mhurhangee/patent-ind-claim-en huggingface dataset:
A noise barrier comprising a plurality of support uprights and a plurality of wall elements supported by said support uprights , further comprising sound-absorbing modules (50, 50a, 50b, 50c, 50d,...) supported by said support uprights and at least partially superimposed on said wall elements , wherein at least one sound-absorbing module (50, 50a, 50b, 50c , 50d,...) is supported only by a single support upright , and wherein the rear face of at least one sound-absorbing module (50, 50a, 50b, 50c , 50d,...) is at a non-zero distance from the support upright wherein at least one of the support uprights comprises an H shaped section, characterized in that either at least one of said sound-absorbing modules (50, 50a, 50b, 50c, 50d, ...) comprises a coupling device on a rear face of the sound-absorbing module for fastening the at least one sound-absorbing module to the support upright by means of engagement of the coupling device with the flanges of the H shaped upright, or the noise barrier further comprises a plate in turn comprising a flat base and a flat surface substantially parallel but spaced from the base , to which the rear face of a sound-absorbing module can be constrained, wherein the plate is configured to be fixed to an upright in a removable way. either at least one of said sound-absorbing modules (50, 50a, 50b, 50c, 50d, ...) comprises a coupling device on a rear face of the sound-absorbing module for fastening the at least one sound-absorbing module to the support upright by means of engagement of the coupling device with the flanges of the H shaped upright, or the noise barrier further comprises a plate in turn comprising a flat base and a flat surface substantially parallel but spaced from the base , to which the rear face of a sound-absorbing module can be constrained, wherein the plate is configured to be fixed to an upright in a removable way.
An isolated population of adult liver progenitor cells comprising at least 60 % cells that are measured: (a) positive for alpha smooth muscle actin (ASMA), albumin (ALB), and CD140b; (b) negative for Sushi domain containing protein 2 (SUSD2) and Cytokeratin-19 (CK-19); (c) positive for at least one hepatic marker selected from HNF-3B, HNF-4, CYP1A2, CYP2C9, CYP2E1 and CYP3A4; (d) positive for at least one mesenchymal marker selected from Vimentin, CD90, CD73, CD44, and CD29; (e) positive for at least one liver-specific activity selected from urea secretion, bilirubin conjugation, alpha-1-antitrypsin secretion, and CYP3A4 activity; (f) positive for at least one marker selected from ATP2B4, ITGA3, TFRC, SLC3A2, CD59, ITGB5, CD151, ICAM1, ANPEP, CD46, and CD81; (g) positive for at least one marker selected from MMP1, ITGA11, FMOD, KCND2, CCL11, ASPN, KCNK2, and HMCN1; (h) negative for CD271; (i) negative for at least one marker selected from ITGAM, ITGAX, IL1R2, CDH5, and NCAM1; and (j) negative for at least one marker selected from HP, CP, RBP4, APOB, LBP, ORM1, CD24, CPM, and APOC1. (a) positive for alpha smooth muscle actin (ASMA), albumin (ALB), and CD140b; (b) negative for Sushi domain containing protein 2 (SUSD2) and Cytokeratin-19 (CK-19); (c) positive for at least one hepatic marker selected from HNF-3B, HNF-4, CYP1A2, CYP2C9, CYP2E1 and CYP3A4; (d) positive for at least one mesenchymal marker selected from Vimentin, CD90, CD73, CD44, and CD29; (e) positive for at least one liver-specific activity selected from urea secretion, bilirubin conjugation, alpha-1-antitrypsin secretion, and CYP3A4 activity; (f) positive for at least one marker selected from ATP2B4, ITGA3, TFRC, SLC3A2, CD59, ITGB5, CD151, ICAM1, ANPEP, CD46, and CD81; (g) positive for at least one marker selected from MMP1, ITGA11, FMOD, KCND2, CCL11, ASPN, KCNK2, and HMCN1; (h) negative for CD271; (i) negative for at least one marker selected from ITGAM, ITGAX, IL1R2, CDH5, and NCAM1; and (j) negative for at least one marker selected from HP, CP, RBP4, APOB, LBP, ORM1, CD24, CPM, and APOC1.
Nootkatone for use as a medicament in the prevention or treatment of depression.
