mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical fastener cartridge , comprising: a cartridge body including a deck configured to support tissue; a fastener cavity defined in said deck , wherein said fastener cavity comprises a first cavity end and a second cavity end, wherein said first cavity end comprises a first lateral sidewall and a second lateral sidewall , wherein said first lateral sidewall and said second lateral sidewall converge; and a fastener removably stored in said fastener cavity , comprising: a base; a first leg extending from said base, wherein said first leg is removably positioned in said first cavity end; and a second leg extending from said base, wherein said second leg is removably positioned in said second cavity end, characterized in that said first lateral sidewall and said second lateral sidewall are configured to hold said first leg away from said sidewall convergence such that a gap is present between said sidewall convergence and said first leg . a cartridge body including a deck configured to support tissue; a fastener cavity defined in said deck , wherein said fastener cavity comprises a first cavity end and a second cavity end, wherein said first cavity end comprises a first lateral sidewall and a second lateral sidewall , wherein said first lateral sidewall and said second lateral sidewall converge; and a fastener removably stored in said fastener cavity , comprising: a base; a first leg extending from said base, wherein said first leg is removably positioned in said first cavity end; and a second leg extending from said base, wherein said second leg is removably positioned in said second cavity end, characterized in that said first lateral sidewall and said second lateral sidewall are configured to hold said first leg away from said sidewall convergence such that a gap is present between said sidewall convergence and said first leg . a base; a first leg extending from said base, wherein said first leg is removably positioned in said first cavity end; and a second leg extending from said base, wherein said second leg is removably positioned in said second cavity end, characterized in that said first lateral sidewall and said second lateral sidewall are configured to hold said first leg away from said sidewall convergence such that a gap is present between said sidewall convergence and said first leg .
An all-solid-state battery comprising: a positive-electrode current collector ; a positive electrode layer which is formed on the positive-electrode current collector and includes a positive-electrode material mixture layer which includes at least a positive-electrode active material and a binder ; a negative-electrode current collector ; a negative electrode layer which is formed on the negative-electrode current collector and includes a negative-electrode material mixture layer which includes at least a negative-electrode active material and a binder ; and a solid electrolyte layer which is disposed between the positive-electrode material mixture layer and the negative-electrode material mixture layer , and includes at least a solid electrolyte having ion conductivity, wherein concentration of an organic solvent included in at least one layer selected from the group consisting of the positive-electrode material mixture layer and the negative-electrode material mixture layer is equal to or smaller than 50 ppm obtained by not using an organic solvent in its manufacturing process, and regarding concentration of the binder included in said at least one layer selected from the positive-electrode material mixture layer and the negative-electrode material mixture layer , a concentration gradient in the thickness direction of said at least one layer is such that the concentration in proximity to the negative-electrode current collector or the concentration in proximity to the positive-electrode current collector is higher than the concentration in proximity to the solid electrolyte layer . a positive-electrode current collector ; a positive electrode layer which is formed on the positive-electrode current collector and includes a positive-electrode material mixture layer which includes at least a positive-electrode active material and a binder ; a negative-electrode current collector ; a negative electrode layer which is formed on the negative-electrode current collector and includes a negative-electrode material mixture layer which includes at least a negative-electrode active material and a binder ; and a solid electrolyte layer which is disposed between the positive-electrode material mixture layer and the negative-electrode material mixture layer , and includes at least a solid electrolyte having ion conductivity, wherein concentration of an organic solvent included in at least one layer selected from the group consisting of the positive-electrode material mixture layer and the negative-electrode material mixture layer is equal to or smaller than 50 ppm obtained by not using an organic solvent in its manufacturing process, and regarding concentration of the binder included in said at least one layer selected from the positive-electrode material mixture layer and the negative-electrode material mixture layer , a concentration gradient in the thickness direction of said at least one layer is such that the concentration in proximity to the negative-electrode current collector or the concentration in proximity to the positive-electrode current collector is higher than the concentration in proximity to the solid electrolyte layer .
