mhurhangee/patent-ind-claim-en huggingface dataset:
Method for encoding a video signal at an encoder, wherein the method comprises, via computer processing hardware: generating a sequence of absolute residual values as respective differences between a sequence of spans and a corresponding sequence of predictions at the same level of quality as the sequence of spans, the sequence of predictions being generated by upsampling simulated decodings of corresponding spans at a lower level of quality, the levels of quality corresponding to spatial resolutions, the sequence of spans representing a sequence of two-dimensional video frames for the video signal, each span comprising a combination of frames of the video signal within a given sampling position and a given time duration and being defined by a sampling position within the video signal, a time duration within the video signal, and a picture number within the video signal at a highest level of quality; producing a first support plane as a weighted average, or statistical mode, of said sets of absolute residual values ; encoding the first support plane and reconstructing a rendition of the first support plane; generating sets of relative residuals corresponding to said first support plane, each of said sets corresponding to a specific span in the sequence of spans , the sets of relative residuals being generated as the difference between the sets of absolute residuals and the reconstructed rendition of the first support plane ; encoding the sets of relative residuals ; and encoding data allowing generation of the sequence of predictions. generating a sequence of absolute residual values as respective differences between a sequence of spans and a corresponding sequence of predictions at the same level of quality as the sequence of spans, the sequence of predictions being generated by upsampling simulated decodings of corresponding spans at a lower level of quality, the levels of quality corresponding to spatial resolutions, the sequence of spans representing a sequence of two-dimensional video frames for the video signal, each span comprising a combination of frames of the video signal within a given sampling position and a given time duration and being defined by a sampling position within the video signal, a time duration within the video signal, and a picture number within the video signal at a highest level of quality; producing a first support plane as a weighted average, or statistical mode, of said sets of absolute residual values ; encoding the first support plane and reconstructing a rendition of the first support plane; generating sets of relative residuals corresponding to said first support plane, each of said sets corresponding to a specific span in the sequence of spans , the sets of relative residuals being generated as the difference between the sets of absolute residuals and the reconstructed rendition of the first support plane ; encoding the sets of relative residuals ; and encoding data allowing generation of the sequence of predictions.
Hygienic protective membrane for a drink can provided with a lid with a circular edge and a ring suitable to form an orifice in a detachable zone of said lid, the membrane comprising a first and a second film superimposed and adhered to each other, said membrane being configured to be disposed with the first film adhered to the lid , the second film being separable from the first in order to provide access to the orifice of the lid ; the membrane having a lateral portion forming a strip and suitable to cover the edge of said lid; characterized in that the membrane has a generally circular central portion intended to cover the lid , the lateral portion extending from the circular portion.
A crank mechanism for a gas meter with mechanical compensation of temperature, in particular for a bellows meter, comprising a rotary part , whose axis is the axis of rotation for a crank disc seated thereon, a crank element configured to convert the reciprocating motion of the gas meter membrane into a rotary motion via levers, said crank element is connected to the crank disc via a rigid crank seated rotatably on the crank disc via a rotary element , and wherein one end of said rigid crank is connected to a temperature-dependent compensating element and the other one is directly connected to crank element , characterised in that the rigid crank constitutes a support for the crank element and has a pair of arms (R, L), wherein the arm (R) connected to the crank element being longer than the arm (L) connected to the compensating element .
A method for communicating in a wireless network, comprising: receiving in a first subframe at a user equipment a cross-subframe assignment targeting a second subframe, the second subframe differing from the first subframe, the cross-subframe assignment comprising a grant received at the first subframe but used for decoding a data channel at a later subframe and a transmission power control, TPC, command received at the first subframe but used for transmission power control of a later subframe ; and adjusting at the user equipment transmit power in accordance with the TPC command during a third subframe a predefined number of subframes after the first subframe . receiving in a first subframe at a user equipment a cross-subframe assignment targeting a second subframe, the second subframe differing from the first subframe, the cross-subframe assignment comprising a grant received at the first subframe but used for decoding a data channel at a later subframe and a transmission power control, TPC, command received at the first subframe but used for transmission power control of a later subframe ; and adjusting at the user equipment transmit power in accordance with the TPC command during a third subframe a predefined number of subframes after the first subframe .
