mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting and quantifying target analytes of interest in a specimen of liquid obtained from a parent solution, said parent solution having an unknown concentration of analytes to be determined, the liquid being able to evaporate in an atmosphere (Atm) in specified conditions of evaporation, the method comprising the following steps: b1) depositing the specimen on a substrate having a micro- or nano-structured surface defining analyte capture probes, so that the liquid specimen at least partially covers the structured surface of the substrate; b2) depositing a functionalized and/or structured plate in contact with the liquid specimen, for enclosing the latter between the substrate and the plate; c) causing controlled evaporation of the specimen in the vicinity (V T) of a liquid/substrate/atmosphere triple line, constituted by the interface between the liquid of the specimen, the atmosphere and the substrate, in such a way that this triple line moves, at a controlled speed, over the structured surface of the substrate, as the liquid evaporates into the atmosphere, and so that the target analytes are captured, by convective, capillary assembly directed toward the probes; d) analyzing the structured surface of the substrate obtained after step c). b1) depositing the specimen on a substrate having a micro- or nano-structured surface defining analyte capture probes, so that the liquid specimen at least partially covers the structured surface of the substrate; b2) depositing a functionalized and/or structured plate in contact with the liquid specimen, for enclosing the latter between the substrate and the plate; c) causing controlled evaporation of the specimen in the vicinity (V T) of a liquid/substrate/atmosphere triple line, constituted by the interface between the liquid of the specimen, the atmosphere and the substrate, in such a way that this triple line moves, at a controlled speed, over the structured surface of the substrate, as the liquid evaporates into the atmosphere, and so that the target analytes are captured, by convective, capillary assembly directed toward the probes; d) analyzing the structured surface of the substrate obtained after step c).
A cam follower, comprising: - a tappet having a cylindrical outer surface centered on a longitudinal axis and adapted to slide in a housing surrounding the tappet, - a pin extending between two opposite ends along a transverse axis perpendicular to the longitudinal axis, - a roller element movable in rotation relative to the pin around the transverse axis and adapted to roll on a cam, and - an antirotation member for preventing a rotation of the tappet around the longitudinal axis in the housing, the antirotation member being overmoulded onto the tappet, or the tappet being overmoulded onto the antirotation member, the cam follower further comprising a support element mounted in the tappet and supporting the pin, wherein the support element is fitted in recesses (63, 64) formed in the tappet, and wherein each pin end is mounted between a half-cylindrical section formed in the tappet and a half-cylindrical section formed in the support element. - a tappet having a cylindrical outer surface centered on a longitudinal axis and adapted to slide in a housing surrounding the tappet, - a pin extending between two opposite ends along a transverse axis perpendicular to the longitudinal axis, - a roller element movable in rotation relative to the pin around the transverse axis and adapted to roll on a cam, and - an antirotation member for preventing a rotation of the tappet around the longitudinal axis in the housing,
A task resource scheduling method, comprising: determining priority levels and set task deadline times of multiple tasks; determining a preset resource upper bound for a computing cluster executing the multiple tasks; and scheduling a successive order of executing the multiple tasks based on the task priority levels and a comparison between the preset resource upper bound and a sum of the amount of resources of the computing cluster being occupied by each overlapping task in a section on a time series where more than one task overlaps, so that the scheduled tasks satisfy a first condition, the first condition being that a time resource conflict does not exist between tasks, the time resource conflict being that a section exists on a time series where more than one task overlaps, and a sum of the resources occupied in the section having the overlap is greater than the resource upper bound. determining priority levels and set task deadline times of multiple tasks; determining a preset resource upper bound for a computing cluster executing the multiple tasks; and scheduling a successive order of executing the multiple tasks based on the task priority levels and a comparison between the preset resource upper bound and a sum of the amount of resources of the computing cluster being occupied by each overlapping task in a section on a time series where more than one task overlaps, so that the scheduled tasks satisfy a first condition, the first condition being that a time resource conflict does not exist between tasks, the time resource conflict being that a section exists on a time series where more than one task overlaps, and a sum of the resources occupied in the section having the overlap is greater than the resource upper bound.
