mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device for maintaining a through-hole (Hh) in an atrial septum (HA) comprising: a shaft portion ; an expandable and contractible expansion body disposed distal of the shaft portion ; and a maintenance treatment element disposed in the expansion body and performing a predetermined maintenance treatment on biological tissue for maintaining a size of the through-hole (Hh), wherein the expansion body includes a concave portion recessed in a direction intersecting with an axial direction of the shaft portion , wherein the maintenance treatment element is an energy transmission element imparting energy to biological tissue, characterised in that the energy transmission element is disposed in the concave portion and capable of imparting energy to an edge portion of the through-hole (Hh) formed in the atrial septum (HA) of a patient in a state where the concave portion is disposed in the through-hole (Hh), and the expansion body includes a circulation portion allowing blood flow via the through-hole (Hh) in a state where the concave portion is disposed in the through-hole (Hh), wherein a linear member or plate-shape member shaped in advance so as to form the concave portion when expanded to deform constitutes the expansion body . a shaft portion ; an expandable and contractible expansion body disposed distal of the shaft portion ; and a maintenance treatment element disposed in the expansion body and performing a predetermined maintenance treatment on biological tissue for maintaining a size of the through-hole (Hh), wherein the expansion body includes a concave portion recessed in a direction intersecting with an axial direction of the shaft portion , wherein the maintenance treatment element is an energy transmission element imparting energy to biological tissue, characterised in that the energy transmission element is disposed in the concave portion and capable of imparting energy to an edge portion of the through-hole (Hh) formed in the atrial septum (HA) of a patient in a state where the concave portion is disposed in the through-hole (Hh), and the expansion body includes a circulation portion allowing blood flow via the through-hole (Hh) in a state where the concave portion is disposed in the through-hole (Hh), wherein a linear member or plate-shape member shaped in advance so as to form the concave portion when expanded to deform constitutes the expansion body . the energy transmission element is disposed in the concave portion and capable of imparting energy to an edge portion of the through-hole (Hh) formed in the atrial septum (HA) of a patient in a state where the concave portion is disposed in the through-hole (Hh), and the expansion body includes a circulation portion allowing blood flow via the through-hole (Hh) in a state where the concave portion is disposed in the through-hole (Hh), wherein a linear member or plate-shape member shaped in advance so as to form the concave portion when expanded to deform constitutes the expansion body .
A detection device that is configured to detect a state of a lithium-ion secondary battery , characterised in that the detection device comprises: a detector having at least one resonator circuit that is configured to apply at least one specific frequency vibration to the lithium-ion secondary battery , the detector being configured to measure an attenuation characteristic of at least one resonant current and to output the attenuation characteristic as a detection signal; and a controller that is configured to detect lithium deposition and/or presence of foreign metal inside the lithium-ion secondary battery by using the detection signal of the attenuation characteristic acquired from the detector . a detector having at least one resonator circuit that is configured to apply at least one specific frequency vibration to the lithium-ion secondary battery , the detector being configured to measure an attenuation characteristic of at least one resonant current and to output the attenuation characteristic as a detection signal; and a controller that is configured to detect lithium deposition and/or presence of foreign metal inside the lithium-ion secondary battery by using the detection signal of the attenuation characteristic acquired from the detector .
A seatbelt buckle device comprising: a buckle switch which includes a switch substrate and a slider part which slides on the switch substrate , the buckle switch detecting whether a tongue is inserted in and connected with a buckle as the slider part moves by sliding on the switch substrate synchronously with attachment/detachment of the tongue ; and a channel which has a substantially U-shaped section and slidably holds an ejector , the ejector sliding synchronously with attachment/detachment of the tongue , the switch substrate being supported by the channel as one end thereof is fixed to a side wall of the channel , characterized by a case cover for storing the buckle switch and the channel , wherein the other end of the switch substrate is held by the case cover . a buckle switch which includes a switch substrate and a slider part which slides on the switch substrate , the buckle switch detecting whether a tongue is inserted in and connected with a buckle as the slider part moves by sliding on the switch substrate synchronously with attachment/detachment of the tongue ; and a channel which has a substantially U-shaped section and slidably holds an ejector , the ejector sliding synchronously with attachment/detachment of the tongue , the switch substrate being supported by the channel as one end thereof is fixed to a side wall of the channel , characterized by a case cover for storing the buckle switch and the channel , wherein the other end of the switch substrate is held by the case cover .
