mhurhangee/ep-ind-claims huggingface dataset:
A physical host computer (100, 400) for operating a virtual machine, comprising: a first storage region (410, 910) of the physical host computer configured to store a first secure boot policy instance (411, 911); a second storage region (460, 920) of the virtual machine operating on the host, the second storage region being configured to store a second secure boot policy instance (461, 921) and is in a local storage region of the virtual machine; a secure boot subsystem configured to subject the virtual machine to a secure boot process using the second secure boot policy instance stored by the second storage region; a secure boot policy update subsystem configured to apply (501, 502) security boot policy updates to the first secure boot policy instance stored by the first storage region; and a secure boot policy synchronization subsystem configured to selectively replace the second secure boot policy instance stored by the second storage region with the first secure boot policy instance stored by the first storage region after the secure boot policy updates have been applied to the first secure boot policy instance; and a virtual trusted platform module of the virtual machine, the virtual trusted platform module configured to cause suspension of a selected instance of the secure boot process when selected information including the contents of the second storage region differ to at least a threshold degree between the selected instance of the secure boot process and an instance of the process immediately preceding the selected instance of the secure boot process. a first storage region (410, 910) of the physical host computer configured to store a first secure boot policy instance (411, 911); a second storage region (460, 920) of the virtual machine operating on the host, the second storage region being configured to store a second secure boot policy instance (461, 921) and is in a local storage region of the virtual machine; a secure boot subsystem configured to subject the virtual machine to a secure boot process using the second secure boot policy instance stored by the second storage region; a secure boot policy update subsystem configured to apply (501, 502) security boot policy updates to the first secure boot policy instance stored by the first storage region; and a secure boot policy synchronization subsystem configured to selectively replace the second secure boot policy instance stored by the second storage region with the first secure boot policy instance stored by the first storage region after the secure boot policy updates have been applied to the first secure boot policy instance; and a virtual trusted platform module of the virtual machine, the virtual trusted platform module configured to cause suspension of a selected instance of the secure boot process when selected information including the contents of the second storage region differ to at least a threshold degree between the selected instance of the secure boot process and an instance of the process immediately preceding the selected instance of the secure boot process.
A method for secure lifecycle tracking information of a microchip using e-fuses, whereas the microchip is identified with a unique key, the lifecycle tracking information is monitored by a counter value of a counter unit and counter values are stored on the microchip by setting e-fuse bits in e-fuses, wherein by means of a permutation performed by a deterministic algorithm using the microchip unique key as a random seed, the e-fuse bits representing e-fuse values are shuffled and re-mapped to the counter values, thereby enabling the e-fuse values to be uniquely assigned to the counter values.
A device for orbital processing of ends and non-rotating butt joints of a pipe configured for installation and movement around an outer surface of the pipe and comprising a clamping device and a flexible composite carriage consisting of at least two components (2, 3; 4; 23) joined together via a pivotal connection and configured to pivot only around a pivot pin of the pivotal connection lying parallel to an axis of the pipe, wherein each component of the flexible composite carriage comprises a group of at least two coaxial supporting rollers, an axis of which is situated at a distance from the pivotal connection that is less than or equal to 1/3 of a distance between the pivotal connections of the components and is parallel to the axis of the pipe, and wherein the components (2, 3, 4, 23) of the flexible composite carriage are connected to each other in series in such a way that each component bears on two groups of supporting rollers, - one of which is mounted on the component itself, and the other is mounted on an adjacent component, and one of two end components of the carriage bears on an additional group of supporting rollers installed on the said component or on the clamping device as an open chain of individual links, and wherein at least one component (2; 4) of the flexible composite carriage is equipped with a supporting-driven roller and a drive mechanism with a torque source configured to move the flexible composite carriage along the pipe surface around its axis by means of driven rollers, and wherein at least one component of the flexible composite carriage has at least one functional unit for pipe processing.
An apparatus for manufacturing a composite article from a composite material, the apparatus comprising: a pulsed broadband radiation source comprising a flashlamp; a light guide adapted to guide light emitted by the pulsed broadband radiation source to a target area; and an actuator to move one or more of the pulsed broadband radiation source and the light guide or a portion thereof, wherein the light guide comprises at least a portion ahead of the pulsed broadband radiation source, relative to the target area, comprising a light transmitting material. a pulsed broadband radiation source comprising a flashlamp; a light guide adapted to guide light emitted by the pulsed broadband radiation source to a target area; and an actuator to move one or more of the pulsed broadband radiation source and the light guide or a portion thereof, wherein the light guide comprises at least a portion ahead of the pulsed broadband radiation source, relative to the target area, comprising a light transmitting material.
