mhurhangee/patent-ind-claim-en huggingface dataset:
A rotary machine, comprising: a shell including an oil sump for receiving lubricating oil; and a rotary shaft disposed in the shell, wherein the rotary shaft is provided therein with a through hole extending in an axial direction of the rotary shaft and the rotary shaft is in fluid communication with the oil sump via the through hole; characterized in that the rotary machine further comprises an oil level sensor in fluid communication with the through hole in the rotary shaft through a pressure picking passage , the pressure picking passage comprising: a pressure picking hole extending through a side wall of the rotary shaft and in fluid communication with the through hole in the rotary shaft, a circumferential oil groove (114; 114A, 114B) in fluid communication with the pressure picking hole , and a communicating channel in fluid communication with the circumferential oil groove (114; 114A, 114B) and the oil level sensor ; the pressure picking passage arranged such that, when the rotary shaft rotates, a centrifugal force causes lubricating oil to flow from the oil sump up to the pressure picking hole. a shell including an oil sump for receiving lubricating oil; and a rotary shaft disposed in the shell, wherein the rotary shaft is provided therein with a through hole extending in an axial direction of the rotary shaft and the rotary shaft is in fluid communication with the oil sump via the through hole; characterized in that the rotary machine further comprises an oil level sensor in fluid communication with the through hole in the rotary shaft through a pressure picking passage , the pressure picking passage comprising: a pressure picking hole extending through a side wall of the rotary shaft and in fluid communication with the through hole in the rotary shaft, a circumferential oil groove (114; 114A, 114B) in fluid communication with the pressure picking hole , and a communicating channel in fluid communication with the circumferential oil groove (114; 114A, 114B) and the oil level sensor ; a pressure picking hole extending through a side wall of the rotary shaft and in fluid communication with the through hole in the rotary shaft, a circumferential oil groove (114; 114A, 114B) in fluid communication with the pressure picking hole , and a communicating channel in fluid communication with the circumferential oil groove (114; 114A, 114B) and the oil level sensor ; the pressure picking passage arranged such that, when the rotary shaft rotates, a centrifugal force causes lubricating oil to flow from the oil sump up to the pressure picking hole.
Microwave oven comprising at least one microwave generator and a control unit or control entity for controlling said microwave generator , wherein said control unit or control entity is configured to control the microwave generator according to a duty cycle in which the microwave generator is activated in a first time period (T1) of the duty cycle and deactivated in a second time period (T2) of the duty cycle, wherein the microwave oven further comprises a wireless communication unit or communication entity , wherein said wireless communication unit or communication entity is controlled by said control unit or control entity in order to perform wireless communication in the second time period (T2) of the duty cycle, and wherein the second time period (T2) of the duty cycle preferably covers 10% to 90% of the duration of the duty cycle; characterized in that the duty cycle is adapted to the time needed for a complete information exchange for each communication process by way of wireless communication.