Structural component for a motor vehicle, comprising a deformation structure which is designed for absorbing crash-induced deformation energy and can be transferred from a first deformation state into a second deformation state on introduction of crash-induced deformation energy, wherein the deformation structure comprises a base body formed by a foam material , characterised in that - the base body has at least one free space formed as an elongated recess extending at least in sections through the latter, wherein the free space increases the deformation ability of the base body and - at least one force introduction element is fastened to the base body . - the base body has at least one free space formed as an elongated recess extending at least in sections through the latter, wherein the free space increases the deformation ability of the base body and - at least one force introduction element is fastened to the base body .
An insulating layer for a printed circuit board having a difference of 20% or less between a flexural modulus at 25°C and a flexural modulus under heat at 250°C, wherein the flexural modulus at each of 25°C and 250°C has been measured on a 50 mm × 25 mm × 0.8 mm sample using an Autograph AG-Xplus manufactured by Shimadzu Corp. in accordance with JIS C6481, and wherein the insulating layer comprises a cured resin composition, the resin composition comprising an alkenyl-substituted nadimide (A), a maleimide compound (B), a cyanic acid ester compound (C), and an inorganic filler (D), wherein a content of the cyanic acid ester compound (C) is 5 to 15 parts by mass based on 100 parts by mass in total of the components (A) to (C), and a ratio of the number of a maleimide group (β) in the maleimide compound (B) to the number of an alkenyl group (α) in the alkenyl-substituted nadimide (A) [β/α] is 0.9 to 4.3. the insulating layer comprises a cured resin composition, the resin composition comprising an alkenyl-substituted nadimide (A), a maleimide compound (B), a cyanic acid ester compound (C), and an inorganic filler (D), wherein a content of the cyanic acid ester compound (C) is 5 to 15 parts by mass based on 100 parts by mass in total of the components (A) to (C), and a ratio of the number of a maleimide group (β) in the maleimide compound (B) to the number of an alkenyl group (α) in the alkenyl-substituted nadimide (A) [β/α] is 0.9 to 4.3.
Gas shut-off switch provided with various operating positions and intended to be isolated in a dielectric gas inside an electrical switchgear cell , the gas shut-off switch comprising at least one housing , said housing being structured in two parts, which in turn comprises: - a first part that includes a first arc chamber and a second part that includes a second arc chamber , where the first arc chamber incorporates a first fixed contact and the second arc chamber incorporates a second fixed contact , - a movable contact having a rotary motion to electrically connect with said fixed contacts ; and - at least one electric arc blowing means whereby; the electrical contact between the movable contact and each of the fixed contacts , as well as the separation between them occurs in different arc chambers; characterized in that ; the blowing means is jointly connected to the movable contact , so that it performs the same movement path as the movable contact in the gas shut-off switch opening and closing, and in that each arc chamber comprises at least one communication path with the exterior of the housing that allows both the exit of the gases generated in the electric arc blowing and the entry of clean dielectric gas in said arc chamber . - a first part that includes a first arc chamber and a second part that includes a second arc chamber , where the first arc chamber incorporates a first fixed contact and the second arc chamber incorporates a second fixed contact , - a movable contact having a rotary motion to electrically connect with said fixed contacts ; and - at least one electric arc blowing means whereby; the electrical contact between the movable contact and each of the fixed contacts , as well as the separation between them occurs in different arc chambers; characterized in that ; the blowing means is jointly connected to the movable contact , so that it performs the same movement path as the movable contact in the gas shut-off switch opening and closing, and in that each arc chamber comprises at least one communication path with the exterior of the housing that allows both the exit of the gases generated in the electric arc blowing and the entry of clean dielectric gas in said arc chamber . the electrical contact between the movable contact and each of the fixed contacts , as well as the separation between them occurs in different arc chambers; characterized in that ; the blowing means is jointly connected to the movable contact , so that it performs the same movement path as the movable contact in the gas shut-off switch opening and closing, and in that each arc chamber comprises at least one communication path with the exterior of the housing that allows both the exit of the gases generated in the electric arc blowing and the entry of clean dielectric gas in said arc chamber .
