mhurhangee/ep-ind-claims huggingface dataset:
Method for spatial or temporal prediction of a movement vector of a current partition (P1; P'1) of a current macroblock of a current image, said current macroblock being divided into a plurality of partitions, said prediction being implemented with respect to at least one reference macroblock forming part of a plurality of reference macroblocks (MBra, MBrb, MBrc; MBr IE-1) that have already been coded then decoded, which form either a zone of the current image that neighbours the current macroblock if the prediction is spatial, or a zone containing at least one image that has already been coded then decoded if the prediction is temporal, said method comprising, relatively to said current partition (P1; P ' 1), steps consisting in: - repartitioning (C3, D3) at least one (MBra; MBr IE-1) of the reference macroblocks into a plurality of reference partitions (Pr1a-Pr16a; Pr'1-Pr'3) for the prediction of the movement vector of the current partition, the reference partitions respectively being of the same shape and of the same size as the partitions of the current macroblock, in the case of a spatial or temporal prediction of the movement vector of said current partition, - determining (C4, D4) a movement vector (MVr1; MVr'1) associated with one partition (Pr4a; Pr'1) among the plurality of reference partitions that has the same shape and the same size as the current partition, - determining (C5, D5) a predictor movement vector from said determined movement vector (MVr1; MVr'1), - predicting (C6, D6) the movement vector of said current partition from said determined predictor movement vector. - repartitioning (C3, D3) at least one (MBra; MBr IE-1) of the reference macroblocks into a plurality of reference partitions (Pr1a-Pr16a; Pr'1-Pr'3) for the prediction of the movement vector of the current partition, the reference partitions respectively being of the same shape and of the same size as the partitions of the current macroblock, in the case of a spatial or temporal prediction of the movement vector of said current partition, - determining (C4, D4) a movement vector (MVr1; MVr'1) associated with one partition (Pr4a; Pr'1) among the plurality of reference partitions that has the same shape and the same size as the current partition, - determining (C5, D5) a predictor movement vector from said determined movement vector (MVr1; MVr'1), - predicting (C6, D6) the movement vector of said current partition from said determined predictor movement vector.
A process for vapor-phase carbonylation of methanol to methyl formate, characterized in that a feed gas containing 10-50% by volume of methanol, 10-50% by volume of carbon monoxide, 10-30% by volume of hydrogen and 5-20% by volume of oxygen is passed through a reactor loaded with a supported nano-scaled platinum group metal heterogeneous catalyst to produce methyl formate by a vapor-phase carbonylation reaction, under reaction conditions with a space velocity of 500-5000 h -1, a temperature of 50-150°C and a pressure of 0.01-2 MPa, wherein, said supported nano-scaled platinum group metal heterogeneous catalyst comprises a nano-scaled platinum group metal active component and a carrier, said carrier is one or more selected from alumina, silica, magnesia, zinc oxide, zirconia, titania, metal-organic framework compounds, activated carbon, molecular sieves, carbon nanotubes and graphene; and the percentage content of the nano-scaled platinum group metal active component is 0.01-2%, preferably 0.1-1%, by mass of the carrier; the particle size of said nano-scaled platinum group metal active component is 0.5-10 nm, measured by TEM, said nano-scaled platinum group metal active component is one metal or a mixture of two or more metals selected from ruthenium, rhodium, palladium, osmium, iridium and platinum, or an alloy of several metals selected from ruthenium, rhodium, palladium, osmium, iridium and platinum. said supported nano-scaled platinum group metal heterogeneous catalyst comprises a nano-scaled platinum group metal active component and a carrier, said carrier is one or more selected from alumina, silica, magnesia, zinc oxide, zirconia, titania, metal-organic framework compounds, activated carbon, molecular sieves, carbon nanotubes and graphene; and the percentage content of the nano-scaled platinum group metal active component is 0.01-2%, preferably 0.1-1%, by mass of the carrier; the particle size of said nano-scaled platinum group metal active component is 0.5-10 nm, measured by TEM, said nano-scaled platinum group metal active component is one metal or a mixture of two or more metals selected from ruthenium, rhodium, palladium, osmium, iridium and platinum, or an alloy of several metals selected from ruthenium, rhodium, palladium, osmium, iridium and platinum.
An mRNA-N-acetylgalactosamine (GalNAc) targeting molecule comprising an mRNA molecule and a GalNAc, wherein the mRNA molecule comprises a target gene sequence, and wherein the GalNAc is directly conjugated to a polyA sequence of the mRNA molecule.
