mhurhangee/patent-ind-claim-en huggingface dataset:
A dynamic range compression device comprising: a saturation detection circuit configured to detect saturation of each color data for each pixel depending on whether a value of the each color data for each pixel in a frame image converted from color data corresponding to a first luminance dynamic range to color data corresponding to a second luminance dynamic range exceeds a predetermined saturation value or not; and a data distribution circuit configured to calculate a data amount necessary for a pixel in which saturation is detected to maintain a luminance value in a state of not being saturated and to distribute and output the calculated data amount to other non-saturated color data which is not saturated other than saturated color data in which saturation is detected, in the pixel in which saturation is detected, wherein the data distribution circuit is further configured to calculate the data amount from data corresponding to a difference of the other non-saturated color data up to the predetermined saturation value and distributes the calculated data amount to the other non-saturated color data, and the dynamic range compression device further comprises a blend circuit configured to blend color data of the each pixel of the second luminance dynamic range and color data of the non-saturated color to which the data amount calculated by the data distribution circuit is distributed, for each color of the each pixel based on a set blend parameter. a saturation detection circuit configured to detect saturation of each color data for each pixel depending on whether a value of the each color data for each pixel in a frame image converted from color data corresponding to a first luminance dynamic range to color data corresponding to a second luminance dynamic range exceeds a predetermined saturation value or not; and a data distribution circuit configured to calculate a data amount necessary for a pixel in which saturation is detected to maintain a luminance value in a state of not being saturated and to distribute and output the calculated data amount to other non-saturated color data which is not saturated other than saturated color data in which saturation is detected, in the pixel in which saturation is detected, wherein the data distribution circuit is further configured to calculate the data amount from data corresponding to a difference of the other non-saturated color data up to the predetermined saturation value and distributes the calculated data amount to the other non-saturated color data, and the dynamic range compression device further comprises a blend circuit configured to blend color data of the each pixel of the second luminance dynamic range and color data of the non-saturated color to which the data amount calculated by the data distribution circuit is distributed, for each color of the each pixel based on a set blend parameter.
A refillable fluid dispenser comprising: a dispenser head (T) including a fluid pump (D), a reservoir (R) of variable volume and a filling valve that is connected to the reservoir (R), the fluid pump (D) being provided with a dip tube that passes through the reservoir, a slidable member including a movable piston that slides in sealing contact around the dip tube so as to cause the volume of the reservoir (R) to vary, the slidable member being movable between a pushed-in position in which the slidable member is situated in the proximity of the fluid pump (D) and an extended position in which the slidable member is spaced apart from the fluid pump (D), the reservoir (R) defining a maximum volume in its pushed-in position and a minimum volume in its extended position, such that the volume of the reservoir (R) increases when the slidable member is pushed in around the dip tube towards the fluid pump (D), the dip tube being provided with a stationary piston that slides in sealing contact in a movable cylinder that is formed by the slidable member , the movable piston sliding around the dip tube between the fluid pump (D) and the stationary piston , the reservoir (R) being defined axially between the movable piston and the stationary piston and radially between the dip tube and the movable cylinder , the dispenser being characterized in that it further comprises an air pump of variable volume, having a volume that varies inversely with the volume of the reservoir (R), so as to create resistance to the variation in volume of the reservoir (R).
A communication program for causing a node device included in a data circulation network to execute a process, the process comprising: when receiving a registration request to register metadata including attribute information on data that a terminal connected to one of the node devices has, transferring the metadata to another node device included in the data circulation network; and characterised by : when receiving a first obtainment request to obtain the metadata, determining, based on access authority information included in the metadata of the data, whether or not a user specified by the request to obtain the metadata is given permission to access to the metadata, referring to the attribute information, obtaining the metadata including the attribute information including a keyword specified in the first obtainment request, and transmitting the obtained metadata to an issuer of the first obtainment request; and when receiving a second obtainment request to obtain data based on the metadata, obtaining the data from the terminal and transferring the data to a requestor of the data. when receiving a first obtainment request to obtain the metadata, determining, based on access authority information included in the metadata of the data, whether or not a user specified by the request to obtain the metadata is given permission to access to the metadata, referring to the attribute information, obtaining the metadata including the attribute information including a keyword specified in the first obtainment request, and transmitting the obtained metadata to an issuer of the first obtainment request; and when receiving a second obtainment request to obtain data based on the metadata, obtaining the data from the terminal and transferring the data to a requestor of the data.
