mhurhangee/patent-ind-claim-en huggingface dataset:
A battery-powered environmental control and/or sensor device adapted to be mounted on a surface, comprising: a mounting plate arranged to be affixed to a support surface; and a main body including a battery compartment , wherein the main body is adapted to be releasably secured to the mounting plate and wherein the battery compartment is inaccessible when the main body is secured to the mounting plate; wherein the mounting plate and main body comprise complementary securing elements arranged to secure the main body to the mounting plate; wherein one of the mounting plate and the main body includes a lever having a portion extending beyond a periphery of the device so as to be operable by a device user when the main body is secured to the mounting plate; and wherein the lever is operable when activated to disengage the complementary securing elements and release the main body from the mounting plate to enable access to the battery compartment; wherein the lever, being disposed on one of the mounting plate and the main body, is arranged when activated to push against the other of the mounting plate and the main body, thereby pushing the mounting plate and main body apart. a mounting plate arranged to be affixed to a support surface; and a main body including a battery compartment , wherein the main body is adapted to be releasably secured to the mounting plate and wherein the battery compartment is inaccessible when the main body is secured to the mounting plate; wherein the mounting plate and main body comprise complementary securing elements arranged to secure the main body to the mounting plate; wherein one of the mounting plate and the main body includes a lever having a portion extending beyond a periphery of the device so as to be operable by a device user when the main body is secured to the mounting plate; and wherein the lever is operable when activated to disengage the complementary securing elements and release the main body from the mounting plate to enable access to the battery compartment; wherein the lever, being disposed on one of the mounting plate and the main body, is arranged when activated to push against the other of the mounting plate and the main body, thereby pushing the mounting plate and main body apart.
An image scanning apparatus , comprising: a lighting unit to irradiate light onto paper using an LED light source; a scan unit to generate a scan image by scanning image information of paper using light reflected by the paper; and a processor to control the lighting unit to irradiate light on each unit pixel by a predetermined duty of a line exposure time during a movement process of the paper in a sub-scan direction characterized in that the processor is configured to control the lighting unit to irradiate light continuously on each unit pixel at a predetermined time point and not irradiate the light after a time corresponding to the predetermined duty for the remainder of the line exposure time. a lighting unit to irradiate light onto paper using an LED light source; a scan unit to generate a scan image by scanning image information of paper using light reflected by the paper; and a processor to control the lighting unit to irradiate light on each unit pixel by a predetermined duty of a line exposure time during a movement process of the paper in a sub-scan direction characterized in that the processor is configured to control the lighting unit to irradiate light continuously on each unit pixel at a predetermined time point and not irradiate the light after a time corresponding to the predetermined duty for the remainder of the line exposure time.
A hot melt adhesive composition comprising, by weight based on the total weight of the composition: 10 to 15 wt.% of at least one hydrogenated thermoplastic block copolymer with a melt index greater than or equal to 30 g/10min as determined according to ASTM D-1238 at 190°C/2.16kg, wherein the hydrogenated thermoplastic block copolymer is a copolymer of a vinyl-based aromatic hydrocarbon with a conjugated diene; and, 15 to 50% of at least one polyolefin with a melt viscosity less than or equal to 2000 mPa·s (2000 cPs) at 190°C, wherein said at least one polyolefin is selected from polyethylene, polypropylene, polybutene, and the copolymers and terpolymers thereof. 10 to 15 wt.% of at least one hydrogenated thermoplastic block copolymer with a melt index greater than or equal to 30 g/10min as determined according to ASTM D-1238 at 190°C/2.16kg, wherein the hydrogenated thermoplastic block copolymer is a copolymer of a vinyl-based aromatic hydrocarbon with a conjugated diene; and, 15 to 50% of at least one polyolefin with a melt viscosity less than or equal to 2000 mPa·s (2000 cPs) at 190°C, wherein said at least one polyolefin is selected from polyethylene, polypropylene, polybutene, and the copolymers and terpolymers thereof.