A device , comprising: one or more processors to: obtain a master calibration set as a basis for a master calibration model of a master instrument , the master calibration set including spectra, for a set of samples, generated by the master instrument ; identify a selected set of master calibrants for a subset of the set of samples; obtain a selected set of target calibrants from a target instrument , the selected set of target calibrants including spectra, for the subset of the set of samples, generated by the target instrument ; create a transfer set for the subset of the set of samples, the transfer set including the selected set of master calibrants and the selected set of target calibrants; create a target calibration set, including spectra for the set of samples, based on the transfer set; and generate , a transferred calibration model by applying a support vector regression modelling technique to the target calibration set and optimizing the transferred calibration model by using an optimization technique for use with the target instrument. obtain a master calibration set as a basis for a master calibration model of a master instrument , the master calibration set including spectra, for a set of samples, generated by the master instrument ; identify a selected set of master calibrants for a subset of the set of samples; obtain a selected set of target calibrants from a target instrument , the selected set of target calibrants including spectra, for the subset of the set of samples, generated by the target instrument ; create a transfer set for the subset of the set of samples, the transfer set including the selected set of master calibrants and the selected set of target calibrants; create a target calibration set, including spectra for the set of samples, based on the transfer set; and generate , a transferred calibration model by applying a support vector regression modelling technique to the target calibration set and optimizing the transferred calibration model by using an optimization technique for use with the target instrument.
A dentifrice comprising scutellaria root, rehmannia root and platycodon root, wherein a content ratio of the scutellaria root in the dentifrice is 0.0001 mass% or more and 2 mass% or less, a content ratio of the platycodon root in the dentifrice is 0.0001 mass% or more and 2 mass% or less, and a content ratio of the rehmannia root in the dentifrice is 0.001 mass% or more and 2 mass% or less.
Floor panel , which comprises a substrate and a top layer provided above, and preferably directly above, the substrate , wherein the top layer comprises a decor layer , a thermoplastic wear layer , and a lacquer layer provided above, and preferably directly above, the wear layer , and wherein the floor panel has an upper surface showing a relief , characterized in that the relief has a maximum relief depth (T1) which is larger than 200 microns, and that the wear layer and the lacquer layer are embossed together in order to form the relief .
A method comprising: receiving, by a first stationary low energy central device from a mobile peripheral device , first user location information when the mobile peripheral device is within a threshold proximity of the first stationary low energy central device , wherein the first stationary low energy central device is one of a plurality of low energy central devices and wherein each of the stationary low energy central devices of the plurality of low energy central devices is associated with a respective location; receiving, by a set-top box comprising a second stationary low energy central device of the plurality of low energy central devices from the mobile peripheral device , second user location information when the mobile peripheral device is within a threshold proximity of the second stationary low energy central device ; generating, by a computing device based on the first user location information and the second user location information, a user location profile comprising location information relating to a user having visited each of the stationary low energy central devices at the respective location; determining a user preference associated with the mobile peripheral device; and generating an event to cause a notification to be output at a television associated with the set-top box and to a user of the mobile peripheral device based on the user preference and the user location profile. receiving, by a first stationary low energy central device from a mobile peripheral device , first user location information when the mobile peripheral device is within a threshold proximity of the first stationary low energy central device , wherein the first stationary low energy central device is one of a plurality of low energy central devices and wherein each of the stationary low energy central devices of the plurality of low energy central devices is associated with a respective location; receiving, by a set-top box comprising a second stationary low energy central device of the plurality of low energy central devices from the mobile peripheral device , second user location information when the mobile peripheral device is within a threshold proximity of the second stationary low energy central device ; generating, by a computing device based on the first user location information and the second user location information, a user location profile comprising location information relating to a user having visited each of the stationary low energy central devices at the respective location; determining a user preference associated with the mobile peripheral device; and generating an event to cause a notification to be output at a television associated with the set-top box and to a user of the mobile peripheral device based on the user preference and the user location profile.
