mhurhangee/patent-ind-claim-en huggingface dataset:
A method for video decoding, comprising: deriving, from a bitstream and for a first coding block, a quantization parameter and a quantized level; deriving a scale value by looking up a scale level table based on the quantization parameter; and in accordance with a determination that the first coding block is coded in a transform skip mode, obtaining a residual sample for a sample in the first coding block based on the quantized level, the scale value and a plurality of bit-shifts by applying a first de-quantization operation; wherein the first de-quantization operation is also applied to obtain a reconstructed sample for an escape sample in a second coding block coded in a palette mode; and wherein a block size of the first coding block or the second coding block is not used for determining parameters of the first de-quantization operation, wherein the first de-quantization operation is as follows: pSample = pLevel × decScale QP % 6 × 2 QP / 6 2 6 wherein pLevel is a quantized level, pSample corresponds to a reconstructed value of a residual sample in the transform skip mode or an escape sample in the palette mode, decScale [ ] is a scale value, QP is a quantization parameter, % denotes a modulo operation, QP%6 represents an operation of QP modulo 6. deriving, from a bitstream and for a first coding block, a quantization parameter and a quantized level; deriving a scale value by looking up a scale level table based on the quantization parameter; and in accordance with a determination that the first coding block is coded in a transform skip mode, obtaining a residual sample for a sample in the first coding block based on the quantized level, the scale value and a plurality of bit-shifts by applying a first de-quantization operation; wherein the first de-quantization operation is also applied to obtain a reconstructed sample for an escape sample in a second coding block coded in a palette mode; and wherein a block size of the first coding block or the second coding block is not used for determining parameters of the first de-quantization operation, wherein the first de-quantization operation is as follows: pSample = pLevel × decScale QP % 6 × 2 QP / 6 2 6
Electronic two-wire room temperature controller for controlling an electrical fluid actuator with AC mains voltage, characterized by two semiconductor switches for interconnecting the mains AC voltage to the fluid actuator as needed, an electronic actuator control for setting a desired room temperature by controlling the fluid actuator using the semiconductor switches , a rechargeable electric energy storage for powering the actuator control , and a switchable charging unit for charging the energy storage , wherein the charging unit is configured such that it charges the energy storage quasi-continuously via the voltage drop across the semiconductor switches , with the semiconductor switches being closed.
A method of controlling a network in which data is transmitted in frames, the network having a plurality of bridges, the method being implemented by one or more bridges within the network and comprising: configuring each bridge (A-I) in a region of the network as a root of a Multiple Spanning Tree Instance, MSTI, with each bridge (A-I) being the root of its own MSTI; sending, by a bridge, a first frame according to a first MSTI having a receiving bridge as a root bridge, wherein a field of the first frame has a per-bridge per-MSTI bit for each MSTI of the region;, the bit being set to "No" when the frame is passed through a port that is not a root port of any MSTI of the region, or otherwise to "Yes"; receiving, by the bridge, a second frame according to a second MSTI having another receiving bridge as a root bridge, wherein a field of the second frame also has such a per-bridge per-MSTI bit; and if the value of the per-bridge per-MSTI bit sent by the bridge does not equal the value of the per-bridge per-MSTI bit received by the bridge, determining that the first and second MSTIs are not in synch, and applying a rule set to determine which bridge is to select an alternate port as a new root port, in order to synch the first and second MSTIs. configuring each bridge (A-I) in a region of the network as a root of a Multiple Spanning Tree Instance, MSTI, with each bridge (A-I) being the root of its own MSTI; sending, by a bridge, a first frame according to a first MSTI having a receiving bridge as a root bridge, wherein a field of the first frame has a per-bridge per-MSTI bit for each MSTI of the region;, the bit being set to "No" when the frame is passed through a port that is not a root port of any MSTI of the region, or otherwise to "Yes"; receiving, by the bridge, a second frame according to a second MSTI having another receiving bridge as a root bridge, wherein a field of the second frame also has such a per-bridge per-MSTI bit; and if the value of the per-bridge per-MSTI bit sent by the bridge does not equal the value of the per-bridge per-MSTI bit received by the bridge, determining that the first and second MSTIs are not in synch, and applying a rule set to determine which bridge is to select an alternate port as a new root port, in order to synch the first and second MSTIs.