A preparation method of PCI-32765 crystalline Form A comprising the following 2 theta values measured using CuKα radiation: 5.2°±0.2°, 17.6°±0.2°, 22.1°±0.2°, 19.3°±0.2°, 22.4°±0.2°, and 20.8°±0.2°, wherein PCI-32765 is 1-[ -3-[4-amino-3-(4-phenoxyphenyl)-IH-pyrazolo[3,4-D]pyrimidin-1-yl]-1-piperidi nyl]-2-propen-1-one, the preparation method comprises the following steps: 1) Preparing a PCI-32765 free base solution by dissolving the free base solid of PCI-32765 in a solvent, the solvent being methanol or a mixed solvent containing methanol; 2) Adding dropwise the solution prepared by step 1) into an anti-solvent, the anti-solvent being pure water, then stirring at a temperature of 0∼20 °C and adding seed crystals of PCI-32765 Form A; Or adding dropwise the solution prepared by step 1) into a suspension containing seed crystals of PCI-32765 Form A at a temperature of 0∼20 °C; 3) Continuously stirring the solution obtained by step 2) and aging the solution until crystal transformation is completed, then a crystal slurry is obtained; 4) Filtering the crystal slurry of step 3) to obtain a filter cake, then washing and drying the filter cake to obtain a powder of PCI-32765 Form A. 1) Preparing a PCI-32765 free base solution by dissolving the free base solid of PCI-32765 in a solvent, the solvent being methanol or a mixed solvent containing methanol; 2) Adding dropwise the solution prepared by step 1) into an anti-solvent, the anti-solvent being pure water, then stirring at a temperature of 0∼20 °C and adding seed crystals of PCI-32765 Form A; Or adding dropwise the solution prepared by step 1) into a suspension containing seed crystals of PCI-32765 Form A at a temperature of 0∼20 °C; 3) Continuously stirring the solution obtained by step 2) and aging the solution until crystal transformation is completed, then a crystal slurry is obtained; 4) Filtering the crystal slurry of step 3) to obtain a filter cake, then washing and drying the filter cake to obtain a powder of PCI-32765 Form A.
A mobile station, MS, to communicate in a wireless network with a packet switched, PS, based short messaging service, SMS, the MS comprising: a processor operably coupled to a nonvolatile memory, wherein the processor is operable to configure the MS to: send a request message to a serving general packet radio service, GPRS, support node, SGSN, the request message including an Additional Update Type information element, IE, the Additional Update Type IE including information to indicate whether the MS is configured to support the PS based SMS and perform circuit switched, CS, registration only to receive SMS service via a CS domain, wherein if the IE indicates that the MS is configured to support PS based SMS and perform CS registration, only then does the SGSN determine not to establish association with a mobile switching center, MSC. send a request message to a serving general packet radio service, GPRS, support node, SGSN, the request message including an Additional Update Type information element, IE, the Additional Update Type IE including information to indicate whether the MS is configured to support the PS based SMS and perform circuit switched, CS, registration only to receive SMS service via a CS domain, wherein if the IE indicates that the MS is configured to support PS based SMS and perform CS registration, only then does the SGSN determine not to establish association with a mobile switching center, MSC.
