mhurhangee/ep-ind-claims huggingface dataset:
A focused ion beam device control method comprising the steps of: forming a first processed figure on a surface of a specimen through application of a focused ion beam in a first processing range of vision (S102, S202); obtaining a secondary electron image of the first processed figure through application of the focused ion beam (S103, S203); measuring an outer dimension of the first processed figure by the obtained secondary electron image (S103, S203); determining a position of a next, second processing range of vision by detecting size deviation with respect to a design dimension of the first processed figure, based on the measured outer dimension of the first processed figure (S104-S107, S204-S207); and moving a stage to the position of the second processing range of vision thus determined (S106-S107, S206-S207). forming a first processed figure on a surface of a specimen through application of a focused ion beam in a first processing range of vision (S102, S202); obtaining a secondary electron image of the first processed figure through application of the focused ion beam (S103, S203); measuring an outer dimension of the first processed figure by the obtained secondary electron image (S103, S203); determining a position of a next, second processing range of vision by detecting size deviation with respect to a design dimension of the first processed figure, based on the measured outer dimension of the first processed figure (S104-S107, S204-S207); and moving a stage to the position of the second processing range of vision thus determined (S106-S107, S206-S207).
A method for preparing a food ingredient, comprising: - providing a mixture of a starch-, protein-, and dietary fibre-containing food base material which food base material is gliadin- or glutenin-containing wheat or wheat by-product, water, a Saccharomyces, a Lactobacillus selected from the group consisting of L. casei and L. plantarum and optionally one or more other ingredients; and - subjecting the mixture to a fermentation step, thereby forming lactic acid, wherein, optionally after drying, a pumpable food ingredient is obtained having a dry matter content of from approximately 20 wt. % to approximately 35 wt. %, preferably from approximately 22 wt. % to approximately 30 wt. %, more preferably from approximately 25 wt. % to approximately 28 wt. %, wherein the fermentation is continued until the pH, as measured in the mixture with a pH electrode, is less than 4.00. - providing a mixture of a starch-, protein-, and dietary fibre-containing food base material which food base material is gliadin- or glutenin-containing wheat or wheat by-product, water, a Saccharomyces, a Lactobacillus selected from the group consisting of L. casei and L. plantarum and optionally one or more other ingredients; and - subjecting the mixture to a fermentation step, thereby forming lactic acid, wherein, optionally after drying, a pumpable food ingredient is obtained having a dry matter content of from approximately 20 wt. % to approximately 35 wt. %, preferably from approximately 22 wt. % to approximately 30 wt. %, more preferably from approximately 25 wt. % to approximately 28 wt. %, wherein the fermentation is continued until the pH, as measured in the mixture with a pH electrode, is less than 4.00.
A method of manufacturing a liquid discharge head to vibrate a nozzle plate including a substrate formed of silicon and a piezoelectric body to discharge liquid, the method comprising: forming the piezoelectric body on the substrate; and forming a nozzle orifice penetrating through the substrate and the piezoelectric body, characterised in that forming the piezoelectric body on the substrate is done while the substrate is heated to a temperature in the range of from 450°C to 600°C. forming the piezoelectric body on the substrate; and forming a nozzle orifice penetrating through the substrate and the piezoelectric body, characterised in that forming the piezoelectric body on the substrate is done while the substrate is heated to a temperature in the range of from 450°C to 600°C.
A wet-mateable coupling member for making an electrical connection, the coupling member comprising a body having a cavity wall which defines an internal cavity; and a hollow sleeve located inside the internal cavity; wherein the sleeve is arranged in the internal cavity to define an outer chamber between the sleeve and the cavity wall, and to define an inner chamber inside the sleeve; wherein the sleeve comprises an electrically-insulating layer and an electrically-conductive layer, the electrically conductive layer defining an outer surface of the sleeve in the outer chamber and wherein an electrical contact is adapted to be housed inside the inner chamber and configured for making the electrical connection; wherein the sleeve comprises a head portion, the head portion being provided with an access aperture and an access passageway which extends between the access aperture and the inner chamber, wherein the access passageway is defined by an inner surface of the head portion which forms part of the electrically-insulating layer, characterized in that the electrically conductive layer comprises a semi-conductive layer, the semi-conductive layer being a conductive elastomer. the coupling member comprising a body having a cavity wall which defines an internal cavity; and a hollow sleeve located inside the internal cavity; wherein the sleeve is arranged in the internal cavity to define an outer chamber between the sleeve and the cavity wall, and to define an inner chamber inside the sleeve; wherein the sleeve comprises an electrically-insulating layer and an electrically-conductive layer, the electrically conductive layer defining an outer surface of the sleeve in the outer chamber and wherein an electrical contact is adapted to be housed inside the inner chamber and configured for making the electrical connection; wherein the sleeve comprises a head portion, the head portion being provided with an access aperture and an access passageway which extends between the access aperture and the inner chamber, wherein the access passageway is defined by an inner surface of the head portion which forms part of the electrically-insulating layer, characterized in that the electrically conductive layer comprises a semi-conductive layer, the semi-conductive layer being a conductive elastomer.
