mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: for an application having a software portion for implementation in a data processing engine, DPE, array of a device and a hardware portion for implementation in programmable logic of the device, performing, using a processor executing a hardware compiler configured for implementing the hardware portion, an implementation flow on the hardware portion based on an initial interface block solution that maps connections, in and out of the DPE array, of logical resources used by the software portion to hardware of an interface block coupling the DPE array to the programmable logic; in response to not meeting a design metric for the hardware portion of the application during the implementation flow, providing, using the processor executing the hardware compiler, an interface block constraint which remaps the logical resources to physical resources of the interface block, to a DPE compiler, wherein the DPE compiler is capable of generating the initial interface block solution; in response to receiving the interface block constraint, generating, using the processor executing the DPE compiler, an updated interface block solution that follows the interface block constraint and remaps the connections; using the updated interface block solution for performing the implementation flow; and providing the updated interface block solution from the DPE compiler to the hardware compiler. for an application having a software portion for implementation in a data processing engine, DPE, array of a device and a hardware portion for implementation in programmable logic of the device, performing, using a processor executing a hardware compiler configured for implementing the hardware portion, an implementation flow on the hardware portion based on an initial interface block solution that maps connections, in and out of the DPE array, of logical resources used by the software portion to hardware of an interface block coupling the DPE array to the programmable logic; in response to not meeting a design metric for the hardware portion of the application during the implementation flow, providing, using the processor executing the hardware compiler, an interface block constraint which remaps the logical resources to physical resources of the interface block, to a DPE compiler, wherein the DPE compiler is capable of generating the initial interface block solution; in response to receiving the interface block constraint, generating, using the processor executing the DPE compiler, an updated interface block solution that follows the interface block constraint and remaps the connections; using the updated interface block solution for performing the implementation flow; and providing the updated interface block solution from the DPE compiler to the hardware compiler.
Method for printing a three-dimensional structure, in particular an optical component, by depositing droplets of printing ink side by side and one above the other in several consecutive depositing steps by means of a print head, wherein in each depositing step a plurality of droplets is ejected simultaneously by a plurality of ejection nozzles of the print head, wherein the print head is moved relative to the deposited droplets in a moving step performed between at least two consecutive depositing steps in such a manner that at least part of the droplets deposited in the same position in the at least two consecutive depositing steps are ejected from two different ejection nozzles, wherein the print head is moved relative to the deposited droplets according to a predefined moving scheme, characterized in that the predefined moving scheme is determined prior to printing depending on the geometry of the three-dimensional structure and depending on the dimensions of the print head.
Underlay mat for floor coverings which contains: - the foamed polystyrene layer, - the PET film on the top side of the polystyrene layer, - the layer of adhesive applied onto the PET film and - the removable protective layer applied on the layer of adhesive. - the foamed polystyrene layer, - the PET film on the top side of the polystyrene layer, - the layer of adhesive applied onto the PET film and - the removable protective layer applied on the layer of adhesive.
