server.