A secure portable object of the smart card type comprising (a) an object body and (b) a micro-module comprising a processor and one or more memories in which a first and a second application are stored, characterised in that it further comprises a first and second execution engine capable of executing the said first and second application, and in that the said first application is executed by the said first execution engine in a first execution space and the said second application is executed by the said second execution engine in a second execution space distinct from the first execution space, the first and second execution engines, each corresponding to an interpreter capable of interpreting instructions from a smart card application and executing them in an execution space, an execution space being defined by a virtual machine, the first execution engine being distinct from the second execution engine having a secondary characteristic distinct from the first execution engine, the secondary characteristic being that the second execution engine implements additional security measures designed to prevent an application executed by the second execution engine from making memory accesses outside a portion of memory allocated to the second application. (a) an object body and (b) a micro-module comprising a processor and one or more memories in which a first and a second application are stored, characterised in that
A friction material comprising a fiber base material, a friction modifier and a binder, wherein the friction modifier comprises two or more kinds of titanate compounds, at least one of the two or more kinds of titanate compounds is a porous titanate compounds, wherein the porous titanate compound has a median diameter of 70 to 200 μm, and wherein the at least one titanate compound other than the porous titanate compound has a median diameter of 20 to 60 μm, and the friction material comprises no copper component.
Sensor device and circuit arrangement for measuring moisture and temperature, - wherein the sensor device consists of an electrically conductive semiconductor carrier substrate (1; 11) with a capacitive moisture sensor (10.1), which is arranged on said substrate and comprises a bottom electrode (3; 13), a moisture-permeable top electrode (5; 15) and a moisture-sensitive dielectric (4; 14) arranged between bottom and top electrodes (3, 13; 5, 15) and in which the bottom electrode (3; 13) consists of a material having a defined temperature-dependent resistance characteristic and is applied on a passivation layer (2; 12) arranged on the semiconductor carrier substrate (1; 11) and - wherein the circuit arrangement functions both as a temperature measuring circuit arrangement and as a moisture measuring circuit arrangement, and - the bottom electrode (3; 13) here is furthermore part of the temperature measuring circuit arrangement, and - the bottom electrode (3; 13) is furthermore part of a reference capacitance (10.2) of the moisture measuring circuit arrangement, which serves for evaluation of the moisture sensor (10.1), wherein the reference capacitance (10.2) comprises the bottom electrode (3; 13), the semiconductor carrier substrate (1; 11) and the passivation layer (2; 12). - wherein the sensor device consists of an electrically conductive semiconductor carrier substrate (1; 11) with a capacitive moisture sensor (10.1), which is arranged on said substrate and comprises a bottom electrode (3; 13), a moisture-permeable top electrode (5; 15) and a moisture-sensitive dielectric (4; 14) arranged between bottom and top electrodes (3, 13; 5, 15) and in which the bottom electrode (3; 13) consists of a material having a defined temperature-dependent resistance characteristic and is applied on a passivation layer (2; 12) arranged on the semiconductor carrier substrate (1; 11) and - wherein the circuit arrangement functions both as a temperature measuring circuit arrangement and as a moisture measuring circuit arrangement, and - the bottom electrode (3; 13) here is furthermore part of the temperature measuring circuit arrangement, and - the bottom electrode (3; 13) is furthermore part of a reference capacitance (10.2) of the moisture measuring circuit arrangement, which serves for evaluation of the moisture sensor (10.1), wherein the reference capacitance (10.2) comprises the bottom electrode (3; 13), the semiconductor carrier substrate (1; 11) and the passivation layer (2; 12).
A variable stiffness spherical hinge, comprising a spherical hinge main body and an outer layer sleeve sheathed on the spherical hinge main body, wherein: an annular sealed space is formed between the spherical hinge main body and the outer layer sleeve along the circumferential direction, and the annular sealed space extends deep into a rubber layer of the spherical hinge main body; an annular stop is arranged in the annular sealed space, and the annular sealed space is not fully filled by the annular stop; an annular gap is formed between the spherical hinge main body and the annular stop along the axial direction, and the minimum radial width of the annular gap is X, with 0.5 mm<X<10 mm, and wherein the spherical hinge main body comprises a mandrel, a rubber layer and an inner layer sleeve which are vulcanized and bonded in sequence from inside to outside, and the annular sealed space extends from the inner layer sleeve deep into the rubber layer along radial direction, characterized in that the inner layer sleeve is composed of two annular metal sleeves (15.1) which are arranged symmetrically, the rubber layer has an annular notch (14.1) in circumferential direction, the annular metal sleeves (15.1) are arranged on the left and right sides of the annular notch (14.1), the outer layer sleeve is sheathed on the annular metal sleeves (15.1) to seal the annular notch (14.1) and form the annular sealed space, an inner layer annular step is formed between the edges of the inner end of each annular metal sleeve (15.1) and the outer end of the annular notch (14.1), and the edges of both ends of the annular stop are step-shape edges corresponding to the inner layer annular step, and the edges of the inner ends of the annular metal sleeves (15.1) are in a step shape and form an outer layer annular step connected with the inner layer annular step, and the edges of both ends of the annular stop are a double-step-shape edges corresponding to the inner layer annular step and the outer layer annular step.