A device for retracting of a flexible hose of a central vacuum system, comprising at least one housing, having a substantially parallelepiped shape, configured for an arrangement chosen between flush-mounted in a wall and exposed, said housing comprises a rigid tubing, associated with a vacuum apparatus by means of a tubing, which has a cross-section and a length which are suitable to accommodate internally a flexible hose that can be extracted from said housing by pulling from the terminal end of said hose that faces outward through an opening of said housing, said hose being retractable into said rigid tubing by virtue of the action of the negative pressure established by the suction applied by said apparatus, wherein one end of the rigid tubing ends in a box which can be accessed from the outside of the housing and from which the flexible hose is extracted when needed while the other end ends with a connector of the type of a branch which allows the connection of the rigid tubing to the tubing of the system that arrives from the vacuum apparatus, and characterized in that the box is provided with two cover doors (8 and 9) to allow the extraction and use of the flexible hose in each of the two spaces separated by the wall in which the housing is flush-mounted.
A neutral human milk oligosaccharide for use in improving a co-morbid mental disorder of a non-infant patient with irritable bowel syndrom, wherein the co-morbid mental disorder is anxiety and/or depression.
A steering system comprising: an upper jacket to which a steering member is connected at one end in a column axis direction; a lower jacket externally fitted to the other end of the upper jacket in the column axis direction in a slidable manner; a support that is fixed to a vehicle body and supports the lower jacket; a lock mechanism configured to switch a restriction of a telescopic adjustment of the upper jacket relative to the lower jacket and a termination of the restriction; and a shock absorber configured to absorb a shock when the upper jacket moves relative to the lower jacket upon secondary collision, wherein the upper jacket includes a stopper having a protruding shape and configured to regulate a position of the upper jacket at one end of a telescopic stroke range, and the lock mechanism includes an opening and closing portion configured to enter a path of the stopper while the restriction of the telescopic adjustment is terminated, and configured to open the path of the stopper while the telescopic adjustment is restricted, wherein the lock mechanism includes a bolt configured to tighten the lower jacket into close contact with the upper jacket to restrict the telescopic adjustment; and the opening and closing portion is openable and closable in association with the bolt; characterized in that the opening and closing portion includes a pair of stopper members (71, 72) configured to move into contact with or away from each other along an axial direction of the bolt along with rotation of the bolt. an upper jacket to which a steering member is connected at one end in a column axis direction; a lower jacket externally fitted to the other end of the upper jacket in the column axis direction in a slidable manner; a support that is fixed to a vehicle body and supports the lower jacket; a lock mechanism configured to switch a restriction of a telescopic adjustment of the upper jacket relative to the lower jacket and a termination of the restriction; and a shock absorber configured to absorb a shock when the upper jacket moves relative to the lower jacket upon secondary collision, wherein the upper jacket includes a stopper having a protruding shape and configured to regulate a position of the upper jacket at one end of a telescopic stroke range, and the lock mechanism includes an opening and closing portion configured to enter a path of the stopper while the restriction of the telescopic adjustment is terminated, and configured to open the path of the stopper while the telescopic adjustment is restricted, wherein the lock mechanism includes a bolt configured to tighten the lower jacket into close contact with the upper jacket to restrict the telescopic adjustment; and the opening and closing portion is openable and closable in association with the bolt; characterized in that the opening and closing portion includes a pair of stopper members (71, 72) configured to move into contact with or away from each other along an axial direction of the bolt along with rotation of the bolt.
A method for producing a soft magnetic powdered core, comprising: a mixing step for forming a raw powder by adding a thermoplastic polyimide resin powder to a soft magnetic powder coated with an electrical insulating film on the surface thereof and mixing them, a compacting step for forming a compact by compacting the raw powder into a predetermined shape, characterized in that 0.005 to 1 vol. % of the thermoplastic resin powder having a median size of not more than 50 μm are added to the soft magnetic powder, and a recrystallizing step for the resin is performed, wherein the compact is heated in an air atmosphere to not less than the exothermic peak temperature and not more than the exothermic end temperature of thermoplastic polyimide resin, which are measured by DSC analysis of the thermoplastic resin, and is cooled to a room temperature. a mixing step for forming a raw powder by adding a thermoplastic polyimide resin powder to a soft magnetic powder coated with an electrical insulating film on the surface thereof and mixing them, a compacting step for forming a compact by compacting the raw powder into a predetermined shape, characterized in that 0.005 to 1 vol. % of the thermoplastic resin powder having a median size of not more than 50 μm are added to the soft magnetic powder, and a recrystallizing step for the resin is performed, wherein the compact is heated in an air atmosphere to not less than the exothermic peak temperature and not more than the exothermic end temperature of thermoplastic polyimide resin, which are measured by DSC analysis of the thermoplastic resin, and is cooled to a room temperature.
