mhurhangee/ep-ind-claims huggingface dataset:
A memory controller comprising: a circuit for accessing data on a nonvolatile memory; an interface structured to receive a request from a file system driver to create an alias between a storage system block of memory and a main memory block of memory, the storage system block of memory for use in maintaining storage system data, the main memory block of memory for use for main memory of a computer; an aliasing circuit structured to create the alias between the storage system block of memory and the main memory block of memory; and a retrieval circuit structured to obtain data from the storage system block in response to a read request for data of the main memory block as long as the alias is not severed, wherein the nonvolatile memory is divided into a file system region and a memory region and wherein the storage system block of memory is located in the file system region and the main memory block is located in the memory region, characterized in that memory elements in the file system region are physically accessible in a same manner as memory elements in the memory region, and the aliasing circuit being structured to create an alias between the storage system block of memory and the main memory block of memory comprises the aliasing circuit being structured to create an alias from each sub block of the main memory block of memory to each corresponding sub block of the storage system block of memory and to maintain each alias until severed. a circuit for accessing data on a nonvolatile memory; an interface structured to receive a request from a file system driver to create an alias between a storage system block of memory and a main memory block of memory, the storage system block of memory for use in maintaining storage system data, the main memory block of memory for use for main memory of a computer; an aliasing circuit structured to create the alias between the storage system block of memory and the main memory block of memory; and a retrieval circuit structured to obtain data from the storage system block in response to a read request for data of the main memory block as long as the alias is not severed, wherein the nonvolatile memory is divided into a file system region and a memory region and wherein the storage system block of memory is located in the file system region and the main memory block is located in the memory region, characterized in that memory elements in the file system region are physically accessible in a same manner as memory elements in the memory region, and the aliasing circuit being structured to create an alias between the storage system block of memory and the main memory block of memory comprises the aliasing circuit being structured to create an alias from each sub block of the main memory block of memory to each corresponding sub block of the storage system block of memory and to maintain each alias until severed.
An illumination device comprising: a first light source; a second light source; a rotary diffusion plate, which includes a first surface, a second surface, a diffusion section disposed on the first surface, and a detection section disposed on at least one of the first surface and the second surface, wherein light from the first light source is input to the diffusion section and light from the second light source is input to the detection section; a light collection optical system to which light from the diffusion section is input; a detector adapted to detect light from the detection section; and a control device (CONT) adapted to control the first light source in accordance with a signal output from the detector, wherein the detection section is disposed at a position different from an area where the light diffusion section is formed, and wherein the second surface is the surface of the rotary diffusion plate opposite to the first surface, and the control device is adapted to stop driving of the first light source when the signal output from the detector indicates a fracture or disengagement of the rotary diffusion plate. a first light source; a second light source; a rotary diffusion plate, which includes a first surface, a second surface, a diffusion section disposed on the first surface, and a detection section disposed on at least one of the first surface and the second surface, wherein light from the first light source is input to the diffusion section and light from the second light source is input to the detection section; a light collection optical system to which light from the diffusion section is input; a detector adapted to detect light from the detection section; and a control device (CONT) adapted to control the first light source in accordance with a signal output from the detector, wherein the detection section is disposed at a position different from an area where the light diffusion section is formed, and wherein the second surface is the surface of the rotary diffusion plate opposite to the first surface, and the control device is adapted to stop driving of the first light source when the signal output from the detector indicates a fracture or disengagement of the rotary diffusion plate.
An image processing method in a diagnosis assisting device (1; 100A) that diagnoses lesions from a picked-up image, the picked-up image being a dermoscopy image, the method comprising: performing an image correction (S302-S307; S702-S709) on the picked-up image for diagnosis, wherein said image correction includes a brightness correcting process (S702-S709); and subtracting a target pixel value from a pixel value of the picked-up image having undergone the image correction to obtain an input image to an ensemble identifier formed of a neural network that identifies diseases based on the unknown picked-up image relating to an object to be diagnosed, wherein the target pixel value is set by said step of performing an image correction and is related to skin color of a non-affected area, characterized in that in the, a peripheral area other than a diagnosis area that has a high probability as diseases in the picked-up image is set to be a measuring area for measuring information regarding a brightness in the peripheral area as a parameter for an image correction, wherein the measured information regarding a brightness is used to create a brightness histogram relative to the measuring area, calculate a correction gain value based on the peak value of the brightness histogram, and multiply at least two pixels among pixels in a color space by the same correction gain value so as not to change a color phase, thereby obtaining a correction gain for brightness correction. performing an image correction (S302-S307; S702-S709) on the picked-up image for diagnosis, wherein said image correction includes a brightness correcting process (S702-S709); and subtracting a target pixel value from a pixel value of the picked-up image having undergone the image correction to obtain an input image to an ensemble identifier formed of a neural network that identifies diseases based on the unknown picked-up image relating to an object to be diagnosed, wherein the target pixel value is set by said step of performing an image correction and is related to skin color of a non-affected area, characterized in that in the, a peripheral area other than a diagnosis area that has a high probability as diseases in the picked-up image is set to be a measuring area for measuring information regarding a brightness in the peripheral area as a parameter for an image correction, wherein the measured information regarding a brightness is used to create a brightness histogram relative to the measuring area, calculate a correction gain value based on the peak value of the brightness histogram, and multiply at least two pixels among pixels in a color space by the same correction gain value so as not to change a color phase, thereby obtaining a correction gain for brightness correction.