Panel for a system for receiving and/or storing liquid, the panel defining a plane and having openings therein for through passage of the liquid, wherein the openings are defined by a plurality of lamellae , each lamella being a strip having a longitudinal direction and a width direction extending between first and second opposite longitudinal edges defining a plane of the lamella, wherein a first lamella (113.1) is off set from a second lamella (113.2) in a direction perpendicular to the plane of the lamellae, thereby forming the openings in the panel between the first and second lamellae, and wherein the second longitudinal edge of the first lamella is aligned or partially overlapping with the first longitudinal edge of the second lamella, such that the second longitudinal edge of the first lamella is off set with the first longitudinal edge of the second lamella in the width direction and such that the lamellae form a closed view in the direction perpendicular to the plane of the lamellae.
A polymerizable composition comprising; a) at least one allyl monomer or oligomer; b) at least one catalyst suitable for initiating the polymerization of said allyl monomer or oligomer; c) at least one UV absorber; and d) at least one dye; wherein the at least one catalyst has the following formula R 1 -O-O-C(=O)-O-R 2 or R 1 -O-O-C(=O)-R 2 ; in which R 1 is an alkyl chain having from 1 to 12 carbon atoms and R 2 is a multivalent polyether bound to a plurality of alkylperoxy carbonate groups or to a plurality of peroxyester groups, or in which R 2 is an alkyl chain having from 1 to 12 carbon atoms and R 1 is a multivalent polyether bound to a plurality of alkylperoxy carbonate groups or to a plurality of peroxyester groups. a) at least one allyl monomer or oligomer; b) at least one catalyst suitable for initiating the polymerization of said allyl monomer or oligomer; c) at least one UV absorber; and d) at least one dye; R 1 -O-O-C(=O)-O-R 2 or R 1 -O-O-C(=O)-R 2 ; in which R 1 is an alkyl chain having from 1 to 12 carbon atoms and R 2 is a multivalent polyether bound to a plurality of alkylperoxy carbonate groups or to a plurality of peroxyester groups, or in which R 2 is an alkyl chain having from 1 to 12 carbon atoms and R 1 is a multivalent polyether bound to a plurality of alkylperoxy carbonate groups or to a plurality of peroxyester groups.
A method of receiving a downlink, DL, signal by a user equipment , UE, in a wireless communication system, the method comprising: receiving a first control resource set, CORESET, configuration including information regarding a frequency resource of a first CORESET; and receiving a physical downlink control channel, PDCCH, signal by bundling a plurality of resource element groups, REGs, on the first CORESET, the information regarding the frequency resource of the first CORESET is a bitmap, characterized in that , the bitmap is configured specifically to a first sub-band in which the UE is currently operating among a plurality of sub-bands configured in the UE , the bitmap allocates the frequency resource of the first CORESET within the first sub-band in units of 'N'-resource block, RB, such that a residual resource that does not belong to any REG bundle is not present in the first CORESET after every 2, 3, or 6 REGs are bundled into 1 REG bundle, and the value 'N' is fixed to six and is commonly used for all available REG bundle sizes including 2, 3 and 6 REGs in the wireless communication system. receiving a first control resource set, CORESET, configuration including information regarding a frequency resource of a first CORESET; and receiving a physical downlink control channel, PDCCH, signal by bundling a plurality of resource element groups, REGs, on the first CORESET, the information regarding the frequency resource of the first CORESET is a bitmap, characterized in that , the bitmap is configured specifically to a first sub-band in which the UE is currently operating among a plurality of sub-bands configured in the UE , the bitmap allocates the frequency resource of the first CORESET within the first sub-band in units of 'N'-resource block, RB, such that a residual resource that does not belong to any REG bundle is not present in the first CORESET after every 2, 3, or 6 REGs are bundled into 1 REG bundle, and the value 'N' is fixed to six and is commonly used for all available REG bundle sizes including 2, 3 and 6 REGs in the wireless communication system.
Austenitic high-manganese stainless steel having high strength and ductility, characterized in that the stainless steel which consists, by weight %, of 0,03 - 0,1 % carbon, 0,08 - 1,0 % silicon, 14 - 26 % manganese. 10,5 - 18 % chromium, less than 0,8 % nickel, 0,05 - 0,6 % copper, 0,1 - 0,8 % nitrogen and 0,0008 - 0,005 % boron, the rest being iron and inevitable impurities occurring in stainless steels, optionally 0,001 - 0,02 % titanium and optionally less than 0,04 % aluminium; and which in the state of being annealed in the temperature range of 1000 - 1150 °C, the ranges for the yield strength R p0,2 and the tensile strength R m as well as the elongation to fracture A 80 are 470 - 600 MPa for R p0,2 , 800 - 930 MPa for R m and 40 - 60 % for A 80 , and the steel being cold deformable utilizing the TWIP or TWinning Induced Plasticity mechanism so that the work-hardening rate based on a cold deformation degree of 10% for the yield strength R p0,2 is at least 20 %.
