mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of depth sensing, comprising: (a) recording a plurality of images of an object in a surgical scene, wherein the plurality of images comprise a plurality of markers on the object 702, wherein the plurality of images is captured using a plurality of imaging devices having different types of imaging modalities; (b) computing (i) a first depth using one or more images of the plurality of images and a first set of markers of the plurality of markers 704, (ii) a second depth using the one or more images and a second set of markers of the plurality of markers 706, and (iii) a third depth using the one or more images and a third set of markers of the plurality of markers 708; (c) assigning (i) a first weight to the first depth, (ii) a second weight to the second depth, and (iii) a third weight to the third depth 710; and (d) computing a weighted average depth of one or more portions of the object based at least in part on the first depth, the first weight, the second depth, the second weight, the third depth, and the third weight 712. (a) recording a plurality of images of an object in a surgical scene, wherein the plurality of images comprise a plurality of markers on the object 702, wherein the plurality of images is captured using a plurality of imaging devices having different types of imaging modalities; (b) computing (i) a first depth using one or more images of the plurality of images and a first set of markers of the plurality of markers 704, (ii) a second depth using the one or more images and a second set of markers of the plurality of markers 706, and (iii) a third depth using the one or more images and a third set of markers of the plurality of markers 708; (c) assigning (i) a first weight to the first depth, (ii) a second weight to the second depth, and (iii) a third weight to the third depth 710; and (d) computing a weighted average depth of one or more portions of the object based at least in part on the first depth, the first weight, the second depth, the second weight, the third depth, and the third weight 712.
A method performed by a base station comprising: determining , by the base station and for a first plurality of non-orthogonal multiple access layers , a first order; receiving , by the base station and from a user equipment , a transmission of a transport block, the transmission using the first plurality of non-orthogonal multiple access layers; attempting to decode the transport block from the first plurality of non-orthogonal multiple access layers by combining , by the base station, the first plurality of non-orthogonal multiple access layers in the determined first order; determining , by the base station, that combining the first plurality of non-orthogonal multiple access layers in the determined first order fails to decode the transport block from the first plurality of non-orthogonal multiple access layers; determining (510; 820), by the base station and for a second plurality of non-orthogonal multiple access layers, a second order, the second order being different from the first order; receiving , by the base station and from the user equipment, a retransmission of the transport block, the retransmission using the second plurality of non-orthogonal multiple access layers; and attempting to decode the transport block from the second plurality of non-orthogonal multiple access layers by combining (514; 835), by the base station, the second plurality of non-orthogonal multiple access layers in the determined second order. determining , by the base station and for a first plurality of non-orthogonal multiple access layers , a first order; receiving , by the base station and from a user equipment , a transmission of a transport block, the transmission using the first plurality of non-orthogonal multiple access layers; attempting to decode the transport block from the first plurality of non-orthogonal multiple access layers by combining , by the base station, the first plurality of non-orthogonal multiple access layers in the determined first order; determining , by the base station, that combining the first plurality of non-orthogonal multiple access layers in the determined first order fails to decode the transport block from the first plurality of non-orthogonal multiple access layers; determining (510; 820), by the base station and for a second plurality of non-orthogonal multiple access layers, a second order, the second order being different from the first order; receiving , by the base station and from the user equipment, a retransmission of the transport block, the retransmission using the second plurality of non-orthogonal multiple access layers; and attempting to decode the transport block from the second plurality of non-orthogonal multiple access layers by combining (514; 835), by the base station, the second plurality of non-orthogonal multiple access layers in the determined second order.
A method of preparing composite particles comprising a non-porous spherical particulate inorganic material deposited on a plate-like inorganic material, where refractive index of said particulate inorganic material is greater than that of said plate-like inorganic particulate material, wherein, said spherical material occupies 20 to 80 % of total surface area of said plate-like material and wherein the amount of said spherical material accounts for 2 to 20 wt% of said composite particles, further wherein said plate-like inorganic material is mica and said non-porous spherical particulate inorganic material is silicone dioxide, said method comprising the steps of: (i) silanization of said plate-like inorganic material to get a silanized material having functional groups "A"; (ii) silanization of said non-porous spherical particulate inorganic material to get a silanized material having functional groups "B", where A ≠ B; and where said "A" and said "B" are capable of reacting with each other such that by way of their reaction, said non-porous spherical particulate inorganic material deposits on said plate-like inorganic material; and, (iii) reacting said silanized material having functional groups "A" with said silanized material having functional groups "B". (i) silanization of said plate-like inorganic material to get a silanized material having functional groups "A"; (ii) silanization of said non-porous spherical particulate inorganic material to get a silanized material having functional groups "B", where A ≠ B; and where said "A" and said "B" are capable of reacting with each other such that by way of their reaction, said non-porous spherical particulate inorganic material deposits on said plate-like inorganic material; and, (iii) reacting said silanized material having functional groups "A" with said silanized material having functional groups "B".
