mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing apparatus comprising: medical image obtaining means for obtaining a first medical image of an object in a first shape state; region of interest setting means for setting a region of interest of the object on the first medical image; deformation information obtaining means for obtaining deformation information indicating deformation of the object from the first shape state to a second shape state; region calculating means for calculating a region in the second shape state corresponding to the region of interest in the first shape state based on the deformation information; and imaging region setting means for setting an imaging region of the object in the second shape state based on the region calculated by the region calculating means and outputting information of the imaging region to a medical imaging apparatus, the imaging region being a candidate region where the medical imaging apparatus captures a second medical image. medical image obtaining means for obtaining a first medical image of an object in a first shape state; region of interest setting means for setting a region of interest of the object on the first medical image; deformation information obtaining means for obtaining deformation information indicating deformation of the object from the first shape state to a second shape state; region calculating means for calculating a region in the second shape state corresponding to the region of interest in the first shape state based on the deformation information; and imaging region setting means for setting an imaging region of the object in the second shape state based on the region calculated by the region calculating means and outputting information of the imaging region to a medical imaging apparatus, the imaging region being a candidate region where the medical imaging apparatus captures a second medical image.
A drug release device comprising a drug release component and a support, wherein: the drug release component comprises one or more thermoplastic elastomer (TPE) polymers and one or more polyolefins, wherein at least one of the TPE polymers is polystyrene- block -poly(ethylene- co -butylene)- block -polystyrene (SEBS); the drug release component has a hardness in the range of 20-90 Shore A, as measured by a Type A Durometer in accordance with ASTM D2240, and a melt point in the range of about 80 to 250°C, the drug release component is impregnated with one or more drugs; the support has a melt point in the range of about 70-200°C; and the drug release component is moulded onto the support. the drug release component comprises one or more thermoplastic elastomer (TPE) polymers and one or more polyolefins, wherein at least one of the TPE polymers is polystyrene- block -poly(ethylene- co -butylene)- block -polystyrene (SEBS); the drug release component has a hardness in the range of 20-90 Shore A, as measured by a Type A Durometer in accordance with ASTM D2240, and a melt point in the range of about 80 to 250°C, the drug release component is impregnated with one or more drugs; the support has a melt point in the range of about 70-200°C; and the drug release component is moulded onto the support.
A method for producing a semiconductor device , comprising the steps of: - providing a silicon wafer having a plurality of raised portions of equal height (h) on a first surface of the silicon wafer as a placeholder for through-silicon vias ; - depositing an etch stop layer on the first surface of the silicon wafer ; - planarizing a surface of the etch stop layer ; - permanently bonding a first carrier wafer to the surface of the etch stop layer ; - producing components on or in a second surface of the silicon wafer in a front-end-of-line process; - etching a plurality of trenches into the silicon wafer using a masked etching process, proceeding from the second surface of the silicon wafer , each trench being formed at the respective location of one raised portion of the plurality of raised portions ; - depositing side wall insulation layers made of insulating material on side walls of the trenches ; - forming through-silicon vias by filling the trenches with electrically conductive material; - producing a conductor path stack in a back-end-of-line process for contacting the active components on the second surface of the silicon wafer ; - temporarily bonding a second carrier wafer onto a surface of the conductor path stack ; - removing the first carrier wafer ; - exposing the through-silicon vias by partially removing the etch stop layer . - providing a silicon wafer having a plurality of raised portions of equal height (h) on a first surface of the silicon wafer as a placeholder for through-silicon vias ; - depositing an etch stop layer on the first surface of the silicon wafer ; - planarizing a surface of the etch stop layer ; - permanently bonding a first carrier wafer to the surface of the etch stop layer ; - producing components on or in a second surface of the silicon wafer in a front-end-of-line process; - etching a plurality of trenches into the silicon wafer using a masked etching process, proceeding from the second surface of the silicon wafer , each trench being formed at the respective location of one raised portion of the plurality of raised portions ; - depositing side wall insulation layers made of insulating material on side walls of the trenches ; - forming through-silicon vias by filling the trenches with electrically conductive material; - producing a conductor path stack in a back-end-of-line process for contacting the active components on the second surface of the silicon wafer ; - temporarily bonding a second carrier wafer onto a surface of the conductor path stack ; - removing the first carrier wafer ; - exposing the through-silicon vias by partially removing the etch stop layer .
