mhurhangee/patent-ind-claim-en huggingface dataset:
A configuration method, comprising: determining, by a mobile edge, ME, platform manager, a network forwarding path, NFP, from an instantiated first mobile edge computing, MEC, application to a first destination application, wherein the NFP is used to indicate a forwarding path of a traffic flow or packet that is sent by the first MEC application to the first destination application; sending, by the ME platform manager, an NFP creation request to a virtualized infrastructure manager, VIM, to request the VIM to create the NFP determined by the ME platform manager; and associating, by the ME platform manager, the NFP created by the VIM with a first traffic flow rule configured for the first MEC application. determining, by a mobile edge, ME, platform manager, a network forwarding path, NFP, from an instantiated first mobile edge computing, MEC, application to a first destination application, wherein the NFP is used to indicate a forwarding path of a traffic flow or packet that is sent by the first MEC application to the first destination application; sending, by the ME platform manager, an NFP creation request to a virtualized infrastructure manager, VIM, to request the VIM to create the NFP determined by the ME platform manager; and associating, by the ME platform manager, the NFP created by the VIM with a first traffic flow rule configured for the first MEC application.
An electronic imprinting device wherein an electronic imprinting device is defined as a device wherein an electronic seal as the imprint data is directly put on document data, the electronic imprinting device comprising: a display that performs a display; an operation unit that accepts an operation of a user; a recognition processing unit that recognizes a character included in first document data and detects a guide character that indicates an imprinting position, wherein the recognition processing unit detects a predetermined character as the guide character when the predetermined character has a blank in each of front and back of the predetermined character ; a storage unit that stores imprint data representing an imprint; and an imprint processing unit that, when the recognition processing unit recognizes that the first document data includes the guide character , generates second document data as data to which an imprint image represented by the imprint data is affixed at a position of the guide character , the second document data including a content of the first document data. a display that performs a display; an operation unit that accepts an operation of a user; a recognition processing unit that recognizes a character included in first document data and detects a guide character that indicates an imprinting position, wherein the recognition processing unit detects a predetermined character as the guide character when the predetermined character has a blank in each of front and back of the predetermined character ; a storage unit that stores imprint data representing an imprint; and an imprint processing unit that, when the recognition processing unit recognizes that the first document data includes the guide character , generates second document data as data to which an imprint image represented by the imprint data is affixed at a position of the guide character , the second document data including a content of the first document data.
A turbine engine structure comprising: an turbine engine core including a core cocooning feature configured to cocoon the turbine engine core by partially or completely isolating the turbine engine core from a flowpath and preventing air in the flowpath from entering the turbine engine core ; a fan fore of said turbine engine core , relative to fluid flow through said turbine engine structure , wherein the fan is drivably connected to said turbine engine core via a shaft; a nacelle circumferentially surrounding said turbine engine core ; a bypass flowpath defined between said turbine engine core and said nacelle ; and a plurality of augmenter fuel spray bars disposed in said bypass flowpath ; characterised by further comprising: a jet fuel motor configured to drive a shaft, the shaft being further connected to said fan , such that said shaft is capable of driving said fan . an turbine engine core including a core cocooning feature configured to cocoon the turbine engine core by partially or completely isolating the turbine engine core from a flowpath and preventing air in the flowpath from entering the turbine engine core ; a fan fore of said turbine engine core , relative to fluid flow through said turbine engine structure , wherein the fan is drivably connected to said turbine engine core via a shaft; a nacelle circumferentially surrounding said turbine engine core ; a bypass flowpath defined between said turbine engine core and said nacelle ; and a plurality of augmenter fuel spray bars disposed in said bypass flowpath ; characterised by further comprising: a jet fuel motor configured to drive a shaft, the shaft being further connected to said fan , such that said shaft is capable of driving said fan .
A ceramic matrix component comprising a fibrous core and a ceramic matrix composite shell surrounding at least a portion of the fibrous core, wherein the ceramic matrix composite shell comprises a fibrous preform and the fibrous core has a greater porosity than the fibrous preform.
