mhurhangee/patent-ind-claim-en huggingface dataset:
Arrangement for anti-fouling of a surface of a marine structure when in contact with a liquid containing biofouling organisms, the arrangement comprising: - a power source having a first pole to be coupled to a first conductor in contact with the liquid and a second pole to be coupled to a second conductor in contact with the liquid, the first and second conductors being distributed across the marine structure for providing an electrical potential across a protected area of the surface; and - one or more floating electrodes to be arranged covering the protected area, each floating electrode comprising a conductive layer being electrically isolated from the surface and a dielectric layer to separate the conductive layer and the liquid; the power source being arranged to generate voltage pulses for charging and discharging the floating electrodes due to changes in the electrical potential for generating charging and discharging currents in the liquid at the dielectric layer. - a power source having a first pole to be coupled to a first conductor in contact with the liquid and a second pole to be coupled to a second conductor in contact with the liquid, the first and second conductors being distributed across the marine structure for providing an electrical potential across a protected area of the surface; and - one or more floating electrodes to be arranged covering the protected area, each floating electrode comprising a conductive layer being electrically isolated from the surface and a dielectric layer to separate the conductive layer and the liquid;
An avalanche protection device, comprising : - an avalanche protection backpack having at least one inflatable uplift air bag , and - a breathing system having a breathing housing , which - connects an inhalation one-way valve to an inhalation hose and at least one intake manifold and at least one ambient air intake zone , and - connects an exhalation one-way valve to an exhalation hose and a CO 2 exhalation zone , characterized in that a mouthpiece is provided at the breathing housing , wherein the mouthpiece can be automatically tightened at the mouth of the avalanche victim by actuating a trigger handle by means of a face air bag . - an avalanche protection backpack having at least one inflatable uplift air bag , and - a breathing system having a breathing housing , which - connects an inhalation one-way valve to an inhalation hose and at least one intake manifold and at least one ambient air intake zone , and - connects an exhalation one-way valve to an exhalation hose and a CO 2 exhalation zone , characterized in that a mouthpiece is provided at the breathing housing , wherein the mouthpiece can be automatically tightened at the mouth of the avalanche victim by actuating a trigger handle by means of a face air bag .
A polyamide resin fiber comprising 0.5 to 15 parts by weight of a compound represented by Formula , per 100 parts by weight of a polyamide resin, the polyamide resin being composed of a diamine-derived structural unit and a dicarboxylic acid-derived structural unit, 50 mol% or more of the diamine-derived structural unit being derived from xylylenediamine, and 50 mol% or more of the dicarboxylic acid-derived structural unit being derived from a straight chain aliphatic α,ω-dicarboxylic acid having 4 to 20 carbon atoms: wherein R 1 represents an alkyl group having 1 to 10 carbon atoms, R 2 represents an alkyl group having 2 to 12 carbon atoms, and n represents an integer of 1 to 3.
A sound channel at least partly defined by a wall portion having therein an aperture , the sound channel comprising a valve having a closing element configured to, in a first position, close the aperture and, in a second position, not close the aperture, and an actuator , the actuator having: - a housing with an opening and - an electro-magnetic structure with a moving element , the electro-magnet structure being provided in the housing, characterized in that : - the sound channel extends at least predominantly outside of the housing, - the closing element is positioned outside of the housing and - the moving element extends from inside the housing, through the opening to the closing element. - a housing with an opening and - an electro-magnetic structure with a moving element , the electro-magnet structure being provided in the housing, - the sound channel extends at least predominantly outside of the housing, - the closing element is positioned outside of the housing and - the moving element extends from inside the housing, through the opening to the closing element.
Electroluminescent layer for a light-emitting electrochemical cell (LEC) that comprises at least one organic ionic dye which is present in a proportion of at least 55% by weight with respect to the total weight of the layer of electroluminescent material, characterised in that the at least one organic ionic dye is selected from the group consisting of cyanine hemicyanine and squaraine dyes.