A computer-implemented method for obtaining a filtered capnography signal by suppressing a spectral background signal within an optical absorption signal, the method comprising: obtaining an optical absorption signal from a subject across a range of wavelengths, wherein the optical absorption signal represents a proportion of a light signal that is absorbed as the light signal passes through a breathing adapter containing a respiratory air sample undergoing investigation, and wherein the optical absorption signal comprises a spectral background signal; isolating a second harmonic signal from the optical absorption signal; identifying a period of the spectral background signal; sampling a plurality of wavelength components of the second harmonic signal, wherein sampling the second harmonic signal comprises: obtaining a sample of the second harmonic signal at a central wavelength of the second harmonic signal, wherein the central wavelength represents a maximum Carbon Dioxide absorption; and obtaining a sample of the second harmonic signal at an off-center wavelength of the second harmonic signal, wherein the off-center wavelength and the central wavelength are separated by a half or whole non-zero multiple of the period of the spectral background signal; and generating a filtered capnography signal by additive or subtractive combination of the obtained samples of the second harmonic signal. obtaining an optical absorption signal from a subject across a range of wavelengths, wherein the optical absorption signal represents a proportion of a light signal that is absorbed as the light signal passes through a breathing adapter containing a respiratory air sample undergoing investigation, and wherein the optical absorption signal comprises a spectral background signal; isolating a second harmonic signal from the optical absorption signal; identifying a period of the spectral background signal; sampling a plurality of wavelength components of the second harmonic signal, wherein sampling the second harmonic signal comprises: obtaining a sample of the second harmonic signal at a central wavelength of the second harmonic signal, wherein the central wavelength represents a maximum Carbon Dioxide absorption; and obtaining a sample of the second harmonic signal at an off-center wavelength of the second harmonic signal, wherein the off-center wavelength and the central wavelength are separated by a half or whole non-zero multiple of the period of the spectral background signal; and obtaining a sample of the second harmonic signal at a central wavelength of the second harmonic signal, wherein the central wavelength represents a maximum Carbon Dioxide absorption; and obtaining a sample of the second harmonic signal at an off-center wavelength of the second harmonic signal, wherein the off-center wavelength and the central wavelength are separated by a half or whole non-zero multiple of the period of the spectral background signal; and generating a filtered capnography signal by additive or subtractive combination of the obtained samples of the second harmonic signal.
Method for processing electrode materials for batteries, characterized in that a) mixtures containing one or more binders, one or more dispersing liquids and active material particles comprising silicon particles are dried to give active material particles in the form of dispersible granules, and with the proviso that the active material particles in the form of dispersible granules obtained in step a) are not coated with carbon, and b) the active material particles in the form of dispersible granules obtained in step a) are mixed with one or more solvents, with the active material particles which were used for producing the active material particles in the form of dispersible granules being released again. a) mixtures containing one or more binders, one or more dispersing liquids and active material particles comprising silicon particles are dried to give active material particles in the form of dispersible granules, and with the proviso that the active material particles in the form of dispersible granules obtained in step a) are not coated with carbon, and b) the active material particles in the form of dispersible granules obtained in step a) are mixed with one or more solvents, with the active material particles which were used for producing the active material particles in the form of dispersible granules being released again.
A spinal implant , comprising: an upper portion having a proximal end , a distal end , and a longitudinal axis extending therebetween; a lower portion having a proximal end , a distal end , and a longitudinal axis extending therebetween; a hinge portion coupling the upper and lower portion distal ends , the hinge portion having a hinge axis disposed transverse to both the longitudinal axes of the upper and lower portions ; an expansion element disposed between the upper and lower portions , the expansion element adapted for slidable movement between the upper and lower portions , wherein the expansion element includes a first angled portion and a second angled portion ; a first slot defined by a lower surface of the upper portion and an upper surface of the lower portion ; and a second slot defined by a lower surface of the upper portion and an upper surface of the lower portion , wherein the slots are shaped and sized so that they will engage with expansion element as it is moved in the proximal direction. an upper portion having a proximal end , a distal end , and a longitudinal axis extending therebetween; a lower portion having a proximal end , a distal end , and a longitudinal axis extending therebetween; a hinge portion coupling the upper and lower portion distal ends , the hinge portion having a hinge axis disposed transverse to both the longitudinal axes of the upper and lower portions ; an expansion element disposed between the upper and lower portions , the expansion element adapted for slidable movement between the upper and lower portions , wherein the expansion element includes a first angled portion and a second angled portion ; a first slot defined by a lower surface of the upper portion and an upper surface of the lower portion ; and a second slot defined by a lower surface of the upper portion and an upper surface of the lower portion , wherein the slots are shaped and sized so that they will engage with expansion element as it is moved in the proximal direction.