A rotor yoke for a helicopter, comprising: a blade attachment portion; a mast attachment portion; an intermediate portion extending between the blade attachment portion and the mast attachment portion, wherein the intermediate portion, the blade attachment portion, and the mast attachment portion define an inner edge, such that the inner edge defines an opening; and a peripheral, outer edge extending about the blade attachment portion, the intermediate portion, and the mast attachment portion; wherein both the outer edge and the inner edge include reduced thickness portions exhibiting thicknesses that are less than thicknesses of portions of the rotor yoke adjacent the reduced thickness portions, Characterized in that the reduced thickness portion is frustotriangular in cross section and extends substantially along an entirety of the outer edge and the inner edge. a blade attachment portion; a mast attachment portion; an intermediate portion extending between the blade attachment portion and the mast attachment portion, wherein the intermediate portion, the blade attachment portion, and the mast attachment portion define an inner edge, such that the inner edge defines an opening; and a peripheral, outer edge extending about the blade attachment portion, the intermediate portion, and the mast attachment portion; wherein both the outer edge and the inner edge include reduced thickness portions exhibiting thicknesses that are less than thicknesses of portions of the rotor yoke adjacent the reduced thickness portions, Characterized in that the reduced thickness portion is frustotriangular in cross section and extends substantially along an entirety of the outer edge and the inner edge.
A thin-film transistor comprising: a substrate; a gate electrode on the substrate; a gate insulating film on the gate electrode; an active layer on said gate insulating film, including at least one semiconductor material part and at least one carbon allotrope part, a source electrode in contact with the active layer, a drain electrode in contact with the active layer, wherein the total number of the semiconductor material parts and the carbon allotrope parts is three or five, wherein the at least one semiconductor material part and the at least one carbon allotrope part are alternately arranged in the same plane in the active layer between the source electrode and the drain electrode, so that either two semiconductor material parts or two carbon allotrope parts are in contact with the source electrode and the drain electrode, wherein the at least one carbon allotrope part comprises a carbon allotrope selected from the group consisting of reduced graphene oxide (rGO), unoxidized graphene, graphene nanoribbons, carbon nanotube and mixtures thereof. a substrate; a gate electrode on the substrate; a gate insulating film on the gate electrode; an active layer on said gate insulating film, including at least one semiconductor material part and at least one carbon allotrope part, a source electrode in contact with the active layer, a drain electrode in contact with the active layer, wherein the total number of the semiconductor material parts and the carbon allotrope parts is three or five, wherein the at least one semiconductor material part and the at least one carbon allotrope part are alternately arranged in the same plane in the active layer between the source electrode and the drain electrode, so that either two semiconductor material parts or two carbon allotrope parts are in contact with the source electrode and the drain electrode, wherein the at least one carbon allotrope part comprises a carbon allotrope selected from the group consisting of reduced graphene oxide (rGO), unoxidized graphene, graphene nanoribbons, carbon nanotube and mixtures thereof. wherein the total number of the semiconductor material parts and the carbon allotrope parts is three or five, wherein the at least one semiconductor material part and the at least one carbon allotrope part are alternately arranged in the same plane in the active layer between the source electrode and the drain electrode, so that either two semiconductor material parts or two carbon allotrope parts are in contact with the source electrode and the drain electrode, wherein the at least one carbon allotrope part comprises a carbon allotrope selected from the group consisting of reduced graphene oxide (rGO), unoxidized graphene, graphene nanoribbons, carbon nanotube and mixtures thereof.
