mhurhangee/patent-ind-claim-en huggingface dataset:
An operation assisting tool comprising: a gripper ; and an engagement portion to engage with a handle of a drawer drawable from a housing of an image forming apparatus , wherein the engagement portion has a first counter face and a second counter face to face a pair of faces (12b1, 12b2) of the handle that are orthogonal to a moving direction of the drawer , wherein the first counter face of the engagement portion is to face downstream one (12b1) of the pair of faces (12b1, 12b2) of the handle in the moving direction, wherein the second counter face of the engagement portion is to face upstream one (12b2) of the pair of faces (12b1, 12b2) of the handle in the moving direction, and wherein the engagement portion has an opening to which the handle is to be inserted, characterized in that the first counter face has a first protrusion protruding toward the second counter face , the second counter face has a second protrusion protruding toward the first counter face , and each of the first protrusion and the second protrusion is disposed at a position lower than the position of the handle when the operation assisting tool is attached to the handle . a gripper ; and an engagement portion to engage with a handle of a drawer drawable from a housing of an image forming apparatus , wherein the engagement portion has a first counter face and a second counter face to face a pair of faces (12b1, 12b2) of the handle that are orthogonal to a moving direction of the drawer , wherein the first counter face of the engagement portion is to face downstream one (12b1) of the pair of faces (12b1, 12b2) of the handle in the moving direction, wherein the second counter face of the engagement portion is to face upstream one (12b2) of the pair of faces (12b1, 12b2) of the handle in the moving direction, and wherein the engagement portion has an opening to which the handle is to be inserted, characterized in that the first counter face has a first protrusion protruding toward the second counter face , the second counter face has a second protrusion protruding toward the first counter face , and each of the first protrusion and the second protrusion is disposed at a position lower than the position of the handle when the operation assisting tool is attached to the handle .
A computer-implemented method of generating an atlas for a universal multi-institution atlas database , the method comprising: a) providing a medical scan image ; b) performing a universal auto-contouring operation using the universal multi-institution atlas database on the medical scan image , to generate a set of universal contours for the medical scan image ; c) performing an institution specific auto-contouring customisation operation using a local atlas database on the medical scan image , to generate a set of local contours for the medical scan image ; d) providing the set of local contours to a user for approval or editing , adding approved local contours and medical scan image to the local atlas database ; e) standardising the set of local contours to ensure compliance with universal contouring guidelines, using a trained model to compensate for biases in the set of local contours , thereby creating a set of standardised global contours for the medical scan image ; and f) adding a universal atlas to the universal multi-institution atlas database , the universal atlas comprising the medical scan image and the set of standardised global contours for the medical scan image . a) providing a medical scan image ; b) performing a universal auto-contouring operation using the universal multi-institution atlas database on the medical scan image , to generate a set of universal contours for the medical scan image ; c) performing an institution specific auto-contouring customisation operation using a local atlas database on the medical scan image , to generate a set of local contours for the medical scan image ; d) providing the set of local contours to a user for approval or editing , adding approved local contours and medical scan image to the local atlas database ; e) standardising the set of local contours to ensure compliance with universal contouring guidelines, using a trained model to compensate for biases in the set of local contours , thereby creating a set of standardised global contours for the medical scan image ; and f) adding a universal atlas to the universal multi-institution atlas database , the universal atlas comprising the medical scan image and the set of standardised global contours for the medical scan image .
Menstrual cup comprising an upper opening , and a receptacle comprising a body having a rounded longitudinal shape and a bottom , the cup extending longitudinally from the opening to the bottom and having an internal surface in the concavity of the receptacle , and an external surface in the convexity of the receptacle , the body comprising at least one hollow longitudinal groove on the internal surface of the body , characterized in that the body comprises at least one solid longitudinal groove on the external surface of the body which coincides with said hollow longitudinal groove on the internal surface .
