mhurhangee/patent-ind-claim-en huggingface dataset:
A transform method performed by a decoding apparatus, the method comprising: receiving a non-separable transform index; obtaining transform coefficients for a target block; determining a non-separable transform set for the target block; selecting one of a plurality of non-separable transform kernels included in the non-separable transform set based on the non-separable transform index; and generating modified transform coefficients by non-separable-transforming the transform coefficients based on the selected non-separable transform kernel, wherein the non-separable transform set for the target block is determined based on at least one of an intra prediction mode and a size of the target block, wherein a value of the non-separable transform index is represented based on a truncated unary binarization, characterized in that the non-separable transform set is a mixed non-separable transform set comprising a 4×4 non-separable transform kernel and an 8×8 non-separable transform kernel. receiving a non-separable transform index; obtaining transform coefficients for a target block; determining a non-separable transform set for the target block; selecting one of a plurality of non-separable transform kernels included in the non-separable transform set based on the non-separable transform index; and generating modified transform coefficients by non-separable-transforming the transform coefficients based on the selected non-separable transform kernel, wherein the non-separable transform set for the target block is determined based on at least one of an intra prediction mode and a size of the target block, wherein a value of the non-separable transform index is represented based on a truncated unary binarization, characterized in that the non-separable transform set is a mixed non-separable transform set comprising a 4×4 non-separable transform kernel and an 8×8 non-separable transform kernel.
A method for an object sensing system comprising: repeatedly scanning a transmitter antenna array and a receiver antenna array of the object sensing system through a plurality of designated transmitter and receiver channels over a period of time, wherein the designated channels correspond to pairs of individual antenna elements comprising one antenna element from each of the transmitter antenna array and the receiver antenna array ; generating a time series of measured channel responses corresponding to each one of the designated channels during said period of time; determining a time series of directional vectors to or from an object , based, at least in part, on the generated time series of measured channel responses, and determining an angular velocity of the object from the determined time series of directional vectors ; and/or determining a time series of average phase differences, based, at least in part, on the generated time series of measured channel responses; and determining an angular velocity of the object from the determined time series of average phase differences by applying a Fourier transform to the determined time series of average phase differences and identifying a peak in the resulting transformation as the average angular velocity. repeatedly scanning a transmitter antenna array and a receiver antenna array of the object sensing system through a plurality of designated transmitter and receiver channels over a period of time, wherein the designated channels correspond to pairs of individual antenna elements comprising one antenna element from each of the transmitter antenna array and the receiver antenna array ; generating a time series of measured channel responses corresponding to each one of the designated channels during said period of time; determining a time series of directional vectors to or from an object , based, at least in part, on the generated time series of measured channel responses, and determining an angular velocity of the object from the determined time series of directional vectors ; and/or determining a time series of average phase differences, based, at least in part, on the generated time series of measured channel responses; and determining an angular velocity of the object from the determined time series of average phase differences by applying a Fourier transform to the determined time series of average phase differences and identifying a peak in the resulting transformation as the average angular velocity.
A vehicle rental transaction system comprising: a computer operable to identify a customer as part of a rental transaction involving a vehicle , and to send a wireless message to the vehicle containing instructions for preparing the vehicle for the customer, wherein the computer is also operable to send an additional wireless message to the vehicle containing additional instructions for preparing the vehicle for the customer after a predetermined time period following the first wireless message, said predetermined time period being based upon vehicle location information, stored in a vehicle inventory data of the computer, and customer preference, the additional instructions being activating the vehicle lights and/or unlocking the vehicle and unlatching the trunk. a computer operable to identify a customer as part of a rental transaction involving a vehicle , and to send a wireless message to the vehicle containing instructions for preparing the vehicle for the customer, wherein the computer is also operable to send an additional wireless message to the vehicle containing additional instructions for preparing the vehicle for the customer after a predetermined time period following the first wireless message, said predetermined time period being based upon vehicle location information, stored in a vehicle inventory data of the computer, and customer preference, the additional instructions being activating the vehicle lights and/or unlocking the vehicle and unlatching the trunk.