An immunoassay method for performing diagnosis by detecting a target protein from a sample to be diagnosed by using an antibody containing patch comprising a mesh structural body configured to have micro-sized or nano-sized cavities in which antibodies that react specifically with a target protein are contained, the immunoassay method comprising: placing the sample to be diagnosed in a reaction region; and providing the antibodies that react specifically with a target protein to the reaction region by using the antibody containing patch, wherein the providing the antibodies that react specifically with a target protein to the reaction region by using the antibody containing patch comprises: contacting the antibody containing patch with the reaction region to provide a portion of the contained antibodies to the reaction region; and separating the antibody containing patch from the reaction region to absorb a portion of the provided antibodies that have not reacted specifically with the target protein into the patch. placing the sample to be diagnosed in a reaction region; and providing the antibodies that react specifically with a target protein to the reaction region by using the antibody containing patch, wherein the providing the antibodies that react specifically with a target protein to the reaction region by using the antibody containing patch comprises: contacting the antibody containing patch with the reaction region to provide a portion of the contained antibodies to the reaction region; and separating the antibody containing patch from the reaction region to absorb a portion of the provided antibodies that have not reacted specifically with the target protein into the patch. contacting the antibody containing patch with the reaction region to provide a portion of the contained antibodies to the reaction region; and separating the antibody containing patch from the reaction region to absorb a portion of the provided antibodies that have not reacted specifically with the target protein into the patch.
A method of operating point determination, an operating point being a combination of a processing unit operating frequency and a bus bandwidth, the method comprising: determining a first active time of a processing unit (6, 12) at a first operating point; determining a first stall time of the processing unit at the first operating point; determining a second active time of the processing unit based on the first active time at a second operating point; determining a second stall time of the processing unit based on the first stall time at the second operating point; determining whether to adjust an operating point of the processing unit from the first operating point to the second operating point based on the second active time and the second stall time; and adjusting the operating point of the processing unit from the first operating point to the second operating point based on the determination to adjust the operating point of the processing unit. determining a first active time of a processing unit (6, 12) at a first operating point; determining a first stall time of the processing unit at the first operating point; determining a second active time of the processing unit based on the first active time at a second operating point; determining a second stall time of the processing unit based on the first stall time at the second operating point; determining whether to adjust an operating point of the processing unit from the first operating point to the second operating point based on the second active time and the second stall time; and adjusting the operating point of the processing unit from the first operating point to the second operating point based on the determination to adjust the operating point of the processing unit.
A dispenser for spraying a fluid pharmaceutical or other medical treatment onto a body part of a human or animal, wherein said dispenser comprises apertures (28, 52) in a hoop, C- or U- structure from which apertures the fluid may be sprayed onto a body part placed in the dispenser and wherein the apertures are connected to a source of the pharmaceutical or other medical treatment to be dispensed under pressure (31, 60) through a manifold, and having one or a plurality of tubes (23, 23A, 23B, 23C, 23D) within grooves in the structure connecting the manifold to the apertures and in which the flow rate of the fluid from one aperture is substantially the same as that from another aperture located further away from the source of fluid under pressure.
A method for manufacturing a security element, comprising the steps of: a) supplying a first structurable layer on a substrate, b) producing a first microstructure in a front side of the first structurable layer, c) applying a first reflector layer to the first microstructure in a first pattern, which is recognizable in plan view of the front side, wherein the first reflector layer is applied by printing in the first pattern with a homogeneous thickness (d), characterized by the further step of: d) removing the first reflector layer by means of laser ablation, wherein a gap in the form of a second pattern, which is recognizable in plan view of the front side, is produced in the first reflector layer, and that the substrate has a transparent or translucent portion which is arranged below the first structurable layer, wherein the first reflector layer is removed such that the second pattern is recognizable in transmission through the portion. a) supplying a first structurable layer on a substrate, b) producing a first microstructure in a front side of the first structurable layer, c) applying a first reflector layer to the first microstructure in a first pattern, which is recognizable in plan view of the front side, wherein the first reflector layer is applied by printing in the first pattern with a homogeneous thickness (d), characterized by the further step of: d) removing the first reflector layer by means of laser ablation, wherein a gap in the form of a second pattern, which is recognizable in plan view of the front side, is produced in the first reflector layer, and
A method of manufacturing a lens (1, 2) that has a front face and a rear face, lens into which light beams emitted by an optical element of a light beam generator system are introduced via an entry surface (S 1) of an optical insert (1A, 2A, I) and directed towards the eye of the wearer to enable information content to be viewed, by means of said transparent optical insert (1A, 2A, I) constituted by a light guide, said insert having a form substantially identical to that of a final lens suitable for being positioned in a frame of a support, the method being characterized in that it comprises the steps of: manufacturing said insert with a form smaller than that of said final lens according to a proportional transformation, manufacturing a lens blank by association of a plastic material forming said front face and forming said rear face with said insert, said insert being between said front face and said rear face, cutting said lens blank around said insert and with a distance from the edges of said insert which is around 1 mm for at least 50% of the periphery of said insert. manufacturing said insert with a form smaller than that of said final lens according to a proportional transformation, manufacturing a lens blank by association of a plastic material forming said front face and forming said rear face with said insert, said insert being between said front face and said rear face, cutting said lens blank around said insert and with a distance from the edges of said insert which is around 1 mm for at least 50% of the periphery of said insert.
