mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for verifying a printed pattern of features printed through a lithographic mask, said printed pattern approximating a reference pattern, the method comprising the steps of: - defining sectors (10,11,12) of at least a portion of the features in the reference pattern, - determining a contour of the printed pattern, - superimposing the contour of the printed pattern on the reference pattern, - determining the surface areas of the sectors of the printed pattern that correspond to the sectors of the reference pattern, - calculating one or more parameters as a function of said surface areas, said parameters being related to a single sector or to multiple sectors, - evaluating said parameters with respect to a reference value, characterised in that the method further comprises defining one or more regions (40,43,46) around neighbouring sectors of features in the reference pattern and of the corresponding features (41'/42',44'/45',47'/48') in the printed pattern, and wherein for each of said defined regions the steps are performed of: • determining the surface area R of the region, • determining R-R', with R' the total surface area of the two or more neighbouring sectors (41'/42',44'/45',47'/48') of the printed pattern, • determining R-R" with R" the total surface area of the two or more neighbouring sectors (41/42,44/45,47/48) of the reference pattern, • calculating the ratio (R-R')/(R-R'') as one of the parameters. - defining sectors (10,11,12) of at least a portion of the features in the reference pattern, - determining a contour of the printed pattern, - superimposing the contour of the printed pattern on the reference pattern, - determining the surface areas of the sectors of the printed pattern that correspond to the sectors of the reference pattern, - calculating one or more parameters as a function of said surface areas, said parameters being related to a single sector or to multiple sectors, - evaluating said parameters with respect to a reference value, characterised in that the method further comprises defining one or more regions (40,43,46) around neighbouring sectors of features in the reference pattern and of the corresponding features (41'/42',44'/45',47'/48') in the printed pattern, and wherein for each of said defined regions the steps are performed of: • determining the surface area R of the region, • determining R-R', with R' the total surface area of the two or more neighbouring sectors (41'/42',44'/45',47'/48') of the printed pattern, • determining R-R" with R" the total surface area of the two or more neighbouring sectors (41/42,44/45,47/48) of the reference pattern, • calculating the ratio (R-R')/(R-R'') as one of the parameters. • determining the surface area R of the region, • determining R-R', with R' the total surface area of the two or more neighbouring sectors (41'/42',44'/45',47'/48') of the printed pattern, • determining R-R" with R" the total surface area of the two or more neighbouring sectors (41/42,44/45,47/48) of the reference pattern, • calculating the ratio (R-R')/(R-R'') as one of the parameters.
An instillation regulator, comprising: a first chamber (502, 1102); an inlet check valve (512, 942) fluidly coupled to the first chamber (502, 1102); a first outlet check valve (309, 910) fluidly coupled to the first chamber; a second chamber (504, 1104); a second outlet check valve (514, 1114) fluidly coupled to the second chamber; a flow limiter (316, 916) fluidly coupled to the second chamber (504, 1104); a piston (302. 902) separating the first chamber (502, 1102) and the second chamber (504, 1104); and a spring (304. 904) disposed against the piston (302. 902) in the second chamber (504, 1104) to bias the piston (302. 902). a first chamber (502, 1102); an inlet check valve (512, 942) fluidly coupled to the first chamber (502, 1102); a first outlet check valve (309, 910) fluidly coupled to the first chamber; a second chamber (504, 1104); a second outlet check valve (514, 1114) fluidly coupled to the second chamber; a flow limiter (316, 916) fluidly coupled to the second chamber (504, 1104); a piston (302. 902) separating the first chamber (502, 1102) and the second chamber (504, 1104); and a spring (304. 904) disposed against the piston (302. 902) in the second chamber (504, 1104) to bias the piston (302. 902).
An implantable system for promoting tumor cell migration for cell removal or death, the system comprising: at least one substrate having a surface configured to provide cues for directing tumor cell migration along the substrate surface in vivo, the at least one substrate comprising a plurality of aligned nanofibers, wherein the plurality of aligned nanofibers comprises nanofibers formed from at least one polymer; a polymeric sink disposed at, adjacent, or about a second end of the plurality of aligned nanofibers distal to a first end of the plurality of aligned nanofibers, wherein the plurality of aligned nanofibers is configured to direct tumor cell migration to the polymeric sink; and at least one cytotoxic agent for contacting tumor cells migrated via the at least one substrate. at least one substrate having a surface configured to provide cues for directing tumor cell migration along the substrate surface in vivo, the at least one substrate comprising a plurality of aligned nanofibers, wherein the plurality of aligned nanofibers comprises nanofibers formed from at least one polymer; a polymeric sink disposed at, adjacent, or about a second end of the plurality of aligned nanofibers distal to a first end of the plurality of aligned nanofibers, wherein the plurality of aligned nanofibers is configured to direct tumor cell migration to the polymeric sink; and at least one cytotoxic agent for contacting tumor cells migrated via the at least one substrate.
