mhurhangee/patent-ind-claim-en huggingface dataset:
A method for design and manufacturing of a holder , the holder operable to fixate a custom-made dental implant , wherein the custom-made dental implant comprises an at least partially custom-shaped preparation post to receive a dental crown and a surface of the preparation post is a custom-shaped portion of the dental implant, the method comprising the steps of: receiving a first shape data set representing the three-dimensional shape of the custom-shaped portion of the dental implant; deriving a first manufacturing data set of a first virtual custom-shape from the first shape data set; and shaping at least a first custom-shaped portion of the holder that grips the custom-shaped portion of the dental implant, responsive to the first manufacturing data set, wherein the method step of shaping said at least a first custom-shaped portion of the holder utilizes a rapid prototyping technology, and wherein said at least a first custom-shaped portion of the holder at least partially includes an inverse shape of the preparation post that substantially matches a corresponding portion of the custom-shaped portion of the preparation post of the dental implant. receiving a first shape data set representing the three-dimensional shape of the custom-shaped portion of the dental implant; deriving a first manufacturing data set of a first virtual custom-shape from the first shape data set; and shaping at least a first custom-shaped portion of the holder that grips the custom-shaped portion of the dental implant, responsive to the first manufacturing data set, wherein the method step of shaping said at least a first custom-shaped portion of the holder utilizes a rapid prototyping technology, and wherein said at least a first custom-shaped portion of the holder at least partially includes an inverse shape of the preparation post that substantially matches a corresponding portion of the custom-shaped portion of the preparation post of the dental implant.
An attenuated Histophilus somni (H. somni) strain, which is capable of providing a safe and effective immune response in a bovine animal against H. somni, or diseases caused by H. somni, having at least the following genes mutated, including completely deleted, relative to a reference virulent H. somni strain, to eliminate the ability of the gene to express its cognate gene product: HSM_0077, HSM_0270, HSM_0708, HSM_0975, HSM_1191, HSM_1257, HSM_1448, HSM_1542, HSM_1571, HSM_1624, HSM_1714, HSM_1726, HSM_1728, HSM_1730, HSM_1734, HSM_1736, HSM_1737, HSM_1741 and HSM_1793; wherein this relative deficiency of virulence factor-encoding genes renders the attenuated strain incapable of causing infection in the bovine animal; and further retaining at least the following genes, in comparison with a highly virulent H. somni strain: HSM_0052, HSM_0164, HSM_0268, HSM_0274, HSM 0338, HSM_ 0346, HSM 0377, HSM 0394, HSM 0598, HSM_0695, HSM 0749, HSM 0844, HSM_0938, HSM_0977, HSM 0978, HSM 1022, HSM 1089, HSM 1090, HSM_ 1160, HSM 1212, HSM 1426, HSM_ 1484, HSM_1616, HSM_1647, HSM_ 1651, HSM_1667, HSM_ 1794 and HSM_1889.
A method for editing a three-dimensional, 3D, mesh composed of faces formed from vertices connected by edges and that is stored in one or more files , comprising: placing, by a process of a software application executing on one or more computing systems, a lock for a client on the 3D mesh in the one or more files , to prevent conflicting edits; receiving, by the process from the client , a request for data of a region of the 3D mesh; tagging at least a boundary of the region of the 3D mesh as read-only, the boundary composed of external faces , and returning the requested data and tags to the client ; editing the returned data, the edit being allowed or disallowed based on satisfying one or more conditions, the one or more conditions including that the edit does not change tagged data; receiving a request from the client to commit the edit; and merging the committed edit with another edit to the 3D mesh in the one or more files . placing, by a process of a software application executing on one or more computing systems, a lock for a client on the 3D mesh in the one or more files , to prevent conflicting edits; receiving, by the process from the client , a request for data of a region of the 3D mesh; tagging at least a boundary of the region of the 3D mesh as read-only, the boundary composed of external faces , and returning the requested data and tags to the client ; editing the returned data, the edit being allowed or disallowed based on satisfying one or more conditions, the one or more conditions including that the edit does not change tagged data; receiving a request from the client to commit the edit; and merging the committed edit with another edit to the 3D mesh in the one or more files .
