mhurhangee/ep-ind-claims huggingface dataset:
An electronic system comprising: a control unit configured to operate on a user interface; and the user interface, coupled to the control unit, configured to: present an application coupled to an access configuration to customize a permission level for a service type including a third party component to be implemented in the application, wherein the third party component is provided by a third party provider; and receive an input for changing the permission level of the service type for accessing a resource type for customizing an operation of the application on a device; wherein: the control unit is configured to: generate a replacement component based on the permission level for accessing the resource type, and execute the replacement component to provide fake information via the third party component to the third party provider. a control unit configured to operate on a user interface; and the user interface, coupled to the control unit, configured to: present an application coupled to an access configuration to customize a permission level for a service type including a third party component to be implemented in the application, wherein the third party component is provided by a third party provider; and receive an input for changing the permission level of the service type for accessing a resource type for customizing an operation of the application on a device; wherein: the control unit is configured to: generate a replacement component based on the permission level for accessing the resource type, and execute the replacement component to provide fake information via the third party component to the third party provider. present an application coupled to an access configuration to customize a permission level for a service type including a third party component to be implemented in the application, wherein the third party component is provided by a third party provider; and receive an input for changing the permission level of the service type for accessing a resource type for customizing an operation of the application on a device; wherein: the control unit is configured to: generate a replacement component based on the permission level for accessing the resource type, and execute the replacement component to provide fake information via the third party component to the third party provider. generate a replacement component based on the permission level for accessing the resource type, and execute the replacement component to provide fake information via the third party component to the third party provider.
Linear transport system, comprising an assembly composed of multiple mutually adjacently arranged linear transport system modules (201, 801), and a vehicle with a carrier, wherein each transport system module (201, 801) has a stator device (203, 803), wherein each stator device (203, 803) comprises multiple magnetic field generators which have at least one coil (307, 709) and which can be individually electrically energized, wherein the magnetic field generators of the stator device define a travelling path for the vehicle, along which the vehicle can be moved, wherein a first linear transport system module is of straight form and a second linear transport system module is of arcuate form, and wherein the carrier of the vehicle comprises at least one reaction part which is designed to interact with the magnetic field formed by means of the magnetic field generators of the assembly, characterized in that tunnels are formed in the individual stator devices (203, 803), and a multiplicity of mutually adjacently arranged stator devices forms an overall tunnel, in which circuit boards for the electrical contacting of mutually adjacently arranged stator devices can be inserted, wherein electrical connecting means for the electrical contacting between electrical components of the stator devices and the inserted circuit boards are arranged in the tunnels.
A device (400,500) for sampling dermal interstitial fluid comprising one or more analytes, the device comprising o a first electrode and a second electrode adapted to be positioned adjacent to a skin surface, o a power source adapted to induce an electric current through the first electrode, interstitial fluid and the second electrode and ∘ a first frame (406a,506a) adapted to position the first electrode, wherein the electric current is adapted to produce reverse iontophoresis to drive the interstitial fluid from dermis towards the skin surface, characterized in that the device comprises o a second frame 406b, 506b) adapted to position the second electrode and the power source, and o a formable connecting means (407,507a,507b) adapted to provide mechanical connection between the first frame and the second frame and electric connection between the power source and the first electrode and wherein o the second frame comprises a first magnet (405a,505a) adapted to induce a magnetic field in the interstitial fluid, and wherein direction of the magnetic field produced by the first magnet and direction of the electric current is adapted to be such that Lorentz force drives the interstitial fluid from the dermis towards the skin surface o the first frame comprises a second magnet (405b,505b) adapted to induce a magnetic field in the interstitial fluid, and wherein direction of the magnetic field produced by the second magnet and the direction of the electric current is adapted to be such that Lorentz force drives the interstitial fluid from the dermis towards the skin surface and wherein the polarity of the first magnet is opposite to the polarity of the second magnet. o a first electrode and a second electrode adapted to be positioned adjacent to a skin surface, o a power source adapted to induce an electric current through the first electrode, interstitial fluid and the second electrode and ∘ a first frame (406a,506a) adapted to position the first electrode, o a second frame 406b, 506b) adapted to position the second electrode and the power source, and o a formable connecting means (407,507a,507b) adapted to provide mechanical connection between the first frame and the second frame and electric connection between the power source and the first electrode and wherein o the second frame comprises a first magnet (405a,505a) adapted to induce a magnetic field in the interstitial fluid, and wherein direction of the magnetic field produced by the first magnet and direction of the electric current is adapted to be such that Lorentz force drives the interstitial fluid from the dermis towards the skin surface o the first frame comprises a second magnet (405b,505b) adapted to induce a magnetic field in the interstitial fluid, and wherein direction of the magnetic field produced by the second magnet and the direction of the electric current is adapted to be such that Lorentz force drives the interstitial fluid from the dermis towards the skin surface and wherein the polarity of the first magnet is opposite to the polarity of the second magnet.