A system for retracting a surgical tool from a surgical site comprising: a robot having at least one axis of movement, said robot having an attachment point for securing a surgical tool to said robot for robotically controlled movement of said surgical tool for completion of at least a portion of a surgical procedure; said surgical tool; said surgical tool including a retraction mechanism for causing said surgical tool to retract from a first operational position to a second non-operational position independent of said robotically controlled movement upon detection of a predetermined condition, wherein said retraction mechanism includes a track portion and a shuttle portion, a functional portion of said surgical tool secured to said shuttle portion to move therewith upon detection of said predetermined condition, wherein said track portion including at least two guide members for guiding said shuttle portion during movement thereof to said non-operational position, and wherein the at least two guide members are a male dove tail which slidably cooperates with a conjugately shaped female dove tail, the male and female dove tails (68, 70) interlock to prevent side to side and up and down movements while allowing guided sliding movement. a robot having at least one axis of movement, said robot having an attachment point for securing a surgical tool to said robot for robotically controlled movement of said surgical tool for completion of at least a portion of a surgical procedure; said surgical tool; said surgical tool including a retraction mechanism for causing said surgical tool to retract from a first operational position to a second non-operational position independent of said robotically controlled movement upon detection of a predetermined condition, wherein said retraction mechanism includes a track portion and a shuttle portion, a functional portion of said surgical tool secured to said shuttle portion to move therewith upon detection of said predetermined condition, wherein said track portion including at least two guide members for guiding said shuttle portion during movement thereof to said non-operational position, and wherein the at least two guide members are a male dove tail which slidably cooperates with a conjugately shaped female dove tail, the male and female dove tails (68, 70) interlock to prevent side to side and up and down movements while allowing guided sliding movement.
A vehicle body comprising a vehicle body cover, which is attachable to and detachable from the vehicle body in a separable manner, and an opening and closing mechanism, the opening and closing mechanism comprising: a latching portion configured to latch an upper portion of the vehicle body cover to the vehicle body; and a lock portion configured to lock a lower portion of the vehicle body cover to the vehicle body, wherein the lock portion includes a striker provided at the vehicle body cover, a hook provided at the vehicle body, the striker being engageable with and disengageable from the hook, and a lock release portion configured to release a state of the striker being engaged with and locked by the hook, and characterised in that the lock release portion is arranged at a position which, when directly facing an opening portion provided at the vehicle body, is not viewable inside a field of view of the opening portion and which is graspable by a worker from the opening portion. a latching portion configured to latch an upper portion of the vehicle body cover to the vehicle body; and a lock portion configured to lock a lower portion of the vehicle body cover to the vehicle body, wherein the lock portion includes a striker provided at the vehicle body cover, a hook provided at the vehicle body, the striker being engageable with and disengageable from the hook, and a lock release portion configured to release a state of the striker being engaged with and locked by the hook, and characterised in that the lock release portion is arranged at a position which, when directly facing an opening portion provided at the vehicle body, is not viewable inside a field of view of the opening portion and which is graspable by a worker from the opening portion.
A boundary layer ingestion engine comprising: a fan section configured to extend into a boundary layer of a full annulus of an aft end of a fuselage of an aircraft, the fan section comprising a first fan stage and a second fan stage; a differential planetary gear system operable to transform rotation of an input shaft into counter rotation of a first shaft coupled to the first fan stage and a second shaft coupled to the second fan stage; and a motor operable to drive rotation of the input shaft. a fan section configured to extend into a boundary layer of a full annulus of an aft end of a fuselage of an aircraft, the fan section comprising a first fan stage and a second fan stage; a differential planetary gear system operable to transform rotation of an input shaft into counter rotation of a first shaft coupled to the first fan stage and a second shaft coupled to the second fan stage; and a motor operable to drive rotation of the input shaft.
A rate matching method in a data communication system, the method comprising steps of; channel coding for generating encoded bits characterised by: determining whether a channel coding scheme used for generating the encoded bits is a systematic code or a non-systematic code; if systematic code is used, puncturing a part of the encoded bits by a corresponding rate matching function for each parity bit stream respectively, bypassing a systematic bit stream and multiplexing the systematic and punctured parity bit streams; if non-systematic code is used separately puncturing each stream of encoded bits by one rate matching function and multiplexing the punctured encoded bit streams; wherein each of the rate matching functions punctures a part of the encoded bits in accordance with rate matching parameters which are determined for each of the rate matching function individually. determining whether a channel coding scheme used for generating the encoded bits is a systematic code or a non-systematic code; if systematic code is used, puncturing a part of the encoded bits by a corresponding rate matching function for each parity bit stream respectively, bypassing a systematic bit stream and multiplexing the systematic and punctured parity bit streams; if non-systematic code is used separately puncturing each stream of encoded bits by one rate matching function and multiplexing the punctured encoded bit streams;
A sole structure for an article of footwear, the sole structure comprising: a midsole including a plurality of cavities (116, 54a, 56a, 58a) including a first cavity and a second cavity; a first quantity of particulate matter disposed directly within the first cavity; and a cushioning member including a first portion having at least one compartment (100a, 102a, 104c) containing a second quantity of particulate matter and disposed within the second cavity, and a second portion extending from the first portion and covering the first cavity. a midsole including a plurality of cavities (116, 54a, 56a, 58a) including a first cavity and a second cavity; a first quantity of particulate matter disposed directly within the first cavity; and a cushioning member including a first portion having at least one compartment (100a, 102a, 104c) containing a second quantity of particulate matter and disposed within the second cavity, and a second portion extending from the first portion and covering the first cavity.