A method of processing graphics data using a graphics processing unit that includes a texture pipe , the texture pipe including one or more hardware units separate from shader processors in the graphics processing unit , configured to operate on texture data , the method comprising: receiving , by the texture pipe, texture data that comprises first texture data and second texture data said texture data comprising one or more blocks of texels; performing , by the texture pipe, a block-based operation on the texture data , including performing a swizzling operation on the texture data to pair off one or more blocks of texels in the first texture data with the corresponding ones in the second texture data , and convolving texels in the first texture data with convolution weights in the second texture data ; processing graphics data with shader processors of the graphics processing unit concurrently with the texture pipe performing the block-based operation; and outputting , by the texture pipe, a result of performing the block-based operation on the texture data. receiving , by the texture pipe, texture data that comprises first texture data and second texture data said texture data comprising one or more blocks of texels; performing , by the texture pipe, a block-based operation on the texture data , including performing a swizzling operation on the texture data to pair off one or more blocks of texels in the first texture data with the corresponding ones in the second texture data , and convolving texels in the first texture data with convolution weights in the second texture data ; processing graphics data with shader processors of the graphics processing unit concurrently with the texture pipe performing the block-based operation; and outputting , by the texture pipe, a result of performing the block-based operation on the texture data.
A lamp unit for a vehicle , comprising: a light emitting element ; a reflector that reflects light emitted from the light emitting element toward a unit front; a heat sink that supports the light emitting element and the reflector ; and a power supply attachment for supplying power to the light emitting element that is attached to the heat sink and includes a connector portion , wherein the power supply attachment is fastened to the heat sink at two left and right fastening positions of the power supply attachment with respect to a light axis (Ax) extending in the front-rear direction of the lamp unit , and the connector portion of the power supply attachment is formed between the two left and right fastening positions so as to extend to a unit rear side relative to a rear end position of the reflector , and a recessed portion (22a2) is formed on an upper surface of a rear end portion of the heat sink and accommodates at least a portion of the connector portion of the power supply attachment , characterized in that the connector portion is formed so as to protrude toward a reflector side on the unit rear side relative to the rear end position of the reflector . a light emitting element ; a reflector that reflects light emitted from the light emitting element toward a unit front; a heat sink that supports the light emitting element and the reflector ; and a power supply attachment for supplying power to the light emitting element that is attached to the heat sink and includes a connector portion , wherein the power supply attachment is fastened to the heat sink at two left and right fastening positions of the power supply attachment with respect to a light axis (Ax) extending in the front-rear direction of the lamp unit , and the connector portion of the power supply attachment is formed between the two left and right fastening positions so as to extend to a unit rear side relative to a rear end position of the reflector , and a recessed portion (22a2) is formed on an upper surface of a rear end portion of the heat sink and accommodates at least a portion of the connector portion of the power supply attachment , characterized in that the connector portion is formed so as to protrude toward a reflector side on the unit rear side relative to the rear end position of the reflector .
A method for producing a woven fabric by means of a weaving loom, wherein the weaving loom comprises at least a weft thread insertion device, a reed or an equivalent means, at least a laying device with a feed needle for at least one cover thread , comprising the steps of - inserting weft threads into the open warp thread shed, - laying the cover thread or the cover threads by means of the feed needle or feed needles , - wherein the weft thread is introduced at certain points in the woven fabric over a plurality of adjacent warp threads in a floating manner, and - at least one cover thread is positioned, by means of at least one feed needle , underneath the floating weft thread and is thereby tied in by the latter, - characterized in that - the said cover thread is positioned under the floating weft thread at an arbitrary point between the beginning and the end of the floating weft thread and is thereby tied in by the latter, - whereby the said cover thread is precisely positioned at the beginning or the end of the floating weft thread region depending on the positions of the previous and of the subsequent joining or binding point. - inserting weft threads into the open warp thread shed, - laying the cover thread or the cover threads by means of the feed needle or feed needles , - wherein the weft thread is introduced at certain points in the woven fabric over a plurality of adjacent warp threads in a floating manner, and - at least one cover thread is positioned, by means of at least one feed needle , underneath the floating weft thread and is thereby tied in by the latter, - characterized in that - the said cover thread is positioned under the floating weft thread at an arbitrary point between the beginning and the end of the floating weft thread and is thereby tied in by the latter, - whereby the said cover thread is precisely positioned at the beginning or the end of the floating weft thread region depending on the positions of the previous and of the subsequent joining or binding point.