A method for controlling protection switching on an optical network, comprising: determining a low-frequency signal for service protection; modulating the low-frequency signal for service protection to a transmission channel of a service signal to be protected; detecting the low-frequency signal over the transmission channel, and acquiring transmission quality information of the low-frequency signal; and determining whether to perform protection switching according to the transmission quality information of the low-frequency signal; characterized in that, the determining the low-frequency signal for service protection comprises: determining a low-frequency band for the service protection, dividing the low-frequency band into a plurality of frequency bands, and mapping each of the frequency bands to a protection entity; the detecting the low-frequency signal over the transmission channel comprises: detecting the low-frequency signal that has a mapping relationship with a single protection entity over the transmission channel; or detecting a plurality of low-frequency signals over the transmission channel, each of the plurality of low-frequency signals mapping a protection entity. determining a low-frequency signal for service protection; modulating the low-frequency signal for service protection to a transmission channel of a service signal to be protected; detecting the low-frequency signal over the transmission channel, and acquiring transmission quality information of the low-frequency signal; and determining whether to perform protection switching according to the transmission quality information of the low-frequency signal; characterized in that, the determining the low-frequency signal for service protection comprises: determining a low-frequency band for the service protection, dividing the low-frequency band into a plurality of frequency bands, and mapping each of the frequency bands to a protection entity; the detecting the low-frequency signal over the transmission channel comprises: detecting the low-frequency signal that has a mapping relationship with a single protection entity over the transmission channel; or detecting a plurality of low-frequency signals over the transmission channel, each of the plurality of low-frequency signals mapping a protection entity.
One or more non-transitory computer-readable storage media storing instructions that, when executed by one or more computers, cause the one or more computers to perform operations of a computer-implemented method, the operations comprising: providing, to a user interface of a user device, a sequence of questions for a user to respond to in an interactive manner, wherein each of the questions following the first question is adapted to the user's response to one or more of previous questions in the sequence; capturing with audio sensing means audio responses as speech actions performed by the user in response to the sequence of questions; capturing with an image capture device motion and appearance of the user in a video sequence while the user provides the speech actions as responses to the sequence of questions; and analyzing, in parallel, the motion of the user in the video sequence and the audio response to determine one or more indications of a disease or of a change in a disease progression. providing, to a user interface of a user device, a sequence of questions for a user to respond to in an interactive manner, wherein each of the questions following the first question is adapted to the user's response to one or more of previous questions in the sequence; capturing with audio sensing means audio responses as speech actions performed by the user in response to the sequence of questions; capturing with an image capture device motion and appearance of the user in a video sequence while the user provides the speech actions as responses to the sequence of questions; and analyzing, in parallel, the motion of the user in the video sequence and the audio response to determine one or more indications of a disease or of a change in a disease progression.
A grilling apparatus comprising: an outer unit having an open top and a bottom, an inner unit having an open top, an open bottom, and a grate between the open top of the inner unit and the open bottom of the inner unit, the inner unit disposed within the outer unit; and a cover with a base having a circumference that is larger than a circumference of the outer unit, characterised in that the inner unit comprises an inner cylinder and the outer unit comprises an outer cylinder, and in that the cover and the outer cylinder define an annular gap of between 2.5 and 7.6 cm (1 and 3 inches) between the cover and the outer cylinder when the cover is in place on the outer cylinder in use. an outer unit having an open top and a bottom, an inner unit having an open top, an open bottom, and a grate between the open top of the inner unit and the open bottom of the inner unit, the inner unit disposed within the outer unit; and a cover with a base having a circumference that is larger than a circumference of the outer unit, characterised in that the inner unit comprises an inner cylinder and the outer unit comprises an outer cylinder, and in that the cover and the outer cylinder define an annular gap of between 2.5 and 7.6 cm (1 and 3 inches) between the cover and the outer cylinder when the cover is in place on the outer cylinder in use.