A method of guiding a clinician performed by an ultrasound imaging system having a user interface, a control unit, a memory and an image display device comprising: obtaining patient information along with a relevant clinical procedure through a user interface; selecting a predefined workflow and at least one device setting parameter from an information library, based on a clinician decision obtained through user interface; communicating the selected workflow including the steps in the workflow to the clinician in real time using the image display device, upon initiating the clinical procedure; and configuring the imaging system using the selected device setting parameter to perform the selected workflow; wherein communicating the selected workflow further comprises: annotating an image based on at least one of the patient information and steps in the workflow, the image including sample images and real time images of the patient; displaying annotated image, corresponding to each step in the clinical workflow, at least one of besides and blended into the real time image; and interacting a clinician with the annotated image. obtaining patient information along with a relevant clinical procedure through a user interface; selecting a predefined workflow and at least one device setting parameter from an information library, based on a clinician decision obtained through user interface; communicating the selected workflow including the steps in the workflow to the clinician in real time using the image display device, upon initiating the clinical procedure; and configuring the imaging system using the selected device setting parameter to perform the selected workflow; wherein communicating the selected workflow further comprises: annotating an image based on at least one of the patient information and steps in the workflow, the image including sample images and real time images of the patient; displaying annotated image, corresponding to each step in the clinical workflow, at least one of besides and blended into the real time image; and interacting a clinician with the annotated image.
Method for interacting with a plurality of distributed ledgers (165 1, 165 2,... 165n), comprising: using an information processing apparatus comprising at least one computer processor to perform the steps of: receiving a client request comprising a payload to be written to one of a plurality of distributed ledgers and metadata extracted from the client request; identifying, based on the payload, a destination distributed ledger of the plurality of distributed ledgers (165 1, 165 2,... 165 n); logging a source of the request and the destination distributed ledger; encrypting the payload; and routing the encrypted payload to the destination distributed ledger. receiving a client request comprising a payload to be written to one of a plurality of distributed ledgers and metadata extracted from the client request; identifying, based on the payload, a destination distributed ledger of the plurality of distributed ledgers (165 1, 165 2,... 165 n); logging a source of the request and the destination distributed ledger; encrypting the payload; and routing the encrypted payload to the destination distributed ledger.
A packet forwarding method, wherein the method comprises: receiving, by a network device, a plurality of packets of a first packet flow, wherein the first packet flow is an elephant flow; determining, by the network device, a characteristic parameter of the first packet flow based on the plurality of packets, wherein the characteristic parameter is used to indicate a transmission latency of the first packet flow; and determining, by the network device, a forwarding policy of the first packet flow based on the characteristic parameter of the first packet flow, wherein the forwarding policy is used to indicate a latency sensitivity of the first packet flow, and the forwarding policy comprises a packet flow priority and/or a forwarding path, wherein the packet flow priority is directly proportional tc the packet flow latency sensitivity, and a transmission quality of the forwarding path is directly proportional to the packet flow latency sensitivity. receiving, by a network device, a plurality of packets of a first packet flow, wherein the first packet flow is an elephant flow; determining, by the network device, a characteristic parameter of the first packet flow based on the plurality of packets, wherein the characteristic parameter is used to indicate a transmission latency of the first packet flow; and determining, by the network device, a forwarding policy of the first packet flow based on the characteristic parameter of the first packet flow, wherein the forwarding policy is used to indicate a latency sensitivity of the first packet flow, and the forwarding policy comprises a packet flow priority and/or a forwarding path, wherein the packet flow priority is directly proportional tc the packet flow latency sensitivity, and a transmission quality of the forwarding path is directly proportional to the packet flow latency sensitivity. a packet flow priority and/or a forwarding path, wherein the packet flow priority is directly proportional tc the packet flow latency sensitivity, and a transmission quality of the forwarding path is directly proportional to the packet flow latency sensitivity.