A computer-implemented method for identifying citations within regulatory content, the method comprising: receiving image data representing a format and layout of the regulatory content; receiving a language embedding including a plurality of tokens representing words or characters in the regulatory content; generating a plurality of token mappings , each token mapping associating each token of the plurality of tokens with a portion of the image data , wherein the image data comprises pixel-based image data and the plurality of token mappings are convertible to pixel references in the pixel-based image data; receiving the plurality of tokens and the plurality of token mappings at an input of a citation classifier , the citation classifier having been trained to generate a classification output for each token of the plurality of tokens based on the language embedding and the token mapping for the each token, the classification output identifying a plurality of citation tokens within the plurality of tokens; and processing the plurality of citation tokens to determine a hierarchical relationship between citation tokens of the plurality of citation tokens, the hierarchical relationship being established based at least in part on the token mapping for the citation tokens. receiving image data representing a format and layout of the regulatory content; receiving a language embedding including a plurality of tokens representing words or characters in the regulatory content; generating a plurality of token mappings , each token mapping associating each token of the plurality of tokens with a portion of the image data , wherein the image data comprises pixel-based image data and the plurality of token mappings are convertible to pixel references in the pixel-based image data; receiving the plurality of tokens and the plurality of token mappings at an input of a citation classifier , the citation classifier having been trained to generate a classification output for each token of the plurality of tokens based on the language embedding and the token mapping for the each token, the classification output identifying a plurality of citation tokens within the plurality of tokens; and processing the plurality of citation tokens to determine a hierarchical relationship between citation tokens of the plurality of citation tokens, the hierarchical relationship being established based at least in part on the token mapping for the citation tokens.
A bladder pressure measurement device comprising: a conduit for receiving a flow of urine; a valve actuatable between a first open configuration and a second restricted configuration that restricts the flow of urine through the conduit ; a pressure sensor upstream of the valve , wherein the pressure sensor is arranged to obtain a first measurement of the pressure of the flow of urine through the conduit when the valve is in the first open configuration and to obtain a second measurement of the pressure of the flow of urine through the conduit when the valve is in the second restricted configuration; a data recorder and/or a data transmitter for recording and/or transmitting data representative of the first and the second measurements; and an adaptor for receiving a body part of a user of the device ; characterised in that the valve is partially closed in the second restricted configuration. a conduit for receiving a flow of urine; a valve actuatable between a first open configuration and a second restricted configuration that restricts the flow of urine through the conduit ; a pressure sensor upstream of the valve , wherein the pressure sensor is arranged to obtain a first measurement of the pressure of the flow of urine through the conduit when the valve is in the first open configuration and to obtain a second measurement of the pressure of the flow of urine through the conduit when the valve is in the second restricted configuration; a data recorder and/or a data transmitter for recording and/or transmitting data representative of the first and the second measurements; and an adaptor for receiving a body part of a user of the device ; characterised in that the valve is partially closed in the second restricted configuration.
Device for dynamically calibrating pressure sensors having a housing , a cylinder , connected to the housing , for receiving a fluid , which cylinder is able to be connected, via a first opening , to a first pressure sensor , which is therefore in contact with the fluid , an actuator and a piston interacting with the cylinder , wherein the actuator is arranged between the housing and a side , facing away from the cylinder , of the piston , characterized in that - the device is statically determined in each case only by a housing -actuator and actuator -piston connection, since it does not have a connection to a larger mass, in particular does not have a connection to a base, - in that the actuator is designed as a piezoelectric actuator , and - in that the piston is sealed in the cylinder relative to the surrounding atmosphere by a seal and is arranged so as to be able to move in the seal . - the device is statically determined in each case only by a housing -actuator and actuator -piston connection, since it does not have a connection to a larger mass, in particular does not have a connection to a base, - in that the actuator is designed as a piezoelectric actuator , and - in that the piston is sealed in the cylinder relative to the surrounding atmosphere by a seal and is arranged so as to be able to move in the seal .
Electrochemical gas sensor comprising a sensor housing , which is filled with electrolyte , a measuring electrode and an auxiliary electrode , which are arranged in the sensor housing , characterized in that the measuring electrode is an electrode having a gas-permeable membrane, where a graphene layer has been applied as electrode material to the gas-permeable membrane .