A system for measuring muscle mass of a patient, the system comprising: a dual-energy radiation emission source; a radiation detector configured so as to detect radiation emitted from the dual-energy radiation emission source passed through the patient; at least one processor; and a memory coupled to the at least one processor, characterized in that the memory storing instructions that when executed by the at least one processor, perform a set of operations comprising: receiving radiation detection data from the radiation detector; based on the radiation detection data, generating a scan representation; identifying a primary fat target in the scan representation, the primary fat target being a subcutaneous fat region (402, 408); generating a primary fat target model; determining an estimated amount of lean tissue based on the primary fat target model; determining an amount of fat in the primary fat target; comparing the amount of fat in the primary fat target to a reference; and based on the comparison, correcting an estimated amount of lean tissue to generate a corrected muscle mass value. a dual-energy radiation emission source; a radiation detector configured so as to detect radiation emitted from the dual-energy radiation emission source passed through the patient; at least one processor; and a memory coupled to the at least one processor, characterized in that the memory storing instructions that when executed by the at least one processor, perform a set of operations comprising: receiving radiation detection data from the radiation detector; based on the radiation detection data, generating a scan representation; identifying a primary fat target in the scan representation, the primary fat target being a subcutaneous fat region (402, 408); generating a primary fat target model; determining an estimated amount of lean tissue based on the primary fat target model; determining an amount of fat in the primary fat target; comparing the amount of fat in the primary fat target to a reference; and based on the comparison, correcting an estimated amount of lean tissue to generate a corrected muscle mass value. receiving radiation detection data from the radiation detector; based on the radiation detection data, generating a scan representation; identifying a primary fat target in the scan representation, the primary fat target being a subcutaneous fat region (402, 408); generating a primary fat target model; determining an estimated amount of lean tissue based on the primary fat target model; determining an amount of fat in the primary fat target; comparing the amount of fat in the primary fat target to a reference; and based on the comparison, correcting an estimated amount of lean tissue to generate a corrected muscle mass value.
A method for producing a plug for use in a piercing-rolling mill for producing a seamless steel tube/pipe, the method for producing the plug for piercing-rolling comprising the steps of: shotblasting a surface of the plug; and arc-spraying a spray wire so as to form a film on a surface of a base metal of the plug that is shotblasted, characterized in that in the arc-spraying step, the arc-spraying is carried out by using, as the spray wire, a cored wire whose iron sheath tube is charged with specific particles that contribute to enhancement of the durability life of the plug and, optionally, additionally with iron particles, so as to form the film containing iron oxide, Fe and the specific particles, wherein the arc-spraying is performed in air, and wherein the specific particles are low-thermal conductive particles having lower thermal conductivity than that of the iron oxide, wherein the iron oxide is one of iron oxide (FeO), iron oxide (Fe 2 O 3), and iron oxide (II, III) (Fe 3 O 4); and the low-thermal conductive particles are ZrO 2 particles wherein the proportion of the ZrO 2 particles in the cored wire is 2.5 to 30.0 volume%. shotblasting a surface of the plug; and arc-spraying a spray wire so as to form a film on a surface of a base metal of the plug that is shotblasted, characterized in that in the arc-spraying step, the arc-spraying is carried out by using, as the spray wire, a cored wire whose iron sheath tube is charged with specific particles that contribute to enhancement of the durability life of the plug and, optionally, additionally with iron particles, so as to form the film containing iron oxide, Fe and the specific particles, wherein the arc-spraying is performed in air, and wherein the specific particles are low-thermal conductive particles having lower thermal conductivity than that of the iron oxide, wherein the iron oxide is one of iron oxide (FeO), iron oxide (Fe 2 O 3), and iron oxide (II, III) (Fe 3 O 4); and the low-thermal conductive particles are ZrO 2 particles wherein the proportion of the ZrO 2 particles in the cored wire is 2.5 to 30.0 volume%.
A heat dissipating enclosure with integrated cooling fins, comprising a heat dissipating enclosure consisting of upper wall and side walls; the upper wall and side walls forms an outer wall; the cooling fins are embedded and cast in the outer wall of the heat dissipating enclosure; a plurality of cooling fins are connected to the outer wall; a plurality of long ridges are configured for the junctions between the heat dissipation enclosure and the cooling fins; which is characterized in that the height of the long ridges is bigger than the height of the bottom of the cooling fins to be embedded therein; a plurality of long ridges are configured on the heat dissipating enclosure evenly; the bottom of each of the cooling fins is embedded and cast in a corresponding one of the long ridges of the heat dissipating enclosure; the bottom of each of the cooling fins is featured by a hollow bottom surface open structure, two sides of the bottom are fixed with skirted edges; bottoms of the skirted edges are inward folded.