A substrate coated with a coating, the coating comprising: a first region having a first thickness, wherein the first region is outermost and comprises Mn x O y , MnCr 2 O 4 , or combinations thereof, wherein x and y are integers between 1 and 7; and a second region underlying the first region, the second region having a second thickness and the second region comprises X 6 W 6 (Si z , C 1-z ), wherein X is Ni or a mixture of Ni and one or more transition metals and z ranges from 0 to 1, and wherein the second region has an overall composition comprising Ni in a range of 10-45 wt%, Mn in a range of 1.5-12 wt%, Fe in a range of 2-10 wt%, Si and/or C in a range of 5-10 wt%, W in a range of 35-80 wt%, and Cr in a range of 0.5-5 wt%, and optionally Nb in a range of 0-2 wt%, and Ti in a range of 0-2 wt%. a first region having a first thickness, wherein the first region is outermost and comprises Mn x O y , MnCr 2 O 4 , or combinations thereof, wherein x and y are integers between 1 and 7; and a second region underlying the first region, the second region having a second thickness and the second region comprises X 6 W 6 (Si z , C 1-z ), wherein X is Ni or a mixture of Ni and one or more transition metals and z ranges from 0 to 1, and wherein the second region has an overall composition comprising Ni in a range of 10-45 wt%, Mn in a range of 1.5-12 wt%, Fe in a range of 2-10 wt%, Si and/or C in a range of 5-10 wt%, W in a range of 35-80 wt%, and Cr in a range of 0.5-5 wt%, and optionally Nb in a range of 0-2 wt%, and Ti in a range of 0-2 wt%.
A method for producing a cured product film, comprising: an application step in which a curable composition that is photocurable and thermocurable and also is in liquid form is applied using an ink jet device; a first light irradiation step in which, after the application step, the curable composition is irradiated with light from a first light irradiation part to allow the curing of the curable composition to proceed, thereby forming a precured product film; and a heating step in which, after the first light irradiation step, the precured product film irradiated with light is heated to cure the precured product film irradiated with light, thereby forming a cured product film, the ink jet device including: an ink tank to store the curable composition; a discharge part that is connected to the ink tank and discharges the curable composition; and a circulation flow path part that is connected to the discharge part at one end and connected to the ink tank part at the other end, through which the curable composition flows, the application step being such that, in the ink jet device, the curable composition is moved from the ink tank to the discharge part, and then the curable composition that has not been discharged from the discharge part is moved through the circulation flow path part to the ink tank, whereby the curable composition is applied while being circulated. an application step in which a curable composition that is photocurable and thermocurable and also is in liquid form is applied using an ink jet device; a first light irradiation step in which, after the application step, the curable composition is irradiated with light from a first light irradiation part to allow the curing of the curable composition to proceed, thereby forming a precured product film; and a heating step in which, after the first light irradiation step, the precured product film irradiated with light is heated to cure the precured product film irradiated with light, thereby forming a cured product film, the ink jet device including: an ink tank to store the curable composition; a discharge part that is connected to the ink tank and discharges the curable composition; and a circulation flow path part that is connected to the discharge part at one end and connected to the ink tank part at the other end, through which the curable composition flows, an ink tank to store the curable composition; a discharge part that is connected to the ink tank and discharges the curable composition; and a circulation flow path part that is connected to the discharge part at one end and connected to the ink tank part at the other end, through which the curable composition flows, the application step being such that, in the ink jet device, the curable composition is moved from the ink tank to the discharge part, and then the curable composition that has not been discharged from the discharge part is moved through the circulation flow path part to the ink tank, whereby the curable composition is applied while being circulated.
An automatic coupling device comprising a box-like enclosure (A-B) and a rigid laminar element (C), wherein arranged in two opposing walls of the box-like enclosure (A-B) are two flexible tabs from which two raised portions which act against each other protrude inward, one of which first raised portion is adapted to engage the rigid laminar element (C) to be inserted between the two flexible tabs while the other second raised portion , can be pushed manually in order to move the coupled raised portion and release the rigid laminar element (C) to be removed, characterized in that in the rigid laminar element (C), a pair of grapnels protrude from each one of the ends to be coupled so that the end portions of such grapnels, folded and mutually opposite, can remain coupled, against the raised portion of the first tab while a gap existing between the end portions of the grapnels prevents them from interfering with the second raised portion of the second tab during the removal of the released rigid laminar element (C).
Flow-through tank for an optical device for the counting and/or differentiation of leucocytes in an automatic blood analysis apparatus , characterized in that in an analysis zone of the tank , the section of the tank has at least one transverse dimension comprised between 1 and 5 millimetres, said tank comprising an injector for injecting a sample flow , means for forming a sleeving flow around the sampling flow, this sampling flow being injected under pressure relative to the sleeving flow, this sleeving flow being passive as it does not stretch the sampling flow, and in that the width of the flow is dictated by the shape and the outlet section of the injector and this injector comprises an outlet orifice the diameter of which is comprised between 20 microns and 150 microns.
