mhurhangee/patent-ind-claim-en huggingface dataset:
A method of reconstructing an image based on a list mode comprising an axial position, comprising: receiving a master clock signal; determining coincidence events detected by a detector during a continuous incremental scanning in which a scanning bed continuously moves; measuring a time difference between a first timing at which the detector detects each of the coincidence events and a second timing for a rising edge of the master clock signal which is the nearest to the first timing; determining an actual axial position of the scanning bed at which the coincidence event is detected based on the master clock signal and the time difference corresponding to the coincidence event; determining an axial position for the coincidence event, wherein the axial position of the coincidence event is represented by the actual axial position of the scanning bed at which the coincidence event is detected; storing data for each of the coincidence events comprising the axial position in a list mode, wherein the data in the list mode includes: coincidence event N: [an axial slant angle index, a radial angle index, the axial position, and a radial position index], and N is a serial number of the coincidence event; sorting, the data for each of the coincidence events according to a spatial order; and obtaining an image by performing iterative reconstruction with the sorted data for each of the coincidence events. receiving a master clock signal; determining coincidence events detected by a detector during a continuous incremental scanning in which a scanning bed continuously moves; measuring a time difference between a first timing at which the detector detects each of the coincidence events and a second timing for a rising edge of the master clock signal which is the nearest to the first timing; determining an actual axial position of the scanning bed at which the coincidence event is detected based on the master clock signal and the time difference corresponding to the coincidence event; determining an axial position for the coincidence event, wherein the axial position of the coincidence event is represented by the actual axial position of the scanning bed at which the coincidence event is detected; storing data for each of the coincidence events comprising the axial position in a list mode, wherein the data in the list mode includes: coincidence event N: [an axial slant angle index, a radial angle index, the axial position, and a radial position index], and N is a serial number of the coincidence event; sorting, the data for each of the coincidence events according to a spatial order; and obtaining an image by performing iterative reconstruction with the sorted data for each of the coincidence events. coincidence event N: [an axial slant angle index, a radial angle index, the axial position, and a radial position index], and N is a serial number of the coincidence event; sorting, the data for each of the coincidence events according to a spatial order; and obtaining an image by performing iterative reconstruction with the sorted data for each of the coincidence events.
Light-emitting diode circuit having a light-emitting diode chain , a first current limiter , a second current limiter and a feed capacitor , wherein the light-emitting diode chain and the first current limiter are connected in series and the feed capacitor and the second current limiter are connected in series, in parallel with the light-emitting diode chain and the first current limiter, so that in the case of a shortfall in a supply voltage of the light-emitting diode chain, the feed capacitor applies a current to the light-emitting diode chain, wherein the light-emitting diode circuit comprises a controller which is realized by means of a microprocessor circuit, characterized in that the second current limiter is embodied as a settable current limiter and the controller is configured to set , on the basis of a voltage drop at the first current limiter, a value of the settable second current limiter when charging the feed capacitor.
A processor comprising: a register having a width; a decode unit to receive a partial width load instruction , the partial width load instruction to indicate a memory location of a memory as a source operand and to specify the register as a destination operand; a memory subsystem coupled with the decode unit, the memory subsystem, in response to the partial width load instruction, to load data from the indicated memory location to the processor; and a register write unit coupled with the memory subsystem and the register, the register write unit, in response to the partial width load instruction, to: write at least a portion of the loaded data to a partial width of the register; and finish writing the register with a set of bits that are to be stored in a highest order remaining width of the register, after performance of the partial width load instruction, that are to have bit values that are to depend on a partial width load mode of a plurality of different types of partial width load modes of the processor, the partial width load instruction not to indicate the partial width load mode; and wherein, in a first partial width load mode, the set of bits is to be all zeroes. a register having a width; a decode unit to receive a partial width load instruction , the partial width load instruction to indicate a memory location of a memory as a source operand and to specify the register as a destination operand; a memory subsystem coupled with the decode unit, the memory subsystem, in response to the partial width load instruction, to load data from the indicated memory location to the processor; and a register write unit coupled with the memory subsystem and the register, the register write unit, in response to the partial width load instruction, to: write at least a portion of the loaded data to a partial width of the register; and finish writing the register with a set of bits that are to be stored in a highest order remaining width of the register, after performance of the partial width load instruction, that are to have bit values that are to depend on a partial width load mode of a plurality of different types of partial width load modes of the processor, the partial width load instruction not to indicate the partial width load mode; and wherein, in a first partial width load mode, the set of bits is to be all zeroes. write at least a portion of the loaded data to a partial width of the register; and finish writing the register with a set of bits that are to be stored in a highest order remaining width of the register, after performance of the partial width load instruction, that are to have bit values that are to depend on a partial width load mode of a plurality of different types of partial width load modes of the processor, the partial width load instruction not to indicate the partial width load mode; and wherein, in a first partial width load mode, the set of bits is to be all zeroes.
