mhurhangee/patent-ind-claim-en huggingface dataset:
A mechanical boring tool for excavating tunnels, comprising, on a substantially cylindrical base body , extending along a central axis (X) and designed to be removably connected to the drive head of a machine for excavating tunnels, a series of cutting elements, wherein at least one of said cutting elements comprises: a portion connecting with said base body ; a tooth protruding from said base body extending along a vertical direction (Y); the vertical direction (Y) being substantially normal relative to the central axis (X); and a cutting edge defined on an end portion of said tooth ; at least one lateral profile of a side of said tooth defining an upper angle (B) with the limiting line (Z) of said cutting edge ; characterised in that the upper angle (B) is between between 77° and 79°, inclusive; and in that the said tooth is entirely and solidly made, also in the layers below the surface, of a steel of the chrome molybdenum-vanadium type with a content of: - chromium between 7.30% and 7.80% by weight, inclusive, - carbon between 0.45% and 0.50% by weight, inclusive, - molybdenum between 1.30% and 1.50% by weight, inclusive, and - vanadium between 0.6% and 1.50% by weight, inclusive. a portion connecting with said base body ; a tooth protruding from said base body extending along a vertical direction (Y); the vertical direction (Y) being substantially normal relative to the central axis (X); and a cutting edge defined on an end portion of said tooth ; at least one lateral profile of a side of said tooth defining an upper angle (B) with the limiting line (Z) of said cutting edge ; characterised in that the upper angle (B) is between between 77° and 79°, inclusive; and in that the said tooth is entirely and solidly made, also in the layers below the surface, of a steel of the chrome molybdenum-vanadium type with a content of: - chromium between 7.30% and 7.80% by weight, inclusive, - carbon between 0.45% and 0.50% by weight, inclusive, - molybdenum between 1.30% and 1.50% by weight, inclusive, and - vanadium between 0.6% and 1.50% by weight, inclusive. - chromium between 7.30% and 7.80% by weight, inclusive, - carbon between 0.45% and 0.50% by weight, inclusive, - molybdenum between 1.30% and 1.50% by weight, inclusive, and - vanadium between 0.6% and 1.50% by weight, inclusive.
A fiber optic connector , comprising: a housing comprising a rear end and a front end with a longitudinal passageway extending from the rear end to the front end , wherein a part of the rear portion (RP) of the housing comprises a round cross-section (RCS) and a part of the front portion (FP) of the housing comprises a non-round cross-section (NRCS) with a transition region (TR) disposed between the rear portion (RP) and the front portion (FP), wherein the transition region (TR) comprises a threaded portion (TR) and the housing provides a first connector footprint; an O-ring ; a ferrule comprising a fiber bore extending from a rear end to a front end ; and a conversion housing , wherein the conversion housing cooperates with the housing for changing the fiber optic connector from the first connector footprint to a second connector footprint. a housing comprising a rear end and a front end with a longitudinal passageway extending from the rear end to the front end , wherein a part of the rear portion (RP) of the housing comprises a round cross-section (RCS) and a part of the front portion (FP) of the housing comprises a non-round cross-section (NRCS) with a transition region (TR) disposed between the rear portion (RP) and the front portion (FP), wherein the transition region (TR) comprises a threaded portion (TR) and the housing provides a first connector footprint; an O-ring ; a ferrule comprising a fiber bore extending from a rear end to a front end ; and a conversion housing , wherein the conversion housing cooperates with the housing for changing the fiber optic connector from the first connector footprint to a second connector footprint.