A combination of a cartridge (100; 701) and a main assembly (170; 800) of an electrophotographic image forming apparatus, the cartridge (100; 701) detachably mountable to the main assembly (170; 800), the main assembly (170; 800) including a driving force application member (180; 813) and a braking force application member (204, 208; 814, 818), the cartridge (100; 701) comprising: a casing ; a photosensitive drum (104; 707) rotatably supported by the casing ; a coupling (143; 770; 1043) connected with the photosensitive drum so as to be capable of drive transmission, wherein the coupling (143; 770; 1043) includes a driving force receiving portion (143b; 145b; 243b, 343b; 443b; 643i; 770b; 1043i) adapted to receive a driving force for rotating the coupling (143; 770; 1043) by engagement with the driving force application member (180; 813), and a braking force receiving portion (143c; 144c, 144t; 145c; 243c; 343c; 443c1, 443c2; 643i; 770c; 1043i) adapted to receive a braking force for applying a load against rotation of the coupling by engagement with the braking force application member (204, 208; 814, 818), and a guide (143d, 143n; 145d, 145n; 147f; 148d1, 148d2; 149d; 149d1, 149d2; 242d1, 343d2, 343n; 443d1, 443d2; 770d) adapted to move the braking force application member (204, 208; 814, 818) relative to the driving force application member (180; 813). a casing ; a photosensitive drum (104; 707) rotatably supported by the casing ; a coupling (143; 770; 1043) connected with the photosensitive drum so as to be capable of drive transmission, wherein the coupling (143; 770; 1043) includes a driving force receiving portion (143b; 145b; 243b, 343b; 443b; 643i; 770b; 1043i) adapted to receive a driving force for rotating the coupling (143; 770; 1043) by engagement with the driving force application member (180; 813), and a braking force receiving portion (143c; 144c, 144t; 145c; 243c; 343c; 443c1, 443c2; 643i; 770c; 1043i) adapted to receive a braking force for applying a load against rotation of the coupling by engagement with the braking force application member (204, 208; 814, 818), and a guide (143d, 143n; 145d, 145n; 147f; 148d1, 148d2; 149d; 149d1, 149d2; 242d1, 343d2, 343n; 443d1, 443d2; 770d) adapted to move the braking force application member (204, 208; 814, 818) relative to the driving force application member (180; 813).
A blood pump , comprising: - a pump casing (2; 402; 502) having a blood flow inlet (21; 421; 521) and a blood flow outlet (22; 422; 522), - an impeller (3; 103; 203; 303; 403; 503; 603; 703; 803) arranged in said pump casing and rotatably supported in the pump casing by at least one bearing (60; 160; 260; 360; 460; 560) so as to be rotatable about an axis of rotation, the impeller (3; 103; 203; 303; 403; 503) having at least one blade (31, 32; 131, 132; 231, 232; 331; 431; 531; 631; 731; 831) for conveying blood from the blood flow inlet to the blood flow outlet, wherein the bearing (60; 160; 260; 360; 460; 560) comprises at least one stationary bearing portion (4; 104; 204; 304; 404; 504) coupled to the pump casing and having a stationary bearing surface (61; 161; 261; 361; 461; 561) that faces radially outwards, the bearing (60; 160; 260; 360; 460; 560) further comprising a rotating bearing surface (62; 162; 262; 362; 462; 562) interacting with the stationary bearing surface (61; 161; 261; 361; 461; 561) to form the bearing (60; 160; 260; 360; 460; 560), wherein the rotating bearing surface (62; 162; 262; 362; 462; 562) faces radially inwards and is formed on an exposed radially inner edge (50; 150; 250; 350; 450; 550) of at least one of the at least one blade which is designed to draw blood deposit from the stationary bearing surface (61; 161; 261; 361; 461; 561) in a radially outward direction. - a pump casing (2; 402; 502) having a blood flow inlet (21; 421; 521) and a blood flow outlet (22; 422; 522), - an impeller (3; 103; 203; 303; 403; 503; 603; 703; 803) arranged in said pump casing and rotatably supported in the pump casing by at least one bearing (60; 160; 260; 360; 460; 560) so as to be rotatable about an axis of rotation, the impeller (3; 103; 203; 303; 403; 503) having at least one blade (31, 32; 131, 132; 231, 232; 331; 431; 531; 631; 731; 831) for conveying blood from the blood flow inlet to the blood flow outlet,
A 2. computer-implemented method for lane marker recognition , comprising: providing a filter bank with a plurality of different pairs of filters adapted to detect the left edge and the right edge of a specific type of a lane marker, respectively; receiving an image of a road ; dividing the image of a road into a plurality of image segments ; for each of the image segments: applying a plurality of the pairs of filters of the filter bank to the image segment to generate a plurality of filter outputs ; and determining which of the filter outputs correspond to a lane marker by using geometric information and appearance based information , wherein the geometric information describes allowable dimensions of a determined lane marker, and the appearance based information describes allowable pixel values of a determined lane marker; wherein determining which of the filter outputs correspond