A transparent substrate provided with a multilayer thin film, comprising: a transparent substrate; a first stack positioned on the transparent substrate and including at least one dielectric layer; a first metallic functional layer positioned on the first stack and having an infrared reflective property; a second stack positioned on the first metallic functional layer and including at least one dielectric layer; a visible light absorbing layer positioned on the second stack; a third stack positioned on the visible light absorbing layer and including at least one dielectric layer; a second metallic functional layer positioned on the third stack and having an infrared reflective property; and a fourth stack positioned on the second metallic functional layer and including at least one dielectric layer, wherein a ratio of a thickness of the third stack to a thickness of the second stack is 2.5 or more. a transparent substrate; a first stack positioned on the transparent substrate and including at least one dielectric layer; a first metallic functional layer positioned on the first stack and having an infrared reflective property; a second stack positioned on the first metallic functional layer and including at least one dielectric layer; a visible light absorbing layer positioned on the second stack; a third stack positioned on the visible light absorbing layer and including at least one dielectric layer; a second metallic functional layer positioned on the third stack and having an infrared reflective property; and a fourth stack positioned on the second metallic functional layer and including at least one dielectric layer, wherein a ratio of a thickness of the third stack to a thickness of the second stack is 2.5 or more.
A method for enhancing isolation of user space from kernel space, wherein the method is applied to a virtualized system comprising a virtual machine and a virtual machine monitor, the virtual machine monitor is configured to manage the virtual machine, and the method comprises: creating, by the virtual machine monitor, at least two extended page tables, wherein the at least two extended page tables comprise a user-mode extended page table and a kernel-mode extended page table, the user-mode extended page table is used to be called, when the virtual machine executes user-mode code, by a processor running the virtual machine, and the kernel-mode extended page table is used to be called, when the virtual machine executes kernel-mode code, by the processor running the virtual machine; and performing, by the virtual machine monitor, mapping processing on the user-mode extended page table and/or the kernel-mode extended page table, wherein some or all page-table pages in a guest page table that are used to translate a kernel-mode guest virtual address are mapped to an invalid page-table page by using the user-mode extended page table, and/or some page-table pages in the guest page table that are used to translate a user-mode guest virtual address are mapped to an invalid page-table page by using the kernel-mode extended page table, wherein the invalid page-table page is a host physical page whose content is all 0 or a host physical page whose content is other data that can prevent the guest virtual address from being successfully translated. creating, by the virtual machine monitor, at least two extended page tables, wherein the at least two extended page tables comprise a user-mode extended page table and a kernel-mode extended page table, the user-mode extended page table is used to be called, when the virtual machine executes user-mode code, by a processor running the virtual machine, and the kernel-mode extended page table is used to be called, when the virtual machine executes kernel-mode code, by the processor running the virtual machine; and performing, by the virtual machine monitor, mapping processing on the user-mode extended page table and/or the kernel-mode extended page table, wherein some or all page-table pages in a guest page table that are used to translate a kernel-mode guest virtual address are mapped to an invalid page-table page by using the user-mode extended page table, and/or some page-table pages in the guest page table that are used to translate a user-mode guest virtual address are mapped to an invalid page-table page by using the kernel-mode extended page table, wherein the invalid page-table page is a host physical page whose content is all 0 or a host physical page whose content is other data that can prevent the guest virtual address from being successfully translated.