A post-harvest monitoring system, comprising a processor and a memory communicably coupled to the processor, the memory storing processor-executable instructions, which instructions, when executed by the processor, cause the processor to perform steps, comprising: receiving sensor device measurements from a plurality of sensors deployed within a commodity storage facility, various ones of said sensors being co-located with portions of a stored commodity in the storage facility, said sensor device measurements including temperature, relative humidity, air flow, and gas concentration within the commodity storage facility and being received as time-course data streams; determining a safe storage time for said stored commodity within said commodity storage facility using a numerical model combined with said sensor device measurements, said numerical model adapted to treat walls of said commodity storage facility as a porous medium, further adapted to create a coupled system in terms of intergranular air velocity, temperature, grain moisture content, oxygen and carbon dioxide concentrations, and further adapted to incorporate an air flow component using the Navier-Stokes equation; and presenting, as a user interface screen for the post-harvest monitoring system on a display communicably coupled to the processor, said determined safe storage time for said stored commodity along with a representation of the storage facility to include some or all of air flow, temperature, or moisture content within the storage facility and/or the stored commodity, and stored commodity quality metrics predictions and/or stored commodity business metrics predictions. receiving sensor device measurements from a plurality of sensors deployed within a commodity storage facility, various ones of said sensors being co-located with portions of a stored commodity in the storage facility, said sensor device measurements including temperature, relative humidity, air flow, and gas concentration within the commodity storage facility and being received as time-course data streams; determining a safe storage time for said stored commodity within said commodity storage facility using a numerical model combined with said sensor device measurements, said numerical model adapted to treat walls of said commodity storage facility as a porous medium, further adapted to create a coupled system in terms of intergranular air velocity, temperature, grain moisture content, oxygen and carbon dioxide concentrations, and further adapted to incorporate an air flow component using the Navier-Stokes equation; and presenting, as a user interface screen for the post-harvest monitoring system on a display communicably coupled to the processor, said determined safe storage time for said stored commodity along with a representation of the storage facility to include some or all of air flow, temperature, or moisture content within the storage facility and/or the stored commodity, and stored commodity quality metrics predictions and/or stored commodity business metrics predictions.
A light detecting unit configured to observe alpha rays by measuring a generated light generated by alpha rays occurring in a region of a to-be-measured object , comprising: a travel direction changing unit configured to change a travelling direction of the generated light; a light detector configured to detect direction-changed light of the generated light changed in traveling direction; a shielding member including a portion provided on a straight line extending from the to-be-measured object to the light detector to shield the light detector against radiation, the shielding member being configured to encircle the light detector and having an entry opening formed to allow the generated light to reach the travel direction changing unit and an opening formed on an opposite side from the entry opening ; and a housing that houses the travel direction changing unit , the light detector and the shielding member , and has an entry opening . a travel direction changing unit configured to change a travelling direction of the generated light; a light detector configured to detect direction-changed light of the generated light changed in traveling direction; a shielding member including a portion provided on a straight line extending from the to-be-measured object to the light detector to shield the light detector against radiation, the shielding member being configured to encircle the light detector and having an entry opening formed to allow the generated light to reach the travel direction changing unit and an opening formed on an opposite side from the entry opening ; and a housing that houses the travel direction changing unit , the light detector and the shielding member , and has an entry opening .
A method of preemptively forming a structural deposit on a surface of an unused gearbox housing , the surface configured to contact a component, the method comprising the steps of: identifying a portion of the surface of the gearbox housing where corrosion and pitting are expected to occur; removing material from the portion of the surface of the gearbox housing as a concave groove; preparing and masking the portion of the surface ; creating a structural deposit on the identified portion of the surface , wherein the structural deposit includes one or more layers of powdered material applied through a cold spray deposition process, the structural deposit being integrally formed with gearbox housing and configured to carry a load applied to the gearbox housing ; and removing any excess material from the structural deposit ; wherein the surface is one of a mating surface , a flight control surface , and a mounting foot portion configured to contact the component, and the component is one of a fastener, a flight control component, and an airframe, wherein the gearbox housing is of an aircraft . identifying a portion of the surface of the gearbox housing where corrosion and pitting are expected to occur; removing material from the portion of the surface of the gearbox housing as a concave groove; preparing and masking the portion of the surface ; creating a structural deposit on the identified portion of the surface , wherein the structural deposit includes one or more layers of powdered material applied through a cold spray deposition process, the structural deposit being integrally formed with gearbox housing and configured to carry a load applied to the gearbox housing ; and removing any excess material from the structural deposit ; wherein the surface is one of a mating surface , a flight control surface , and a mounting foot portion configured to contact the component, and the component is one of a fastener, a flight control component, and an airframe, wherein the gearbox housing is of an aircraft .