A method for identifying a presence of one or more biomarkers associated with cancer in a biological sample from an individual having or suspected of having cancer, said method comprising: a. isolating cell free RNA (cfRNA) from the biological sample using solid support, wherein the biological sample has been interacted with RNA stabilizer; b. digesting existing DNA from the biological sample while cfRNA is on the solid support; c. eluting cfRNA at least once from the solid support; d. reverse transcribing the cfRNA to cDNA; e. reacting the cDNA with at least one primer that is specific for detecting a biomarker associated with cancer, wherein the biomarker is a mutation in PD-L1 gene or fusion transcript of PD-L1 gene or gene expression level of PD-L1; and f. determining whether the biomarker is present in the biological sample, wherein the presence of the biomarker identifies whether the individual has the biomarker associated with cancer. a. isolating cell free RNA (cfRNA) from the biological sample using solid support, wherein the biological sample has been interacted with RNA stabilizer; b. digesting existing DNA from the biological sample while cfRNA is on the solid support; c. eluting cfRNA at least once from the solid support; d. reverse transcribing the cfRNA to cDNA; e. reacting the cDNA with at least one primer that is specific for detecting a biomarker associated with cancer, wherein the biomarker is a mutation in PD-L1 gene or fusion transcript of PD-L1 gene or gene expression level of PD-L1; and f. determining whether the biomarker is present in the biological sample, wherein the presence of the biomarker identifies whether the individual has the biomarker associated with cancer.
Occupant monitoring system for a vehicle that has at least one autonomous driving function (AF1, AF2), having at least one sensor system for detecting a current driving state of the vehicle, an interior sensor system for detecting an interior state and at least one evaluation and control unit , characterized in that the interior sensor system comprises multiple ultrasonic sensors (US1, US2) and/or microphones (M1, M2) arranged in the vehicle interior in a distributed manner, wherein the evaluation and control unit receives raw signals of the ultrasonic sensors (US1, US2) and/or of the microphones (M1, M2) and processes said signals further, wherein the evaluation and control unit takes the raw signals of the ultrasonic sensors (US1, US2) and/or of the microphones (M1, M2) as a basis for determining breathing sounds from the occupants, which have characteristic resonant frequencies, and wherein the evaluation and control unit convolutes the raw signals of the ultrasonic sensors (US1, US2) and/or of the microphones (M1, M2) with itself and/or accounts for said signals by autocorrelation in order to extract the characteristic resonant frequencies and breathing frequencies of the individual occupants from the breathing sounds, the evaluation and control unit evaluating the characteristic resonant frequencies and breathing frequencies in order to determine a number of occupants and a physical state of health of the individual occupants.
A water regulator for controlling a quantity of water flowing through water pipes in a refrigeration cycle apparatus including a refrigerant circuit through which a refrigerant flows, a circulation pump having a number of rotations controlled such that a pressure difference between a pressure at an inlet of the circulation pump and a pressure at an outlet of the circulation pump falls within a predetermined range, the circulation pump being configured to control the quantity of the water flowing through the water pipes based on said pressure difference, the circulation pump being further configured to circulate the water in the water pipes, and a heat exchanger configured to cause the refrigerant flowing through the refrigerant circuit to exchange heat with the water flowing through the water pipes, the water regulator comprising: a water regulation valve configured to regulate the quantity of the water flowing through the water pipes; a first temperature sensor configured to measure a temperature of one of the water pipes which is connected to an inlet of the heat exchanger; a second temperature sensor configured to measure a temperature of one of the water pipes which is connected to an outlet of the heat exchanger; and a controller configured to control an opening degree of the water regulation valve, based on a difference between the temperature measured by the first temperature sensor and the temperature measured by the second temperature sensor, the water regulator characterized in that the number of rotations of the circulation pump is configured to be controlled independently of the controller , the water regulation valve is configured to cause a difference between the pressure at the inlet of the circulation pump and the pressure at the outlet of the circulation pump by changing the quantity of the water in the water pipes. a water regulation valve configured to regulate the quantity of the water flowing through the water pipes; a first temperature sensor configured to measure a temperature of one of the water pipes which is connected to an inlet of the heat exchanger; a second temperature sensor configured to measure a temperature of one of the water pipes which is connected to an outlet of the heat exchanger; and a controller configured to control an opening degree of the water regulation valve, based on a difference between the temperature measured by the first temperature sensor and the temperature measured by the second temperature sensor, the water regulator characterized in that the number of rotations of the circulation pump is configured to be controlled independently of the controller , the water regulation valve is configured to cause a difference between the pressure at the inlet of the circulation pump and the pressure at the outlet of the circulation pump by changing the quantity of the water in the water pipes.