An apparatus comprising: a filter housing ; a mesh holder disposed within the filter housing such that a flow passage is defined between the mesh holder and the filter housing; a mesh filter member supported by the mesh holder ; and a replaceable filter cartridge having an open interior and being removably connected to the mesh holder , the replaceable filter cartridge inserted around the mesh filter member , the replaceable filter cartridge having a filter media that extends in an axial direction and is disposed between an annular-shaped airflow spinner and an end cap , and wherein the annular-shaped airflow spinner is affixed to an outer surface of the filter media such that the replaceable filter cartridge is modular and can be handled as a unitary whole as it is inserted into the filter housing , the annular-shaped airflow spinner including an inner ring , an outer ring , and a plurality of airflow members extending between the inner ring and the outer ring, the plurality of airflow members defining a plurality of passages , the plurality of airflow members being structured to impart a circumferential component of swirl to a passing flow of fluid in the flow passage when the replaceable filter cartridge is installed in the filter housing , the flow of fluid subsequently traversing through the filter media and mesh filter member into the open interior of the filter cartridge . a filter housing ; a mesh holder disposed within the filter housing such that a flow passage is defined between the mesh holder and the filter housing; a mesh filter member supported by the mesh holder ; and a replaceable filter cartridge having an open interior and being removably connected to the mesh holder , the replaceable filter cartridge inserted around the mesh filter member , the replaceable filter cartridge having a filter media that extends in an axial direction and is disposed between an annular-shaped airflow spinner and an end cap , and wherein the annular-shaped airflow spinner is affixed to an outer surface of the filter media such that the replaceable filter cartridge is modular and can be handled as a unitary whole as it is inserted into the filter housing , the annular-shaped airflow spinner including an inner ring , an outer ring , and a plurality of airflow members extending between the inner ring and the outer ring, the plurality of airflow members defining a plurality of passages , the plurality of airflow members being structured to impart a circumferential component of swirl to a passing flow of fluid in the flow passage when the replaceable filter cartridge is installed in the filter housing , the flow of fluid subsequently traversing through the filter media and mesh filter member into the open interior of the filter cartridge .
An electrically heatable window comprising two plies of glazing material , at least one ply of interlayer material located between the plies of glazing material, a first busbar and a second busbar , and an array of spaced wires extending between the first busbar and the second busbar, characterised in that the array of spaced wires comprises a first portion and a second portion , the window comprising a wire-free area aligned with the first portion, and in that the pitch of the wires of the first portion is greater than the pitch of the wires of the second portion.
A MEMS gyroscope , the MEMS gyroscope comprising: four proof masses , wherein each proof mass is driven such that the proof masses oscillate along radial lines extending from the center of the MEMS gyroscope through the center of the respective proof mass, each proof mass comprising: a plurality of horizontal drive combs ; and a plurality of sense combs ; and an upper substrate and a lower substrate , wherein the four proof masses are positioned between the upper substrate and the lower substrate; drive electrodes positioned on the upper substrate and the lower substrate, wherein the drive electrodes are adapted to drive the four proof masses along the radial lines at a drive frequency, wherein a resonant frequency of a sense mode is different from the drive frequency; wherein the drive electrodes positioned on the upper substrate and the lower substrate are adapted to drive the horizontal drive combs on the four proof masses; wherein a drive mode motion of the proof masses has zero total linear momentum and zero total angular momentum; wherein a sense mode motion of the proof masses has zero total linear momentum and zero total angular momentum; wherein each proof mass is driven out of phase with adjacent proof masses. four proof masses , wherein each proof mass is driven such that the proof masses oscillate along radial lines extending from the center of the MEMS gyroscope through the center of the respective proof mass, each proof mass comprising: a plurality of horizontal drive combs ; and a plurality of sense combs ; and a plurality of horizontal drive combs ; and a plurality of sense combs ; and an upper substrate and a lower substrate , wherein the four proof masses are positioned between the upper substrate and the lower substrate; drive electrodes positioned on the upper substrate and the lower substrate, wherein the drive electrodes are adapted to drive the four proof masses along the radial lines at a drive frequency, wherein a resonant frequency of a sense mode is different from the drive frequency; wherein the drive electrodes positioned on the upper substrate and the lower substrate are adapted to drive the horizontal drive combs on the four proof masses; wherein a drive mode motion of the proof masses has zero total linear momentum and zero total angular momentum; wherein a sense mode motion of the proof masses has zero total linear momentum and zero total angular momentum; wherein each proof mass is driven out of phase with adjacent proof masses.