A light source system, comprising: a light source ; a switching system for switching a light emitted by the light source into at least two light beams (λ1, λ2, λ3, λ4) having preset proportions of light using either time division or light intensity division; and a color wheel assembly disposed on light paths of the at least two light beams (λ1, λ2, λ3, λ4), wherein the color wheel assembly , under illumination of the at least two light beams (λ1, λ2, λ3, λ4), generates lights of different colors having preset proportions of light of different colors, wherein the light of different colors are configured to be modulated by a light modulation system and combined to form a projection image; wherein the switching system is configured to adjust proportions of light of the at least two light beams (λ1, λ2, λ3, λ4) based on parameters obtained from the projection image to adjust the proportions of the lights of different colors; characterized in that the color wheel assembly comprises at least two color wheels, each being disposed on a light path of a different one of the at least two light beams from the switching system and generating a corresponding color light when illuminated by the corresponding light beam. a light source ; a switching system for switching a light emitted by the light source into at least two light beams (λ1, λ2, λ3, λ4) having preset proportions of light using either time division or light intensity division; and a color wheel assembly disposed on light paths of the at least two light beams (λ1, λ2, λ3, λ4), wherein the color wheel assembly , under illumination of the at least two light beams (λ1, λ2, λ3, λ4), generates lights of different colors having preset proportions of light of different colors, wherein the light of different colors are configured to be modulated by a light modulation system and combined to form a projection image; wherein the switching system is configured to adjust proportions of light of the at least two light beams (λ1, λ2, λ3, λ4) based on parameters obtained from the projection image to adjust the proportions of the lights of different colors;
Electrolysis cell comprising: - a cell frame , wherein the cell frame has a step-like interior profile , wherein the step-like interior profile comprises at least one support surface for accommodating a planar component in the cell frame , wherein the support surface comprises a recess for a seal , - a first seal which is arranged in the recess of the support surface , - a membrane electrode assembly which covers the support surface of the cell frame and the seal , - a first gas diffusion layer which adjoins a first side of the membrane electrode assembly , - a second gas diffusion layer which adjoins a second side of the membrane electrode assembly and - an electrically conductive closure layer which lies on the first gas diffusion layer and is firmly connected to the cell frame , wherein the exterior contours of the membrane electrode assembly and the first gas diffusion layer project beyond the seal . - a cell frame , wherein the cell frame has a step-like interior profile , wherein the step-like interior profile comprises at least one support surface for accommodating a planar component in the cell frame , wherein the support surface comprises a recess for a seal , - a first seal which is arranged in the recess of the support surface , - a membrane electrode assembly which covers the support surface of the cell frame and the seal , - a first gas diffusion layer which adjoins a first side of the membrane electrode assembly , - a second gas diffusion layer which adjoins a second side of the membrane electrode assembly and - an electrically conductive closure layer which lies on the first gas diffusion layer and is firmly connected to the cell frame ,
A microneedle array comprising: a sheet; and a plurality of needles which are present on an upper surface of the sheet, wherein each needle contains a water-soluble polymer, a drug, a liposome, and a salt, the liposome is a liposome which contains a lipid and an anionic compound, the lipid is a phospholipid, and the phospholipid is selected from a group consisting of phosphatidylcholine (lecithin), phosphatidylethanolamine, phosphatidylinositol, sphingomyelin, and cardiolipin, and those hydrogenated to these, the anionic compound is at least one selected from the group consisting of phosphatidylglycerol, distearoyl phosphatidylglycerol, phosphatidylserine, phosphatidic acid, a lipid containing a polyoxyethylene chain, a surfactant, and a saponin, a zeta potential of the liposome is -10 mV or less, the zeta potential is a zeta potential of a liquid obtained by diluting the liposome to 0.1 mg/mL with 10 mmol/L of a phosphoric acid aqueous solution having a pH of 7, and a content of the salt in a portion of each needle which contains the liposome is from 0.01 mmol/g to 2.5 mmol/g. a sheet; and a plurality of needles which are present on an upper surface of the sheet, wherein each needle contains a water-soluble polymer, a drug, a liposome, and a salt, the liposome is a liposome which contains a lipid and an anionic compound, the lipid is a phospholipid, and the phospholipid is selected from a group consisting of phosphatidylcholine (lecithin), phosphatidylethanolamine, phosphatidylinositol, sphingomyelin, and cardiolipin, and those hydrogenated to these, the anionic compound is at least one selected from the group consisting of phosphatidylglycerol, distearoyl phosphatidylglycerol, phosphatidylserine, phosphatidic acid, a lipid containing a polyoxyethylene chain, a surfactant, and a saponin, a zeta potential of the liposome is -10 mV or less, the zeta potential is a zeta potential of a liquid obtained by diluting the liposome to 0.1 mg/mL with 10 mmol/L of a phosphoric acid aqueous solution having a pH of 7, and a content of the salt in a portion of each needle which contains the liposome is from 0.01 mmol/g to 2.5 mmol/g.