A spindle drive assembly for opening and/or closing a vehicle flap , comprising a spindle drive assembly housing extending along a spindle drive axis and a spindle drive motor which is arranged in the spindle drive assembly housing and the motor shaft of which is arranged substantially coaxially with the spindle drive axis , wherein the spindle drive motor is supported in the spindle drive assembly housing in a rotationally fixed manner in relation to the spindle drive axis by means of an interlocking fit, characterized in that the spindle drive assembly housing comprises a housing cap and the spindle drive motor is supported at the housing cap in a rotationally fixed manner.
A method, comprising: determining a context for a user; adjusting automatically an authentication configuration for the user based at least in part on the context, and performing an authentication of the user with the authentication configuration, characterized in that different matching accuracies of an authentication algorithm for the same authentication input data are associated with respective authentication configurations, and in that the method comprises performing the authentication by decreasing a matching accuracy of the authentication algorithm for the user under a safe context to thereby apply an inexact matching policy when comparing the recognized authentication input data to authentication reference data, and performing a re-authentication of the user under the same context by increasing a current matching accuracy of the authentication algorithm, in response to a failure of the authentication. determining a context for a user; adjusting automatically an authentication configuration for the user based at least in part on the context, and performing an authentication of the user with the authentication configuration, characterized in that different matching accuracies of an authentication algorithm for the same authentication input data are associated with respective authentication configurations, and in that the method comprises performing the authentication by decreasing a matching accuracy of the authentication algorithm for the user under a safe context to thereby apply an inexact matching policy when comparing the recognized authentication input data to authentication reference data, and performing a re-authentication of the user under the same context by increasing a current matching accuracy of the authentication algorithm, in response to a failure of the authentication.
A semiconductor device package comprising: a containment body defining an interior cavity including a plurality of interior surfaces (116a-116f), and an exterior with a plurality of electrical contacts each extending from the interior cavity to the exterior; and a semiconductor die including a plurality of die surfaces (118a-118f), each opposed to a respective one of the interior surfaces (116a-116f), the semiconductor die being housed within the interior cavity with a plurality of wire bonds flexibly connecting the semiconductor die to the electrical contacts , wherein the wire bonds are the only fixed connection between the containment body and the semiconductor die such that the semiconductor die is free to move within the interior cavity of the containment body accommodated by flexure of the wire bonds to mitigate packaging stress and strain between the containment body and the semiconductor die ; wherein a portion of a clearance space is defined between each respective pair of die and interior cavity surfaces, characterised in that the clearance space is dimensioned to limit translation and rotation movement of the semiconductor die in three orthogonal axes relative to the interior cavity to a predetermined degree to protect the wire bonds from damage due to over flexure. a containment body defining an interior cavity including a plurality of interior surfaces (116a-116f), and an exterior with a plurality of electrical contacts each extending from the interior cavity to the exterior; and a semiconductor die including a plurality of die surfaces (118a-118f), each opposed to a respective one of the interior surfaces (116a-116f), the semiconductor die being housed within the interior cavity with a plurality of wire bonds flexibly connecting the semiconductor die to the electrical contacts , wherein the wire bonds are the only fixed connection between the containment body and the semiconductor die such that the semiconductor die is free to move within the interior cavity of the containment body accommodated by flexure of the wire bonds to mitigate packaging stress and strain between the containment body and the semiconductor die ; wherein a portion of a clearance space is defined between each respective pair of die and interior cavity surfaces, characterised in that the clearance space is dimensioned to limit translation and rotation movement of the semiconductor die in three orthogonal axes relative to the interior cavity to a predetermined degree to protect the wire bonds from damage due to over flexure.
