mhurhangee/patent-ind-claim-en huggingface dataset:
An overmolded polymer-metal hybrid article comprising: A) a surface layer comprising: A1) a polyamide; B) a thermoplastic adhesive layer comprising: B1) from about 25 to 75 weight percent of at least one nonfunctionalized thermoplastic polyolefin having a melting point of from about 80 to 200 °C; B2) from about 75 to 25 weight percent of at least one functionalized thermoplastic polyolefin comprising from 0.02 to 10 weight percent of a carboxyl functional group; wherein the weight percent of (B1) and (B2) is based on the sum of the weight percent of (B1) and (B2) and thermoplastic adhesive layer B comprises a carboxyl functional group content of 0.02 to 1.5 weight percent based on the total weight percent of (B1) and (B2) in thermoplastic adhesive layer B when measured by ASTM E168; C) a metal layer; and D) a polyamide overmolded onto at least a part of surface layer A; wherein: layers A, B, and C are interlayered into an A/B/C structure; said overmolded polymer-metal hybrid article exhibits an initial adhesion of at least 11.5 MPa when measured at 23 °C according to ASTM D3163 using lap shear test B. A) a surface layer comprising: A1) a polyamide; A1) a polyamide; B) a thermoplastic adhesive layer comprising: B1) from about 25 to 75 weight percent of at least one nonfunctionalized thermoplastic polyolefin having a melting point of from about 80 to 200 °C; B2) from about 75 to 25 weight percent of at least one functionalized thermoplastic polyolefin comprising from 0.02 to 10 weight percent of a carboxyl functional group; wherein the weight percent of (B1) and (B2) is based on the sum of the weight percent of (B1) and (B2) and thermoplastic adhesive layer B comprises a carboxyl functional group content of 0.02 to 1.5 weight percent based on the total weight percent of (B1) and (B2) in thermoplastic adhesive layer B when measured by ASTM E168; B1) from about 25 to 75 weight percent of at least one nonfunctionalized thermoplastic polyolefin having a melting point of from about 80 to 200 °C; B2) from about 75 to 25 weight percent of at least one functionalized thermoplastic polyolefin comprising from 0.02 to 10 weight percent of a carboxyl functional group; C) a metal layer; and D) a polyamide overmolded onto at least a part of surface layer A; wherein: layers A, B, and C are interlayered into an A/B/C structure; said overmolded polymer-metal hybrid article exhibits an initial adhesion of at least 11.5 MPa when measured at 23 °C according to ASTM D3163 using lap shear test B. layers A, B, and C are interlayered into an A/B/C structure; said overmolded polymer-metal hybrid article exhibits an initial adhesion of at least 11.5 MPa when measured at 23 °C according to ASTM D3163 using lap shear test B.
A transfer unit, comprising: a moving body movably disposed along a guide rail disposed in a moving direction of the vehicle ; swing arms rotatably connected with a forward side and a rear side of the moving body , respectively, and concentratable inward to be disposed forward and rearward of a lower portion of a front wheel tire or a rear wheel tire of the vehicle ; free rollers rotatably disposed at a side of each swing arm concentratable inward to rotatably clamp the tire, respectively; a swing arm driving unit configured to provide a driving force to concentrate the swing arms inward or unfold the swing arms outward; and a moving body moving unit configured to move the moving body along the guide rail forward and rearward. a moving body movably disposed along a guide rail disposed in a moving direction of the vehicle ; swing arms rotatably connected with a forward side and a rear side of the moving body , respectively, and concentratable inward to be disposed forward and rearward of a lower portion of a front wheel tire or a rear wheel tire of the vehicle ; free rollers rotatably disposed at a side of each swing arm concentratable inward to rotatably clamp the tire, respectively; a swing arm driving unit configured to provide a driving force to concentrate the swing arms inward or unfold the swing arms outward; and
A method of estimating a pose of a surgical table comprising: reading one or more fiducial markers on a base of the surgical table with a sensor associated with a manipulator assembly adjacent the surgical table , the surgical table further including a substrate having a support surface , a support structure supporting the substrate, the support structure being movable such that the support surface is positionable along one or more degrees of freedom (DOF); and localizing the surgical table relative to the manipulator assembly on a common plane based on the reading of the one or more fiducial markers ; wherein reading the one or more fiducial markers comprises reading at least one of the one or more fiducial markers before a surgical procedure. reading one or more fiducial markers on a base of the surgical table with a sensor associated with a manipulator assembly adjacent the surgical table , the surgical table further including a substrate having a support surface , a support structure supporting the substrate, the support structure being movable such that the support surface is positionable along one or more degrees of freedom (DOF); and localizing the surgical table relative to the manipulator assembly on a common plane based on the reading of the one or more fiducial markers ; wherein reading the one or more fiducial markers comprises reading at least one of the one or more fiducial markers before a surgical procedure.