An apparatus comprising: an electronic display, having a display cover glass with a front surface that includes a viewing area, and a fingerprint reading area (102, 702) within the viewing area; and means for detecting received scattered light, the received scattered light resulting from interaction of light with an object in at least partial optical contact with the fingerprint reading area of the front surface; wherein: at least some of the received scattered light undergoes at least two internal reflections, and the photosensing element is configured to register, within a field of view of the photo sensing element, multiple discrete reflections of an image of the object, and to output, to a processor, image data of the multiple discrete reflections; and the processor is configured to recognize, from the image data of the multiple discrete reflections, a fingerprint of a user of the electronic display. an electronic display, having a display cover glass with a front surface that includes a viewing area, and a fingerprint reading area (102, 702) within the viewing area; and means for detecting received scattered light, the received scattered light resulting from interaction of light with an object in at least partial optical contact with the fingerprint reading area of the front surface; wherein: at least some of the received scattered light undergoes at least two internal reflections, and the photosensing element is configured to register, within a field of view of the photo sensing element, multiple discrete reflections of an image of the object, and to output, to a processor, image data of the multiple discrete reflections; and the processor is configured to recognize, from the image data of the multiple discrete reflections, a fingerprint of a user of the electronic display. at least some of the received scattered light undergoes at least two internal reflections, and the photosensing element is configured to register, within a field of view of the photo sensing element, multiple discrete reflections of an image of the object, and to output, to a processor, image data of the multiple discrete reflections; and the processor is configured to recognize, from the image data of the multiple discrete reflections, a fingerprint of a user of the electronic display.
A method for revamping a refinery comprising a system containing two hydrodesulfurization units, U1 and U2, into a biorefinery comprising a production unit of hydrocarbon fractions from mixtures of a biological origin containing fatty acid esters by means of their hydrodeoxygenation and isomerization, wherein each of the hydrodesulfurization units U1 and U2 comprises: - a hydrodesulfurization reactor, for the unit U1 and for the unit U2, wherein said reactor contains a hydrodesulfurization catalyst; - one or more heat exchangers between the feedstock and effluent of the reactor; - a heating system of the feedstock upstream of the reactor; - an acid gas treatment unit downstream of the reactor, containing an absorbent for H 2 S, T1 in the unit U1 and T2 in the unit U2, and wherein said method comprises: - installing a line L between the units U1 and U2 which connects them in series; - installing a recycling line of the product for the unit U1 and possibly for the unit U2, - substituting the hydrodesulfurization catalyst in the reactor A1 with a hydrodeoxygenation catalyst; - substituting the hydrodesulfurization catalyst in the reactor A2 with an isomerization catalyst; - installing a by-pass line X of the acid gas treatment unit T2 of the unit U2; - substituting the absorbent in the acid gas treatment unit T1 with a specific absorbent for CO 2 and H 2 S. - a hydrodesulfurization reactor, for the unit U1 and for the unit U2, wherein said reactor contains a hydrodesulfurization catalyst; - one or more heat exchangers between the feedstock and effluent of the reactor; - a heating system of the feedstock upstream of the reactor; - an acid gas treatment unit downstream of the reactor, containing an absorbent for H 2 S, T1 in the unit U1 and T2 in the unit U2, and wherein said method comprises: - installing a line L between the units U1 and U2 which connects them in series; - installing a recycling line of the product for the unit U1 and possibly for the unit U2, - substituting the hydrodesulfurization catalyst in the reactor A1 with a hydrodeoxygenation catalyst; - substituting the hydrodesulfurization catalyst in the reactor A2 with an isomerization catalyst; - installing a by-pass line X of the acid gas treatment unit T2 of the unit U2; - substituting the absorbent in the acid gas treatment unit T1 with a specific absorbent for CO 2 and H 2 S.