An information processing device , characterized in that , comprising: an editing unit editing one or a plurality of pieces of controller data (CD1, CD2, CD3) including control programs (PRG1, PRG2, PRG3) to be executed by control devices ; and a storage unit storing a sharing setting table indicating a sharing setting of the control programs (PRG1, PRG2, PRG3) respectively included in the plurality of pieces of controller data (CD1, CD2, CD3), wherein when control programs (PRG1, PRG2, PRG3) of first controller data (CD1) and control programs (PRG1, PRG2, PRG3) of second controller data (CD2) included in the plurality of pieces of controller data (CD1, CD2, CD3) are set to be shared, the editing unit synchronizes an edited content for the control programs of the first controller data (CD1) with the control programs of the second controller data (CD2), and when synchronizing the control program (PRG1, PRG2, PRG3), the editing unit synchronizes a variable used in the control program (PRG1, PRG2, PRG3) by copying a variable name of the variable used in the control program of the second controller data (CD2) to be the same as that of the control program of the first controller data (CD1), and sets a content of the variable by not copying a value of the variable used in the control program of the second controller data (CD2) to be the same as that of the control program of the first controller data (CD1). an editing unit editing one or a plurality of pieces of controller data (CD1, CD2, CD3) including control programs (PRG1, PRG2, PRG3) to be executed by control devices ; and a storage unit storing a sharing setting table indicating a sharing setting of the control programs (PRG1, PRG2, PRG3) respectively included in the plurality of pieces of controller data (CD1, CD2, CD3), wherein when control programs (PRG1, PRG2, PRG3) of first controller data (CD1) and control programs (PRG1, PRG2, PRG3) of second controller data (CD2) included in the plurality of pieces of controller data (CD1, CD2, CD3) are set to be shared, the editing unit synchronizes an edited content for the control programs of the first controller data (CD1) with the control programs of the second controller data (CD2), and when synchronizing the control program (PRG1, PRG2, PRG3), the editing unit synchronizes a variable used in the control program (PRG1, PRG2, PRG3) by copying a variable name of the variable used in the control program of the second controller data (CD2) to be the same as that of the control program of the first controller data (CD1), and sets a content of the variable by not copying a value of the variable used in the control program of the second controller data (CD2) to be the same as that of the control program of the first controller data (CD1).
A method comprising: obtaining , by a computer aided design program, a design space for a modeled object, for which a corresponding physical structure will be manufactured, one or more design criteria for the modeled object, one or more in-use load cases for the physical structure, and a critical fatigue crack length for a material from which the physical structure will be manufactured; iteratively modifying , by the computer aided design program, a generatively designed three dimensional shape of the modeled object in the design space in accordance with the one or more design criteria, the one or more in-use load cases for the physical structure, and the critical fatigue crack length for the material, wherein the iteratively modifying comprises enforcing a design criterion that limits a minimum thickness of the generatively designed three dimensional shape of the modeled object, the minimum thickness being based on the critical fatigue crack length for the material; and providing , by the computer aided design program, the generatively designed three dimensional shape of the modeled object for use in manufacturing the physical structure corresponding to the modeled object using one or more computer-controlled manufacturing systems. obtaining , by a computer aided design program, a design space for a modeled object, for which a corresponding physical structure will be manufactured, one or more design criteria for the modeled object, one or more in-use load cases for the physical structure, and a critical fatigue crack length for a material from which the physical structure will be manufactured; iteratively modifying , by the computer aided design program, a generatively designed three dimensional shape of the modeled object in the design space in accordance with the one or more design criteria, the one or more in-use load cases for the physical structure, and the critical fatigue crack length for the material, wherein the iteratively modifying comprises enforcing a design criterion that limits a minimum thickness of the generatively designed three dimensional shape of the modeled object, the minimum thickness being based on the critical fatigue crack length for the material; and providing , by the computer aided design program, the generatively designed three dimensional shape of the modeled object for use in manufacturing the physical structure corresponding to the modeled object using one or more computer-controlled manufacturing systems.