An implantable medical system, comprising: an implantable component having a rechargeable implantable power supply; an external auxiliary charger; and an external wireless charger having a rechargeable charger power supply, and an inductive coil configured to: transcutaneously transfer power from the rechargeable charger power supply to the rechargeable, implantable power supply, detect and receive power via the inductive coil from the external auxiliary charger for recharging of the rechargeable charger power supply, characterized by a power detector, wherein the inductive coil of the external wireless charger is connected to the power detector, and the power detector is configured to detect at least one of the presence and absence of the external auxiliary charger or implantable component, while the transmission of power from the rechargeable charger power supply to the rechargeable implantable power supply is disabled, wherein the external auxiliary charger comprises an array of inductive coils for transfer of power to the external wireless charger. an implantable component having a rechargeable implantable power supply; an external auxiliary charger; and an external wireless charger having a rechargeable charger power supply, and an inductive coil configured to: transcutaneously transfer power from the rechargeable charger power supply to the rechargeable, implantable power supply, detect and receive power via the inductive coil from the external auxiliary charger for recharging of the rechargeable charger power supply, characterized by a power detector, wherein the inductive coil of the external wireless charger is connected to the power detector, and the power detector is configured to detect at least one of the presence and absence of the external auxiliary charger or implantable component, while the transmission of power from the rechargeable charger power supply to the rechargeable implantable power supply is disabled, wherein the external auxiliary charger comprises an array of inductive coils for transfer of power to the external wireless charger. transcutaneously transfer power from the rechargeable charger power supply to the rechargeable, implantable power supply, detect and receive power via the inductive coil from the external auxiliary charger for recharging of the rechargeable charger power supply, characterized by a power detector, wherein the inductive coil of the external wireless charger is connected to the power detector, and the power detector is configured to detect at least one of the presence and absence of the external auxiliary charger or implantable component, while the transmission of power from the rechargeable charger power supply to the rechargeable implantable power supply is disabled, wherein the external auxiliary charger comprises an array of inductive coils for transfer of power to the external wireless charger.
A terminal device , comprising an antenna, a middle frame , and a first component , wherein the middle frame comprises a metal middle plate , the terminal device comprises a metal bezel disposed around a peripheral side of the metal middle plate , and the antenna is disposed on the metal bezel , the metal middle plate comprises a first surface and a second surface opposite to the first surface , the first component is mounted on the middle frame , and a first cavity is formed between the first component and the first surface ; the terminal device comprises a noise suppression structure (B) disposed on the metal middle plate , the noise suppression structure (B) comprises a hollow region running through the first surface and the second surface , and the hollow region communicates with the first cavity ; and the first cavity is a transmission medium for digital signal noise having a propagation path in a direction toward the antenna, the propagation path passes through the hollow region, and the hollow region is configured to suppress the digital signal noise generated when the first component is working and transmitted by using the propagation path, wherein the noise suppression structure (B) comprises a plurality of slits running through the metal middle plate , each of the slits extends in a curved way, and the plurality of slits are regularly arranged to form the hollow region, wherein the plurality of slits have consistent extension directions and are spaced, or the plurality of slits have consistent extension directions and are arranged side by side, and two adjacent slits communicate with each other head to tail. the terminal device comprises a noise suppression structure (B) disposed on the metal middle plate , the noise suppression structure (B) comprises a hollow region running through the first surface and the second surface , and the hollow region communicates with the first cavity ; and the first cavity is a transmission medium for digital signal noise having a propagation path in a direction toward the antenna, the propagation path passes through the hollow region, and the hollow region is configured to suppress the digital signal noise generated when the first component is working and transmitted by using the propagation path, wherein the noise suppression structure (B) comprises a plurality of slits running through the metal middle plate , each of the slits extends in a curved way, and the plurality of slits are regularly arranged to form the hollow region, wherein the plurality of slits have consistent extension directions and are spaced, or the plurality of slits have consistent extension directions and are arranged side by side, and two adjacent slits communicate with each other head to tail.