An anti-cancer agent for use in a method of treating a subj ect having a cancer having a Kinesin Family Member 5B - RET proto-oncogene (KIF5B-RET) fusion, the method comprising: acquiring knowledge of the presence of a Kinesin Family Member 5B-RET proto-oncogene (KIF5B-RET) fusion in said subject by next-generation sequencing (NGS) or sequencing by mass spectrometry; and administering to the subject an effective amount of the anti-cancer agent, thereby treating cancer in the subject; wherein the anti-cancer agent is (a) a kinase inhibitor which is an inhibitor of RET kinase activity or (b) a nucleic acid molecule selected from the group consisting of antisense molecules, ribozymes, siRNA, and triple helix molecules, wherein the nucleic acid molecule hybridizes to a nucleic acid molecule encoding the KIF5B-RET fusion, thereby blocking or reducing mRNA expression of the KIF5B-RET fusion; and wherein the cancer is a colorectal cancer or a lung cancer. acquiring knowledge of the presence of a Kinesin Family Member 5B-RET proto-oncogene (KIF5B-RET) fusion in said subject by next-generation sequencing (NGS) or sequencing by mass spectrometry; and administering to the subject an effective amount of the anti-cancer agent, thereby treating cancer in the subject; wherein the anti-cancer agent is (a) a kinase inhibitor which is an inhibitor of RET kinase activity or (b) a nucleic acid molecule selected from the group consisting of antisense molecules, ribozymes, siRNA, and triple helix molecules, wherein the nucleic acid molecule hybridizes to a nucleic acid molecule encoding the KIF5B-RET fusion, thereby blocking or reducing mRNA expression of the KIF5B-RET fusion; and wherein the cancer is a colorectal cancer or a lung cancer.
A radiation emitting device comprising: a radiation source configured to emit radiation to an imaging target; a collimator configured to set a radiation field region; an imaging unit configured to capture an optical image of the imaging target; wherein the imaging unit includes a zoom function including a zoom button for changing the zoom magnification of the imaging unit ; a display unit configured to display the image captured by the imaging unit ; an exposure switch configured to drive the radiation source ; and a control unit configured to issue a collimator driving command to the collimator in a case in which the exposure switch is operated, the collimator driving command directing the collimator to set the radiation field region on the basis of the captured image displayed by the display unit ; wherein the control unit is configured to set a partial range of the captured image as the radiation field region, the partial range being a part of an imaging range of the captured image which has been displayed on the display unit . a radiation source configured to emit radiation to an imaging target; a collimator configured to set a radiation field region; an imaging unit configured to capture an optical image of the imaging target; wherein the imaging unit includes a zoom function including a zoom button for changing the zoom magnification of the imaging unit ; a display unit configured to display the image captured by the imaging unit ; an exposure switch configured to drive the radiation source ; and a control unit configured to issue a collimator driving command to the collimator in a case in which the exposure switch is operated, the collimator driving command directing the collimator to set the radiation field region on the basis of the captured image displayed by the display unit ; wherein the control unit is configured to set a partial range of the captured image as the radiation field region, the partial range being a part of an imaging range of the captured image which has been displayed on the display unit .
A computer-implemented method for reordering an original set of layered image data for use in rendering a display, comprising: obtaining at a computer device an original set of layered image data comprising multiple original layers of image data arranged to be rendered to form intermediate images prior to the intermediate images being rendered in a display, each of the original layers of image data comprising a plurality of image objects arranged in an intra-layer image object order; executing an image data reordering routine on the computer device that extracts a set of image objects of a first type from two or more of the original layers of image data, said image objects of a first type representing roadways and said first type of image objects meaning one of interior fill objects, outline objects, and line objects, and creates a set of reordered image data for use as a single reordered layer of image data for use in rendering a display, said reordered layer of image data comprising image objects of the first type ordered as a function of the identity of the original layers of image data from which each of the image objects of the first type was extracted and as a function of the intra-layer image object order of the original layers of image data from which each of the image objects of the first type was extracted; and storing at the computer device said reordered layer of image data. obtaining at a computer device an original set of layered image data comprising multiple original layers of image data arranged to be rendered to form intermediate images prior to the intermediate images being rendered in a display, each of the original layers of image data comprising a plurality of image objects arranged in an intra-layer image object order; executing an image data reordering routine on the computer device that extracts a set of image objects of a first type from two or more of the original layers of image data, said image objects of a first type representing roadways and said first type of image objects meaning one of interior fill objects, outline objects, and line objects, and creates a set of reordered image data for use as a single reordered layer of image data for use in rendering a display, said reordered layer of image data comprising image objects of the first type ordered as a function of the identity of the original layers of image data from which each of the image objects of the first type was extracted and as a function of the intra-layer image object order of the original layers of image data from which each of the image objects of the first type was extracted; and storing at the computer device said reordered layer of image data.