A medical imaging apparatus that captures observation light from an observed region inside a subject, comprising: plural types of optical path separation devices which respectively guide first observation light and second observation light that are included in observation light from a scope that is selected from either a single lens scope or a twin lens relay scope, inserted into the subject, takes in the observation light from the observed region inside the subject, and emits the observation light, along optical paths being different from each other; and an imaging apparatus which is shared by the plural types of optical path separation devices, is attachably/ detachably connected to the plural types of optical path separation devices, and captures the first observation light and the second observation light respectively guided by the connected optical path separation devices, wherein the selected scope is configured as the single lens scope in which an optical system is disposed in one optical path and the optical system takes in and emits the observation light, and wherein any one optical path separation device of the plural types of optical path separation devices includes a wavelength separating unit which separates the observation light into the first observation light which is infrared light and the second observation light which is visible light. plural types of optical path separation devices which respectively guide first observation light and second observation light that are included in observation light from a scope that is selected from either a single lens scope or a twin lens relay scope, inserted into the subject, takes in the observation light from the observed region inside the subject, and emits the observation light, along optical paths being different from each other; and an imaging apparatus which is shared by the plural types of optical path separation devices, is attachably/ detachably connected to the plural types of optical path separation devices, and captures the first observation light and the second observation light respectively guided by the connected optical path separation devices, wherein the selected scope is configured as the single lens scope in which an optical system is disposed in one optical path and the optical system takes in and emits the observation light, and wherein any one optical path separation device of the plural types of optical path separation devices includes a wavelength separating unit which separates the observation light into the first observation light which is infrared light and the second observation light which is visible light.
An image processing apparatus that executes image processing for generating a virtual viewpoint image using a plurality of images, each of the plurality of images being captured by a respective one of a plurality of imaging units (101a-101z) that image an imaging space from different viewpoints, the apparatus comprising: setting means for setting a target object among a plurality of objects inside the imaging space; and processing means for executing image processing for each of the plurality of objects inside the imaging space, wherein in the image processing three-dimensional models of the plurality of objects are generated; characterized in that the apparatus further comprises selecting means for selecting, from among the plurality of imaging units, all the imaging units for a first object which is set as the target object and for selecting, from among the plurality of imaging units, imaging units for a second object which is not set as the target object among the plurality of objects, the number of the imaging units selected for the second object is lower than the number of the imaging units selected for the first object, and the image processing generates a three-dimensional model of the first object using the images captured by the imaging units selected for the first object and generates a three-dimensional model of the second object using the images captured by the imaging units selected for the second object without using the images captured by the imaging units not selected for the second object. setting means for setting a target object among a plurality of objects inside the imaging space; and processing means for executing image processing for each of the plurality of objects inside the imaging space, wherein in the image processing three-dimensional models of the plurality of objects are generated; characterized in that the apparatus further comprises selecting means for selecting, from among the plurality of imaging units, all the imaging units for a first object which is set as the target object and for selecting, from among the plurality of imaging units, imaging units for a second object which is not set as the target object among the plurality of objects, the number of the imaging units selected for the second object is lower than the number of the imaging units selected for the first object, and the image processing generates a three-dimensional model of the first object using the images captured by the imaging units selected for the first object and generates a three-dimensional model of the second object using the images captured by the imaging units selected for the second object without using the images captured by the imaging units not selected for the second object.
A dynamic balancer , comprising: an outer housing ; a spindle assembly rotatably mounted to said outer housing and including a lower spindle including a lower spindle body with an outer surface opposite an inner surface with a shaft opening defined by the inner surface; a spindle shaft being received through the shaft opening of the lower spindle body; a frameless motor assembly comprising a stator coupled to said outer housing and a rotor rotatably received within said stator and secured to the lower spindle by way of an interior and / or edge surface of the rotor; and a chucking assembly adapted to receive a locking member to capture a tire (T) therebetween, where the chucking assembly grips the locking member and position and captures an opposite bead of the tire, where said chucking assembly is received in said spindle assembly which rotates the chucking assembly and the tire which is mounted between the locking member and the chucking assembly, characterized in that said spindle shaft extends through said rotor , one end of said spindle shaft axially moving said chucking assembly to engage and disengage said locking member in said spindle assembly . an outer housing ; a spindle assembly rotatably mounted to said outer housing and including a lower spindle including a lower spindle body with an outer surface opposite an inner surface with a shaft opening defined by the inner surface; a spindle shaft being received through the shaft opening of the lower spindle body; a frameless motor assembly comprising a stator coupled to said outer housing and a rotor rotatably received within said stator and secured to the lower spindle by way of an interior and / or edge surface of the rotor; and a chucking assembly adapted to receive a locking member to capture a tire (T) therebetween, where the chucking assembly grips the locking member and position and captures an opposite bead of the tire, where said chucking assembly is received in said spindle assembly which rotates the chucking assembly and the tire which is mounted between the locking member and the chucking assembly, characterized in that said spindle shaft extends through said rotor , one end of said spindle shaft axially moving said chucking assembly to engage and disengage said locking member in said spindle assembly .