Apparatus for equipping a filling tube (20, 20') with a gathered tubular case, comprising - a feed device for feeding a gathered tubular case to a case gripping device, - a case gripping device having gripping elements (42, 42') for gripping and orienting a gathered tubular case, and - a pushing-on member moveable axially relative to a filling tube longitudinal axis for pushing the case on to a filling tube (20, 20'), characterised by a detecting device associated with the gripping elements (42, 42') for sensing the position of at least one of the gripping elements (42, 42'). - a feed device for feeding a gathered tubular case to a case gripping device, - a case gripping device having gripping elements (42, 42') for gripping and orienting a gathered tubular case, and - a pushing-on member moveable axially relative to a filling tube longitudinal axis for pushing the case on to a filling tube (20, 20'),
An electrode structure, comprising: a first electrode unit having an airflow space therein and comprising a box electrically conductive base with an airflow plane and an air cell cathode disposed on an outer surface of the airflow plane; a second electrode unit (20A;20C) comprising an electrically conductive base (22;23) and an air cell anode disposed on an outer surface of the electrically conductive base (22;23); and a first insulating frame, wherein the first and second electrode units (10,20) are adjacent to each other, the first insulating frame spaces and joins the adjacent electrode units (10A,20A;10A,20C) to each other such that the air cell cathode and the air cell anode of the adjacent electrode units (10A,20A;10A,20C) are opposed to each other, and the first insulating frame together with the adjacent electrode units (10A,20A;10A,20C) forms an electrolytic solution container, the box electrically conductive base comprises a metal non-gas permeable plate and a metal gas permeable plate, the airflow space is provided by joining the metal non-gas permeable plate and the gas-permeable plate to each other by metal ribs so as to form the box electrically conductive base, and the airflow plane is provided by the metal gas-permeable plate. a first electrode unit having an airflow space therein and comprising a box electrically conductive base with an airflow plane and an air cell cathode disposed on an outer surface of the airflow plane; a second electrode unit (20A;20C) comprising an electrically conductive base (22;23) and an air cell anode disposed on an outer surface of the electrically conductive base (22;23); and a first insulating frame, wherein the first and second electrode units (10,20) are adjacent to each other, the first insulating frame spaces and joins the adjacent electrode units (10A,20A;10A,20C) to each other such that the air cell cathode and the air cell anode of the adjacent electrode units (10A,20A;10A,20C) are opposed to each other, and the first insulating frame together with the adjacent electrode units (10A,20A;10A,20C) forms an electrolytic solution container, the box electrically conductive base comprises a metal non-gas permeable plate and a metal gas permeable plate, the airflow space is provided by joining the metal non-gas permeable plate and the gas-permeable plate to each other by metal ribs so as to form the box electrically conductive base, and the airflow plane is provided by the metal gas-permeable plate.
A three-tank automatic particle production method, comprising: feeding material to be treated into a heating tank (100, 610) in batches; heating and stirring the material in the heating tank under a preset heating temperature for a first preset time to obtain a first intermediate material; after obtaining the first intermediate material, connecting an outlet of the heating tank to an inlet of a baking tank, feeding the first intermediate material in the heating tank into the baking tank, and disengaging the outlet of the heating tank with the inlet of the baking tank; stirring the first intermediate material in the baking tank (200, 620) for a second preset time to obtain a second intermediate material; after obtaining the second intermediate material, connecting an outlet of the baking tank to an inlet of a cooling tank (300, 630), feeding the second intermediate material in the baking tank into the cooling tank, and disengaging the outlet of the baking tank with the inlet of the cooling tank; and stirring and cooling the second intermediate material in the cooling tank for a third preset time, and obtaining a final particle product and outputting. feeding material to be treated into a heating tank (100, 610) in batches; heating and stirring the material in the heating tank under a preset heating temperature for a first preset time to obtain a first intermediate material; after obtaining the first intermediate material, connecting an outlet of the heating tank to an inlet of a baking tank, feeding the first intermediate material in the heating tank into the baking tank, and disengaging the outlet of the heating tank with the inlet of the baking tank; stirring the first intermediate material in the baking tank (200, 620) for a second preset time to obtain a second intermediate material; after obtaining the second intermediate material, connecting an outlet of the baking tank to an inlet of a cooling tank (300, 630), feeding the second intermediate material in the baking tank into the cooling tank, and disengaging the outlet of the baking tank with the inlet of the cooling tank; and stirring and cooling the second intermediate material in the cooling tank for a third preset time, and obtaining a final particle product and outputting.