Process for the production of middle distillate hydrocarbon bases from an ethanol feedstock that is produced from a renewable source that is obtained from biomass, whereby said process comprises at least: a) One stage for purification of said feedstock, b) One stage for transformation of said purified feedstock obtained from stage a) into a light olefinic effluent that comprises at least 30% by weight of olefins having between four to six carbon atoms relative to the total mass of the hydrocarbon compounds that are formed, whereby said stage works in the presence of a ferrierite zeolite catalyst, c) One stage for separation of the olefinic effluent that is obtained from stage b) in such a way as to eliminate at least a portion of the water that is formed during stage b) and to produce at least one hydrocarbon gaseous effluent that for the most part has three or fewer carbon atoms and at least one olefinic hydrocarbon liquid effluent that for the most part has more than four carbon atoms, d) One stage for oligomerization of at least a portion of the hydrocarbon effluents that are obtained from stage c) in the presence of an amorphous catalyst comprising silica alumina or a zeolitic catalyst selected from the following zeolites: ZSM-5, NU-10 and ZBM-30 taken by themselves or in a mixture, producing middle distillate hydrocarbon bases, e) One stage for fractionation of the effluent that is obtained from the oligomerization stage d). a) One stage for purification of said feedstock, b) One stage for transformation of said purified feedstock obtained from stage a) into a light olefinic effluent that comprises at least 30% by weight of olefins having between four to six carbon atoms relative to the total mass of the hydrocarbon compounds that are formed, whereby said stage works in the presence of a ferrierite zeolite catalyst, c) One stage for separation of the olefinic effluent that is obtained from stage b) in such a way as to eliminate at least a portion of the water that is formed during stage b) and to produce at least one hydrocarbon gaseous effluent that for the most part has three or fewer carbon atoms and at least one olefinic hydrocarbon liquid effluent that for the most part has more than four carbon atoms, d) One stage for oligomerization of at least a portion of the hydrocarbon effluents that are obtained from stage c) in the presence of an amorphous catalyst comprising silica alumina or a zeolitic catalyst selected from the following zeolites: ZSM-5, NU-10 and ZBM-30 taken by themselves or in a mixture, producing middle distillate hydrocarbon bases, e) One stage for fractionation of the effluent that is obtained from the oligomerization stage d).
An apparatus for condensing vapor in a vessel, which comprises a vapor space and a condensation space which are adjacent to one another in the horizontal direction, where the vapor space having a horizontal open cross section is open in the downward direction, the condensation space is closed in the downward direction by at least one bottom element and at least one essentially vertically aligned bundle of heat exchange elements is arranged in the condensation space, wherein wall elements are present between vapor space and condensation space and partly separate the two spaces from one another and define a vertical transition plane from the vapor space into the condensation space and at least one deflection element is present in the vapor space to divert the vapor ascending from below into the vapor space in the direction of the transition plane and owing to its shape brings about an essentially horizontal flow of vapor as x-flow through the transition plane onto the heat exchange elements and a diversion of the vapor stream by merely approximately 90° takes place.
A method of isolating secure guest code to be executed in a guest that is configured in a host by a virtualization software, comprising: creating first page tables, which are used for guest physical to host physical address translations, that provide mappings to a first protected domain region of host physical memory where the secure guest code has been loaded; creating second page tables, which are used for guest physical to host physical address translations, that provide mappings to a second protected domain region of the host physical memory; storing third page tables, which are used for guest virtual to guest physical address translations, in the first protected region; storing fourth page tables, which are used for guest virtual to guest physical address translations, in the second protected region; when execution is switched from a non-secure guest code, which is loaded into the second protected domain region, to the secure guest code, changing a first pointer value from one that points to the fourth page tables to one that points to the third page tables and accessing the third page tables for guest virtual to guest physical address translations, and changing a second pointer value from one that points to the second page tables to one that points to the first page tables and accessing the first page tables for guest physical to host physical address translations. creating first page tables, which are used for guest physical to host physical address translations, that provide mappings to a first protected domain region of host physical memory where the secure guest code has been loaded; creating second page tables, which are used for guest physical to host physical address translations, that provide mappings to a second protected domain region of the host physical memory; storing third page tables, which are used for guest virtual to guest physical address translations, in the first protected region; storing fourth page tables, which are used for guest virtual to guest physical address translations, in the second protected region; when execution is switched from a non-secure guest code, which is loaded into the second protected domain region, to the secure guest code, changing a first pointer value from one that points to the fourth page tables to one that points to the third page tables and accessing the third page tables for guest virtual to guest physical address translations, and changing a second pointer value from one that points to the second page tables to one that points to the first page tables and accessing the first page tables for guest physical to host physical address translations.