Housing structure for being fastened to a car body of a rail vehicle with - a first housing module to accommodate rail vehicle equipment and - a second housing module adjacent to the first housing module to accommodate rail vehicle equipment, wherein the first housing module and the second housing module are arranged spaced apart from each other with a gap , and wherein at least one sealing profile running at least in sections along the gap is provided for sealing the gap between the first housing module and the second housing module at least in sections, characterised in that the at least one sealing profile is designed in such a way that the sealing profile permits a relative movement of the first housing module and of the second housing module , wherein the at least one sealing profile comprises a bent sheet for covering the gap at least in sections, wherein the sheet of the sealing profile is bent as seen in cross-section in such a way that stretching and/or compression of the sealing profile across the gap is enabled. - a first housing module to accommodate rail vehicle equipment and - a second housing module adjacent to the first housing module to accommodate rail vehicle equipment,
Electrical machine comprising a stator and a rotor , wherein the rotor comprises a laminated core , attached to a rotor shaft of the electrical machine (1.49), made up of laminations layered in the axial direction of the rotor , wherein the laminated core forms at least one cooling channel for a cooling fluid, wherein the cooling channel is formed in that a plurality of laminations have at least one respective opening (30, 31, 32, 39, 40 - 47) in the axial direction of the rotor , wherein the cooling channel extends at least in sections in the radial direction of the rotor , wherein the section of the cooling channel running in the radial direction of the rotor , or at least one of these sections, is formed through one of the openings (30, 31, 32, 39, 40 - 47) of the laminations , characterised in that the at least one cooling channel comprises at least two separate cooling channels or groups of cooling channels , from which different cooling fluids can be supplied.
Method for evaluating an x-ray image of a breast produced during mammography, wherein the masking risk caused by mammographically dense tissue is determined automatically and used for categorizing, describing and/or representing the breast density, by virtue of a masking risk map being produced automatically, wherein the masking risk map comprises a masking risk value that quantifies the masking risk, characterized in that the connectivity of dense tissue is taken into account when producing the masking risk map by applying a morphological opening method.
A two-wheeled vehicle tire comprising: a carcass extending between bead cores each disposed in a respective one of bead portions through a tread portion and sidewall portions , the carcass comprising at least one carcass ply having a ply main portion extending between the bead cores through the tread portion ; and a bead apex rubber extending radially outwardly from each bead core , wherein the bead apex rubber comprises a first rubber portion arranged adjacent to the ply main portion , and a second rubber portion arranged axially outwardly of the first rubber portion , the first rubber portion has a first end positioning radially outermost thereof, the second rubber portion has a second end positioning radially outermost thereof, and the first end is located radially outwardly of the second end , and characterized in that a substantially constant-thickness region (R1) of the first rubber portion in which a difference between a maximum thickness (t1) and a minimum thickness (t2) is equal to or less than 20% of the minimum thickness (t2) has a length equal to or more than 80% of a radial height (h1) of the first rubber portion from the bead core to the first end . a carcass extending between bead cores each disposed in a respective one of bead portions through a tread portion and sidewall portions , the carcass comprising at least one carcass ply having a ply main portion extending between the bead cores through the tread portion ; and a bead apex rubber extending radially outwardly from each bead core , wherein the bead apex rubber comprises a first rubber portion arranged adjacent to the ply main portion , and a second rubber portion arranged axially outwardly of the first rubber portion , the first rubber portion has a first end positioning radially outermost thereof, the second rubber portion has a second end positioning radially outermost thereof, and the first end is located radially outwardly of the second end , and characterized in that a substantially constant-thickness region (R1) of the first rubber portion in which a difference between a maximum thickness (t1) and a minimum thickness (t2) is equal to or less than 20% of the minimum thickness (t2) has a length equal to or more than 80% of a radial height (h1) of the first rubber portion from the bead core to the first end .