An article of footwear comprising: an upper ; a midsole attached to the upper and including a footbed and a bottom surface disposed on an opposite side of the midsole than the footbed ; an outsole having a ground-engaging surface , an inner surface disposed on an opposite side of the outsole than the ground-engaging surface , and a wall extending from the ground-engaging surface and surrounding the outsole ; and a casing containing particulate matter and having a length that is greater than a length of the outsole , the casing including a first fold at a predetermined location along its length and received within a cavity bounded by the wall of the outsole and between the bottom surface and the inner surface , wherein the casing includes a first end and a second end , the first end disposed proximate to the second end within the outsole when the casing is folded at the predetermined location. an upper ; a midsole attached to the upper and including a footbed and a bottom surface disposed on an opposite side of the midsole than the footbed ; an outsole having a ground-engaging surface , an inner surface disposed on an opposite side of the outsole than the ground-engaging surface , and a wall extending from the ground-engaging surface and surrounding the outsole ; and a casing containing particulate matter and having a length that is greater than a length of the outsole , the casing including a first fold at a predetermined location along its length and received within a cavity bounded by the wall of the outsole and between the bottom surface and the inner surface , wherein the casing includes a first end and a second end , the first end disposed proximate to the second end within the outsole when the casing is folded at the predetermined location.
Method for compressively encoding audio signals forming a succession in time of frames (t-1, t) of samples, in each of N channels of an ambisonic representation of order greater than 0, the method comprising: - forming, from the channels for a current frame (t), a matrix of inter-channel covariance and searching for eigenvectors of the covariance matrix to obtain an eigenvector matrix, - testing the eigenvector matrix to verify whether it represents a rotation in a space of dimension N and, if it does not, correcting the eigenvector matrix until a rotation matrix is obtained, for the current frame (t), and - applying said rotation matrix to the signals of the N channels before encoding said signals, wherein the method further comprises: - comparing the eigenvector matrix obtained for the current frame (t) with a rotation matrix obtained for a frame (t-1) preceding the current frame (t), and - permutating columns of the eigenvector matrix of the current frame (t) to ensure consistency with the rotation matrix of the preceding frame (t-1). - forming, from the channels for a current frame (t), a matrix of inter-channel covariance and searching for eigenvectors of the covariance matrix to obtain an eigenvector matrix, - testing the eigenvector matrix to verify whether it represents a rotation in a space of dimension N and, if it does not, correcting the eigenvector matrix until a rotation matrix is obtained, for the current frame (t), and - applying said rotation matrix to the signals of the N channels before encoding said signals, - comparing the eigenvector matrix obtained for the current frame (t) with a rotation matrix obtained for a frame (t-1) preceding the current frame (t), and - permutating columns of the eigenvector matrix of the current frame (t) to ensure consistency with the rotation matrix of the preceding frame (t-1).
An arrangement to be used in structures cast in concrete for supporting an element from a mounting base , thereby supporting said element in a casting by at least one elongated support arm arranged to the element and provided with an external helical thread , which support arm is provided with a locking means , comprising a sleeve at least partly surrounding a diameter (D) of the support arm, said sleeve having an opening provided in the longitudinal direction of the locking means , the opening being arranged to open on the entire length of the locking means for arranging the locking means to an optional position on an outer surface of the support arm in a direction perpendicular to the longitudinal axis of the support arm, characterised in that the element is provided with at least one jointing member , which jointing member comprises an elongated connection channel , a longitudinal axis of the connection channel being substantially parallel with the normal of the mounting base when the element is in its position of use; the support arm is arranged to the jointing member of the element by joining the locking means arranged to the support arm to a jointing member, whereby the locking means and the jointing member are together surrounding the elongated support arm , and at least one of either the locking means or the jointing member are provided with a helical thread corresponding to the helical thread in the support arm, wherein the jointing members of the element comprises a slot arranged to receive and mostly surrounding the locking means installed to the support arm for achieving a form-locking by wedging locking means against the slot walls, the locking means comprising an inner helical thread that corresponds to the outer helical thread provided in the support arm , and the locking means comprises two parts hinged together and turnable towards each other, or two parts to be attached to each other, at least one of the parts comprising an inner helical thread that corresponds to the outer helical thread provided in the support arm .