to a lane marker includes using appearance based information describing allowable pixel values of a determined lane marker in an image region of the image of a road , wherein the image region encloses the detected edges of the lane marker. providing a filter bank with a plurality of different pairs of filters adapted to detect the left edge and the right edge of a specific type of a lane marker, respectively; receiving an image of a road ; dividing the image of a road into a plurality of image segments ; for each of the image segments: applying a plurality of the pairs of filters of the filter bank to the image segment to generate a plurality of filter outputs ; and determining which of the filter outputs correspond to a lane marker by using geometric information and appearance based information , wherein the geometric information describes allowable dimensions of a determined lane marker, and the appearance based information describes allowable pixel values of a determined lane marker; applying a plurality of the pairs of filters of the filter bank to the image segment to generate a plurality of filter outputs ; and determining which of the filter outputs correspond to a lane marker by using geometric information and appearance based information , wherein the geometric information describes allowable dimensions of a determined lane marker, and the appearance based information describes allowable pixel values of a determined lane marker; wherein determining which of the filter outputs correspond to a lane marker includes using appearance based information describing allowable pixel values of a determined lane marker in an image region of the image of a road , wherein the image region encloses the detected edges of the lane marker.
A sensing device comprising a sensor for detecting a condition of ambient air, a housing with vents (3(a), 3(b)) for access by ambient air to the sensor, a signal processing circuit with a processor linked with the sensor, a power supply for the circuit and the sensor, and an obstacle detector comprising: an ultrasonic transducer mounted to have a field of emission outside of the detector, and through ambient air, and a circuit including a processor linked with the ultrasonic transducer to monitor ultrasonic return signal values and process them to determine object presence data, wherein the processor is configured to monitor ultrasonic return values and to process them to determine if any have been reflected by an unwanted obstacle, and is configured to generate an alert to indicate presence of such an obstacle which may affect access of ambient air to the sensor through the vents, characterized in that , the processor is programmed to detect ambient air instability either before or as part of an obstacle detection operation by recording ultrasonic return signal amplitude values for each of a plurality of sample points, and quantifying variance across said values, and if said variance exceeds a threshold determine that there is excessive ambient air instability. an ultrasonic transducer mounted to have a field of emission outside of the detector, and through ambient air, and a circuit including a processor linked with the ultrasonic transducer to monitor ultrasonic return signal values and process them to determine object presence data, wherein the processor is configured to monitor ultrasonic return values and to process them to determine if any have been reflected by an unwanted obstacle, and is configured to generate an alert to indicate presence of such an obstacle which may affect access of ambient air to the sensor through the vents,
A method for reclaiming rubber, comprising the steps of (i) providing a starting material comprising a vulcanized rubber polymer; (ii) subjecting the starting material to mechanical stress and at a temperature of at least 200°C either in the absence of a fragmentation additive or in the presence of a fragmentation additive capable of generating radicals at the temperature used, to achieve at least a partial destruction of the cross-links and the backbone structure of the rubber polymer into fragments; and (iii) partially reconstituting the fragments in the presence of a branching/grafting agent to obtain a renewed rubber composition, wherein said branching/grafting agent comprises a plurality of unsatured moieties capable of reacting with free radicals, preferably wherein said moieties are selected from C=C and C=O. (i) providing a starting material comprising a vulcanized rubber polymer; (ii) subjecting the starting material to mechanical stress and at a temperature of at least 200°C either in the absence of a fragmentation additive or in the presence of a fragmentation additive capable of generating radicals at the temperature used, to achieve at least a partial destruction of the cross-links and the backbone structure of the rubber polymer into fragments; and (iii) partially reconstituting the fragments in the presence of a branching/grafting agent to obtain a renewed rubber composition, wherein said branching/grafting agent comprises a plurality of unsatured moieties capable of reacting with free radicals, preferably wherein said moieties are selected from C=C and C=O.