Vacuum interrupter , comprising - a housing having at least one annular ceramic insulating element , which forms a vacuum chamber , - a contact system , having two contacts which are moveable relative to one another, wherein a capacitive element having two electrodes is provided, together with a dielectric material which is arranged between the electrodes , characterized in that the capacitive element is interlockingly mounted on the insulating element at a surface of the insulating element, wherein electrodes are provided and arranged along the switching axis between end faces of the at least one insulating element , and the capacitive element has a capacitance between 400 pF and 4000 pF. - a housing having at least one annular ceramic insulating element , which forms a vacuum chamber , - a contact system , having two contacts which are moveable relative to one another,
A ferritic stainless steel comprising: a chemical composition containing, in mass%, C: 0.005% to 0.030%, Si: 0.01% to 1.00%, Mn: 0.01% to 1.0%, P: 0.010% or more and 0.040% or less, S: 0.001% or more and 0.010% or less, Cr: 16.0% to 18.0%, Ni: 0.01% to 1.0%, Al: 0.001% to 0.10%, N: 0.005% to 0.06%, optionally one or more selected from Cu: 0.01% to 1.0%, Mo: 0.01% to 0.5%, and Co: 0.01% to 0.5%, and optionally one or more selected from V: 0.01% to 0.25%, Ti: 0.001% to 0.10%, Nb: 0.001% to 0.10%, Ca: 0.0002% to 0.0020%, Mg: 0.0002% to 0.0050%, B: 0.0002% to 0.0050%, and REM: 0.01% to 0.10%, with a balance being Fe and incidental impurities; a microstructure containing C/N-concentrated grains being ferrite crystal grains which satisfy at least one of a C concentration of 2C C or more and a N concentration of 2C N or more, the ferrite crystal grains having a volume fraction with respect to a whole volume of the microstructure of 5% or more and 50% or less, where C C and C N are respectively C content and N content in the steel in mass%, wherein the balance of the microstructure consists of non-concentrated grains and other structures, non-concentrated grains being ferrite grains other than the C/N-concentrated grains, and the other structures having a total volume fraction of less than 1% with respect to the whole volume of the microstructure; and a Vickers hardness of 180 or less. a chemical composition containing, in mass%, C: 0.005% to 0.030%, Si: 0.01% to 1.00%, Mn: 0.01% to 1.0%, P: 0.010% or more and 0.040% or less, S: 0.001% or more and 0.010% or less, Cr: 16.0% to 18.0%, Ni: 0.01% to 1.0%, Al: 0.001% to 0.10%, N: 0.005% to 0.06%, optionally one or more selected from Cu: 0.01% to 1.0%, Mo: 0.01% to 0.5%, and Co: 0.01% to 0.5%, and optionally one or more selected from V: 0.01% to 0.25%, Ti: 0.001% to 0.10%, Nb: 0.001% to 0.10%, Ca: 0.0002% to 0.0020%, Mg: 0.0002% to 0.0050%, B: 0.0002% to 0.0050%, and REM: 0.01% to 0.10%, with a balance being Fe and incidental impurities; a microstructure containing C/N-concentrated grains being ferrite crystal grains which satisfy at least one of a C concentration of 2C C or more and a N concentration of 2C N or more, the ferrite crystal grains having a volume fraction with respect to a whole volume of the microstructure of 5% or more and 50% or less, where C C and C N are respectively C content and N content in the steel in mass%, wherein the balance of the microstructure consists of non-concentrated grains and other structures, non-concentrated grains being ferrite grains other than the C/N-concentrated grains, and the other structures having a total volume fraction of less than 1% with respect to the whole volume of the microstructure; and a Vickers hardness of 180 or less.
A method comprising: obtaining flow information descriptive of one or more traffic flows associated with a wireless client device that is associated to a current access point in a wireless network; storing state data representing the flow information for flows associated with the wireless client device together with a traffic descriptor for each flow, and appending a label to the state data for the wireless client device to indicate whether the traffic flow is from a wireless client device that is capable of creating a whitelist of one or more applications to mark for Quality of Service, QoS, treatment, and to indicate that an application of the traffic flow has authorized upstream QoS marking; determining that the wireless client device is seeking to roam from the current access point to a new access point; and sending the state data for the wireless client device to the new access point to enable the new access point to apply a policy based on the state data before the wireless client device completes its roam to the new access point. obtaining flow information descriptive of one or more traffic flows associated with a wireless client device that is associated to a current access point in a wireless network; storing state data representing the flow information for flows associated with the wireless client device together with a traffic descriptor for each flow, and appending a label to the state data for the wireless client device to indicate whether the traffic flow is from a wireless client device that is capable of creating a whitelist of one or more applications to mark for Quality of Service, QoS, treatment, and to indicate that an application of the traffic flow has authorized upstream QoS marking; determining that the wireless client device is seeking to roam from the current access point to a new access point; and sending the state data for the wireless client device to the new access point to enable the new access point to apply a policy based on the state data before the wireless client device completes its roam to the new access point.
Clothing item, characterized in that it comprises one or more portions applied to the fabric/material from which the clothing item is made, and wherein said portions are made from a net material which is suited to exert a mechanical action to remove sand from parts of the user's body by rubbing, and wherein said net material has meshes whose average size is approximately equal to or larger than 1 mm and more preferably included between approximately 1 and 5 mm, and wherein said one or more portions are integral, in a non-removable manner, with said fabric/material from which the clothing item is made and are applied through sewing, and wherein one or more of said portions of net material are applied externally to the fabric/material used to make the clothing item, thus being in relief, and wherein said one or more net portions are sewn along their edges.