Ferrite particles for bonded magnets, having a crystal distortion of not more than 0.14 as measured by XRD, and an average particle diameter of not less than 1.30 μm as measured by Fisher method, wherein the ferrite particles are magnetoplumbite-type ferrite particles, and wherein the measurement of the crystal distortion of the ferrite particles is conducted in a completely oriented state in ethylene-vinyl acetate copolymer resin as defined herein.
A device to assist in guiding a patient from an upright position beside the bed to a lying position in a bed, the device comprising: - a seat member ; - a back support member ; and - a lever arm ; wherein the lever arm is attached to the seat member and extends beyond the front of said seat member ; wherein the seat member and the back support member are arranged at an inner angle of 85-120 degrees to each other, and wherein the lever arm is attached to the seat member on or below one of the sides of said seat member, or on the side edge of said seat member ; characterized in that the device further comprises a rounded section between said back support member and said seat member, and wherein the rounded section bends convexly from the back face of the device. - a seat member ; - a back support member ; and - a lever arm ; wherein the lever arm is attached to the seat member and extends beyond the front of said seat member ; wherein the seat member and the back support member are arranged at an inner angle of 85-120 degrees to each other, and wherein the lever arm is attached to the seat member on or below one of the sides of said seat member, or on the side edge of said seat member ; characterized in that the device further comprises a rounded section between said back support member and said seat member, and wherein the rounded section bends convexly from the back face of the device.
A method for manufacturing a semiconductor device comprising: an irradiation step of radiating protons to a rear surface of a silicon semiconductor substrate of a first conductivity type being an n conductivity type; and an annealing step of activating the protons radiated to the rear surface of the silicon semiconductor substrate to form a first semiconductor layer of the first conductivity type which has a higher impurity concentration than the silicon semiconductor substrate , wherein a set of the irradiation step and the annealing step is performed a plurality of times according to irradiation conditions of the irradiation step to form a plurality of the first semiconductor layers in a depth direction of the silicon semiconductor substrate , wherein, in the plurality of sets of the irradiation step and the annealing step, instead of a plurality of annealing steps, one annealing step is performed after a plurality of irradiation steps according to annealing temperatures being equal to each other and lower than the previous annealing step in the plurality of annealing steps. an irradiation step of radiating protons to a rear surface of a silicon semiconductor substrate of a first conductivity type being an n conductivity type; and an annealing step of activating the protons radiated to the rear surface of the silicon semiconductor substrate to form a first semiconductor layer of the first conductivity type which has a higher impurity concentration than the silicon semiconductor substrate , wherein a set of the irradiation step and the annealing step is performed a plurality of times according to irradiation conditions of the irradiation step to form a plurality of the first semiconductor layers in a depth direction of the silicon semiconductor substrate , wherein, in the plurality of sets of the irradiation step and the annealing step, instead of a plurality of annealing steps, one annealing step is performed after a plurality of irradiation steps according to annealing temperatures being equal to each other and lower than the previous annealing step in the plurality of annealing steps.
Electric connection device comprising: a first electric connection element ; a second electric connection element connectable to the first electric connection element by means of respective electric contacts; a removable unlocking tool ; removable connecting means ; a bayonet-type locking and unlocking mechanism configured for coupling and uncoupling the first connection element and the second connection element following a rotation of one with respect to another; a secondary safety locking mechanism, configured for preventing a rotation of the first connection element and of the second connection element one with respect to another and a consequent separation of the two elements comprising retractable locking means configured to be unlocked by the removable unlocking tool , wherein the removable unlocking tool is connectable to the electric connection device through the removable connecting means which are configured to be removably fastened to the electric connection device.