A computer-implemented method for generating a dental system, the method comprising: designing a dental appliance shaped to move teeth by surveying the positioning of a patient's teeth within a mouth of a patient, where the dental appliance is designed to include a tab of a length representing a position of a tooth that has not fully erupted, wherein, optionally, the tab of the dental appliance is designed to apply, in use, force to the not fully erupted tooth in order to keep the tooth from supra-eruption.
A body attachable unit for continuous glucose measurement, the body attachable unit configured to be insertedly attachable to a body by an applicator for the continuous glucose measurement, the body attachable unit comprising: a housing, wherein a bottom surface of the housing is to contact a skin; a printed circuit board disposed inside the housing; a sensor unit installed in the housing, wherein one end portion of the sensor unit outwardly protrudes from the bottom surface of the housing to be inserted into the body when the housing contacts the skin, and an other end portion of the sensor unit is configured to be contactable to an electrical contact point of the PCB; and a pressurizing operation module configured to pressurize the other end portion of the sensor unit to be contacted to the electrical contact point of the PCB according to manipulation of a user, wherein a pressure transforming unit) configured to be transformable by being pressurized by the pressurizing operation module to be contacted to the electrical contact point of the PCB is formed at the other end portion of the sensor unit. a housing, wherein a bottom surface of the housing is to contact a skin; a printed circuit board disposed inside the housing; a sensor unit installed in the housing, wherein one end portion of the sensor unit outwardly protrudes from the bottom surface of the housing to be inserted into the body when the housing contacts the skin, and an other end portion of the sensor unit is configured to be contactable to an electrical contact point of the PCB; and a pressurizing operation module configured to pressurize the other end portion of the sensor unit to be contacted to the electrical contact point of the PCB according to manipulation of a user, wherein a pressure transforming unit) configured to be transformable by being pressurized by the pressurizing operation module to be contacted to the electrical contact point of the PCB is formed at the other end portion of the sensor unit.
A type II crystal of 3-(3,5-dichloro-4-hydroxybenzoyl)-1,1-dioxo-2,3-dihydro-1,3-benzothiazole, having characteristic peaks at least at 15.1, 18.1, 22.8, 23.7, and 24.0 degrees in the diffraction angle (2Θ) by X-ray powder diffraction plus or minus 0.2 in each peak in X-ray powder diffraction(2Θ) analysis.
A method implemented by a network device functioning as a source gNodeB in a cellular communication network to support incremental deployment of identifier locator network protocol, ILNP, breakout in the cellular communication network, the method comprising: sending a list of data network names, DNNs, advertised by an access and mobility management function, AMF, to a user equipment, UE; receiving from the UE a first request for a first session with an ILNP session and service continuity, SSC, mode; facilitating the UE establishing a first packet data network, PDN, session associated with a UE selected DNN, where the first PDN session requests the ILNP SSC mode; receiving from the UE a second request for a second session to the selected DNN using a non-ILNP SSC mode; and facilitating the UE establishing a second PDN session to the selected DNN using the non-ILNP SSC mode. sending a list of data network names, DNNs, advertised by an access and mobility management function, AMF, to a user equipment, UE; receiving from the UE a first request for a first session with an ILNP session and service continuity, SSC, mode; facilitating the UE establishing a first packet data network, PDN, session associated with a UE selected DNN, where the first PDN session requests the ILNP SSC mode; receiving from the UE a second request for a second session to the selected DNN using a non-ILNP SSC mode; and facilitating the UE establishing a second PDN session to the selected DNN using the non-ILNP SSC mode.