A method for realising a garment provided with a belt to be worn on the lower limbs, comprising steps of: having available a fabric having a longitudinal extension axis (L); the fabric being formed by fibres braided in such a way as to be perpendicular to one another and free of elastic properties; defining a weft direction (T) of the fabric , which weft direction (T) is perpendicular to the longitudinal extension axis (L); defining a warp direction (O) of the fabric , which warp direction (O) is parallel to the longitudinal extension axis (L); cutting the fabric in a first plurality of portions of fabric by making a first plurality of cut lines having an inclined direction (I) with respect to the weft direction (T) and the warp direction (O); each cut line of the first plurality of cut lines having an inclined direction (I) of an internal angle, with the weft direction (T) or the warp direction (O), comprised between 30° and 60°; coupling the portions of the first plurality of portions of fabric to form a first strip ; having available a first elastic strip ; overlapping and fixing the first strip and the first elastic strip to one another so as to realise a belt ; cutting a main body conformed to at least partially cover the lower limbs of a person wearing the garment , when the garment is worn; fixing the belt and the main body to one another. having available a fabric having a longitudinal extension axis (L); the fabric being formed by fibres braided in such a way as to be perpendicular to one another and free of elastic properties; defining a weft direction (T) of the fabric , which weft direction (T) is perpendicular to the longitudinal extension axis (L); defining a warp direction (O) of the fabric , which warp direction (O) is parallel to the longitudinal extension axis (L); cutting the fabric in a first plurality of portions of fabric by making a first plurality of cut lines having an inclined direction (I) with respect to the weft direction (T) and the warp direction (O); each cut line of the first plurality of cut lines having an inclined direction (I) of an internal angle, with the weft direction (T) or the warp direction (O), comprised between 30° and 60°; coupling the portions of the first plurality of portions of fabric to form a first strip ; having available a first elastic strip ; overlapping and fixing the first strip and the first elastic strip to one another so as to realise a belt ; cutting a main body conformed to at least partially cover the lower limbs of a person wearing the garment , when the garment is worn; fixing the belt and the main body to one another.
Horizontal packaging machine (M) for packaging a product (P) fed in a horizontal direction (X) comprising a control panel and a cut-sew group suitable to make on a packaging film (F) transverse welds and a cut to close and separate each other two successive packs (C1, C2, C3, C4), wherein said cut-sew group comprises a plurality of cut and sew tools (U1, U2, U3) suitable to make said transverse welds and said cut, wherein said transverse welds define the edges of the packs (C1, C2, C3, C4) according to different packaging sizes for said product (P), the horizontal packaging machine (M) futher comprising adjustment means for the size change of said packs (C1, C2, C3, C4), activated by selecting through said control panel one of said cut and sew tools (U1, U2, U3) of said plurality present in the cut-sew group , and by positioning said cut-sew group so that said product (P) to be packaged is fed at said cut and sew tool (U1, U2, U3) selected to make said packs (C1, C2, C3, C4) according to a prefixed and set size through said control panel , characterized in that said cut-sew group comprises an upper shaft (AS) and a lower shaft (Al) independently controlled in rotation by means of a respective upper motor (MS) and a respective lower motor (MI), wherein each shaft (AS, Al) mounts on it said plurality of cut and sew tools (U1, U2, U3) and wherein each cut and sew tool (U1, U2, U3) is composed of an upper tool (US) and a corresponding lower tool (UI).
A method of securely verifying integrity of application responses, the method performed by one or more processors of a computing device and comprising: receiving, from a client, an application encrypted in accordance with a fully homomorphic encryption (FHE) algorithm; generating, with a trained machine learning model associated with the FHE algorithm, a plurality of first application labels, each first application label indicating a true or false response associated with the received application; inverting a randomly selected portion of the plurality of first application labels; generating a first randomly sorted list comprising the plurality of first application labels; transmitting the first randomly sorted list to the client receiving a first decrypted randomly sorted list from the client; performing a validation of at least the first decrypted randomly sorted list, the validation based at least in part on the plurality of first application labels; and in response to the validation being successful, providing the client with a response to the application. receiving, from a client, an application encrypted in accordance with a fully homomorphic encryption (FHE) algorithm; generating, with a trained machine learning model associated with the FHE algorithm, a plurality of first application labels, each first application label indicating a true or false response associated with the received application; inverting a randomly selected portion of the plurality of first application labels; generating a first randomly sorted list comprising the plurality of first application labels; transmitting the first randomly sorted list to the client receiving a first decrypted randomly sorted list from the client; performing a validation of at least the first decrypted randomly sorted list, the validation based at least in part on the plurality of first application labels; and in response to the validation being successful, providing the client with a response to the application.