A method of preparing a patterned polymer film comprising the following steps: a) providing a layer of a polymerizable liquid-crystalline material comprising at least one dichroic photoinitiator, and at least one chiral compound, onto a substrate, b) adjusting the temperature of the polymerizable liquid-crystalline material to a temperature, where the polymerizable liquid-crystalline material is in its nematic or isotropic phase, c) polymerizing and orientating by irradiating the polymerizable liquid-crystalline material with linear polarized actinic radiation, while continuously or stepwise rotating the substrate with the layer of a polymerizable liquid-crystalline material or by continuously or stepwise rotating a photo mask or a linear polarizer or both, each located between the substrate and a light source, thereby causing the polymerizable liquid-crystalline material to form a polymer film, and d) optionally removing the polymer film from the substrate. a) providing a layer of a polymerizable liquid-crystalline material comprising at least one dichroic photoinitiator, and at least one chiral compound, onto a substrate, b) adjusting the temperature of the polymerizable liquid-crystalline material to a temperature, where the polymerizable liquid-crystalline material is in its nematic or isotropic phase, c) polymerizing and orientating by irradiating the polymerizable liquid-crystalline material with linear polarized actinic radiation, while continuously or stepwise rotating the substrate with the layer of a polymerizable liquid-crystalline material or by continuously or stepwise rotating a photo mask or a linear polarizer or both, each located between the substrate and a light source, thereby causing the polymerizable liquid-crystalline material to form a polymer film, and d) optionally removing the polymer film from the substrate.
A method for sharing a data object between a first system and a second system , the first system configured to process a data object that includes an identifier for configuration data for said data object, the second system configured to process a data object with configuration data included in said data object, the method comprising: accessing a data object of the first system , the data object comprising object data and an identifier referring to first configuration data; based on the identifier, accessing the first configuration data from a database; creating a modified data object comprising the object data and at least a portion of the first configuration data allowing to use the data object by a second system; and importing the modified data object into the second system ; and/or the method comprising: accessing a second data object of the second system , the second data object comprising second object data, second configuration data, and a second identifier; creating a second modified data object comprising the second object data and the second identifier, the second modified data object excluding at least a portion of the second configuration data; and importing the modified second data object into the first system , the first system using the second identifier for accessing configuration data from a configuration server for using the second data object. accessing a data object of the first system , the data object comprising object data and an identifier referring to first configuration data; based on the identifier, accessing the first configuration data from a database; creating a modified data object comprising the object data and at least a portion of the first configuration data allowing to use the data object by a second system; and importing the modified data object into the second system ; and/or the method comprising: accessing a second data object of the second system , the second data object comprising second object data, second configuration data, and a second identifier; creating a second modified data object comprising the second object data and the second identifier, the second modified data object excluding at least a portion of the second configuration data; and importing the modified second data object into the first system , the first system using the second identifier for accessing configuration data from a configuration server for using the second data object.
A method of generating a radio-frequency signal profile by a wireless communication device , the method comprising: receiving indications of measurements of one or more values of one or more radio-frequency, RF, characteristics of one or more wireless RF signals from one or more RF devices in an environment ; determining contexts from values of one or more context characteristics associated with the measurements; and generating a reference RF profile (710 1 , 710 2 ) for the environment providing an RF signature for the environment by combining sets of the one or more values of the one or more RF characteristics associated with common contexts. receiving indications of measurements of one or more values of one or more radio-frequency, RF, characteristics of one or more wireless RF signals from one or more RF devices in an environment ; determining contexts from values of one or more context characteristics associated with the measurements; and generating a reference RF profile (710 1 , 710 2 ) for the environment providing an RF signature for the environment by combining sets of the one or more values of the one or more RF characteristics associated with common contexts.