A fire stop device passing through a wall , in particular to enable a fluid and/or an electrical cable and/or a fluid pipe to pass through the wall, the device comprising a wall-passing sleeve having a main body and a through orifice , in particular for the passage of fluid, and/or an electrical cable, and/or a fluid pipe, said sleeve being configured so that the main body is accommodated at least partially in said wall and the inlet orifice is arranged outside the wall , the fire stop device comprising a flap for sealing the passage orifice by gravity, said flap being pivotably mounted between a closure position of the passage orifice and an opening position of the passage orifice , the device comprising a control member for controlling the position of the flap between the opening position and the closure position, the control member comprising a thermally-fusible element arranged so as to hold the flap in the opening position, the flap being provided with a plug made of an intumescent material, the plug being arranged so as to plug the through orifice in the closure position of the flap , wherein one end of the thermally-fusible element comprises a hole , wherein, in the opening position, a chain connects the flap to the thermally-fusible element through the hole . wherein one end of the thermally-fusible element comprises a hole , wherein, in the opening position, a chain connects the flap to the thermally-fusible element through the hole .
A focusing method, comprising: setting positions of a focusing lens sequentially; recording image statistical information corresponding to each position of the focusing lens from the beginning of focusing, wherein the image statistical information comprises a luminance value of an image corresponding to said each position; determining whether the current scene is a point light source scene based on the recorded image statistical information; and executing a focusing process based on a regional luminance variance of the image corresponding to said each position when the current scene is determined as a point light source scene, wherein the regional luminance variance of the image is obtained by the following steps: partitioning the image into a plurality of regions, and determining a mean of the square of differences between luminance values of the plurality of regions and an average luminance value of the image. setting positions of a focusing lens sequentially; recording image statistical information corresponding to each position of the focusing lens from the beginning of focusing, wherein the image statistical information comprises a luminance value of an image corresponding to said each position; determining whether the current scene is a point light source scene based on the recorded image statistical information; and executing a focusing process based on a regional luminance variance of the image corresponding to said each position when the current scene is determined as a point light source scene, wherein the regional luminance variance of the image is obtained by the following steps: partitioning the image into a plurality of regions, and determining a mean of the square of differences between luminance values of the plurality of regions and an average luminance value of the image. partitioning the image into a plurality of regions, and determining a mean of the square of differences between luminance values of the plurality of regions and an average luminance value of the image.
Method for detecting faults in the insulation of the generator of a wind turbine coupled to an electrical network through a converter , the wind turbine being provided with measuring means of the electrical variables of the generator and of its radial-horizontal and radial-vertical vibrations of the side of the coupling to electrical network and on the opposite side to it, characterized in that said method comprises the following steps: - capturing in real-time, during a predetermined time period, the values of one or more electrical variables of the generator and the values of the radial-vertical and radial-horizontal vibrations of the generator in at least one of the mentioned sides provided by said measuring devices; - obtaining in real-time the temporal evolution of the inverse values of said electrical variables at one or more predetermined frequencies and the temporal evolution of the values of said vibrations at one or more predetermined frequencies; - Identifying a possible insulation fault in the generator when the inverse value of at least one electrical variable and one of said vibrations at one of said predetermined frequency exceeds an absolute threshold or a temporal increase threshold pre-sets. - capturing in real-time, during a predetermined time period, the values of one or more electrical variables of the generator and the values of the radial-vertical and radial-horizontal vibrations of the generator in at least one of the mentioned sides provided by said measuring devices; - obtaining in real-time the temporal evolution of the inverse values of said electrical variables at one or more predetermined frequencies and the temporal evolution of the values of said vibrations at one or more predetermined frequencies; - Identifying a possible insulation fault in the generator when the inverse value of at least one electrical variable and one of said vibrations at one of said predetermined frequency exceeds an absolute threshold or a temporal increase threshold pre-sets.