A method for control of an oxyhydrogen gas generator in an oxyhydrogen gas generator system , the method comprising: receiving output from one or more measurement devices , the received output being dependent on the measurement of one or more parameters associated with the oxyhydrogen gas generator system ; and controlling a switch , to control the operation of the oxyhydrogen gas generator , dependent on the value of the one or more measured parameters, the switch having a first state and a second state, wherein controlling the switch comprises: controlling the switch to be in the first state, to facilitate the provision of electrical power to a heater configured to heat a fluid in a fluid circulation path of the oxyhydrogen gas generator system which is conveyed to the oxyhydrogen gas generator , when a first fluid temperature measured at a first position in the fluid circulation path of the oxyhydrogen gas generator system is at or below a first fluid temperature threshold; and controlling the switch to be in the second state, to facilitate prevention of the provision of electrical power to the heater , when the first fluid temperature is above the first fluid temperature threshold. receiving output from one or more measurement devices , the received output being dependent on the measurement of one or more parameters associated with the oxyhydrogen gas generator system ; and controlling a switch , to control the operation of the oxyhydrogen gas generator , dependent on the value of the one or more measured parameters, the switch having a first state and a second state, wherein controlling the switch comprises: controlling the switch to be in the first state, to facilitate the provision of electrical power to a heater configured to heat a fluid in a fluid circulation path of the oxyhydrogen gas generator system which is conveyed to the oxyhydrogen gas generator , when a first fluid temperature measured at a first position in the fluid circulation path of the oxyhydrogen gas generator system is at or below a first fluid temperature threshold; and controlling the switch to be in the second state, to facilitate prevention of the provision of electrical power to the heater , when the first fluid temperature is above the first fluid temperature threshold. controlling the switch to be in the first state, to facilitate the provision of electrical power to a heater configured to heat a fluid in a fluid circulation path of the oxyhydrogen gas generator system which is conveyed to the oxyhydrogen gas generator , when a first fluid temperature measured at a first position in the fluid circulation path of the oxyhydrogen gas generator system is at or below a first fluid temperature threshold; and controlling the switch to be in the second state, to facilitate prevention of the provision of electrical power to the heater , when the first fluid temperature is above the first fluid temperature threshold.
A touch window comprising: a substrate ; and an electrode part on the substrate , wherein the electrode part comprises: a base substrate formed with a pattern part (P); an electrode layer on the pattern part (P); and wherein the electrode layer comprises a metal layer and a metal oxide layer , wherein the metal layer has a thickness (T1) in a range of 0.03 μ m to 3 μ m, wherein said metal oxide layer constitutes a anti-reflective layer, wherein the metal layer and the metal oxide layer comprise the same metal, wherein the metal oxide layer is provided by oxidizing one area of the metal layer . a substrate ; and an electrode part on the substrate , wherein the electrode part comprises: a base substrate formed with a pattern part (P); an electrode layer on the pattern part (P); and wherein the electrode layer comprises a metal layer and a metal oxide layer , wherein the metal layer has a thickness (T1) in a range of 0.03 μ m to 3 μ m, wherein said metal oxide layer constitutes a anti-reflective layer, wherein the metal layer and the metal oxide layer comprise the same metal, wherein the metal oxide layer is provided by oxidizing one area of the metal layer . a base substrate formed with a pattern part (P); an electrode layer on the pattern part (P); and wherein the electrode layer comprises a metal layer and a metal oxide layer , wherein the metal layer has a thickness (T1) in a range of 0.03 μ m to 3 μ m, wherein said metal oxide layer constitutes a anti-reflective layer, wherein the metal layer and the metal oxide layer comprise the same metal, wherein the metal oxide layer is provided by oxidizing one area of the metal layer .
A controller configured to be coupled to a tablet computer , the controller comprising: a docking portion configured to receive the tablet computer; a first handle configured to be disposed at one side of the controller and coupled to the docking portion ; a user input element disposed on the first handle and configured to send a signal when operated; an actuator coupled to the first handle (106, the actuator configured to receive a control signal and output a haptic effect to the first handle in response to the control signal; and characterized by the actuator being in a location where a first hand of a user is generally located and by further comprising a first vibration isolation barrier , the first vibration isolation barrier comprising a vibration dampening material and/or a spring or a plurality of springs , the first vibration isolation barrier disposed between the actuator and the docking portion . a docking portion configured to receive the tablet computer; a first handle configured to be disposed at one side of the controller and coupled to the docking portion ; a user input element disposed on the first handle and configured to send a signal when operated; an actuator coupled to the first handle (106, the actuator configured to receive a control signal and output a haptic effect to the first handle in response to the control signal; and characterized by the actuator being in a location where a first hand of a user is generally located and by further comprising a first vibration isolation barrier , the first vibration isolation barrier comprising a vibration dampening material and/or a spring or a plurality of springs , the first vibration isolation barrier disposed between the actuator and the docking portion .