A tyre comprising a tread portion including a tread surface which is to be in contact with a ground during running, wherein the tread portion is provided with a circumferential groove extending continuously in a tyre circumferential direction, the circumferential groove has a groove bottom and a pair of groove walls extending from the groove bottom to the tread surface in a tyre radial direction, the groove bottom includes a plurality of groove bottom protruding portions protruding outwardly in the tyre radial direction from a groove bottom reference surface defined as a surface parallel to the tread surface at a deepest position of a groove depth (D) of the circumferential groove , each of the groove bottom protruding portions has a first groove bottom surface extending in the tyre radial direction, the first groove bottom surface includes a first surface portion positioned on one side of a center line of the circumferential groove and a second surface portion positioned on the other side, an angle (θ2) between the first surface portion and the second surface portion is in a range of from 20 to 170 degrees in a plan view of the tread portion , each of the groove walls includes a plurality of groove wall protruding portions each protruding toward an inside of the circumferential groove from a groove wall reference surface defined as a surface along the tyre circumferential direction at a widest position of a groove width (W) of the circumferential groove , and each of the groove wall protruding portions has a first groove wall surface extending in a tyre width direction and a second groove wall surface having an angle with respect to the tyre width direction larger than that of the first groove wall surface , characterized in that the groove bottom protruding portions are formed over the entire width in a tyre width direction of the circumferential groove .
A system for picking articles in accordance with picking orders, wherein the system comprises: a rack extending along longitudinal and height directions (X, Y) of the system and comprising a plurality of storage locations configured to store source pallets ; a gantry robot including a manipulation unit configured to transfer the articles ; a packing position configured to buffer a target pallet ; a plurality of conveyors ; and a control ; wherein for each of the orders an order-specific packing pattern is determined for automatically packing, by the gantry robot , several of the articles in accordance with the respective order from one or more of the source pallets on a target pallet in the packing position ; wherein each of the conveyors comprises a receiving position , which is positioned within the rack and configured to receive the source pallets , as well as a delivering position , which is positioned within an action space of the gantry robot and configured to provide the source pallets ; wherein the gantry robot defines the action space, within which the manipulation unit is movable and which contains the packing position and the delivering positions of the conveyors ; and wherein the control is further configured to cause that such of the source pallets are transported from the storage locations via the receiving positions of the conveyors to the delivering positions of the conveyors , which include the articles required for the packing in accordance with the respective packing pattern. a rack extending along longitudinal and height directions (X, Y) of the system and comprising a plurality of storage locations configured to store source pallets ; a gantry robot including a manipulation unit configured to transfer the articles ; a packing position configured to buffer a target pallet ; a plurality of conveyors ; and a control ; wherein for each of the orders an order-specific packing pattern is determined for automatically packing, by the gantry robot , several of the articles in accordance with the respective order from one or more of the source pallets on a target pallet in the packing position ; wherein each of the conveyors comprises a receiving position , which is positioned within the rack and configured to receive the source pallets , as well as a delivering position , which is positioned within an action space of the gantry robot and configured to provide the source pallets ; wherein the gantry robot defines the action space, within which the manipulation unit is movable and which contains the packing position and the delivering positions of the conveyors ; and wherein the control is further configured to cause that such of the source pallets are transported from the storage locations via the receiving positions of the conveyors to the delivering positions of the conveyors , which include the articles required for the packing in accordance with the respective packing pattern.
A formulation for topical administration, comprising an aqueous solution of about 0.5% to about 3.0% by weight non-acidified sodium nitrite dispersed in a white petrolatum ointment.
Top box for a ridable saddle vehicle , comprising: - a container body including a base and a cover operatively connected to the base , the base comprising a bottom and a side wall joined perimetrically to the bottom , the bottom and the side wall at least partially define a storage compartment , the side wall having an edge which defines an access opening to the storage compartment opposite the bottom ; and - a fixing assembly arranged on said bottom and configured to fix the top box to a luggage carrier which comprises at least one mounting portion (31-33); wherein said fixing assembly is configured to assume a release configuration, in which it allows to couple/decouple the top box to/from said luggage carrier , and a fixing configuration, in which it allows to fix the top box to said luggage carrier ; wherein said fixing assembly comprises: - a fixing member having at least one fixing portion shaped in such a way as to provide, when the fixing assembly assumes said fixing configuration, a shape coupling with said mounting portion (31-33); - locking means suitable for locking the fixing assembly in the fixing configuration; wherein the locking means comprise a first locking element associated to the bottom of the top box and having an actuation portion accessible from the storage compartment , and a second conjugate locking element which is associated with the fixing member and it is suitable for coupling with the first locking element when the fixing assembly assumes the fixing configuration, characterised in that said fixing member is rotatably hinged to said bottom through connection elements . - a container body including a base and a cover operatively