An electronic apparatus production system configured to assemble scattered different components with different shapes into an electronic apparatus, comprising: a transmission rail in the form of a substantially closed loop; a plurality of storage trays circulating on the transmission rail , each of the storage trays comprising a plurality of holding portions to hold the different components with different shapes; at least one automatic distributing equipment configured to mount the different components with different shapes on the respective holding portions ; and at least one automatic assembling equipment configured to grip the different components with different shapes from the storage tray wherein the automatic distributing equipment comprises: a base ; a storage device mounted on the base and configured to store the plurality of scattered, different components with different shapes; a recognition device configured to recognize the different components with different shapes placed on the storage device ; and a pickup device configured to pick up the recognized different components with different shapes and place the picked different components with different shapes on the respective holding portions of the storage tray according to a recognition result of the recognition device . a transmission rail in the form of a substantially closed loop; a plurality of storage trays circulating on the transmission rail , each of the storage trays comprising a plurality of holding portions to hold the different components with different shapes; at least one automatic distributing equipment configured to mount the different components with different shapes on the respective holding portions ; and at least one automatic assembling equipment configured to grip the different components with different shapes from the storage tray wherein the automatic distributing equipment comprises: a base ; a storage device mounted on the base and configured to store the plurality of scattered, different components with different shapes; a recognition device configured to recognize the different components with different shapes placed on the storage device ; and a pickup device configured to pick up the recognized different components with different shapes and place the picked different components with different shapes on the respective holding portions of the storage tray according to a recognition result of the recognition device .
A platen for seamless wrap-around printing on an item of clothing, wherein the platen comprises: a first planar surface ; a second planar surface , the second planar surface opposite to the first planar surface and separated from the first planar surface in an axial direction; and at least one peripheral region extending from the first planar surface to the second planar surface , wherein the platen further comprises a tapered region comprising a tapered edge formed on at least part of the at least one peripheral region characterized in that the tapered edge is a double-sided tapered edge ; a minimum thickness (c) of the tapered edge formed on the tapered region is from 0.1 to 5 mm; the at least one tapered region has a width (b) of from 2 mm to 100 mm; and the at least one tapered region has a taper angle (d) of from 0.1o to 89.5o. a first planar surface ; a second planar surface , the second planar surface opposite to the first planar surface and separated from the first planar surface in an axial direction; and at least one peripheral region extending from the first planar surface to the second planar surface , wherein the platen further comprises a tapered region comprising a tapered edge formed on at least part of the at least one peripheral region characterized in that the tapered edge is a double-sided tapered edge ; a minimum thickness (c) of the tapered edge formed on the tapered region is from 0.1 to 5 mm; the at least one tapered region has a width (b) of from 2 mm to 100 mm; and the at least one tapered region has a taper angle (d) of from 0.1o to 89.5o.
A laser beam combining device comprising: a plurality of shaping optical units which emit a plurality of circular laser beams having outer diameters which are different from each other and increase as the circular laser beams travel; and a beam condensing optical system which condenses the plurality of circular laser beams emitted from the plurality of shaping optical units, wherein an increase amount of an outer diameter per unit travel distance is different between the plurality of circular laser beams, and wherein the plurality of shaping optical units are placed in such a manner that the plurality of circular laser beams emitted from the plurality of shaping optical units have a concentric shape and overlap with each other on an emission surface of the beam condensing optical system. a plurality of shaping optical units which emit a plurality of circular laser beams having outer diameters which are different from each other and increase as the circular laser beams travel; and a beam condensing optical system which condenses the plurality of circular laser beams emitted from the plurality of shaping optical units, wherein an increase amount of an outer diameter per unit travel distance is different between the plurality of circular laser beams, and wherein the plurality of shaping optical units are placed in such a manner that the plurality of circular laser beams emitted from the plurality of shaping optical units have a concentric shape and overlap with each other on an emission surface of the beam condensing optical system.