A dental tool comprising; a proximal coupling end ; a distal treatment end opposite the proximal coupling end ; and a transponder including a transponder antenna , the transponder attached to or integrated with the proximal coupling end of the dental tool , wherein the transponder is constructed such that the proximal coupling end of the dental tool is insertable into a tool receiving shaft of a dental handpiece , wherein when the dental tool is coupled with the dental handpiece , the transponder antenna and a reader antenna of the dental handpiece , are oriented orthogonally to an axis of rotation of the dental tool , such that contactless data exchange between the transponder antenna and the reader antenna takes place at all rotational angles of the dental tool , characterized in that wherein the transponder antenna comprises a first substrate with antenna turns on both sides of the first substrate which define a planar multi-layer geometry, or alternatively wherein transponder antenna comprises antenna turns (10,35; 10,11) on a plurality of substrates bonded to each other which define a planar multi-layer geometry. a proximal coupling end ; a distal treatment end opposite the proximal coupling end ; and a transponder including a transponder antenna , the transponder attached to or integrated with the proximal coupling end of the dental tool , wherein the transponder is constructed such that the proximal coupling end of the dental tool is insertable into a tool receiving shaft of a dental handpiece , wherein when the dental tool is coupled with the dental handpiece , the transponder antenna and a reader antenna of the dental handpiece , are oriented orthogonally to an axis of rotation of the dental tool , such that contactless data exchange between the transponder antenna and the reader antenna takes place at all rotational angles of the dental tool , characterized in that wherein the transponder antenna comprises a first substrate with antenna turns on both sides of the first substrate which define a planar multi-layer geometry, or alternatively wherein transponder antenna comprises antenna turns (10,35; 10,11) on a plurality of substrates bonded to each other which define a planar multi-layer geometry.
A power generation system , comprising: a shroud that defines a fluid flow path ; a single-spool gas turbine engine in said fluid flow path comprising: a compressor , a combustor downstream from said compressor , and a turbine downstream from said compressor and said combustor ; an electric generator in said fluid flow path upstream from said single-spool gas turbine engine , wherein said electric generator comprises a rotor coaxially aligned with said turbine ; and a shaft that connects said turbine to said rotor of said electric generator so that said turbine and said rotor rotate at the same speed. a shroud that defines a fluid flow path ; a single-spool gas turbine engine in said fluid flow path comprising: a compressor , a combustor downstream from said compressor , and a turbine downstream from said compressor and said combustor ; a compressor , a combustor downstream from said compressor , and a turbine downstream from said compressor and said combustor ; an electric generator in said fluid flow path upstream from said single-spool gas turbine engine , wherein said electric generator comprises a rotor coaxially aligned with said turbine ; and a shaft that connects said turbine to said rotor of said electric generator so that said turbine and said rotor rotate at the same speed.