Electrical cabinet for railway equipment, the electrical cabinet comprising: - at least two separate water-tight parts (5, 10) and at least one zone which is less water-tight than the two parts (5, 10) or even not water-tight and which separates the two parts (5, 10) from one another, - a frame forming a skeleton of the electrical cabinet and constituting a bearing structure of the electrical cabinet, and - connection cables which electrically connect the two parts (5, 10) to one another, characterised in that: - the frame comprises a plurality of tubes, the tubes connecting the two parts (5, 10) to one another via the less tight zone in order to ensure mechanical rigidity of the electrical cabinet, and - the connection cables are arranged inside tubes of said plurality, the tubes having connection cables being at least as water-tight as the two parts (5, 10), at least in said less tight zone. - at least two separate water-tight parts (5, 10) and at least one zone which is less water-tight than the two parts (5, 10) or even not water-tight and which separates the two parts (5, 10) from one another, - a frame forming a skeleton of the electrical cabinet and constituting a bearing structure of the electrical cabinet, and - connection cables which electrically connect the two parts (5, 10) to one another, - the frame comprises a plurality of tubes, the tubes connecting the two parts (5, 10) to one another via the less tight zone in order to ensure mechanical rigidity of the electrical cabinet, and - the connection cables are arranged inside tubes of said plurality, the tubes having connection cables being at least as water-tight as the two parts (5, 10), at least in said less tight zone.
A valve (2, 102, 202) for adjusting a fluid flow, said valve comprising: - a valve body (4, 104, 204), - a flow path extending through the valve body, the flow path having an inlet (6, 206) and an outlet (8, 208) located downstream of the inlet, wherein the flow path is configured to guide a flowing liquid from the inlet to the outlet, - a flow adjustment arrangement (20, 220) located in the valve body between the inlet and the outlet, for adjusting the flow of liquid from the inlet to the outlet, - wherein liquid upstream of said flow adjustment arrangement but downstream of said inlet has an upstream pressure, and liquid downstream of said flow adjustment arrangement but upstream of said outlet has a downstream pressure, - a stationary differential pressure sensor (40, 140, 240) configured to measure a pressure difference between said upstream pressure and said downstream pressure, characterized by - a pair of pressure ports (52, 62) for enabling temporary connection of a non-stationary differential pressure sensor for measuring the pressure difference between said upstream pressure and said downstream pressure. - a valve body (4, 104, 204), - a flow path extending through the valve body, the flow path having an inlet (6, 206) and an outlet (8, 208) located downstream of the inlet, wherein the flow path is configured to guide a flowing liquid from the inlet to the outlet, - a flow adjustment arrangement (20, 220) located in the valve body between the inlet and the outlet, for adjusting the flow of liquid from the inlet to the outlet, - wherein liquid upstream of said flow adjustment arrangement but downstream of said inlet has an upstream pressure, and liquid downstream of said flow adjustment arrangement but upstream of said outlet has a downstream pressure, - a stationary differential pressure sensor (40, 140, 240) configured to measure a pressure difference between said upstream pressure and said downstream pressure, characterized by - a pair of pressure ports (52, 62) for enabling temporary connection of a non-stationary differential pressure sensor for measuring the pressure difference between said upstream pressure and said downstream pressure.
An optical device actuator, comprising: a movable frame that includes a lens; a guide shaft that movably supports the movable frame along an optical axis of the lens; a vibration imparting portion configured to impart vibration to a first end side of the guide shaft; a weight that is fixed to the vibration imparting portion; a first frame body (30, 36d) that supports the weight and the vibration imparting portion disposed on the first end side of the guide shaft; a second frame body that supports, in a fixed state, a second end side of the guide shaft that is on an opposite side from the first end side; and an elastic member that is provided on the first end side of the guide shaft characterized in that the elastic member is attached on an outer peripheral surface side of the weight and configured to press the vibration imparting portion along an axial direction against a first end of the guide shaft via the weight. a movable frame that includes a lens; a guide shaft that movably supports the movable frame along an optical axis of the lens; a vibration imparting portion configured to impart vibration to a first end side of the guide shaft; a weight that is fixed to the vibration imparting portion; a first frame body (30, 36d) that supports the weight and the vibration imparting portion disposed on the first end side of the guide shaft; a second frame body that supports, in a fixed state, a second end side of the guide shaft that is on an opposite side from the first end side; and an elastic member that is provided on the first end side of the guide shaft characterized in that the elastic member is attached on an outer peripheral surface side of the weight and configured to press the vibration imparting portion along an axial direction against a first end of the guide shaft via the weight.