An electronic device comprising: a housing assembly comprising a first housing and a second housing configured to rotate with respect to the first housing around a first rotation axis (Ax1); a hinge module that is coupled to the first housing and the second housing , the hinge module comprising a rotation gear configured to rotate around an axis substantially the same as or parallel to the first rotation axis (Ax1); a gear assembly comprising a pinion gear rotatably coupled to the rotation gear , wherein the pinion gear is configured to rotate around an axis parallel to the first rotation axis (Ax1), a rack gear configured to slide in a first axial direction (+Y, -Y) based on rotation of the pinion gear , wherein the first axial direction (+Y, -Y) is perpendicular to the first rotation axis (Ax1); a cam structure coupled to the rack gear ; and a foot structure coupled to the first housing , the foot structure being moveable in a second axial direction (+Z), perpendicular to the first rotation axis (Ax1) and the first axial direction (+Y, -Y), based on a first movement of the cam structure and moveable in a third axial direction (-Z) that is perpendicular to the first axial direction (+Y, -Y) , opposed to the second axial direction (-Z), based on a second movement of the cam structure . a housing assembly comprising a first housing and a second housing configured to rotate with respect to the first housing around a first rotation axis (Ax1); a hinge module that is coupled to the first housing and the second housing , the hinge module comprising a rotation gear configured to rotate around an axis substantially the same as or parallel to the first rotation axis (Ax1); a gear assembly comprising a pinion gear rotatably coupled to the rotation gear , wherein the pinion gear is configured to rotate around an axis parallel to the first rotation axis (Ax1), a rack gear configured to slide in a first axial direction (+Y, -Y) based on rotation of the pinion gear , wherein the first axial direction (+Y, -Y) is perpendicular to the first rotation axis (Ax1); a cam structure coupled to the rack gear ; and a foot structure coupled to the first housing , the foot structure being moveable in a second axial direction (+Z), perpendicular to the first rotation axis (Ax1) and the first axial direction (+Y, -Y), based on a first movement of the cam structure and moveable in a third axial direction (-Z) that is perpendicular to the first axial direction (+Y, -Y) , opposed to the second axial direction (-Z), based on a second movement of the cam structure .
A method, comprising obtaining a preserved sample from a subject, the sample comprising protein-DNA complexes; treating the preserved sample with a proteinase at a temperature not greater than 40 °C to isolate nucleic acids such that protein-DNA complexes are not destroyed, such that a first segment and a second segment are held together independent of a phosphodiester backbone, and such that the first segment and the second segment each have at least one exposed nucleic acid end; and deriving genomic structural information by analyzing nucleic acids of the protein-DNA complexes in the sample, wherein the preserved sample is a formalin fixed paraffin-embedded (FFPE) sample.
A composition or kit of parts for use in the treatment of cancer, comprising a second anti-tumor compound, and an ADAM12 inhibitor which is a monoclonal antibody against ADAM12 which has Antibody-Dependent Cellular Cytotoxicity (ADCC) activity or Complement-Dependent Cytotoxicity (CDC) activity and binds ADAM12 on the surface of cells, wherein the composition or kit of parts is administered to a patient in which treatment with a first anti-tumor compound or therapy was measured as lacking effectiveness.
Apparatus for hoisting and forwarding of logs, comprising a rigid bearing framework , which is furnished with at least two pairs of supporting legs , which are spaced apart from each other and extend towards the ground, as well as a hoisting unit , characterised in that it consists of at least two bearing members , which protrude away from said framework , and which is pivotally embedded within said framework and is by means of a driving unit displaceable from its first position, in which said bearing members are rest on each ground, into its second position, in which at least the terminal portion of each of said bearing members is located above the top level of said framework , wherein said framework further comprises two longitudinal bearing members , which are spaced apart from each other and extend parallel to each other and between which at least two forwarding units (14', 14", 14"') are arranged, such that each of them is rotatable around the horizontal axis, which extends transversally with respect to said longitudinal bearing members , and is either separately or together with any other forwarding unit driving by means of a driving unit wherein each of said supporting legs is telescopically conceived and comprises a basic part , which is firmly connected with said framework , as well as a movable part , which is adapted to be rest on the ground and is optionally displaceable along the belonging basic part with the possibility of arresting thereof in each desired position, and that also each of said bearing members of said hoisting unit is telescopically conceived and consists of a basic part , which is embedded in said framework , as well as of a displaceable part , which is adapted to be rest on the ground and is optionally displaceable along the belonging basic part with the possibility of arresting thereof in each desired position, and in that said bearing framework is on its side, which is faced away from the hoisting unit , furnished with a coupling member , which consists of two vertical arranged and apart from each other spaced eyes , which extend perpendicularly with respect to said longitudinal bearing members of the framework and are firmly connected therewith, wherein said eyes are furnished with suitable throughout bores , which are adapted to receive suitable bolts , wherein the dimensions and locations of said passages are adjusted to dimensions and locations of bores on a standard coupling assembly on the front side of a tractor.