Process for the preparation of polymer compositions comprising A) from 10 to 100 parts by weight, based on the sum of components A+B, of at least one polymer selected from the group of the aromatic polycarbonates, aromatic polyester carbonates and aromatic polyesters, B) from 0 to 90 parts by weight, based on the sum of components A+B, of at least one optionally rubber-modified vinyl (co)polymer, C) from 0.00025 to 0.080 part by weight, based on the sum of components A+B, of at least one inorganic adsorber or absorber selected from the group comprising thermally inert inorganic materials, as well as oxides, mixed oxides, silicates, sulfides, nitrides of metals or transition metals, and mixtures thereof, D) from 0.001 to 0.300 part by weight, based on the sum of components A+B, of at least one Brönsted-acidic compound, E) from 0.1 to 40.0 parts by weight, based on the sum of components A+B, of at least one additive other than components C, D and F, F) from 0 to 50 parts by weight, based on the sum of components A+B, of talc, wherein the sum of the parts by weight of components A+B in the composition is 100, comprising the steps - mixing component C with component D, component D wetting component C, - compounding the mixture of components C and D in powder form with the further components of the composition in a commercially available compounding unit. A) from 10 to 100 parts by weight, based on the sum of components A+B, of at least one polymer selected from the group of the aromatic polycarbonates, aromatic polyester carbonates and aromatic polyesters, B) from 0 to 90 parts by weight, based on the sum of components A+B, of at least one optionally rubber-modified vinyl (co)polymer, C) from 0.00025 to 0.080 part by weight, based on the sum of components A+B, of at least one inorganic adsorber or absorber selected from the group comprising thermally inert inorganic materials, as well as oxides, mixed oxides, silicates, sulfides, nitrides of metals or transition metals, and mixtures thereof, D) from 0.001 to 0.300 part by weight, based on the sum of components A+B, of at least one Brönsted-acidic compound, E) from 0.1 to 40.0 parts by weight, based on the sum of components A+B, of at least one additive other than components C, D and F, F) from 0 to 50 parts by weight, based on the sum of components A+B, of talc, wherein the sum of the parts by weight of components A+B in the composition is 100, comprising the steps - mixing component C with component D, component D wetting component C, - compounding the mixture of components C and D in powder form with the further components of the composition in a commercially available compounding unit. - mixing component C with component D, component D wetting component C, - compounding the mixture of components C and D in powder form with the further components of the composition in a commercially available compounding unit.
A fastener applicator (500, 600) comprising: a body portion including a handle assembly (520, 610); a cartridge assembly supported within the body portion, the cartridge assembly including implantable fasteners (100, 200, 300); a drive assembly supported within the body portion and operatively coupled to the cartridge assembly to engage the implantable fasteners; and an actuation assembly supported within the handle assembly and operatively coupled to the drive assembly to fire a distal-most implantable fastener upon actuation of the actuation assembly; wherein at least one of the implantable fasteners has: a body (102, 202, 302) including a backspan (106, 206, 306); a tissue penetrating portion (104, 204, 304) extending from the body; and a closed capsule (112, 212, 312), the capsule including radioactive material (112a, 212a, 312a); characterised in that the backspan defines a flattened surface extending along at least a portion thereof, the flattened surface providing an increased surface area, wherein the closed capsule is affixed to the flattened surface of the backspan. a body portion including a handle assembly (520, 610); a cartridge assembly supported within the body portion, the cartridge assembly including implantable fasteners (100, 200, 300); a drive assembly supported within the body portion and operatively coupled to the cartridge assembly to engage the implantable fasteners; and an actuation assembly supported within the handle assembly and operatively coupled to the drive assembly to fire a distal-most implantable fastener upon actuation of the actuation assembly; wherein at least one of the implantable fasteners has: a body (102, 202, 302) including a backspan (106, 206, 306); a tissue penetrating portion (104, 204, 304) extending from the body; and a closed capsule (112, 212, 312), the capsule including radioactive material (112a, 212a, 312a); a body (102, 202, 302) including a backspan (106, 206, 306); a tissue penetrating portion (104, 204, 304) extending from the body; and a closed capsule (112, 212, 312), the capsule including radioactive material (112a, 212a, 312a); characterised in that the backspan defines a flattened surface extending along at least a portion thereof, the flattened surface providing an increased surface area, wherein the closed capsule is affixed to the flattened surface of the backspan.