A decapper for removing a cap from a laboratory sample container , wherein the decapper comprises a cap gripper comprising at least two gripping jaws , wherein at least one of the at least two gripping jaws is displaceable between a holding position and a release position in a radial direction , wherein in the holding position, the at least two gripping jaws are configured to hold the cap and wherein in the release position, the at least two gripping jaws are configured to release the cap , and an enclosure device , wherein the enclosure device comprises an outer enclosure portion and an inner enclosure portion disposed within the outer enclosure portion , wherein the outer enclosure portion comprises a wall portion and a reservoir portion at a bottom of the wall portion , wherein the wall portion of the outer enclosure portion is configured to enclose the two gripping jaws , wherein the inner enclosure portion is configured to receive the laboratory sample container and comprises at least two openings configured to allow the two gripping jaws to extend therethrough at least in the holding position, wherein the enclosure device is configured to be mounted to the cap gripper . a cap gripper comprising at least two gripping jaws , wherein at least one of the at least two gripping jaws is displaceable between a holding position and a release position in a radial direction , wherein in the holding position, the at least two gripping jaws are configured to hold the cap and wherein in the release position, the at least two gripping jaws are configured to release the cap , and an enclosure device , wherein the enclosure device comprises an outer enclosure portion and an inner enclosure portion disposed within the outer enclosure portion , wherein the outer enclosure portion comprises a wall portion and a reservoir portion at a bottom of the wall portion , wherein the wall portion of the outer enclosure portion is configured to enclose the two gripping jaws , wherein the inner enclosure portion is configured to receive the laboratory sample container and comprises at least two openings configured to allow the two gripping jaws to extend therethrough at least in the holding position, wherein the enclosure device is configured to be mounted to the cap gripper .
A method for producing a 3D item by means of fused deposition modelling, the method comprising a 3D printing stage, wherein the 3D printing stage comprises a reflective material deposition stage, wherein the reflective material deposition stage comprises: - providing 3D printable material comprising (i) a polymeric matrix material that is transmissive for UV radiation, wherein the polymeric matrix material comprises thermoplastic material, and (ii) a reflective material that is reflective for the UV radiation and that is at least partly enclosed by the polymeric matrix material ; wherein the reflective material comprises a first fluoropolymer; and - depositing the 3D printable material , to provide the 3D item comprising 3D printed material comprising the matrix material and the reflective material ; characterized in that the first fluoropolymer comprises a first microporous polytetrafluoroethylene. - providing 3D printable material comprising (i) a polymeric matrix material that is transmissive for UV radiation, wherein the polymeric matrix material comprises thermoplastic material, and (ii) a reflective material that is reflective for the UV radiation and that is at least partly enclosed by the polymeric matrix material ; wherein the reflective material comprises a first fluoropolymer; and - depositing the 3D printable material , to provide the 3D item comprising 3D printed material comprising the matrix material and the reflective material ;
Valve for pressurized fluid comprising a body housing a fluid circuit having an upstream end intended to be placed in communication with a reserve of pressurized fluid and a downstream end intended to be placed in communication with a user of fluid, the circuit comprising a collection of valve shutter(s) comprising at least one shutoff valve shutter allowing the circuit to be closed or opened, the valve comprising a member for manually controlling the collection of valve shutter(s) , the control member being mounted with the ability to move on the body between a rest position in which the collection of valve shutter (s) is in a position in which the circuit is closed and an active position in which the control member actuates the collection of valve shutter(s) into a position in which the circuit is open with a first bore section (S1), the valve comprising a mechanism for locking the control member in its rest position, the locking mechanism comprising a manual actuator mounted with the ability to move on the body between a locked first position that locks the control member to prevent it from moving from its rest position toward its active position, and a second position in which the control member is unlocked allowing it to move from its rest position toward its active position, in its unlocked second position, the actuator placing the collection of valve shutter (s) in a position in which the circuit is open to a second bore section (S2), characterized in that the collection of valve shutter(s) comprises two distinct shut-off valve shutters able to move with respect to respective seats and in the open position respectively defining the two distinct bore sections (S1, S2), the two valve shutters being controlled by the control member and by the actuator , respectively, and in that the two distinct shut-off valve shutters are arranged in series in the one same line of the circuit and in that the two shutoff valve shutters are controlled by at least one mobile pushrod controlled by the control member and by the actuator and in that the movement of the actuator from its locked first position toward its unlocked second position moves the pushrod over a first travel that actuates the opening of the first valve shutter into an open position with the second bore section (S2) for the circuit , and in that the subsequent movement of the control member from its rest position toward its active position moves the pushrod over a second travel actuating the opening of the second valve shutter into a position in which the circuit is open with the first bore section (S1).