Sorting system for sorting products, such as vegetables and fruit, the sorting system comprising an eliminator: for detecting and removing products, such as vegetables and fruit, which have undesired properties, wherein the eliminator is configured to detect and remove such products prior to sorting of the products with a sorting device, wherein the eliminator comprises: - a feed system for supplying products; - a detector configured to determine product properties of a product of the supplied products, wherein the product properties comprise whether the product has rot, and wherein the detector is further configured to determine product dimensions, wherein the product dimensions comprise whether the product is oversized; - a controller operatively connected to the detector and configured to determine on the basis of the determined dimensions and product properties of the product whether the product is suitable for further processing; and - a remover operatively connected to the controller for separating products which are not suitable for further processing in the sorting system, wherein products being not suitable for further processing comprises products which have rot and/or are oversized, from products which are suitable for further processing in the sorting system, wherein the remover comprises a knock-out element; and wherein the sorting system further comprising a sorting device provided with a measuring system, wherein the sorting device is configured to sort on the basis of product measurements performed by the measuring system products deemed suitable by the eliminator to be processed in the sorting device, and wherein the sorting system is configured for setting the remover on the basis of a pitch chosen for the sorting device. - a feed system for supplying products; - a detector configured to determine product properties of a product of the supplied products, wherein the product properties comprise whether the product has rot, and wherein the detector is further configured to determine product dimensions, wherein the product dimensions comprise whether the product is oversized; - a controller operatively connected to the detector and configured to determine on the basis of the determined dimensions and product properties of the product whether the product is suitable for further processing; and - a remover operatively connected to the controller for separating products which are not suitable for further processing in the sorting system, wherein products being not suitable for further processing comprises products which have rot and/or are oversized, from products which are suitable for further processing in the sorting system,
A connector assembly for a dock, the connector assembly comprising: a support for coupling to an inner wall of the dock, the support comprising a spring component received in a support tray, the spring component being elastically deformable and comprising a passage; and a connector received in the passage of the spring component to extend through an aperture comprised in a housing of the dock to engage a mating connector of the portable electronic device when the connector and the mating connector are aligned along an axis, the connector for electrically communicating with the portable electronic device, wiring of the connector for transferring data from the portable electronic device; wherein the spring component elastically deforms in response to non-axial movement of at least a portion of the connector. a support for coupling to an inner wall of the dock, the support comprising a spring component received in a support tray, the spring component being elastically deformable and comprising a passage; and a connector received in the passage of the spring component to extend through an aperture comprised in a housing of the dock to engage a mating connector of the portable electronic device when the connector and the mating connector are aligned along an axis, the connector for electrically communicating with the portable electronic device, wiring of the connector for transferring data from the portable electronic device;
A device for converting a liquid into vapor for a high-temperature vapor electrolyzer, this device comprising: - an evaporation surface, - a liquid inlet connected to the evaporation surface, - means for heating the evaporation surface, - a flow controller arranged at the level of the liquid inlet, and - a control unit configured to control a liquid flow rate (D L) injected into the liquid inlet by the flow regulator, characterized: - in that the device also comprises: ▪ a chamber containing the evaporation surface, having a helical shape, said chamber having an opening connected to the liquid inlet and a vapor outlet, and ▪ a temperature sensor arranged on the evaporation surface, - and in that the control unit is configured to control a heating power of the heating means according to a flow rate (D L) and to a temperature measured by the temperature sensor according to a predetermined control law, said predetermined control law varying, for each flow rate (D L), nonlinearly and inversely proportionally to the difference between a reference temperature (T ref) of the chamber and the temperature measured by the temperature sensor. - an evaporation surface, - a liquid inlet connected to the evaporation surface, - means for heating the evaporation surface, - a flow controller arranged at the level of the liquid inlet, and - a control unit configured to control a liquid flow rate (D L) injected into the liquid inlet by the flow regulator, - in that the device also comprises: ▪ a chamber containing the evaporation surface, having a helical shape, said chamber having an opening connected to the liquid inlet and a vapor outlet, and ▪ a temperature sensor arranged on the evaporation surface, ▪ a chamber containing the evaporation surface, having a helical shape, said chamber having an opening connected to the liquid inlet and a vapor outlet, and ▪ a temperature sensor arranged on the evaporation surface, - and in that the control unit is configured to control a heating power of the heating means according to a flow rate (D L) and to a temperature measured by the temperature sensor according to a predetermined control law, said predetermined control law varying, for each flow rate (D L), nonlinearly and inversely proportionally to the difference between a reference temperature (T ref) of the chamber and the temperature measured by the temperature sensor.