A vehicle-mounted information device capable of editing a plurality of objects displayed on a touch panel in an edit mode set by an instruction to the touch panel , the vehicle-mounted information device being configured to: in the edit mode said objects are displayed in rows and columns and an editable object is selected as a selected object among said plurality of objects, a mark is provided indicating a direction in which the selected object is movable, the mark being displayed on a perimeter of the selected object at least one of at a left side of, a right side of, an upper side of and a lower side of the selected object, wherein by a touch operation onto the mark on the touch panel, a display position of the selected object and a display position of an object of interest which is located adjacently to the selected object in the direction indicated by the mark are interchanged with each other so that the selected object is switched to the display position of the object of interest and the object of interest is switched to the display position, of the selected object, where it was before interchanging.
A dose adjustment device mountable to a diagnostic radiation apparatus comprising: a housing ; a power supply ; a multi-leaf collimator configured to adjust transmittance for a portion in an irradiation area of diagnostic radiation; an actuator configured to individually adjust positions of single-leaves included in the multi-leaf collimator ; a communication module configured to communicate with an outside; and a controller configured to control the actuator so that the transmittance for each portion in the irradiation area of the diagnostic radiation can be adjusted based on a signal received from the communication module , characterized in that the power supply includes a battery . a housing ; a power supply ; a multi-leaf collimator configured to adjust transmittance for a portion in an irradiation area of diagnostic radiation; an actuator configured to individually adjust positions of single-leaves included in the multi-leaf collimator ; a communication module configured to communicate with an outside; and a controller configured to control the actuator so that the transmittance for each portion in the irradiation area of the diagnostic radiation can be adjusted based on a signal received from the communication module ,
A method of performing interference nulling and rank prediction in an access terminal, comprising: employing multiple receiver demodulator types at the access terminal; estimating an interference covariance matrix; calculating a signal-to-noise ratio, SNR, for a plurality of the multiple receiver demodulator types; determining , based on the estimated interference covariance matrix and the calculated SNR, an optimum MIMO transmission rank and associated channel quality index, CQI, information based on optimizing the transmission capacity across all receiver demodulator types; wherein determining the optimum rank and associated CQI information further comprises determining an effective SNR for one or more candidate MIMO transmission ranks, generating capacity numbers corresponding to the effective SNRs, selecting a rank that optimizes capacity based on the capacity numbers, and generating CQI information by quantizing the effective SNR corresponding to the selected rank; and transmitting the MIMO transmission rank and CQI information to an access point; wherein at least one of the receiver demodulator types performs an interference nulling technique. employing multiple receiver demodulator types at the access terminal; estimating an interference covariance matrix; calculating a signal-to-noise ratio, SNR, for a plurality of the multiple receiver demodulator types; determining , based on the estimated interference covariance matrix and the calculated SNR, an optimum MIMO transmission rank and associated channel quality index, CQI, information based on optimizing the transmission capacity across all receiver demodulator types; wherein determining the optimum rank and associated CQI information further comprises determining an effective SNR for one or more candidate MIMO transmission ranks, generating capacity numbers corresponding to the effective SNRs, selecting a rank that optimizes capacity based on the capacity numbers, and generating CQI information by quantizing the effective SNR corresponding to the selected rank; and transmitting the MIMO transmission rank and CQI information to an access point; wherein at least one of the receiver demodulator types performs an interference nulling technique.