Preparation method for a p-phenylenediamine antioxidant, using 4-aminodiphenylamine and an aliphatic ketone as raw materials to prepare the PPD antioxidant, characterized in that a sulfur-containing Pd/carbon catalyst is added to the reaction system as a catalyst, and the sulfur-containing Pd/carbon catalyst is prepared by the preparation method comprising the following steps: loading Pd onto activated carbon, and obtaining a Pd/carbon catalyst; preparing a slurry by mixing the Pd/carbon catalyst with a solvent; adding a sulfide into the slurry, and stirring at a predetermined temperature; filtering, and obtaining the sulfur-containing Pd/carbon catalyst; wherein the predetermined temperature is 20 °C to 100 °C. loading Pd onto activated carbon, and obtaining a Pd/carbon catalyst; preparing a slurry by mixing the Pd/carbon catalyst with a solvent; adding a sulfide into the slurry, and stirring at a predetermined temperature; filtering, and obtaining the sulfur-containing Pd/carbon catalyst; wherein the predetermined temperature is 20 °C to 100 °C.
A ground fault interrupter (100 or 200) comprising: a zero-phase current transformer having a secondary winding that outputs a current proportional to a leakage current flowing through alternating-current electric circuits; a sensing resistor that is provided in addition to the zero-phase current transformer and converts the secondary-side output current of the zero-phase current transformer into a voltage; a signal detection circuit that performs A/D conversion on the voltage generated by the sensing resistor and outputs a tripping signal or an alarm signal if the detected voltage on which the A/D conversion has been performed is greater than or equal to a given voltage; an alarm output circuit that operates by receiving the tripping signal or the alarm output signal; a trigger circuit that outputs a trigger signal; and an electric leakage test circuit that outputs two or more electric leakage test signals having different phases in response to receipt of the trigger signal, wherein the two or more electric leakage test signals having different phases, which are output from the electric leakage test circuit, are directly or indirectly input to the signal detection circuit, and after having being subject to A/D conversion are suitable to cause the signal detection circuit to perform an operation which is identical to the operation that is performed when a leakage current is generated even when a leakage current is not generated in the alternating-current electric circuits. a zero-phase current transformer having a secondary winding that outputs a current proportional to a leakage current flowing through alternating-current electric circuits; a sensing resistor that is provided in addition to the zero-phase current transformer and converts the secondary-side output current of the zero-phase current transformer into a voltage; a signal detection circuit that performs A/D conversion on the voltage generated by the sensing resistor and outputs a tripping signal or an alarm signal if the detected voltage on which the A/D conversion has been performed is greater than or equal to a given voltage; an alarm output circuit that operates by receiving the tripping signal or the alarm output signal; a trigger circuit that outputs a trigger signal; and an electric leakage test circuit that outputs two or more electric leakage test signals having different phases in response to receipt of the trigger signal, wherein the two or more electric leakage test signals having different phases, which are output from the electric leakage test circuit, are directly or indirectly input to the signal detection circuit, and after having being subject to A/D conversion are suitable to cause the signal detection circuit to perform an operation which is identical to the operation that is performed when a leakage current is generated even when a leakage current is not generated in the alternating-current electric circuits.
A method of coding a picture comprising two or more slices, said method comprising: generating, for each slice of said slices, a coded slice representation based on pixel values of pixels in said slice; setting a slice flag associated with a first slice of said two or more slices to a first defined value to indicate that the first slice is the first slice in the picture and thereby define an associated slice start address in the picture; setting, for each slice of the remaining slices of said two or more slices, a slice flag associated with said slice to a second defined value; generating, for each slice of said remaining slices, a slice address allowing identification of a position of a first coding unit (10B, 20B, 30B, 40B) of said slice within said picture; and generating a coded picture representation of said picture comprising said coded slice representations, said slice addresses, and said slice flags; characterized in that said slice addresses are signaled with a fixed length code. generating, for each slice of said slices, a coded slice representation based on pixel values of pixels in said slice; setting a slice flag associated with a first slice of said two or more slices to a first defined value to indicate that the first slice is the first slice in the picture and thereby define an associated slice start address in the picture; setting, for each slice of the remaining slices of said two or more slices, a slice flag associated with said slice to a second defined value; generating, for each slice of said remaining slices, a slice address allowing identification of a position of a first coding unit (10B, 20B, 30B, 40B) of said slice within said picture; and generating a coded picture representation of said picture comprising said coded slice representations, said slice addresses, and said slice flags; characterized in that said slice addresses are signaled with a fixed length code.