A method comprising: tracking, at a cache controller associated with a second cache of a processing system, a validity status of fan entry of a first cache; transferring first data from an entry of the first cache of the processing system to the entry of the second cache of the processing system; setting, at the processing system, the validity status of the entry of the first cache to an invalid state in response to transferring the first data from the entry of the first cache to the entry of the second cache; selecting, at the processing system, second data at the second cache for replacement based on the validity status of the entry of the first cache, wherein selecting second data from the second cache comprises: selecting the second data from the second cache in response to identifying that the data is to be stored at the entry of the first cache and in response to identifying that the validity status of the entry is an invalid status; and transferring the second data from the second cache to the first cache in response to selecting the second data for replacement. tracking, at a cache controller associated with a second cache of a processing system, a validity status of fan entry of a first cache; transferring first data from an entry of the first cache of the processing system to the entry of the second cache of the processing system; setting, at the processing system, the validity status of the entry of the first cache to an invalid state in response to transferring the first data from the entry of the first cache to the entry of the second cache; selecting, at the processing system, second data at the second cache for replacement based on the validity status of the entry of the first cache, wherein selecting second data from the second cache comprises: selecting the second data from the second cache in response to identifying that the data is to be stored at the entry of the first cache and in response to identifying that the validity status of the entry is an invalid status; and transferring the second data from the second cache to the first cache in response to selecting the second data for replacement. selecting the second data from the second cache in response to identifying that the data is to be stored at the entry of the first cache and in response to identifying that the validity status of the entry is an invalid status; and transferring the second data from the second cache to the first cache in response to selecting the second data for replacement.
A restart determination device, comprising: a voltage value acquisition unit configured to acquire a first voltage value (V BattSS) between terminals (28, 29) of an energy storage device during an idling stop for stopping idling of an engine; a current value acquisition unit configured to acquire a value (I EL) of a current flowing through the energy storage device during the idling stop; a calculation unit configured to calculate an internal resistance value (R SS) of the energy storage device during the idling stop, based on the first voltage value (V BattSS), the current value (I EL), and a no-load voltage value (V 0); an estimation unit configured to estimate a second voltage value (V CR) of the energy storage device when stopping the idling stop and restarting the engine, based on the no-load voltage value (V 0), the internal resistance value (R SS), the current value (I EL), and a cranking current value (I ST); and a determination unit configured to determine whether or not a restart of the engine is possible, based on the second voltage value, V CR, and an operating voltage value, V RESTmin, of a starter motor of the engine, wherein the determination unit is configured to compare the second voltage value (V CR) with the operating voltage value (V RESTmin) to determine whether a restart is possible, wherein the determination unit is configured to determine that the restart is possible when V CR ≥ V RESTmin, and the determination unit is configured to determine that the restart is not possible when V CR < V RESTmin. a voltage value acquisition unit configured to acquire a first voltage value (V BattSS) between terminals (28, 29) of an energy storage device during an idling stop for stopping idling of an engine; a current value acquisition unit configured to acquire a value (I EL) of a current flowing through the energy storage device during the idling stop; a calculation unit configured to calculate an internal resistance value (R SS) of the energy storage device during the idling stop, based on the first voltage value (V BattSS), the current value (I EL), and a no-load voltage value (V 0); an estimation unit configured to estimate a second voltage value (V CR) of the energy storage device when stopping the idling stop and restarting the engine, based on the no-load voltage value (V 0), the internal resistance value (R SS), the current value (I EL), and a cranking current value (I ST); and a determination unit configured to determine whether or not a restart of the engine is possible, based on the second voltage value, V CR, and an operating voltage value, V RESTmin, of a starter motor of the engine, wherein the determination unit is configured to compare the second voltage value (V CR) with the operating voltage value (V RESTmin) to determine whether a restart is possible, wherein the determination unit is configured to determine that the restart is possible when V CR ≥ V RESTmin, and the determination unit is configured to determine that the restart is not possible when V CR < V RESTmin.
A composition comprising a plasma membrane vesicle, wherein the plasma membrane vesicle comprises an NK cell effector agent, wherein the NK cell effector agent is 41BBL, wherein the plasma membrane vesicles have been purified from NK cell feeder cells selected from the group consisting of K562-mbIL15-41BBl and K562-mbIL21-41BBl feeder cells.