An efficient flex circuit physiological sensor manufacturing method, the method comprising: providing a sheet of flex circuit substrate material; printing a plurality of nested conductors on the flex circuit substrate material; and cutting the sheet of flex circuit substrate material to form a plurality of flex circuit physiological sensors , wherein each of the plurality of flex circuit physiological sensors has a connector end and a detector end , wherein the plurality of flex circuit physiological sensors are aligned on the sheet of flex circuit substrate, wherein the connector end of one of said flex circuit physiological sensors is proximate to the detector end of another of said plurality of flex circuits, characterised in that the aligning is such that one of said flex circuit physiological sensors is nested between adjacent flex circuit physiological sensors to form a tessellated pattern of flex circuit physiological sensors. providing a sheet of flex circuit substrate material; printing a plurality of nested conductors on the flex circuit substrate material; and cutting the sheet of flex circuit substrate material to form a plurality of flex circuit physiological sensors , wherein each of the plurality of flex circuit physiological sensors has a connector end and a detector end , wherein the plurality of flex circuit physiological sensors are aligned on the sheet of flex circuit substrate, wherein the connector end of one of said flex circuit physiological sensors is proximate to the detector end of another of said plurality of flex circuits, wherein each of the plurality of flex circuit physiological sensors has a connector end and a detector end , wherein the plurality of flex circuit physiological sensors are aligned on the sheet of flex circuit substrate, wherein the connector end of one of said flex circuit physiological sensors is proximate to the detector end of another of said plurality of flex circuits, characterised in that the aligning is such that one of said flex circuit physiological sensors is nested between adjacent flex circuit physiological sensors to form a tessellated pattern of flex circuit physiological sensors.
An electronic control device comprising a housing and a circuit board having an electronic component thereon, said housing having an opening for the insertion of the circuit board and integrally having, via a partition wall , a connector inserting section used for electrical connection with an external mating connector, wherein part of the circuit board is exposed within the connector inserting section by being inserted into an insertion hole provided in the partition wall , the electronic control device is characterized in comprising: an elastic metal part disposed in the housing, the elastic metal part having a first distal end and a second distal end, wherein the first distal end is attached to a first position of the circuit board on the insertable side of the circuit board to permit the simultaneous insertion of the circuit board and the elastic metal part within the housing and the elastic metal part being in contact with the housing for supporting the circuit board and for dissipating heat from the electronic component . an elastic metal part disposed in the housing, the elastic metal part having a first distal end and a second distal end, wherein the first distal end is attached to a first position of the circuit board on the insertable side of the circuit board to permit the simultaneous insertion of the circuit board and the elastic metal part within the housing and the elastic metal part being in contact with the housing for supporting the circuit board and for dissipating heat from the electronic component .
Swimming pool cleaning device comprising: - a body , - means for driving and guiding the body comprising at least two pairs of wheels: front wheels and rear wheels , wherein the means for driving the device further include: - an intermediate wheel turning about a rotation axis , disposed between the front wheel and the rear wheel , on at least one of the two sides of the device, the diameter of this intermediate wheel and the position of its rotation axis being such that said intermediate wheel does not touch the guide plane (XrYr) when the cleaning device is resting on the latter, said guide plane (XrYr) being defined by the points of contact of the front and rear wheels with the ground, characterized in that , said intermediate wheel is indirectly driven in rotation around its rotation axis by a motor of the cleaning device and said intermediate wheel bearing on an obstacle and rolling over it when one of the front or rear wheels is no longer in contact with the guide plane due to the presence of said obstacle that caused a front part of the cleaning device to rise. - a body , - means for driving and guiding the body comprising at least two pairs of wheels: front wheels and rear wheels , - an intermediate wheel turning about a rotation axis , disposed between the front wheel and the rear wheel , on at least one of the two sides of the device, the diameter of this intermediate wheel and the position of its rotation axis being such that said intermediate wheel does not touch the guide plane (XrYr) when the cleaning device is resting on the latter, said guide plane (XrYr) being defined by the points of contact of the front and rear wheels with the ground, characterized in that ,
A method for the preparation of a liquid or semi-solid carrier which comprises the steps of: (I) preparing a single phase solution comprising: a) a solvent or a mixture of miscible solvents, b) a liquid or semi-solid carrier material, which is miscible or soluble respectively in solvent (a), and c) a dopant material which is also soluble in solvent (a), (II) cooling the single phase solution produced in step (I) to a temperature at which at least both the solvent (a) and carrier material (b) become solid, and (III) removing solid solvent (a) from the cooled single phase solution in vapour form, such that the remaining cooled carrier material (b) and dopant material (c) are returned to ambient temperature thus providing a product of liquid or semi-solid carrier material (b) having dopant material (c) dispersed therein. (I) preparing a single phase solution comprising: a) a solvent or a mixture of miscible solvents, b) a liquid or semi-solid carrier material, which is miscible or soluble respectively in solvent (a), and c) a dopant material which is also soluble in solvent (a), a) a solvent or a mixture of miscible solvents, b) a liquid or semi-solid carrier material, which is miscible or soluble respectively in solvent (a), and c) a dopant material which is also soluble in solvent (a), (II) cooling the single phase solution produced in step (I) to a temperature at which at least both the solvent (a) and carrier material (b) become solid, and (III) removing solid solvent (a) from the cooled single phase solution in vapour form, such that the remaining cooled carrier material (b) and dopant material (c) are returned to ambient temperature thus providing a product of liquid or semi-solid carrier material (b) having dopant material (c) dispersed therein.