A recombinant host capable of producing one or more steviol glycosides, comprising a recombinant gene encoding a steviol synthase polypeptide capable of synthesizing steviol from enf -kaurenoic acid having at least 80% sequence identity to the amino acid sequence set forth in SEQ ID NO:164; the host further comprising one or more of: (a) a recombinant gene encoding a UGT85C polypeptide having at least 90% sequence identity to the amino acid sequence set forth in SEQ ID NO:3; (b) a recombinant gene encoding a UGT76G polypeptide having at least 90% sequence identity to the amino acid sequence set forth in SEQ ID NO:7; (c) a gene encoding a UGT74G1 polypeptide such as a recombinant gene; or (d) a recombinant gene encoding a UGT91D2 functional homolog polypeptide wherein the host is a microorganism, a plant or a plant cell. (a) a recombinant gene encoding a UGT85C polypeptide having at least 90% sequence identity to the amino acid sequence set forth in SEQ ID NO:3; (b) a recombinant gene encoding a UGT76G polypeptide having at least 90% sequence identity to the amino acid sequence set forth in SEQ ID NO:7; (c) a gene encoding a UGT74G1 polypeptide such as a recombinant gene; or (d) a recombinant gene encoding a UGT91D2 functional homolog polypeptide
A housing structure, comprising an appearance effect layer , a metal layer , a connection layer , and a non-metal layer that are laminated, wherein the connection layer is configured to bind the metal layer and the non-metal layer ; and the appearance effect layer is formed after surface processing is performed on the metal layer ; wherein the connection layer comprises a first connection layer and a second connection layer , the first connection layer is located on a side close to the metal layer , and the second connection layer is located on a side close to the non-metal layer ; and characterized in that a binding force of a material of the first connection layer and the metal layer is greater than a binding force of a material of the second connection layer and the metal layer , and a binding force of the material of the second connection layer and the non-metal layer is greater than a binding force of the material of the first connection layer and the non-metal layer . the connection layer is configured to bind the metal layer and the non-metal layer ; and the appearance effect layer is formed after surface processing is performed on the metal layer ; wherein the connection layer comprises a first connection layer and a second connection layer , the first connection layer is located on a side close to the metal layer , and the second connection layer is located on a side close to the non-metal layer ; and characterized in that a binding force of a material of the first connection layer and the metal layer is greater than a binding force of a material of the second connection layer and the metal layer , and a binding force of the material of the second connection layer and the non-metal layer is greater than a binding force of the material of the first connection layer and the non-metal layer .
A process for cooking pasta with a humidity content of at least 20% by weight with respect to the weight of the pasta; the humidity percentages relate to the pasta before the process is implemented; the process comprises: a water feeding step, during which a given quantity of liquid water is fed to a container ; and a vapour feeding step, during which a given quantity of water vapour is fed to said container containing a given quantity of pasta for an amount of time of at least 7 seconds up to 50 seconds; wherein the vapour feeding step is at least partially simultaneous with or subsequent to the water feeding step. a water feeding step, during which a given quantity of liquid water is fed to a container ; and a vapour feeding step, during which a given quantity of water vapour is fed to said container containing a given quantity of pasta for an amount of time of at least 7 seconds up to 50 seconds; wherein the vapour feeding step is at least partially simultaneous with or subsequent to the water feeding step.
A percutaneous penetration enhancing apparatus comprising: a sheet member capable of being placed on a skin; a plurality of skin condition sensors (220 1 -220 M ) arranged on the sheet member, each of the plurality of skin condition sensors detecting information related to a condition of the skin; a plurality of percutaneous penetration enhancing elements (230 1 -230 N ) arranged on the sheet member, each of the plurality of percutaneous penetration enhancing elements being operated on the basis of the information detected by one or more of the plurality of skin condition sensors (220 1 -220 M ); wherein each of the plurality of percutaneous penetration enhancing elements (230 1 -230 N ) is configured to perform a penetration enhancing process including at least one of iontophoresis and electroporation, and an operation determination unit , characterized in that the sheet member is divided into segments, each of which includes one or more of the plurality of percutaneous penetration enhancing elements (230 1 -230 N ) and one or more of the plurality of skin condition sensors (220 1 -220 M ), and wherein the operation determination unit is configured to determine, for each of the segments, whether or not to cause the one or more of the plurality of percutaneous penetration enhancing elements (230 1 -230 N ) included in a segment to perform the penetration enhancing process on the basis of the information detected by the one or more of the plurality of skin condition sensors (220 1 -220 M ) included in the segment. a sheet member capable of being placed on a skin; a plurality of skin condition sensors (220 1 -220 M ) arranged on the sheet member, each of the plurality of skin condition sensors detecting information related to a condition of the skin; a plurality of percutaneous penetration enhancing elements (230 1 -230 N ) arranged on the sheet member, each of the plurality of percutaneous penetration enhancing elements being operated on the basis of the information detected by one or more of the plurality of skin condition sensors (220 1 -220 M ); wherein each of the plurality of percutaneous penetration enhancing elements (230 1 -230 N ) is configured to perform a penetration enhancing process including at least one of iontophoresis and electroporation, and an operation determination unit , characterized in that the sheet member is divided into segments, each of which includes one or more of the plurality of percutaneous penetration enhancing elements (230 1 -230 N ) and one or more of the plurality of skin condition sensors (220 1 -220 M ), and wherein the operation determination unit is configured to determine, for each of the segments, whether or not to cause the one or more of the plurality of percutaneous penetration enhancing elements (230 1 -230 N ) included in a segment to perform the penetration enhancing process on the basis of the information detected by the one or more of the plurality of skin condition sensors (220 1 -220 M ) included in the segment.