A system-comprising: a sleeve of self-healing material sized to be positioned in a spaced relationship over a conduit a first and a second spacer positioned between the sleeve and the conduit, the spacers being configured to position the sleeve at the spaced relationship to the conduit, the first and the second spacer being sized to fit over the conduit in a sealing fashion and within the sleeve in a sealing fashion; and a first and a second compression strap, the first compression strap securing the sleeve to the first spacer, the second compression strap securing the sleeve to the second spacer; wherein the conduit, the first and second spacer and the sleeve form a fluidly sealed hollow space for receiving fluid leaking from the conduit due to a penetration formed by a small projectile in the conduit; and wherein the spaced relationship between the sleeve and the conduit permits a penetration formed by the small projectile in the sleeve to close prior to the fluid being forced into the penetration in the sleeve, characterized in that the conduit is an aircraft fluid conduit. a sleeve of self-healing material sized to be positioned in a spaced relationship over a conduit a first and a second spacer positioned between the sleeve and the conduit, the spacers being configured to position the sleeve at the spaced relationship to the conduit, the first and the second spacer being sized to fit over the conduit in a sealing fashion and within the sleeve in a sealing fashion; and a first and a second compression strap, the first compression strap securing the sleeve to the first spacer, the second compression strap securing the sleeve to the second spacer; wherein the conduit, the first and second spacer and the sleeve form a fluidly sealed hollow space for receiving fluid leaking from the conduit due to a penetration formed by a small projectile in the conduit; and wherein the spaced relationship between the sleeve and the conduit permits a penetration formed by the small projectile in the sleeve to close prior to the fluid being forced into the penetration in the sleeve, characterized in that the conduit is an aircraft fluid conduit.
A method for making a composite polyamide membrane comprising a porous support and a thin film polyamide layer, wherein the method comprises the step of applying a polar solution comprising a polyfunctional amine monomer and a non-polar solution comprising a polyfunctional acyl halide monomer to a surface of the porous support and interfacially polymerizing the monomers to form a thin film polyamide layer, wherein the method is characterized by including at least one of the following steps: i) conducting the interfacial polymerization in the presence of a subject monomer, where the subject monomer is added to the non-polar solution prior to the application step of coating the non-polar solution upon the porous support and the non-polar solution comprises from 0.001 to 0.1 weight/volume of the subject monomer; and/or, ii) applying the subject monomer to the thin film polyamide layer, where the subject monomer is separately applied to the surface of the porous support before, during or after the completion of the interfacial polymerization and the coating solution is a non-polar solution and comprises a concentration of the subject monomer from 0.5 to 5% weight/volume, wherein the subject monomer, which is distinct from the polyfunctional amine and acyl halide monomers, is represented by Formula: wherein X is selected from: oxygen, amino, amide, carbonyl, sulfonyl or is not present; n is an integer from 1 to 6; Z is selected from acyl halide and anhydride; and Z' is selected from acyl halide, anhydride, hydrogen and carboxylic acid. i) conducting the interfacial polymerization in the presence of a subject monomer, where the subject monomer is added to the non-polar solution prior to the application step of coating the non-polar solution upon the porous support and the non-polar solution comprises from 0.001 to 0.1 weight/volume of the subject monomer; and/or, ii) applying the subject monomer to the thin film polyamide layer, where the subject monomer is separately applied to the surface of the porous support before, during or after the completion of the interfacial polymerization and the coating solution is a non-polar solution and comprises a concentration of the subject monomer from 0.5 to 5% weight/volume, wherein the subject monomer, which is distinct from the polyfunctional amine and acyl halide monomers, is represented by Formula: wherein X is selected from: oxygen, amino, amide, carbonyl, sulfonyl or is not present; n is an integer from 1 to 6; Z is selected from acyl halide and anhydride; and Z' is selected from acyl halide, anhydride, hydrogen and carboxylic acid.
An occlusion device comprising, a single-layer disk, a plug and a waist connecting the single-layer disk and the plug at a variable angle, the single-layer disk being braided from elastic strands (481, 482) to form a plurality of radially-arranged support rods, wherein meshes (61, 62) braided from braiding strands are provided on the surface of the plug, and wherein the waist comprises at least one connecting strand, characterized in that the single-layer disk is flat and an annular interlocking structure with a hole is provided in the center of the single-layer flat disk by interconnecting the plurality of support rods into a flat integral body, wherein the thickness of the single-layer flat disk is uniform and is substantially the same as the diameter of the braided support rods, and wherein the connecting strand of the waist is connected to the annular interlocking structure and to the meshes (61, 62) of the plug.