A printable substrate transfer device for a printing machine comprising: a platen having openings therein in fluid communication with a vacuum source ; a transport belt movable over the platen in a process direction, the transport belt allowing air to pass there through; a hold down plate disposed above the transport belt; characterised in that the printable substrate transfer device further comprises: a stationary porous vacuum substrate disposed between the hold down plate and the transport belt , the vacuum substrate and transport belt forming a path there between through which a printable substrate travels, the hold down plate exerting a force downwardly toward the transport belt upon operation of vacuum passing through the platen , the vacuum substrate limiting the negative pressure between the hold down plate and the transport belt , such that a force exerted by the hold down plate onto the substrate is limited. a platen having openings therein in fluid communication with a vacuum source ; a transport belt movable over the platen in a process direction, the transport belt allowing air to pass there through; a hold down plate disposed above the transport belt; characterised in that the printable substrate transfer device further comprises: a stationary porous vacuum substrate disposed between the hold down plate and the transport belt , the vacuum substrate and transport belt forming a path there between through which a printable substrate travels, the hold down plate exerting a force downwardly toward the transport belt upon operation of vacuum passing through the platen , the vacuum substrate limiting the negative pressure between the hold down plate and the transport belt , such that a force exerted by the hold down plate onto the substrate is limited.
A method for enabling communications between at least one gateway and a plurality of terminals through one or more satellites, wherein the plurality of terminals are divided into M groups of terminals, and wherein said method comprises: forwarding a plurality of communication frames in a single-carrier forward link, wherein said plurality of frames are divided into N sub-frames, and wherein traffic being carried along the forward link by each of the N sub-frames serves one or more of said M groups of terminals associated with a respective satellite from said one or more satellites, such that each group of said M groups of terminals is served by at least a fraction of a sub-frame capacity of said N sun-frames, designated by a time-slice number; and assigning, by a satellite return link scheduler of the respective satellite, a respective capacity for an MF-TDMA return link for at least one of the one or more groups of terminals, wherein said assignment takes into account which of the sub-frames is associated with that at least one group of the terminals, characterised in that the terminals belonging to the at least one group of terminals are configured such that the terminals cannot receive communication while they are transmitting communication, and wherein the assignment of the respective capacity for the MF-TDMA return link for the at least one of the one or more groups of the terminals is allocated in return link time slots at which the terminals of the at least one group of terminals are not receiving communication of the sub-frames of said forward link which are associated with said at least one group of the terminals. forwarding a plurality of communication frames in a single-carrier forward link, wherein said plurality of frames are divided into N sub-frames, and wherein traffic being carried along the forward link by each of the N sub-frames serves one or more of said M groups of terminals associated with a respective satellite from said one or more satellites, such that each group of said M groups of terminals is served by at least a fraction of a sub-frame capacity of said N sun-frames, designated by a time-slice number; and assigning, by a satellite return link scheduler of the respective satellite, a respective capacity for an MF-TDMA return link for at least one of the one or more groups of terminals, wherein said assignment takes into account which of the sub-frames is associated with that at least one group of the terminals, characterised in that the terminals belonging to the at least one group of terminals are configured such that the terminals cannot receive communication while they are transmitting communication, and wherein the assignment of the respective capacity for the MF-TDMA return link for the at least one of the one or more groups of the terminals is allocated in return link time slots at which the terminals of the at least one group of terminals are not receiving communication of the sub-frames of said forward link which are associated with said at least one group of the terminals.