A laminate comprising: a first half wave plate ; a second half wave plate ; and a positive C plate provided between the first half wave plate and the second half wave plate , characterized in that independently in each of the first half wave plate and the second half wave plate , an R o value is larger than an R o value, the R o means a front retardation value for light with a wavelength of 450 nm and the R o means the front retardation value for light with a wavelength of 550 nm, and the front retardation value R o is expressed by Equation 5 below: R o = n x − n y × d In Equation 5 above, n x represents a refractive index in a direction in which the in-plane refractive index of the first half wave plate or the second half wave plate becomes maximal, n y represents an in-plane refractive index in direction perpendicular to the n x -direction of the first half wave plate or the second half wave plate , and d represents a thickness of the first half wave plate or the second half wave plate . a first half wave plate ; a second half wave plate ; and a positive C plate provided between the first half wave plate and the second half wave plate , the R o means a front retardation value for light with a wavelength of 450 nm and the R o means the front retardation value for light with a wavelength of 550 nm, and the front retardation value R o is expressed by Equation 5 below: R o = n x − n y × d In Equation 5 above, n x represents a refractive index in a direction in which the in-plane refractive index of the first half wave plate or the second half wave plate becomes maximal, n y represents an in-plane refractive index in direction perpendicular to the n x -direction of the first half wave plate or the second half wave plate , and d represents a thickness of the first half wave plate or the second half wave plate . n x represents a refractive index in a direction in which the in-plane refractive index of the first half wave plate or the second half wave plate becomes maximal, n y represents an in-plane refractive index in direction perpendicular to the n x -direction of the first half wave plate or the second half wave plate , and d represents a thickness of the first half wave plate or the second half wave plate .
A method of shaping a laminated glass structure , the method comprising: providing the laminated glass structure comprising a flexible glass sheet having a thickness of no greater than about 0.3 mm laminated to a non-glass substrate by an adhesive material; and cutting the laminated glass structure thereby forming a shaped laminated glass structure; characterized by supporting the laminated glass structure on a support surface such that the non-glass substrate is located between the flexible glass sheet and the support surface, field cutting the laminated glass structure using a power tool thereby forming the shaped laminated glass structure , wherein the power tool comprises a cutting tool applying a compressive stress to the flexible glass sheet during the step of field cutting, wherein a glass edge strength of a cut edge of the shaped laminated glass structure is at least about 20 MPa. providing the laminated glass structure comprising a flexible glass sheet having a thickness of no greater than about 0.3 mm laminated to a non-glass substrate by an adhesive material; and cutting the laminated glass structure thereby forming a shaped laminated glass structure; characterized by supporting the laminated glass structure on a support surface such that the non-glass substrate is located between the flexible glass sheet and the support surface, field cutting the laminated glass structure using a power tool thereby forming the shaped laminated glass structure , wherein the power tool comprises a cutting tool applying a compressive stress to the flexible glass sheet during the step of field cutting, wherein a glass edge strength of a cut edge of the shaped laminated glass structure is at least about 20 MPa.
Damping layer element for a damping layer for flooring , the element comprising: - a frame which forms a first face of said element, said frame comprising a plurality of through openings ; said frame developing substantially on a plane comprising a longitudinal direction and a transversal direction; - a plurality of support bodies which protrude from said frame at opposite side with respect to said first face , each support body being arranged at a respective through opening of said plurality of through openings and bridging with structural continuity two attachment regions belonging to said frame and mutually opposite with respect to said respective through opening, wherein said two attachment regions are mutually opposite along the longitudinal direction , wherein, in a vertical plane perpendicular to said first face and comprising the longitudinal direction , each support body has between the two attachment regions an arc development with concavity facing towards said frame for at least part of said arc development, wherein each support body comprises two end portions respectively adjacent to said two attachment regions , wherein, in said vertical plane, each end portion of one or more support bodies forms, together with said first face of the frame at the respective attachment region , a respective attachment angle facing towards the respective support body , wherein said attachment angle is greater than or equal to 0° and less than or equal to 45°. - a frame which forms a first face of said element, said frame comprising a plurality of through openings ; said frame developing substantially on a plane comprising a longitudinal direction and a transversal direction; - a plurality of support bodies which protrude from said frame at opposite side with respect to said first face , each support body being arranged at a respective through opening of said plurality of through openings and bridging with structural continuity two attachment regions belonging to said frame and mutually opposite with respect to said respective through opening, wherein said two attachment regions are mutually opposite along the longitudinal direction , wherein, in a vertical plane perpendicular to said first face and comprising the longitudinal direction , each support body has between the two attachment regions an arc development with concavity facing towards said frame for at least part of said arc development, wherein each support body comprises two end portions respectively adjacent to said two attachment regions , wherein, in said vertical plane, each end portion of one or more support bodies forms, together with said first face of the frame at the respective attachment region , a respective attachment angle facing towards the respective support body , wherein said attachment angle is greater than or equal to 0° and less than or equal to 45°.