Method for manufacturing a horological component comprising the following steps: a) providing a wafer comprising a first silicon layer, a second silicon layer and, in between, an intermediate silicon oxide layer; b) etching the first silicon layer to form therein a first part of the horological component and the second silicon layer to form therein a second part of the horological component; c) eliminating the intermediate silicon oxide layer between an element of the first part and an element of the second part; characterised in that it comprises the following additional steps: d) thermally oxidising said elements (4, 5) without them coming into contact with each other, and then deoxidising said elements (4, 5); e) repeating step d) one or more times until a predetermined distance between said elements (4, 5) is obtained; and in that it comprises at least one of the following features (i) to (v): (i) said elements (4, 5) are two crossed elastic blades and the oxidation of step d) leads to the formation of a silicon oxide layer around said blades; (ii) steps d) and e) are carried out while the horological component is still attached to the wafer by silicon material bridges left during etching; (iii) the intermediate silicon oxide layer has a thickness of 3 μm; (iv) the wafer is a multiple substrate on insulator; (v) the horological component is a lever, a rocker, a rake, a finger or a wheel. a) providing a wafer comprising a first silicon layer, a second silicon layer and, in between, an intermediate silicon oxide layer; b) etching the first silicon layer to form therein a first part of the horological component and the second silicon layer to form therein a second part of the horological component; c) eliminating the intermediate silicon oxide layer between an element of the first part and an element of the second part; d) thermally oxidising said elements (4, 5) without them coming into contact with each other, and then deoxidising said elements (4, 5); e) repeating step d) one or more times until a predetermined distance between said elements (4, 5) is obtained; (i) said elements (4, 5) are two crossed elastic blades and the oxidation of step d) leads to the formation of a silicon oxide layer around said blades; (ii) steps d) and e) are carried out while the horological component is still attached to the wafer by silicon material bridges left during etching; (iii) the intermediate silicon oxide layer has a thickness of 3 μm; (iv) the wafer is a multiple substrate on insulator; (v) the horological component is a lever, a rocker, a rake, a finger or a wheel.
A monoclonal antibody which binds human epidermal growth factor receptor 2 and which comprises a VH region comprising the CDR1, CDR2, and CDR3 sequences of SEQ ID NOs:2, 3, and 4, respectively, and a VL region comprising the CDR1, CDR2, and CDR3 sequences of SEQ ID NO:6, DAS, and SEQ ID NO: 7, respectively (mAb 169).
A shovel comprising: a traveling undercarriage configured to travel; an upper rotating structure swingably mounted on the traveling undercarriage; an attachment attached to the upper rotating structure and including a boom, an arm, and an end attachment; a sensor (S1, S2, S3, S4) for detecting information for calculating attitude information of the end attachment; and a display device configured to display the attitude information of the end attachment, characterized in that the display device is configured to display the attitude information of the end attachment relative to a target surface in a three-dimensional model that enables three-dimensional visual recognition thereof, and the three-dimensional model turns in accordance with a relative angle of the end attachment to the target surface. a traveling undercarriage configured to travel; an upper rotating structure swingably mounted on the traveling undercarriage; an attachment attached to the upper rotating structure and including a boom, an arm, and an end attachment; a sensor (S1, S2, S3, S4) for detecting information for calculating attitude information of the end attachment; and a display device configured to display the attitude information of the end attachment, characterized in that the display device is configured to display the attitude information of the end attachment relative to a target surface in a three-dimensional model that enables three-dimensional visual recognition thereof, and the three-dimensional model turns in accordance with a relative angle of the end attachment to the target surface.