A thermosetting resin composition comprising: an epoxy compound having an isocyanuric acid ring represented by the following formula : wherein in the formula , at least one of X, Y and Z is a group containing an epoxy ring, and when X, Y or Z contains no epoxy ring, X, Y or Z containing no epoxy ring is an atom of H, a group composed only of C and H, or a group composed only of C, H and O; a solid lubricant; and a curing agent which is an acid anhydride. an epoxy compound having an isocyanuric acid ring represented by the following formula : wherein in the formula , at least one of X, Y and Z is a group containing an epoxy ring, and when X, Y or Z contains no epoxy ring, X, Y or Z containing no epoxy ring is an atom of H, a group composed only of C and H, or a group composed only of C, H and O; a solid lubricant; and a curing agent which is an acid anhydride.
Method for purifying a first fatty acid using an initial mixture further comprising at least one second fatty acid, a third fatty acid and a fourth fatty acid, with the method comprising at least: - a first step of chromatographic separation in liquid phase, using the initial mixture, carried out in a first unit for chromatographic separation, making it possible to recover on the one hand a first flow enriched with a first fatty acid and on the other hand a flow enriched with a second fatty acid; - a second step of chromatographic separation in liquid phase, using the first flow enriched with a first fatty acid, carried out in a second chromatographic separation unit, making it possible to recover on the one hand a second flow enriched with a first fatty acid and on the other hand a flow enriched with a third fatty acid, the second unit for chromatographic separation being a static bed chromatographic separation unit; - a third step of chromatographic separation in liquid phase, using the second flow enriched with a first fatty acid, carried out in a third chromatographic separation unit, making it possible to recover on the one hand a third flow enriched with a first fatty acid and on the other hand a flow enriched with a fourth fatty acid, wherein the first fatty acid is a first polyunsaturated fatty acid. - a first step of chromatographic separation in liquid phase, using the initial mixture, carried out in a first unit for chromatographic separation, making it possible to recover on the one hand a first flow enriched with a first fatty acid and on the other hand a flow enriched with a second fatty acid; - a second step of chromatographic separation in liquid phase, using the first flow enriched with a first fatty acid, carried out in a second chromatographic separation unit, making it possible to recover on the one hand a second flow enriched with a first fatty acid and on the other hand a flow enriched with a third fatty acid, the second unit for chromatographic separation being a static bed chromatographic separation unit; - a third step of chromatographic separation in liquid phase, using the second flow enriched with a first fatty acid, carried out in a third chromatographic separation unit, making it possible to recover on the one hand a third flow enriched with a first fatty acid and on the other hand a flow enriched with a fourth fatty acid, wherein the first fatty acid is a first polyunsaturated fatty acid.
An apparatus for monitoring a heavy current-carrying device, the apparatus comprising at least one acceleration sensor producing acceleration measurement values, a communication device transmitting produced acceleration measurement values, and a power supply unit for the at least one acceleration sensor and the communication device , wherein the power supply unit includes an induction plate of a metallic material and a conductor loop extending around the induction plate to produce a power supply for the apparatus exclusively through induction from an electromagnetic alternating field of the heavy current-carrying device without additional energy sources and the apparatus is arranged in a closed housing having a housing wall , wherein the induction plate is at least a subregion of the housing wall .