A nucleic acid analyzer comprising a carousel rotatable about a rotation axis, a plurality of reaction containers held along a circumferential edge of the carousel, and a plurality of detectors each including a light source for irradiating a respective one of the reaction containers with excitation light and a detection element with a fluorescence filter for detecting fluorescence from a reaction liquid in the reaction container, wherein the detectors are removably attached, and the detectors are configured to perform fluorescence measurement independently of one another, characterised in that the detectors include a first detector adapted for the detection of the fluorophore ROX, a second detector adapted for the detection of the fluorophore Alexa405, a third detector adapted for the detection of the fluorophore Cy5 and a fourth detector adapted for the detection of the fluorophore FAM, wherein the first to fourth detectors are arranged along the circumference of the carousel so that the fourth detector for the detection of the fluorophore FAM and the first detector for the detection of the fluorophore ROX are not adjacent to each other and the first detector for the detection of the fluorophore ROX and the third detector for the detection of the fluorophore Cy5 are not adjacent to each other, whereby the differences between the wavelengths of the excitation light generated by the light sources of adjacent ones (5a, 5b; 5b, 5c; 5c, 5d) of said detectors are larger than predetermined wavelength differences, and whereby the differences between the wavelengths of the fluorescences detected through the fluorescence filters by the detection elements of the adjacent ones (5a, 5b; 5b, 5c; 5c, 5d) of said detectors are larger than predetermined wavelength differences.
An image forming system comprising: a print control unit configured to control printing on a conveyance medium based on print image data for printing a first image in a print area on the conveyance medium; and a print image generation unit configured to: determine a position at which a second image is printed in a cut area, based on a position of a cutting mark, the second image including identification information to identify each page of the conveyance medium, the cut area being an area to be cut in the print area; and generate the print image data including the second image. a print control unit configured to control printing on a conveyance medium based on print image data for printing a first image in a print area on the conveyance medium; and a print image generation unit configured to: determine a position at which a second image is printed in a cut area, based on a position of a cutting mark, the second image including identification information to identify each page of the conveyance medium, the cut area being an area to be cut in the print area; and generate the print image data including the second image. determine a position at which a second image is printed in a cut area, based on a position of a cutting mark, the second image including identification information to identify each page of the conveyance medium, the cut area being an area to be cut in the print area; and generate the print image data including the second image.
Intervertebral implant - comprising at least two upper and two lower contact bodies (2.1-2.4) having contact surfaces (2.1.1-2.4.1), - comprising an actuator having a threaded body which has an extension axis (A) and is provided with opposite-handed threads (4.1, 4.2) arranged one behind the other, - comprising wedges which sit on the threaded body in an axially moveable manner, can be moved along said threaded body by rotating same, and comprise ramps (5.2.1, 5a.2.1) of at least one ramp body (5.2, 5a.2) of a wedge, which ramps engage at least with counter-surfaces of at least some of the contact bodies and extend toward one another at a finite angle of less than 90°, characterized in that - the wedges are designed as double wedges having, in the direction of the extension axis (A), two ramp bodies arranged one behind the other, - the ramps (5.1.1, 5.1.2; 5a.1.1, 5a.1.2) of one ramp body (5.1, 5.2) are oriented differently to the ramps (5.2.1, 5.2.2, 5a.2.1, 5a.2.2) of the other ramp body (5a.1, 5a.2), - the ramps (5.2.1, 5.2.2; 5a.2.1, 5a.2.2) of the first ramp body (5.2, 5a.2) engage directly with the contact bodies (2.1-2.4) laterally, while the ramps (5.1.1, 5.1.2; 5a.1.1, 5a.1.2) of the second ramp body (5.1, 5a.1) engage directly with the contact bodies (2.1-2.4) in the vertical direction. - comprising at least two upper and two lower contact bodies (2.1-2.4) having contact surfaces (2.1.1-2.4.1), - comprising an actuator having a threaded body which has an extension axis (A) and is provided with opposite-handed threads (4.1, 4.2) arranged one behind the other, - comprising wedges which sit on the threaded body in an axially moveable manner, can be moved along said threaded body by rotating same, and comprise ramps (5.2.1, 5a.2.1) of at least one ramp body (5.2, 5a.2) of a wedge, which ramps engage at least with counter-surfaces of at least some of the contact bodies and extend toward one another at a finite angle of less than 90°, characterized in that - the wedges are designed as double wedges having, in the direction of the extension axis (A), two ramp bodies arranged one behind the other, - the ramps (5.1.1, 5.1.2; 5a.1.1, 5a.1.2) of one ramp body (5.1, 5.2) are oriented differently to the ramps (5.2.1, 5.2.2, 5a.2.1, 5a.2.2) of the other ramp body (5a.1, 5a.2), - the ramps (5.2.1, 5.2.2; 5a.2.1, 5a.2.2) of the first ramp body (5.2, 5a.2) engage directly with the contact bodies (2.1-2.4) laterally, while the ramps (5.1.1, 5.1.2; 5a.1.1, 5a.1.2) of the second ramp body (5.1, 5a.1) engage directly with the contact bodies (2.1-2.4) in the vertical direction.