A method of inhibiting formation of a precipitate in a hematoxylin solution or dissolving the precipitate, wherein the method is performed within an automated hematoxylin stainer, the method comprising: introducing a cleaning composition comprising an aluminum chelator or aluminium complexing agent into the automated hematoxylin stainer before a staining cycle is started and/or after a staining cycle is completed using the hematoxylin solution; and mixing the hematoxylin solution with the cleaning composition, wherein when combined the hematoxylin solution and cleaning composition have a pH of 2 or above; and wherein the cleaning composition and the hematoxylin solution are mixed at a ratio that results in a concentration of the one or more elements sufficient to reduce formation of hematoxylin precipitate. introducing a cleaning composition comprising an aluminum chelator or aluminium complexing agent into the automated hematoxylin stainer before a staining cycle is started and/or after a staining cycle is completed using the hematoxylin solution; and mixing the hematoxylin solution with the cleaning composition, wherein when combined the hematoxylin solution and cleaning composition have a pH of 2 or above; and wherein the cleaning composition and the hematoxylin solution are mixed at a ratio that results in a concentration of the one or more elements sufficient to reduce formation of hematoxylin precipitate.
A mobile terminal, comprising an NFC antenna, wherein the NFC antenna comprises a feed, and an inductor and a capacitor that are connected in parallel, the feed is connected to the inductor and the capacitor that are connected in parallel, one end of the inductor is connected to the ground through a first ground point, one end of the capacitor is connected to the ground through a second ground point, and the inductor comprises a lumped inductor and a first metal segment connected to the lumped inductor in series, characterized in that the NFC antenna further comprises at least two of a first distributed inductor (L1), a second distributed inductor (L2), a third distributed inductor (L3), and a fourth distributed inductor (L4), wherein the first distributed inductor (L1) is located between the feed and the inductor , the second distributed inductor (L2) is located between the inductor and the first ground point, the third distributed inductor (L3) is located between the feed and the capacitor , the fourth distributed inductor (L4) is located between the capacitor and the second ground point.
An oral care composition comprising a peroxide source, a polyhydric alcohol and a surfactant system having an HLB value of from 4 to 13, wherein the combined amount of the polyhydric alcohol and the surfactant system is from 60 weight % to 95 weight % by total weight of the composition, and wherein the weight ratio of the polyhydric alcohol to the surfactant system is from 9:1 to 1:4, wherein the polyhydric alcohol is selected from propylene glycol, polyethylene glycol, glycerin, and mixtures thereof, wherein the surfactant system comprises propylene glycol monocaprylate, sorbitan laurate, or polyethylene glycol caprylate/caprate glyceride, and wherein the peroxide source is selected from: hydrogen peroxide, urea peroxide, sodium percarbonate, sodium perborate, polyvinylpyrrolidone-hydrogen peroxide complex, and mixtures thereof.
Elongate trunking rail comprising: an elongate trunking profile , which at least partially delimits an interior space (I), and at least one elongate busbar , which extends longitudinally in the interior space (I) along an elongate trunking profile wall of the trunking profile in order to separate the interior (I) into a receiving space (A) directed away from the trunking profile wall for electrically connecting electrical or electronic lighting components and a connection space (S) directed toward the trunking profile wall , the busbar comprising electrical conductors , which extend longitudinally along the busbar and have connection portions exposed at least in part toward the connection space (S), characterized in that the trunking profile also has a connection opening for inserting an electrical connection plug from outside the trunking rail into the connection space (S) in an insertion direction (E) substantially parallel to the trunking profile wall for electrically contacting the busbar via the connection portions . an elongate trunking profile , which at least partially delimits an interior space (I), and at least one elongate busbar , which extends longitudinally in the interior space (I) along an elongate trunking profile wall of the trunking profile in order to separate the interior (I) into a receiving space (A) directed away from the trunking profile wall for electrically connecting electrical or electronic lighting components and a connection space (S) directed toward the trunking profile wall , the busbar comprising electrical conductors , which extend longitudinally along the busbar and have connection portions exposed at least in part toward the connection space (S), characterized in that the trunking profile also has a connection opening for inserting an electrical connection plug from outside the trunking rail into the connection space (S) in an insertion direction (E) substantially parallel to the trunking profile wall for electrically contacting the busbar via the connection portions .