A constructing method for visualization models of human peripheral nerve fascicles, comprising the steps of: obtaining human peripheral nerves, and treating the peripheral nerves by staining with an iodine preparation in combination with a freeze-drying method, and simultaneously in combination with an adjustment to Micro CT parameters; wherein the freeze-drying method is, wrapping the iodine preparation stained specimens of peripheral nerves with tinfoil and placing them into liquid nitrogen for quick-freezing, then taking the specimens out of liquid nitrogen and placing them in freeze-dryer for thermostatic drying at a temperature of -80 °C for 3 days to remove moisture; scanning the pretreated peripheral nerves by using Micro CT to acquire two-dimensional images, drawing a grayscale histogram based on the two-dimensional images acquired by Micro CT scanning, obtaining a binarization threshold and applying binarization processing to the two-dimensional images based on the binarization threshold; then conducting image segmentation based on a grayscale difference and internal structure features of nerve images acquired by Micro CT scanning to acquire images of nerve fascicles; reconstructing the images of nerve fascicles into visualization models. obtaining human peripheral nerves, and treating the peripheral nerves by staining with an iodine preparation in combination with a freeze-drying method, and simultaneously in combination with an adjustment to Micro CT parameters; wherein the freeze-drying method is, wrapping the iodine preparation stained specimens of peripheral nerves with tinfoil and placing them into liquid nitrogen for quick-freezing, then taking the specimens out of liquid nitrogen and placing them in freeze-dryer for thermostatic drying at a temperature of -80 °C for 3 days to remove moisture; scanning the pretreated peripheral nerves by using Micro CT to acquire two-dimensional images, drawing a grayscale histogram based on the two-dimensional images acquired by Micro CT scanning, obtaining a binarization threshold and applying binarization processing to the two-dimensional images based on the binarization threshold; then conducting image segmentation based on a grayscale difference and internal structure features of nerve images acquired by Micro CT scanning to acquire images of nerve fascicles; reconstructing the images of nerve fascicles into visualization models.
A method of recording a response to Transcranial Magnetic Stimulation (TMS) for mapping brain functions, comprising the steps of: - inducing a non-therapeutic bi-phasic double pulse pair from a TMS a single stimulation coil of a coil device to stimulate a subject, wherein - the second bi-phasic pulse of the non-therapeutic bi-phasic double pulse pair has a lower amplitude compared to the first bi-phasic pulse in the bi-phasic double pulse pair, and - measuring the subject's response to the non-therapeutic bi-phasic double pulse pair at a point in time when the TMS coil device is not actively producing magnetic stimulation, and wherein no magnetic field is generated by the TMS coil device between the conclusion of the second pulse of the bi-phasic double pulse pair and prior to the measurement of at least a first portion of the subject's response to said bi-phasic double pulse pair. - inducing a non-therapeutic bi-phasic double pulse pair from a TMS a single stimulation coil of a coil device to stimulate a subject, wherein - the second bi-phasic pulse of the non-therapeutic bi-phasic double pulse pair has a lower amplitude compared to the first bi-phasic pulse in the bi-phasic double pulse pair, and - measuring the subject's response to the non-therapeutic bi-phasic double pulse pair at a point in time when the TMS coil device is not actively producing magnetic stimulation, and wherein no magnetic field is generated by the TMS coil device between the conclusion of the second pulse of the bi-phasic double pulse pair and prior to the measurement of at least a first portion of the subject's response to said bi-phasic double pulse pair.
A raw water channel spacer having a two-layer structure in which a first yarn row (M1, M2, M3, M4) and a second yarn row (N1, N2, N3, N4) are superimposed with each other, wherein the two-layer structure of the spacer is formed by fixing each of the yarn rows in a laminated state, wherein each of the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4) is formed of a resin material, wherein the raw water channel spacer is configured to be sandwiched between a first separation membrane and a second separation membrane wound around a water collecting pipe of a spiral wound membrane element , and wherein the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4) are configured such that, when the raw water channel spacer is wound around the water collecting pipe , the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4) are inclined in opposite directions from each other with respect to a X direction, wherein the X direction is a direction parallel to an axial direction of the water collecting pipe , characterized in that the raw water channel spacer comprises alternately arranged: a first mesh structure formed continuously in an extending direction of the second yarn row (N1, N2, N3, N4), wherein the first mesh structure is formed by the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4); and a second mesh structure formed continuously in the extending direction of the second yarn row (N1, N2, N3, N4), wherein the second mesh structure is formed by the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4), wherein an interval (R2) of the second yarn row (N1, N2, N3, N4) forming the second mesh structure is smaller than an interval (52a-1) of the second yarn row (N1, N2, N3, N4) forming the first mesh structure . a first mesh structure formed continuously in an extending direction of the second yarn row (N1, N2, N3, N4), wherein the first mesh structure is formed by the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4); and a second mesh structure formed continuously in the extending direction of the second yarn row (N1, N2, N3, N4), wherein the second mesh structure is formed by the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4), wherein an interval (R2) of the second yarn row (N1, N2, N3, N4) forming the second mesh structure is smaller than an interval (52a-1) of the second yarn row (N1, N2, N3, N4) forming the first mesh structure .
A tetravalent bispecific antibody against PD-1 and VEGF, wherein the tetravalent bispecific antibody comprises two polypeptide chains and four common light chains, an amino acid sequence of the polypeptide chain is shown as SEQ ID NO. 21, and an amino acid sequence of the common light chain is shown as SEQ ID NO. 13.