Balcony slab , for a suspended balcony, which comprises a matrix structure comprising a filler substance and reinforcing steel, in which there is at least a flat surface, which forms the upper surface of the slab, and a lower surface on the opposite side to the upper surface, and in which there are wall brackets for attachment to a wall, and, at a distance from these, suspension points, in which there are tension-rod lugs for suspending the balcony slab, wherein the balcony slab further comprises an edge encircling the flat surface, which extends outwards from the lower surface of the slab, characterized by - at least two cross-wise webs in the lower surface of the slab , which webs extend over the area delimited inside the edge in the lower surface and are oriented outwards, - a steel C-profile frame encircling the edges of the balcony slab , in which the opening of the C of the profile is oriented towards the centre of the balcony slab , and which forms, together with the filler substance, the edge of the balcony slab , - a reinforcing profile joining the tension-rod lugs of the balcony slab , and - that the steel components of the balcony slab are of stainless steel. - at least two cross-wise webs in the lower surface of the slab , which webs extend over the area delimited inside the edge in the lower surface and are oriented outwards, - a steel C-profile frame encircling the edges of the balcony slab , in which the opening of the C of the profile is oriented towards the centre of the balcony slab , and which forms, together with the filler substance, the edge of the balcony slab , - a reinforcing profile joining the tension-rod lugs of the balcony slab , and - that the steel components of the balcony slab are of stainless steel.
A computer implemented method of storing a data object in a computer memory wherein the data object is over 64 bytes in size and is stored at a location in an object store as a portion of the memory, the location being determined by a hashing process based on a generated hash key, the memory further storing: a set of 64-bit binary words in which each bit of each word identifies an occupancy state of a location in the object store such that an occupancy state of all locations is stored in the set of binary words; and a truncated hash key set storing, for each occupied location in the object store, a truncated hash key for a data object stored at the location, each truncated hash key being 32 bits in length, wherein: the hashing process uses linear probing in which an occupancy of the location in the object store for storage of the data object is determined by reference to the set of binary words, and the linear probing further determines identity of the data object and an object stored in the occupied location, the identity being determined based on a comparison of the stored truncated hash key for the occupied location with a corresponding part of the generated hash key for the data object, and a determination of identity based on the comparison is confirmed by a comparison of the data object for storage and a data object stored in the occupied location. the hashing process uses linear probing in which an occupancy of the location in the object store for storage of the data object is determined by reference to the set of binary words, and the linear probing further determines identity of the data object and an object stored in the occupied location, the identity being determined based on a comparison of the stored truncated hash key for the occupied location with a corresponding part of the generated hash key for the data object, and a determination of identity based on the comparison is confirmed by a comparison of the data object for storage and a data object stored in the occupied location.
A method comprising: by a user equipment, UE : multiplexing uplink control information, UCI, with uplink shared channel, UL-SCH, data for transmission over orthogonal frequency division multiplexing, OFDM symbols in the time domain and in physical resource blocks, PRBs, in the frequency domain, wherein the OFDM symbols and PRBs include a plurality of time-frequency resource elements, REs; divide channel state information, CSI, bits into multiple segments; mapping UCI including modulated hybrid automatic request repeat acknowledgement, HARQ-ACK, bits and modulated CSI bits to REs of OFDM symbols that do not contain demodulation reference signal, DMRS, REs, wherein said mapping includes mapping the modulated CSI bits of the multiple segments to REs first in the frequency domain and then in the time domain, and mapping UL-SCH data to REs of the PRB first in the frequency domain and then in the time domain after mapping the modulated CSI bits. multiplexing uplink control information, UCI, with uplink shared channel, UL-SCH, data for transmission over orthogonal frequency division multiplexing, OFDM symbols in the time domain and in physical resource blocks, PRBs, in the frequency domain, wherein the OFDM symbols and PRBs include a plurality of time-frequency resource elements, REs; divide channel state information, CSI, bits into multiple segments; mapping UCI including modulated hybrid automatic request repeat acknowledgement, HARQ-ACK, bits and modulated CSI bits to REs of OFDM symbols that do not contain demodulation reference signal, DMRS, REs, wherein said mapping includes mapping the modulated CSI bits of the multiple segments to REs first in the frequency domain and then in the time domain, and mapping UL-SCH data to REs of the PRB first in the frequency domain and then in the time domain after mapping the modulated CSI bits.
Occupancy detection and/or classification system for an automotive vehicle, comprising at least one radar module for detecting the presence of an object within the vehicle interior, characterized in that said at least one radar module comprises an antenna system having a frequency dependent main lobe direction and in that said occupancy detection and/or classification system comprises a control module for operating said at least one radar module at a plurality of frequencies, wherein said antenna system comprises at least two antennas, each of said at least two antennas having an individual frequency dependency of its main lobe direction, and wherein the respective individual frequency dependencies of the main lobe direction of said at least two antennas are different from one each other.