A container tracking system comprising a plurality of containers having metallic walls , at least one of the containers having a radio frequency, RF, tag mounted on a metallic wall thereof for tracking the container, the RF tag having an antenna arranged to excite a transverse electromagnetic, TEM, wave relative to a ground plane of the antenna , which is substantially parallel to said metallic wall ; the system being characterised by the containers being arranged such that the metallic walls of adjacent ones of the containers form a waveguide in which the antenna is arranged to excite the TEM wave with an electric field component thereof perpendicular to the metallic walls .
A nacelle of an aircraft turbojet engine, the nacelle including a rear section without a lower bifurcation, the rear section including a thrust reverser system, the thrust reverser system including a movable cowl , the nacelle including a guidance system including a movable portion and a fixed portion , the movable portion being secured in translation to the movable cowl and cooperating with the fixed portion , the fixed portion being fixed with respect to the nacelle , characterized in that the guidance system is disposed close to the position called «at 6 o'clock», the length of the fixed portion of the guidance system being greater than or equal to 50% of the length of the movable portion .
A physical random access channel, PRACH, preamble sending method, comprising: determining , by a controller, access slot information according to at least one PRACH preamble repetition, wherein the access slot information comprises a start access slot, AS, corresponding to each random access channel, RACH, sub-channel, and N-1 unavailable start ASs after the start AS, which are unavailable for any user equipment, UE, to initiate an access, wherein N is the quantity of PRACH preamble repetitions; and sending , by the controller, the access slot information to each UE, so that each UE repeatedly sends a same PRACH preamble to a base station using the N ASs starting at the start AS and including the N-1 unavailable start ASs according to the access slot information. determining , by a controller, access slot information according to at least one PRACH preamble repetition, wherein the access slot information comprises a start access slot, AS, corresponding to each random access channel, RACH, sub-channel, and N-1 unavailable start ASs after the start AS, which are unavailable for any user equipment, UE, to initiate an access, wherein N is the quantity of PRACH preamble repetitions; and sending , by the controller, the access slot information to each UE, so that each UE repeatedly sends a same PRACH preamble to a base station using the N ASs starting at the start AS and including the N-1 unavailable start ASs according to the access slot information.
A nonwoven fabric comprising a first surface and a second surface, and at least a first visually discernible zone on at least one of the first surface and the second surface, the first visually discernable zone having a pattern of three-dimensional features, each of the three-dimensional features defining a microzone comprising a first region and a second region, the first and second regions having a difference in values for an intensive property, wherein the intensive property is thickness, basis weight or volumetric density as measured by the Micro-CT Intensive Property Measurement Test Method disclosed in the description; wherein the first visually discernable zone has a Gray Level Variation of between about 0.1 and about 10.0, according to the Intra-Article Gray Level Variation Test Method detailed herein; wherein the nonwoven fabric includes continuous multicomponent polymeric filaments comprising a primary polymeric component and a secondary polymeric component; wherein the nonwoven is directly formed on a shaped forming belt with continuous spunbond filaments having an average diameter from 6 to about 40 microns in a single forming process; wherein the forming belt has a %KA of between about 2% and about 35% calculated by dividing the area of the forming belt that contains knuckles by the overall area of the entire forming belt; wherein the forming belt has an air permeability in the range of about 400 cfm to about 800 cfm, according to the Air Permeability Test Method detailed herein; and wherein the forming belt has an overburden in the range of about 0.508 mm to about 1.270 mm. wherein the first visually discernable zone has a Gray Level Variation of between about 0.1 and about 10.0, according to the Intra-Article Gray Level Variation Test Method detailed herein; wherein the nonwoven fabric includes continuous multicomponent polymeric filaments comprising a primary polymeric component and a secondary polymeric component; wherein the nonwoven is directly formed on a shaped forming belt with continuous spunbond filaments having an average diameter from 6 to about 40 microns in a single forming process; wherein the forming belt has a %KA of between about 2% and about 35% calculated by dividing the area of the forming belt that contains knuckles by the overall area of the entire forming belt; wherein the forming belt has an air permeability in the range of about 400 cfm to about 800 cfm, according to the Air Permeability Test Method detailed herein; and wherein the forming belt has an overburden in the range of about 0.508 mm to about 1.270 mm.