Instrument cluster of a motor vehicle, comprising at least one analogue or digital display device for displaying operation-related and/or traffic-related information relating to the motor vehicle or its environment, and a plurality of control lights arranged next to or above one another, characterized in that the control lights (8a; 8b; 8c; 8d; 8e; 8f; 8g; 8h) arranged next to or above one another are formed by a single OLED strip , the OLED strip being subdivided into a plurality of separately controllable illumination segments , each illumination segment forming one of the control lights (8a; 8b; 8c; 8d; 8e; 8f; 8g; 8h).
Method for operating a portable electronic device, comprising sensing a temperature (T S ) with a temperature sensor of the portable electronic device, determining a compensated temperature (T A ) for a given location of the portable electronic device dependent on at least the sensed temperature (T S ), information (P i ) related to electrical power consumed by at least one heat source of the portable electronic device, and internal states (x(k)) of a compensation model for determining the compensated temperature (T A ), characterized by at an interruption of an operation of the temperature sensor storing last internal states (x(a)) of the compensation model , at a reactivation of the operation of the temperature sensor estimating actual internal states (x(b)) of the compensation model dependent on the stored last internal states (x(a)), dependent on an estimated course of the sensed temperature (T* S ) between the interruption and the reactivation, and dependent on an estimated course of the information (P* i ) related to the electrical power consumed by the at least one heat source between the interruption and the reactivation, wherein the last internal states (x(a)) are stored in a non-volatile memory of the portable electronic device, and wherein the estimated course of the sensed temperature (T* S ) and the estimated course of the information (P* i ) are predefined and are stored in the non-volatile memory.
Semifinished profile for use as a current conductor produced from an aluminium alloy as an extruded profile with an upper side and an underside comprising - an upper arcuate outer portion , arranged on the upper side , and - a lower, in particular arcuate outer portion , arranged on the underside , or two lower, in particular arcuate outer portions , arranged on the underside, and - an upper inner portion , arranged at a distance from the upper outer portion , and - a lower inner portion, arranged at a distance from the lower outer portion or respectively from the lower outer portions ; the upper outer portion having two free ends and reaching over the lower outer portion or respectively the lower outer portions ; and the upper inner portion forming a closed form with the lower inner portion or the upper inner portion reaching over the lower inner portion . - an upper arcuate outer portion , arranged on the upper side , and - a lower, in particular arcuate outer portion , arranged on the underside , or two lower, in particular arcuate outer portions , arranged on the underside, and - an upper inner portion , arranged at a distance from the upper outer portion , and - a lower inner portion, arranged at a distance from the lower outer portion or respectively from the lower outer portions ; the upper outer portion having two free ends and reaching over the lower outer portion or respectively the lower outer portions ; and the upper inner portion forming a closed form with the lower inner portion or the upper inner portion reaching over the lower inner portion .
A pouch container aligned structure comprising a plurality of pouch containers aligned in one direction, each of the pouch containers comprising a pair of body sheets joined to each other on both side edges in a width direction of the body sheet, a bottom sheet joined to lower end regions of the pair of body sheets, a top sheet joined to upper end regions of the pair of body sheets, and a spout mounted on the top sheet , wherein; each of the pouch containers has a folded body part formed by folding, substantially in a V shape, the upper end region of one body sheet in the pair of body sheets, wherein an edge region on one side of the top sheet is joined to the upper end region of the one body sheet in the pair of body sheets, to thereby form the folded body part together with the upper end region, while an edge region on the other side of the top sheet is joined to the upper end region of the other body sheet in the pair of body sheets, to thereby form a container tip end part , characterized in that each of the pouch containers is aligned in a state where the folded body part of one of the pouch containers receives an insertion of the container tip end part of another one of the pouch containers.