connected to the base , the base comprising a bottom and a side wall joined perimetrically to the bottom , the bottom and the side wall at least partially define a storage compartment , the side wall having an edge which defines an access opening to the storage compartment opposite the bottom ; and - a fixing assembly arranged on said bottom and configured to fix the top box to a luggage carrier which comprises at least one mounting portion (31-33); wherein said fixing assembly is configured to assume a release configuration, in which it allows to couple/decouple the top box to/from said luggage carrier , and a fixing configuration, in which it allows to fix the top box to said luggage carrier ; wherein said fixing assembly comprises: - a fixing member having at least one fixing portion shaped in such a way as to provide, when the fixing assembly assumes said fixing configuration, a shape coupling with said mounting portion (31-33); - locking means suitable for locking the fixing assembly in the fixing configuration; - a fixing member having at least one fixing portion shaped in such a way as to provide, when the fixing assembly assumes said fixing configuration, a shape coupling with said mounting portion (31-33); - locking means suitable for locking the fixing assembly in the fixing configuration;
A method of sidelink direct device-to-device wireless communication over a sidelink channel comprising unlicensed spectrum by a first transmitting sidelink device ; the method comprising: listening to the sidelink channel; initializing a back-off timer when the sidelink channel is idle; upon expiration of the back-off timer, if the sidelink channel remains idle, transmitting an initial joint access synchronization signal comprising an initial duration of time that the sidelink channel is reserved for access of the first and other transmitting sidelink devices; after transmitting the initial joint access synchronization signal, exchanging request and confirmation signals with a second sidelink device over the sidelink channel; and transmitting a sidelink signal to the second sidelink device over the sidelink channel. listening to the sidelink channel; initializing a back-off timer when the sidelink channel is idle; upon expiration of the back-off timer, if the sidelink channel remains idle, transmitting an initial joint access synchronization signal comprising an initial duration of time that the sidelink channel is reserved for access of the first and other transmitting sidelink devices; after transmitting the initial joint access synchronization signal, exchanging request and confirmation signals with a second sidelink device over the sidelink channel; and transmitting a sidelink signal to the second sidelink device over the sidelink channel.
A paint discharging nozzle designed for discharging paint supplied at a predetermined pressure, the paint discharging nozzle comprising: a housing having a nozzle hole through which paint is discharged; a paint chamber configured to supply paint to the nozzle hole ; a needle valve retractably or advancingly fitted into the housing to close or open the nozzle hole ; a driving mechanism disposed in the housing and configured to cause the needle valve to perform a retracting or advancing operation with respect to the nozzle hole ; and a bearing disposed to surround the needle valve within the housing to be in sliding contact with a peripheral surface of the needle valve as the retracting or advancing operation of the needle valve is performed, wherein the bearing is movable in an axial direction of the needle valve , and wherein a backlash, in a space within which the bearing is movable in the axial direction of the needle valve , has a length of at least a circumferential length of a sphere of the bearing or a roller. a housing having a nozzle hole through which paint is discharged; a paint chamber configured to supply paint to the nozzle hole ; a needle valve retractably or advancingly fitted into the housing to close or open the nozzle hole ; a driving mechanism disposed in the housing and configured to cause the needle valve to perform a retracting or advancing operation with respect to the nozzle hole ; and a bearing disposed to surround the needle valve within the housing to be in sliding contact with a peripheral surface of the needle valve as the retracting or advancing operation of the needle valve is performed, wherein the bearing is movable in an axial direction of the needle valve , and wherein a backlash, in a space within which the bearing is movable in the axial direction of the needle valve , has a length of at least a circumferential length of a sphere of the bearing or a roller.
A method for deodorizing a breast cancerous skin ulcer disease odor emitted from a breast cancerous skin ulcer site and including mainly acetoin using a deodorant article comprising a sheet-like covering, wherein the sheet-like covering comprises a polyhydroxyamine compound or a salt thereof and porous particles, a wound contact surface in the sheet-like covering comprises an air-through nonwoven fabric, and the sheet-like covering has a value of a ratio of an area S (cm 2 ) to a thickness T (cm), S/T, of 300 or more and 3000 or less. wherein the sheet-like covering comprises a polyhydroxyamine compound or a salt thereof and porous particles, a wound contact surface in the sheet-like covering comprises an air-through nonwoven fabric, and the sheet-like covering has a value of a ratio of an area S (cm 2 ) to a thickness T (cm), S/T, of 300 or more and 3000 or less.
Busbar connection of two double busbars , wherein the double busbars each have two busbars which are insulated from each other by an insulation and are stacked on top of each other to form a stack, characterized in that the double busbars are connected by two concentrically arranged contact systems , wherein each contact system has a first contact for the first busbar and a second contact for the second busbar , and a clamping element which can be rotated between a plug-connection position and a clamping position , wherein the contact system can be plug-connected when the clamping element is arranged in the plug-connection position , wherein the first contact and the second contact , in a plug-connected state of the contact system , are arranged coaxially one in the other and the clamping element is designed to pinch and elastically radially deform at least one of the contacts owing to a rotational movement from the plug-connection position to the clamping position , wherein the contacts are electrically conductively connected to each other owing to the radial deformation in the plug-connected state.