Support link arm, which has an elongated link arm body , wherein a ball joint shell is disposed at a first longitudinal end of the link arm body , which forms a first connection point, wherein the link arm body is made of sheet metal, wherein the link arm body is composed of shell segments, in particular of two sheet metal shells , and wherein the link arm body has a height (h) and a width (b) in vertical cross-section, wherein the height (h) is greater than the width (b) of the link arm body and the link arm body has a hollow chamber section and the ball joint shell is a forged or cast part, made of metal, and has a fastening extension , wherein the ball joint shell engages with the fastening extension in the hollow chamber section of the link arm body and is joined to the link arm body , characterised in that a bearing mount is provided at the second longitudinal end opposite the first longitudinal end , which forms a second connection point, wherein the bearing mount is formed by bearing openings in side walls , that are spaced apart parallel to one another, in the second longitudinal end , wherein each bearing opening has a circumferential ring directed inwards towards the interior of the control link arm body and the support link arm has a third connection point in the form of a bearing joint mount , which is configured and intended to connect a spring and damper element, wherein the bearing joint mount is formed by bearing openings in the two spaced-apart opposite side walls of the hollow chamber section and by a bearing opening in the fastening extension , wherein the bearing openings in the side walls and the bearing opening in the fastening extension are disposed coaxially to one another. wherein the link arm body has a height (h) and a width (b) in vertical cross-section, wherein the height (h) is greater than the width (b) of the link arm body and the link arm body has a hollow chamber section and the ball joint shell is a forged or cast part, made of metal, and has a fastening extension , wherein the ball joint shell engages with the fastening extension in the hollow chamber section of the link arm body and is joined to the link arm body , characterised in that a bearing mount is provided at the second longitudinal end opposite the first longitudinal end , which forms a second connection point, wherein the bearing mount is formed by bearing openings in side walls , that are spaced apart parallel to one another, in the second longitudinal end , wherein each bearing opening has a circumferential ring directed inwards towards the interior of the control link arm body and the support link arm has a third connection point in the form of a bearing joint mount , which is configured and intended to connect a spring and damper element, wherein the bearing joint mount is formed by bearing openings in the two spaced-apart opposite side walls of the hollow chamber section and by a bearing opening in the fastening extension , wherein the bearing openings in the side walls and the bearing opening in the fastening extension are disposed coaxially to one another.
A group (G) of gearboxes (GB) for a wind turbine, the group (G) of gearboxes (GB) comprising at least two series (S1, S2) of gearboxes (GB), each series (S1, S2) comprising at least three gearboxes (GB1, GB2, GB3) for different torques (T1, T2, T3) higher than 0.2 MNm, each of the gearboxes (GB1, GB2, GB3) of a series (S1, S2) comprising a first planetary gear stage comprising a sun gear, a ring gear, and planet gears, wherein the first planetary gear stage of a first gearbox (GB1) of the series (S1, S2) comprises exactly three planet gears, the first planetary gear stage of a second gearbox (BG2) of the series (S1, S2) comprises exactly four planet gears and the first planetary gear stage of a third gearbox (GB3) of the series (S1, S2) comprises exactly five planet gears, or the first planetary gear stage of the first gearbox (GB1) of the series (S1, S2) comprises exactly four planet gears, the first planetary gear stage of the second gearbox (BG2) of the series (S1, S2) comprises exactly five planet gears and the first planetary gear stage of the third gearbox (GB3) of the series (S1, S2) comprises exactly six planet gears, and wherein for each of the gearboxes (GB1, GB2, GB3) of the series (S1, S2) the sun gears in the first planetary gear stage have a same number of teeth , the ring gears in the first planetary gear stage have a same number of teeth , the planet gears in the first planetary gear stage each have a same number of teeth and all gears in the first planetary gear stage have a same module, wherein each of the gearboxes (GB1, GB2, GB3) of a series (S1, S2) furthermore comprises a second planetary gear stage comprising a sun gear , a ring gear and three, four, five or six planet gears , and the first planetary gear stage and the second planetary gear stage have a common ring gear .