An electrical switch to be interposed between an electricity network equipping a building and a load controlled by means of said switch, said electrical switch being for being embedded in a partition or for mounting protruding on a partition and comprising a first inlet terminal, a second inlet terminal, a first outlet terminal, a second outlet terminal, a controllable switch that is interposed between the first inlet terminal and the first outlet terminal, and a control circuit that is adapted to produce a control signal for the controllable switch; characterized in that it comprises: · a measurement circuit for measuring a magnitude of the electricity consumed through the controllable switch · a finite-impedance circuit that is interposed between the first outlet terminal and the second outlet terminal and in that the control circuit is designed to produce an opening control signal for opening the controllable switch, to monitor the measured electrical magnitude when the opening control signal is produced, and to generate a fault indication (I; I') if the measured electrical magnitude indicates non-zero electricity consumption through the controllable switch when the opening control signal is produced. characterized in that it comprises: · a measurement circuit for measuring a magnitude of the electricity consumed through the controllable switch · a finite-impedance circuit that is interposed between the first outlet terminal and the second outlet terminal · a measurement circuit for measuring a magnitude of the electricity consumed through the controllable switch · a finite-impedance circuit that is interposed between the first outlet terminal and the second outlet terminal and in that the control circuit is designed to produce an opening control signal for opening the controllable switch, to monitor the measured electrical magnitude when the opening control signal is produced, and to generate a fault indication (I; I') if the measured electrical magnitude indicates non-zero electricity consumption through the controllable switch when the opening control signal is produced.
A system for the identification and recognition of a motor vehicle based on the profile of voltage values from a vehicle's onboard electrical system, comprising: - a voltage and/or current detecting device connected to the vehicle's onboard electrical system; said system being configured to: - create a database comprising at least one reference value of voltage and/or absorbed current acquired from the vehicle's onboard electrical system and associated with at least one pre-established vehicle condition; - detect at least one operating value of voltage and/or absorbed current from the vehicle's onboard electrical system, the at least one operating value of voltage and/or absorbed current being associated with said at least one pre-established vehicle condition; - compare the at least one reference value with the at least one operating value, and in the case where: a) the at least one operating value coincides with the at least one reference value, determining that the system for the identification is installed on the vehicle; b) the at least one operating value does not coincide with the at least one reference value, determining that the system for the identification is not installed on the vehicle. - a voltage and/or current detecting device connected to the vehicle's onboard electrical system; - create a database comprising at least one reference value of voltage and/or absorbed current acquired from the vehicle's onboard electrical system and associated with at least one pre-established vehicle condition; - detect at least one operating value of voltage and/or absorbed current from the vehicle's onboard electrical system, the at least one operating value of voltage and/or absorbed current being associated with said at least one pre-established vehicle condition; - compare the at least one reference value with the at least one operating value, and in the case where: a) the at least one operating value coincides with the at least one reference value, determining that the system for the identification is installed on the vehicle; b) the at least one operating value does not coincide with the at least one reference value, determining that the system for the identification is not installed on the vehicle. a) the at least one operating value coincides with the at least one reference value, determining that the system for the identification is installed on the vehicle; b) the at least one operating value does not coincide with the at least one reference value, determining that the system for the identification is not installed on the vehicle.
A near-field antenna, comprising: a magnetic, H-field, antenna; an electric, E-field, antenna; wherein the E-field antenna is galvanically insulated from the H-field antenna; wherein the E-field antenna is configured to be inductively charged by the H-field antenna; wherein the H-field antenna includes a first and second portion (402, 404); wherein the E-field antenna, includes a planar surface and an opening; wherein the H-field antenna is positioned within the opening; wherein the first portion of the H-field antenna is on one side of the planar surface; and wherein the second portion of the H-field antenna is on an opposite side of the planar surface. a magnetic, H-field, antenna; an electric, E-field, antenna; wherein the E-field antenna is galvanically insulated from the H-field antenna; wherein the E-field antenna is configured to be inductively charged by the H-field antenna; wherein the H-field antenna includes a first and second portion (402, 404); wherein the E-field antenna, includes a planar surface and an opening; wherein the H-field antenna is positioned within the opening; wherein the first portion of the H-field antenna is on one side of the planar surface; and wherein the second portion of the H-field antenna is on an opposite side of the planar surface.