A method for producing a multi-layered, hollow, chocolate figure with a printing in an edible colour preparation, comprising the manufacture of said chocolate figure in a mould, said mould comprises two mould-halves, followed by partially demoulding said figure by removing one mould-half and subsequently providing one half of said hollow, chocolate figure with one or more types of edible colour preparations by means of an elastic pad, characterised in that said printing takes place at a pressure of between 8 and 12 bar and wherein said figure remains situated in a mould-half during printing.
A medical information processing device capable of measuring a change in a biological tissue occurring when energy is applied, the medical information processing device comprising: a processor , wherein the processor is configured to: acquire a plurality of OCT signals, at different times, detected by reflected light of measurement light irradiated toward a measurement section of the biological tissue; calculate a rate of change over time of a local optical path length of the measurement light by processing the plurality of OCT signals; characterized in that the processor is configured to calculate a cumulative deformation amount based on the rate of change over time of the local optical path length, the cumulative deformation amount being obtained through accumulation in a time direction of a deformation amount of the biological tissue in the measurement section. a processor , wherein the processor is configured to: acquire a plurality of OCT signals, at different times, detected by reflected light of measurement light irradiated toward a measurement section of the biological tissue; calculate a rate of change over time of a local optical path length of the measurement light by processing the plurality of OCT signals; characterized in that the processor is configured to calculate a cumulative deformation amount based on the rate of change over time of the local optical path length, the cumulative deformation amount being obtained through accumulation in a time direction of a deformation amount of the biological tissue in the measurement section. acquire a plurality of OCT signals, at different times, detected by reflected light of measurement light irradiated toward a measurement section of the biological tissue; calculate a rate of change over time of a local optical path length of the measurement light by processing the plurality of OCT signals; characterized in that the processor is configured to calculate a cumulative deformation amount based on the rate of change over time of the local optical path length, the cumulative deformation amount being obtained through accumulation in a time direction of a deformation amount of the biological tissue in the measurement section.
A method of decoding video data, the method comprising: decoding a first motion vector difference, MVD, representing a difference between a first motion vector of a first control point of a current block of video data predicted using affine prediction and a first motion vector predictor, MVP, for the first motion vector; adding the first MVD to the first MVP to reconstruct the first motion vector; determining a second MVP for a second motion vector of a second control point of the current block; predicting a second MVD from the first MVD for the second motion vector of the current block, the second MVD representing a difference between the second motion vector and the second MVP; decoding data representing MVD'2 for the second MVD, wherein MVD'2 represents a residual value for the second MVD relative to the first MVD; reconstructing the second MVD using MVD'2 and the first MVD; adding the second MVD to the second MVP to reconstruct the second motion vector; and decoding the current block using affine prediction by: forming a prediction block for the current block using the first motion vector and the second motion vector, decoding a residual block for the current block, and adding the residual block and the prediction block to reconstruct the current block, wherein the first motion vector originates from an upper-left corner of the current block, and wherein the second motion vector originates from an upper-right corner of the current block. decoding a first motion vector difference, MVD, representing a difference between a first motion vector of a first control point of a current block of video data predicted using affine prediction and a first motion vector predictor, MVP, for the first motion vector; adding the first MVD to the first MVP to reconstruct the first motion vector; determining a second MVP for a second motion vector of a second control point of the current block; predicting a second MVD from the first MVD for the second motion vector of the current block, the second MVD representing a difference between the second motion vector and the second MVP; decoding data representing MVD'2 for the second MVD, wherein MVD'2 represents a residual value for the second MVD relative to the first MVD; reconstructing the second MVD using MVD'2 and the first MVD; adding the second MVD to the second MVP to reconstruct the second motion vector; and decoding the current block using affine prediction by: forming a prediction block for the current block using the first motion vector and the second motion vector, decoding a residual block for the current block, and adding the residual block and the prediction block to reconstruct the current block, wherein the first motion vector originates from an upper-left corner of the current block, and wherein the second motion vector originates from an upper-right corner of the current block.
Process of producing neutralized vinegar concentrate, said process comprising the steps of: a) providing a liquid vinegar; b) adding an alkaline potassium compound to said liquid vinegar to produce a neutralized vinegar having a pH of at least 6; and c) concentrating said neutralized vinegar to a dry solids level in the range of above 60 to 70 % (w/w) by evaporation. a) providing a liquid vinegar; b) adding an alkaline potassium compound to said liquid vinegar to produce a neutralized vinegar having a pH of at least 6; and c) concentrating said neutralized vinegar to a dry solids level in the range of above 60 to 70 % (w/w) by evaporation.