A method performed by a Local Bundle Assistant, LBA , included in a terminal in a wireless communication system, the method comprising: receiving , from a server, a remote bundle management command; verifying a first bundle policy stored in the terminal based on the remote bundle management command; transmitting , to a Secondary Platform Bundle Loader, SPBL , included in the terminal, the remote bundle management command; and receiving , from the SPBL , an execution result of a second bundle policy verified based on the remote bundle management command, the remote bundle management command being executed after the first bundle policy and the second bundle policy are verified. receiving , from a server, a remote bundle management command; verifying a first bundle policy stored in the terminal based on the remote bundle management command; transmitting , to a Secondary Platform Bundle Loader, SPBL , included in the terminal, the remote bundle management command; and receiving , from the SPBL , an execution result of a second bundle policy verified based on the remote bundle management command, the remote bundle management command being executed after the first bundle policy and the second bundle policy are verified.
A drive assist device to be installed on a vehicle , the device comprising: a light source that is configured to irradiate a detection target with light; a first lens having a first area (F1) through which the irradiated light from the light source passes; a second lens having a second area (F2) through which reflected light reflected from the detection target passes; and a light receiving element that is configured to receive the reflected light that passes the second lens , wherein the first area (F1) and the second area (F2) are arranged to be aligned in a vehicle width direction when the drive assist device is installed in the vehicle , the device further comprising a front portion, wherein the first area (F1) is located closer to the front portion in a vehicle traveling direction than the second area (F2), characterized in that the device further comprises an image capturing element that is configured to receive object light from the detection target to capture an image of the detection target; and a third lens having a third area (F3) through which the object light to be received at the image capturing element passes, wherein the third area (F3) is arranged to be aligned with the first lens in a vehicle width direction when the drive assist device is installed in the vehicle , and wherein the first area (F1) and the second area (F2) are arranged at different positions in a vehicle width direction when the drive assist device is installed in the vehicle . a light source that is configured to irradiate a detection target with light; a first lens having a first area (F1) through which the irradiated light from the light source passes; a second lens having a second area (F2) through which reflected light reflected from the detection target passes; and a light receiving element that is configured to receive the reflected light that passes the second lens , wherein the first area (F1) and the second area (F2) are arranged to be aligned in a vehicle width direction when the drive assist device is installed in the vehicle , the device further comprising a front portion, wherein the first area (F1) is located closer to the front portion in a vehicle traveling direction than the second area (F2), characterized in that the device further comprises an image capturing element that is configured to receive object light from the detection target to capture an image of the detection target; and a third lens having a third area (F3) through which the object light to be received at the image capturing element passes, wherein the third area (F3) is arranged to be aligned with the first lens in a vehicle width direction when the drive assist device is installed in the vehicle , and wherein the first area (F1) and the second area (F2) are arranged at different positions in a vehicle width direction when the drive assist device is installed in the vehicle .
A panel (2; 26; 132) for a partition, the panel comprising: a central panel ; two support panels disposed on opposed sides of the central panel, each of the two support panels extending generally perpendicularly to a plane of the central panel, wherein a protruding portion of the or each of the two support panels extends beyond at least one of the faces of the central panel; and a flange provided at at least one protruding portion of the two support panels, the or each flange comprising a flange member (14; 28) which is formed from a metal material having: a first portion adjacent to, and mechanically attached to, an external face of the support panels; and a second portion which extends generally parallel to the plane of the central panel, characterized in that together the first and second portions of the or each flange member define a channel or groove for receipt of the protruding portion of one of the two support panels. a central panel ; two support panels disposed on opposed sides of the central panel, each of the two support panels extending generally perpendicularly to a plane of the central panel, wherein a protruding portion of the or each of the two support panels extends beyond at least one of the faces of the central panel; and a flange provided at at least one protruding portion of the two support panels, the or each flange comprising a flange member (14; 28) which is formed from a metal material having: a first portion adjacent to, and mechanically attached to, an external face of the support panels; and a second portion which extends generally parallel to the plane of the central panel, characterized in that together the first and second portions of the or each flange member define a channel or groove for receipt of the protruding portion of one of the two support panels.