A dust-proof clothing using the following dust-proof material, wherein: i) the dust-proof material has a fiber layer and an electret nonwoven fabric layer, and a total number of the fiber layer and the electret nonwoven fabric layer is 2 or more; and ii) in the dust-proof material, the fiber layer and the electret nonwoven fabric layer, which are adjacent to each other, are adhered at an adhesion area ratio of 5% or more and 10% or less; wherein the adhesion area ratio is measured according to the description using a rectangular sample of said dust-proof material, having a size of 240 mm on a long side and 180 mm on a short side; wherein the long side is divided into four equal parts, and the short side is divided into three equal parts, to thereby obtain twelve 60 mm square pieces of the rectangular sample; wherein a 20 mm square sample is cut out from each 60 mm square piece, wherein the 20 mm square sample has the same center point as the 60 mm square piece, and two sides of the 20 mm square sample are parallel to the long side and the remaining two sides of the 20 mm square sample are parallel to the short side; such that each of the twelve 20 mm square samples has the adhesion area ratio of 5% or more and 10% or less. i) the dust-proof material has a fiber layer and an electret nonwoven fabric layer, and a total number of the fiber layer and the electret nonwoven fabric layer is 2 or more; and ii) in the dust-proof material, the fiber layer and the electret nonwoven fabric layer, which are adjacent to each other, are adhered at an adhesion area ratio of 5% or more and 10% or less; wherein the adhesion area ratio is measured according to the description using a rectangular sample of said dust-proof material, having a size of 240 mm on a long side and 180 mm on a short side; wherein the long side is divided into four equal parts, and the short side is divided into three equal parts, to thereby obtain twelve 60 mm square pieces of the rectangular sample; wherein a 20 mm square sample is cut out from each 60 mm square piece, wherein the 20 mm square sample has the same center point as the 60 mm square piece, and two sides of the 20 mm square sample are parallel to the long side and the remaining two sides of the 20 mm square sample are parallel to the short side; such that each of the twelve 20 mm square samples has the adhesion area ratio of 5% or more and 10% or less.
A pellicle comprising a graphite thin film, wherein the graphite thin film has a film thickness of 5 nm or more and 30 nm or less, characterized in that the graphite thin film has a ratio (I (D)/I (G)) of a D-band intensity (I (D)) to a G-band intensity (I (G)) in a Raman spectrum of 0 or more and 0.5 or less, and the graphite thin film has a surface roughness Sa of 0.1 nm or more and 500 nm or less, wherein surface roughness Sa is the arithmetic average height obtained on the basis of ISO 25178. wherein the graphite thin film has a film thickness of 5 nm or more and 30 nm or less, characterized in that the graphite thin film has a ratio (I (D)/I (G)) of a D-band intensity (I (D)) to a G-band intensity (I (G)) in a Raman spectrum of 0 or more and 0.5 or less, and the graphite thin film has a surface roughness Sa of 0.1 nm or more and 500 nm or less, wherein surface roughness Sa is the arithmetic average height obtained on the basis of ISO 25178.
A rolling band rolled together with a clothing item to wrap the clothing item , wherein the rolling band is formed of a non-adhesive member , wherein a self-adhesive first adhesive member is attached to only one of both ends on an upper surface of the rolling band, and a self-adhesive second adhesive member is attached to only one of both ends on a lower surface of the rolling band which is positioned opposite the first adhesive member , wherein the first adhesive member and the second adhesive member are attachable to each other but do not stick to the clothing item and the non-adhesive member , and wherein the clothing item is placed on an upper portion of the upper surface of the rolling band and is rolled together with the rolling band so that the first adhesive member and the second adhesive member attach each other to leave the clothing item in a fixed, rolled-up position, allowing the non-adhesive member to be positioned on the outer surface of the rolling band upon rolling the clothing item the rolling band, wherein the first adhesive member and the second adhesive member are made of a material selected from polyvinyl chloride (PVC) and ethylene-vinyl acetate copolymer (EVM).