An information processing apparatus comprising: a deciding unit configured to decide alignment information to be used for alignment between a first image captured by a first imaging device and a second image captured by a second imaging device having an angle of view wider than an angle of view of the first imaging device , on a basis of imaging-related information related to imaging performed by the first imaging device ; and an outputting unit configured to output the alignment information; wherein the deciding unit is configured to decide alignment information to be used for alignment with the second image, and the outputting unit is configured to output the alignment information to the second imaging device; characterized in that the deciding unit includes: a determining unit configured to determine whether or not the imaging-related information satisfies a predetermined condition; and a selecting unit configured to select, as the alignment information, at least one of a depth map corresponding to the first image, a partial image of a vicinity of focus corresponding to a vicinity of a subject focused by adjustment control of a predetermined focal length in the first image, edge information detected from the first image, or the first image on a basis of a determination result of the determining unit. a deciding unit configured to decide alignment information to be used for alignment between a first image captured by a first imaging device and a second image captured by a second imaging device having an angle of view wider than an angle of view of the first imaging device , on a basis of imaging-related information related to imaging performed by the first imaging device ; and an outputting unit configured to output the alignment information; wherein the deciding unit is configured to decide alignment information to be used for alignment with the second image, and the outputting unit is configured to output the alignment information to the second imaging device; characterized in that the deciding unit includes: a determining unit configured to determine whether or not the imaging-related information satisfies a predetermined condition; and a selecting unit configured to select, as the alignment information, at least one of a depth map corresponding to the first image, a partial image of a vicinity of focus corresponding to a vicinity of a subject focused by adjustment control of a predetermined focal length in the first image, edge information detected from the first image, or the first image on a basis of a determination result of the determining unit. a determining unit configured to determine whether or not the imaging-related information satisfies a predetermined condition; and a selecting unit configured to select, as the alignment information, at least one of a depth map corresponding to the first image, a partial image of a vicinity of focus corresponding to a vicinity of a subject focused by adjustment control of a predetermined focal length in the first image, edge information detected from the first image, or the first image on a basis of a determination result of the determining unit.
A foam forming method comprising: a). preparing a foamable system comprising an A side comprising polyisocyanate and a B side comprising a polyol, a catalytically effective amount of an amine-containing catalyst, and at least one hydrohaloolefin, which is generally decomposition reactive with said amine-containing catalyst b). ensuring the substantial absence of long-term decomposition-inducing contact between said hydrohaloolefin and the amine-containing catalyst; wherein the at least one hydrohaloolefin is trans HFCO-1233zd and wherein the B side comprises not more than 0.75 wt% water. a). preparing a foamable system comprising an A side comprising polyisocyanate and a B side comprising a polyol, a catalytically effective amount of an amine-containing catalyst, and at least one hydrohaloolefin, which is generally decomposition reactive with said amine-containing catalyst b). ensuring the substantial absence of long-term decomposition-inducing contact between said hydrohaloolefin and the amine-containing catalyst;
A hydrogen flame ionization type exhaust gas analyzer adapted to measure a concentration of a measurement target substance contained in an exhaust gas based on ion current that is generated upon introduction of the exhaust gas into a hydrogen flame (F) of the hydrogen flame ionization type exhaust gas analyzer , characterized by comprising: a collector electrode for capturing ions generated from the exhaust gas by the hydrogen flame (F); an acquisition circuit electrically connected to the collector electrode to acquire ion current caused by the ions captured by the collector electrode ; and an abnormality determining part for determining an abnormality in the case where a difference (S 2 -S 1 ) between, a first output value (S 1 ) or a first relevant value obtained from the first output value (S 1 ), and a second output value (S 2 ) or a second relevant value obtained from the second output value (S 2 ), is equal to or larger than a predetermined value (A), so that a purge timing can be determined; wherein the first output value (S 1 ) is measured by the acquisition circuit while no ion current caused by the exhaust gas flows to the collector electrode ; and the second output value (S 2 ) is measured by the acquisition circuit while gas of a known concentration of a measurement target substance is introduced into the hydrogen flame (F). a collector electrode for capturing ions generated from the exhaust gas by the hydrogen flame (F); an acquisition circuit electrically connected to the collector electrode to acquire ion current caused by the ions captured by the collector electrode ; and an abnormality determining part for determining an abnormality in the case where a difference (S 2 -S 1 ) between, a first output value (S 1 ) or a first relevant value obtained from the first output value (S 1 ), and a second output value (S 2 ) or a second relevant value obtained from the second output value (S 2 ), is equal to or larger than a predetermined value (A), so that a purge timing can be determined; wherein the first output value (S 1 ) is measured by the acquisition circuit while no ion current caused by the exhaust gas flows to the collector electrode ; and the second output value (S 2 ) is measured by the acquisition circuit while gas of a known concentration of a measurement target substance is introduced into the hydrogen flame (F).