Use of an aromatic ester of formula wherein: R 1 is OH, halogen, or di-C 1-4 alkyl amino, q is 0 or 1 n is an integer selected from 0 to 20 inclusive, each A is independently C 1-10 alkanediyl, m is an integer selected from 1, 2 or 3; wherein when m is 1, R 2 is selected from the group consisting of C 7 -C 20 alkyl, C 7 -C 20 alkenyl, C 7 -C 20 alkyldienyl and C 7 -C 20 alkyltrienyl; and when m is 2 or 3, R 2 is selected from the group consisting of C 1 -C 20 alkyl, C 4 -C 22 alkenyl, C 4 -C 22 alkyldienyl and C 6 -C 22 alkyltrienyl; and each group is independently attached to any carbon atom within R 2, and each R 1, q, A and n is independently as defined above provided that the aromatic ester of formula is not dipropylene glycol dibenzoate, as an adjuvant in an agrochemical composition comprising an agrochemical active ingredient, wherein the aromatic ester enhances the biological activity of the active ingredient. R 1 is OH, halogen, or di-C 1-4 alkyl amino, q is 0 or 1 n is an integer selected from 0 to 20 inclusive, each A is independently C 1-10 alkanediyl, m is an integer selected from 1, 2 or 3; wherein when m is 1, R 2 is selected from the group consisting of C 7 -C 20 alkyl, C 7 -C 20 alkenyl, C 7 -C 20 alkyldienyl and C 7 -C 20 alkyltrienyl; and when m is 2 or 3, R 2 is selected from the group consisting of C 1 -C 20 alkyl, C 4 -C 22 alkenyl, C 4 -C 22 alkyldienyl and C 6 -C 22 alkyltrienyl; and each group is independently attached to any carbon atom within R 2, and each R 1, q, A and n is independently as defined above provided that the aromatic ester of formula is not dipropylene glycol dibenzoate,
A retention material for a gas processing device comprising a processing structure and a casing for accommodating the processing structure, the retention material comprising inorganic fibers and being arranged between the processing structure and the casing, wherein the inorganic fibers are alumina fibers comprising 70 wt% to 75 wt% of alumina and 30 wt% to 25 wt% of silica; a true density of the inorganic fibers is 3.02 g/cm 3 to 3.50 g/cm 3; characterised in that a ratio of the true density of the inorganic fibers to a theoretical value of the true density is 86.9% or more, and 88.2% or less; and in a test of repeating a cycle of compressing the retention material until a bulk density of the retention material becomes a prescribed compression bulk density, followed by retaining for 10 seconds, and then releasing until a bulk density of the retention material becomes a release bulk density that is smaller by 12% than said prescribed compression bulk density; a release surface pressure of the retention material after repeating the cycle 2500 times and the compression bulk density of the retention material satisfies the following relationship: P ≧ 17.10 × D − 1.62 wherein P is the release surface pressure (N/cm 2) and D is the compression bulk density (g/cm 3).
A seal assembly comprising: a seal carrier; a spring carrier, wherein the seal carrier is connected to the spring carrier and is removable therefrom; a seal support to which the spring carrier is connected; a plurality of springs disposed between the seal support and a first side of the spring carrier such that the spring carrier and seal carrier are biased by the plurality of springs; characterised in that the seal carrier is connected to the spring carrier and is removable therefrom without disturbing the seal support, plurality of springs or the spring carrier; and in that the plurality of springs is retained by the spring carrier when the seal carrier is removed from the spring carrier. a seal carrier; a spring carrier, wherein the seal carrier is connected to the spring carrier and is removable therefrom; a seal support to which the spring carrier is connected; a plurality of springs disposed between the seal support and a first side of the spring carrier such that the spring carrier and seal carrier are biased by the plurality of springs; characterised in that the seal carrier is connected to the spring carrier and is removable therefrom without disturbing the seal support, plurality of springs or the spring carrier; and in that the plurality of springs is retained by the spring carrier when the seal carrier is removed from the spring carrier.
A method for controlling a refrigerator having a compressor and a storage compartment (111, 112), comprising: turning the compressor on to operate with a predetermined cooling power for cooling the storage compartment; determining that a temperature of the storage compartment (111, 112) has decreased to a first reference temperature; turning the compressor off when the temperature of the storage compartment (111, 112) is determined to have decreased to the first reference temperature; determining that the temperature of the storage compartment (111, 112) has increased to a second reference temperature, the second reference temperature being higher than the first reference temperature, and turning the compressor on again when the temperature of the storage compartment (111, 112) is determined to have increased to the second reference temperature, wherein the turning of the compressor on again includes: determining a cooling power for the compressor based on an on slope and an off slope, the on slope being a temperature change slope of the storage compartment (111, 112) during an on time of the compressor in which the compressor is turned on, and the off slope being a temperature change slope of the storage compartment (111, 112) during an off time of the compressor in which the compressor is turned off, and operating the compressor at the determined cooling power. turning the compressor on to operate with a predetermined cooling power for cooling the storage compartment; determining that a temperature of the storage compartment (111, 112) has decreased to a first reference temperature; turning the compressor off when the temperature of the storage compartment (111, 112) is determined to have decreased to the first reference temperature; determining that the temperature of the storage compartment (111, 112) has increased to a second reference temperature, the second reference temperature being higher than the first reference temperature, and turning the compressor on again when the temperature of the storage compartment (111, 112) is determined to have increased to the second reference temperature, wherein the turning of the compressor on again includes: determining a cooling power for the compressor based on an on slope and an off slope, the on slope being a temperature change slope of the storage compartment (111, 112) during an on time of the compressor in which the compressor is turned on, and the off slope being a temperature change slope of the storage compartment (111, 112) during an off time of the compressor in which the compressor is turned off, and operating the compressor at the determined cooling power. determining a cooling power for the compressor based on an on slope and an off slope, the on slope being a temperature change slope of the storage compartment (111, 112) during an on time of the compressor in which the compressor is turned on, and the off slope being a temperature change slope of the storage compartment (111, 112) during an off time of the compressor in which the compressor is turned off, and operating the compressor at the determined cooling power.