A computer-implemented method for setting access permissions on a resource based on location information, the method comprising: receiving a permission update request to update permissions for an identified resource to include location-based permission information; locating the identified resource; locating access control information associated with the identified resource; determining one or more allowed actions from the location-based permission information accompanying the request, wherein the location-based permission information includes at least geographic location information defining a geographic region upon which the location based permission is applied; updating the located access control information to include the allowed location-based actions; and storing the updated access control information associated with the identified resource, so that subsequent attempts to access the identified resource by a computing device will be subject to the specified location-based access information, wherein a location certificate from a global positioning system, GPS, and/or trusted platform module, TPM, hardware indicates a current geographic location of the computing device, wherein the preceding steps are performed by at least one processor. receiving a permission update request to update permissions for an identified resource to include location-based permission information; locating the identified resource; locating access control information associated with the identified resource; determining one or more allowed actions from the location-based permission information accompanying the request, wherein the location-based permission information includes at least geographic location information defining a geographic region upon which the location based permission is applied; updating the located access control information to include the allowed location-based actions; and storing the updated access control information associated with the identified resource, so that subsequent attempts to access the identified resource by a computing device will be subject to the specified location-based access information, wherein a location certificate from a global positioning system, GPS, and/or trusted platform module, TPM, hardware indicates a current geographic location of the computing device, wherein the preceding steps are performed by at least one processor.
A handheld electronic vaporizing device, comprising: a body defining a cavity ; a mouthpiece connected to said body; an electroconductive textile heating element ; a reservoir ; a power element ; a power connect element ; a capacitive touch sensor element ; a light element ; a first air inlet opening disposed on an outer surface of said body and provided with a first valve ; a second opening configured to allow aerosol to enter said mouthpiece and provided with a second valve , wherein said first valve and said second valve are opened by negative pressure in said mouthpiece and closed otherwise; and an outlet opening provided at an end of said mouthpiece opposing the end having the second opening , wherein the heating element, the reservoir, the power element and the power connect element are disposed inside the cavity. a body defining a cavity ; a mouthpiece connected to said body; an electroconductive textile heating element ; a reservoir ; a power element ; a power connect element ; a capacitive touch sensor element ; a light element ; a first air inlet opening disposed on an outer surface of said body and provided with a first valve ; a second opening configured to allow aerosol to enter said mouthpiece and provided with a second valve , wherein said first valve and said second valve are opened by negative pressure in said mouthpiece and closed otherwise; and an outlet opening provided at an end of said mouthpiece opposing the end having the second opening , wherein the heating element, the reservoir, the power element and the power connect element are disposed inside the cavity.
A display device, comprising: a driving gate electrode ; a scan line being spaced apart from the driving gate electrode and extending in a first direction; a first data line to transmit a data signal, the first data line crossing the scan line; a driving voltage line to transmit a driving voltage, the driving voltage line crossing the scan line; a semiconductor member including a first channel region overlapping the driving gate electrode ; and a control line having two opposing edges extending parallel to each other in a plan view, the control line including a first portion and a second portion connected to each other, wherein: the two opposing edges of the first portion extends in the first direction, and the semiconductor member further includes a first vertical portion extending in a second direction perpendicular to the first direction, characterized in that the two opposing edges are curved at a point between the first portion and the second portion near the first vertical portion, an imaginary straight extension of the first portion does not pass the second portion, and the semiconductor member further includes a second channel region overlapping the second portion. a driving gate electrode ; a scan line being spaced apart from the driving gate electrode and extending in a first direction; a first data line to transmit a data signal, the first data line crossing the scan line; a driving voltage line to transmit a driving voltage, the driving voltage line crossing the scan line; a semiconductor member including a first channel region overlapping the driving gate electrode ; and a control line having two opposing edges extending parallel to each other in a plan view, the control line including a first portion and a second portion connected to each other, wherein: the two opposing edges of the first portion extends in the first direction, and the semiconductor member further includes a first vertical portion extending in a second direction perpendicular to the first direction, characterized in that the two opposing edges are curved at a point between the first portion and the second portion near the first vertical portion, an imaginary straight extension of the first portion does not pass the second portion, and the semiconductor member further includes a second channel region overlapping the second portion. the two opposing edges of the first portion extends in the first direction, and the semiconductor member further includes a first vertical portion extending in a second direction perpendicular to the first direction, characterized in that the two opposing edges are curved at a point between the first portion and the second portion near the first vertical portion, an imaginary straight extension of the first portion does not pass the second portion, and the semiconductor member further includes a second channel region overlapping the second portion.