A method of calculating at a first wireless device round trip time (RTT) between the first wireless device and a second wireless device , the method comprising: Receiving a calculation of a first RTT in a first direction, where the first direction is from said first wireless device to said second wireless device and back to said first wireless device, wherein the calculation of the first RTT is based at least on a timestamp of a first time (t1) at which a first frame is transmitted by the first wireless device to the second device and based on a timestamp of a fourth time (t4) at which a first acknowledgement is received at the first device from the second device; calculating a second RTT in a second direction, where the second direction is from said second wireless device to said first wireless device and back to said second wireless device, wherein the calculation of the second RTT is based on a timestamp of a fifth time (t1') at which a second frame is transmitted by the second wireless device to the first wireless device and based on a timestamp of an eight time (t4') at which a second acknowledgement is received at the second device from the first device; and calculating an average RTT, wherein the average RTT is based on the first RTT and the second RTT. Receiving a calculation of a first RTT in a first direction, where the first direction is from said first wireless device to said second wireless device and back to said first wireless device, wherein the calculation of the first RTT is based at least on a timestamp of a first time (t1) at which a first frame is transmitted by the first wireless device to the second device and based on a timestamp of a fourth time (t4) at which a first acknowledgement is received at the first device from the second device; calculating a second RTT in a second direction, where the second direction is from said second wireless device to said first wireless device and back to said second wireless device, wherein the calculation of the second RTT is based on a timestamp of a fifth time (t1') at which a second frame is transmitted by the second wireless device to the first wireless device and based on a timestamp of an eight time (t4') at which a second acknowledgement is received at the second device from the first device; and calculating an average RTT, wherein the average RTT is based on the first RTT and the second RTT.
A gear oil composition consisting of a base oil (A), another base oil (B) and additives for gear oil (C), and having a kinematic viscosity of 70 to 80 mm 2 /s at 40°C: (A) a mineral-based oil and/or hydrocarbon-based synthetic oil having a kinematic viscosity of 3.5 to 7 mm 2 /s at 100°C, and (B) a hydrocarbon-based synthetic oil which is an ethylene-α-olefin copolymer or a poly-α-olefin having a kinematic viscosity of 20 to 52 mm 2 /s at 100°C; wherein additives for gear oil (C) are incorporated at 15 to 30% by mass based on the whole gear oil composition, and wherein the additives (C) comprise (i) at least one extreme-pressure agent selected from a sulfurized olefin, an amine salt of an acidic phosphate ester, and an amine salt of an acidic phosphite ester, and (ii) 14 to 22% by mass based on the whole gear oil composition of a solubilizing agent which is an ester of a dibasic acid and an alcohol, or a monocarboxylic acid of 5 to 18 carbon atoms and a polyol. (A) a mineral-based oil and/or hydrocarbon-based synthetic oil having a kinematic viscosity of 3.5 to 7 mm 2 /s at 100°C, and (B) a hydrocarbon-based synthetic oil which is an ethylene-α-olefin copolymer or a poly-α-olefin having a kinematic viscosity of 20 to 52 mm 2 /s at 100°C;
A chisel electrode for an electrosurgical instrument, the electrode having a longitudinal axis and comprising a body portion at a first angle with respect to the longitudinal axis, and a hook portion extending from the body portion at a second angle to the longitudinal axis, the second angle being non-zero, characterised in that the electrode includes a plurality of apertures providing a suction lumen through the electrode, there being at least one aperture in the body portion , and at least one aperture in the hook portion , wherein the body portion is circular in cross-section and tapered such that it forms part of a cone.
An image processing apparatus comprising: a projected image input unit that inputs a projected image formed by light incident on a Fresnel zone plate from a subject; a complex image generation unit that generates a complex image consisting of an image of a real part and an image of an imaginary part by multiplying the projected image with each of a first Fresnel zone pattern and a second Fresnel zone pattern having a same local spatial frequency in each region and a different phase of the local spatial frequency with respect to the first Fresnel zone pattern; and a Fourier transformation unit that reconstructs an image of a spatial domain by performing two-dimensional complex Fourier transformation on the complex image. a projected image input unit that inputs a projected image formed by light incident on a Fresnel zone plate from a subject; a complex image generation unit that generates a complex image consisting of an image of a real part and an image of an imaginary part by multiplying the projected image with each of a first Fresnel zone pattern and a second Fresnel zone pattern having a same local spatial frequency in each region and a different phase of the local spatial frequency with respect to the first Fresnel zone pattern; and a Fourier transformation unit that reconstructs an image of a spatial domain by performing two-dimensional complex Fourier transformation on the complex image.