Internal combustion reciprocating engine having a cylinder housing a piston and at least two separate combustion chambers (1,2) separated by valves (I 1,I 2) from the cylinder, and having a suction valve (Sz) and an exhaust valve both opening to the cylinder, and having a crankshaft, characterized in that each said combustion chamber (1,2) is provided by at least one fuel injection nozzle being able to inject fuel into the respective chamber (1,2) by several partial injections (b i) with short dwells therebetween, and said combustion chamber (1,2) is shaped as a spherical or a cylindrical or a toroidal chamber, and the axis (t) of the fuel injection nozzle is aligned with a secant line of a circular section lying in the symmetry plane of the chamber, and the engine having an even number of cylinders coupled by pairs to each other through at least two combustion chambers (1,2) in parallel arrangement and provided by valves (I 1,I 2,II 1,II 2) respectively opening to said combustion chambers (1,2), and each cylinder having a suction valve (Sz) and an exhaust valve.
A surface cleaning apparatus, comprising: a housing adapted to move across a surface to be cleaned; an edge cleaning brush mounted on the housing, the edge cleaning brush comprising: an attachment hub rotatable about a rotational axis; a cleaning implement configured to contact the surface to be cleaned; characterized in that the surface cleaning apparatus further comprises: a tensioner hub applying downward force onto the cleaning implement. a housing adapted to move across a surface to be cleaned; an edge cleaning brush mounted on the housing, the edge cleaning brush comprising: an attachment hub rotatable about a rotational axis; a cleaning implement configured to contact the surface to be cleaned; characterized in that the surface cleaning apparatus further comprises: a tensioner hub applying downward force onto the cleaning implement. an attachment hub rotatable about a rotational axis; a cleaning implement configured to contact the surface to be cleaned; characterized in that the surface cleaning apparatus further comprises: a tensioner hub applying downward force onto the cleaning implement.
A recombinant nucleic acid molecule comprising: a 5' and a 3'transposon-specific inverted terminal repeat, at least one nucleic acid sequence encoding a transgene expression processing protein, located between the 5' and 3' ITRs and which is under the control of a promoter, and at least one matrix attachment region element located between the 5' and a 3' ITRs; at least one transgene located between the 5' and 3' ITRs, the transgene being under the control of a transgene promoter; wherein said TEP protein is hSERCA2, hNRF2, hCOSMC, hCILZ, hHK1, hBeclin-1 or hWip1; and wherein said MAR element is selected from SEQ ID NOs: 1 (MAR 1-68), 2 (MAR 1_6), 3 (MARX_S29), 4 (MARS4), 5 (chicken lysozyme MAR), or is an engineered, in particular rearranged counterpart that has at least 80%, 90%, 95%, 98%, 99% or 100% sequence identity with any one of SEQ ID NOs: 1 to 5; and wherein the TEP expressed via said nucleic acid molecule and the MAR element are capable of increasing the expression of the transgene in a mammalian cell by at least 10%. a 5' and a 3'transposon-specific inverted terminal repeat, at least one nucleic acid sequence encoding a transgene expression processing protein, located between the 5' and 3' ITRs and which is under the control of a promoter, and at least one matrix attachment region element located between the 5' and a 3' ITRs; at least one transgene located between the 5' and 3' ITRs, the transgene being under the control of a transgene promoter; wherein said TEP protein is hSERCA2, hNRF2, hCOSMC, hCILZ, hHK1, hBeclin-1 or hWip1; and wherein said MAR element is selected from SEQ ID NOs: 1 (MAR 1-68), 2 (MAR 1_6), 3 (MARX_S29), 4 (MARS4), 5 (chicken lysozyme MAR), or is an engineered, in particular rearranged counterpart that has at least 80%, 90%, 95%, 98%, 99% or 100% sequence identity with any one of SEQ ID NOs: 1 to 5; and wherein the TEP expressed via said nucleic acid molecule and the MAR element are capable of increasing the expression of the transgene in a mammalian cell by at least 10%.