A method for artificially ageing a material, wherein the material is a heat treatable aluminium alloy that has been formed into a form by being heated to its solution heat treatment temperature, by being hot stamped and subsequently by being quenched in cold dies, wherein the method comprises the steps after forming of a component of: a) applying a pre-ageing heat treatment by heating the material according to a predefined temperature profile, wherein the temperature profile comprises a varying target temperature; and, subsequently, b) applying a paint bake cycle to the material and wherein the predefined temperature profile of step (a) comprises a first period and a second period, wherein the first period comprises a first holding period having a first holding time (t1) and having a first target holding temperature (T1) and the target holding temperature (T1) during the first holding period is constant, is above 50°C and is less than the Guinier-Preston solvus temperature, and wherein the second period comprises a second holding period having a second holding time (t2) and having a second target holding temperature (T2) and the target holding temperature (T2) during the second holding period is between 180°C and 270°C, the target holding temperature (T2) during the second holding period is constant and the target holding temperature (T2) during the second holding period exceeds the Guinier-Preston solvus temperature. a) applying a pre-ageing heat treatment by heating the material according to a predefined temperature profile, wherein the temperature profile comprises a varying target temperature; and, subsequently, b) applying a paint bake cycle to the material and
Device for ventilating rooms, comprising heat pumps as well as openings (7, 6, 4 and 3) and ducts (30, 32, 31 and 33) for the flows of outside air, outgoing air, exhaust air and supply air, wherein the device has a heat pump circuit for heating water and a further heat pump circuit for heating or cooling supply air, wherein the flows of outside air, outgoing air, exhaust air and supply air are guided via a first heat exchanger , and wherein the flows of outside air and supply air on the one hand and the flows of outgoing air and exhaust air on the other hand are guided through separate flow paths in the first heat exchanger designed as a countercurrent heat exchanger, wherein the two heat pump circuits are associated with a common, two-circuit second heat exchanger acting optionally as a condenser or as an evaporator of the heat pump circuits , wherein the second heat exchanger is associated with the flow of outgoing air, wherein a third heat exchanger of the further heat pump circuit is associated with the flow of supply air, wherein a fourth heat exchanger of this further heat pump circuit is associated with the flow of outside air.
An evaluation device for evaluating a system that uses an energy storage device , the evaluation device comprising: a mathematical model acquisition unit that is configured to acquire a mathematical model expressing a state of an energy storage device ; an operation data acquisition unit that is configured to acquire operation data including time-series input data input during operation of a system , which is constructed based on the mathematical model , and time-series output data output by the system based on the time-series input data; a processing unit that is configured to execute processing of inputting the time-series input data to the mathematical model and outputting time-series model output data from the mathematical model ; an evaluation unit that is configured to evaluate design or operation of the system based on the time-series output data and the time-series model output data; a comparison value calculation unit that is configured to calculate comparison value time-series data indicating a comparison value between the time-series output data and the time-series model output data; and a determination unit that is configured to determine, based on the comparison value time-series data calculated by the comparison value calculation unit , existence of an abnormal event of the system generated by either an abnormality in an energy storage device used in the system or an environment of the energy storage device . a mathematical model acquisition unit that is configured to acquire a mathematical model expressing a state of an energy storage device ; an operation data acquisition unit that is configured to acquire operation data including time-series input data input during operation of a system , which is constructed based on the mathematical model , and time-series output data output by the system based on the time-series input data; a processing unit that is configured to execute processing of inputting the time-series input data to the mathematical model and outputting time-series model output data from the mathematical model ; an evaluation unit that is configured to evaluate design or operation of the system based on the time-series output data and the time-series model output data; a comparison value calculation unit that is configured to calculate comparison value time-series data indicating a comparison value between the time-series output data and the time-series model output data; and a determination unit that is configured to determine, based on the comparison value time-series data calculated by the comparison value calculation unit , existence of an abnormal event of the system generated by either an abnormality in an energy storage device used in the system or an environment of the energy storage device .