A method for providing a torch into a cased well bore for providing heat to a downhole tool within the cased well bore, the method comprising the steps of: i. inserting the torch into the cased well bore, wherein a plurality of slots comprising interstitial spaces therebetween are oriented along the torch to provide the heat and a source of oxygen to the downhole tool within the cased well bore; and ii. igniting a fuel load (251, 626) of the torch to provide the heat and the source of oxygen through the plurality of slots to the downhole tool, whereby the portion of the downhole tool within the cased well bore is at least partially consumed, characterised in that each individual slot extends in a longitudinal direction along the torch, and in that the plurality of slots comprises a first set of slots having at least two rows of slots spaced longitudinally from one another and a second set of slots having at least two rows of slots spaced longitudinally from one another, wherein the first set of slots and the second set of slots are longitudinally spaced from each other to allow longitudinal flow of heat and the source of oxygen along the torch and onto a portion of the downhole tool without interfering with the flow of heat and the source of oxygen through the slots. i. inserting the torch into the cased well bore, wherein a plurality of slots comprising interstitial spaces therebetween are oriented along the torch to provide the heat and a source of oxygen to the downhole tool within the cased well bore; and ii. igniting a fuel load (251, 626) of the torch to provide the heat and the source of oxygen through the plurality of slots to the downhole tool, whereby the portion of the downhole tool within the cased well bore is at least partially consumed,
A dental implant for supporting a dental prosthesis, the implant comprising: a body comprising an outer surface, an apical end, and a coronal portion; at least one thread located on at least a threaded portion of the outer surface of the body, the thread comprising a coronal flank and an apical flank, the thread further comprising a face extending between the coronal flank and the apical flank; and a collar at the coronal portion of the dental implant, the collar comprising a curved surface defining a first peak, a second peak generally opposed to the first peak, a first valley between the first peak and the second peak, and a second valley between the first peak and the second peak and generally opposed to the first valley; wherein a most apical point of the first valley is more coronal than a most apical point of the second valley, wherein, when viewed from a side along an axis passing through the first and second peaks, the curved surface between the first valley and the first peak is convex shaped, and the curved surface between the second valley and the first peak is concave shaped. a body comprising an outer surface, an apical end, and a coronal portion; at least one thread located on at least a threaded portion of the outer surface of the body, the thread comprising a coronal flank and an apical flank, the thread further comprising a face extending between the coronal flank and the apical flank; and a collar at the coronal portion of the dental implant, the collar comprising a curved surface defining a first peak, a second peak generally opposed to the first peak, a first valley between the first peak and the second peak, and a second valley between the first peak and the second peak and generally opposed to the first valley; wherein a most apical point of the first valley is more coronal than a most apical point of the second valley, wherein, when viewed from a side along an axis passing through the first and second peaks, the curved surface between the first valley and the first peak is convex shaped, and the curved surface between the second valley and the first peak is concave shaped.
A method to manage Internet Protocol, IP, flow mobility for a wireless device, the method comprising: by the wireless device: establishing (802, 902) a packet data network, PDN, connection via a first wireless access network; sending to a PDN gateway a suggested set of IP flow mobility rules for the PDN connection; receiving from the PDN gateway an accepted set of IP flow mobility rules, wherein the accepted set of IP flow mobility routing rules includes a routing rule that comprises an applicability field that determines whether the routing rule applies to future IP flows established after the routing rule takes effect or to both existing IP flows and to future IP flows; performing an IP access attachment via a second wireless access network; requesting addition of IP access via the second wireless access network to the established PDN connection; and after confirmation of addition of the IP access via the second wireless access network to the established PDN connection, subsequently assigning one or more IP flows to the IP access via the second wireless access network. establishing (802, 902) a packet data network, PDN, connection via a first wireless access network; sending to a PDN gateway a suggested set of IP flow mobility rules for the PDN connection; receiving from the PDN gateway an accepted set of IP flow mobility rules, wherein the accepted set of IP flow mobility routing rules includes a routing rule that comprises an applicability field that determines whether the routing rule applies to future IP flows established after the routing rule takes effect or to both existing IP flows and to future IP flows; performing an IP access attachment via a second wireless access network; requesting addition of IP access via the second wireless access network to the established PDN connection; and after confirmation of addition of the IP access via the second wireless access network to the established PDN connection, subsequently assigning one or more IP flows to the IP access via the second wireless access network.
A computer-implemented method for vehicle personalization, the method comprising: determining, via a vehicle processing unit, at least one customizable setting from a plurality of configuration settings associated with the vehicle; receiving, at the vehicle processing unit, a request for personalization of at least one configuration setting; retrieving, via the vehicle processing unit, user profile information, wherein the user profile information includes a plurality of preference settings associated with a vehicle; and adjusting at least one customizable setting of the vehicle based on the preference settings of the user profile information; wherein the step of adjusting the at least one customizable setting further comprises: determining the compatibility of the user preference setting against the plurality of configuration settings associated with the vehicle. determining, via a vehicle processing unit, at least one customizable setting from a plurality of configuration settings associated with the vehicle; receiving, at the vehicle processing unit, a request for personalization of at least one configuration setting; retrieving, via the vehicle processing unit, user profile information, wherein the user profile information includes a plurality of preference settings associated with a vehicle; and adjusting at least one customizable setting of the vehicle based on the preference settings of the user profile information; wherein the step of adjusting the at least one customizable setting further comprises: determining the compatibility of the user preference setting against the plurality of configuration settings associated with the vehicle.