A temperature-controllable microfluidic device, comprising: a microfluidic channel generally extending in a first direction for passing a specimen fluid; a microheater disposed along the microfluidic channel, the microheater being made of a resistive wire having a pair of serpentine-shaped portions generally extending in the first direction along respective sides of the microfluidic channel, a portion of the resistive wire connecting the pair of serpentine-shaped portions at adjacent ends of the serpentine-shaped portions; and a temperature sensor disposed along the microfluidic channel, the temperature sensor being made of a resistive wire having a pair of serpentine-shaped portions generally extending in the first direction along the respective sides of the microfluidic channel. a microfluidic channel generally extending in a first direction for passing a specimen fluid; a microheater disposed along the microfluidic channel, the microheater being made of a resistive wire having a pair of serpentine-shaped portions generally extending in the first direction along respective sides of the microfluidic channel, a portion of the resistive wire connecting the pair of serpentine-shaped portions at adjacent ends of the serpentine-shaped portions; and a temperature sensor disposed along the microfluidic channel, the temperature sensor being made of a resistive wire having a pair of serpentine-shaped portions generally extending in the first direction along the respective sides of the microfluidic channel.
An optical device, comprising: a substrate ; a first intermediate layer deposited on the substrate; a first semiconductor layer (710; 414), deposited on the first intermediate layer; a second intermediate layer deposited on the first semiconductor layer; a second layer (414; 710), deposited on the second intermediate layer; a heater in one of the first semiconductor and second layers; and a thermally tunable waveguide in the other of the first semiconductor and second layers, the device being characterised in that the second layer is a semiconductor layer. a substrate ; a first intermediate layer deposited on the substrate; a first semiconductor layer (710; 414), deposited on the first intermediate layer; a second intermediate layer deposited on the first semiconductor layer; a second layer (414; 710), deposited on the second intermediate layer; a heater in one of the first semiconductor and second layers; and a thermally tunable waveguide in the other of the first semiconductor and second layers, the device being characterised in that the second layer is a semiconductor layer.
An electrical equipment housing element with an integrated gasket comprising a body of the electrical equipment housing element and an integrated gasket , characterized in that : - the gasket is a core-shell gasket having a core formed of thermoplastic elastomer and the shell formed of a thermoplastic polymer having high gas barrier properties, - wherein the body of the electrical equipment housing element and the shell of the gasket are chemically or chemically-mechanically bonded in 2K injection molding process. - the gasket is a core-shell gasket having a core formed of thermoplastic elastomer and the shell formed of a thermoplastic polymer having high gas barrier properties, - wherein the body of the electrical equipment housing element and the shell of the gasket are chemically or chemically-mechanically bonded in 2K injection molding process.
An energy storage apparatus configured to store electricity in a thermal form comprising: - a containment body defining a storage space (V) and having at least one inlet for a heat carrier fluid and at least one outlet for said fluid; - at least one electrical resistor positioned in the storage space (V); - at least one pair of electrodes positioned at the ends of said at least one electrical resistor and designed to be connected to an electricity supply network; - a plurality of storage granules positioned for at least partly filling the storage space (V) and defining a thermal storage mass configured to receive thermal energy from said at least one electrical resistor and to release said thermal energy to a heat carrier fluid flowing from said inlet to said outlet ; characterised in that said at least one electrical resistor is at least partly made in a substantially granular form and wherein at least some granules of the electrical resistor are made with a doped semiconductor and/or with an intermetallic compound; wherein at least 50% by weight of the granular material of the electrical resistor consists of silicon carbide granules having a doping greater than 0.5% and a diameter of between 0.5 mm and 50 mm. - a containment body defining a storage space (V) and having at least one inlet for a heat carrier fluid and at least one outlet for said fluid; - at least one electrical resistor positioned in the storage space (V); - at least one pair of electrodes positioned at the ends of said at least one electrical resistor and designed to be connected to an electricity supply network; - a plurality of storage granules positioned for at least partly filling the storage space (V) and defining a thermal storage mass configured to receive thermal energy from said at least one electrical resistor and to release said thermal energy to a heat carrier fluid flowing from said inlet to said outlet ; said at least one electrical resistor is at least partly made in a substantially granular form and wherein at least some granules of the electrical resistor are made with a doped semiconductor and/or with an intermetallic compound; wherein at least 50% by weight of the granular material of the electrical resistor consists of silicon carbide granules having a doping greater than 0.5% and a diameter of between 0.5 mm and 50 mm.
A vehicular antenna device configured to be attached to an attachment portion of a vehicle , the vehicular antenna device comprising: - an antenna portion having an antenna element; and - a frame accommodating a heat generation member , wherein - the frame includes a first space portion having a cylindrical shape and defining a first space, the first space portion being exposed to an outside air in a condition where the vehicular antenna device is attached to the vehicle, - the heat generation member is located along a second surface of the frame that is a reverse side of a first surface defining the first space, - the antenna portion is an antenna substrate having a flat plate shape, - the antenna element is located on an opposite side of the first space opposite from the heat generation member, - the heat generation member is mounted on a control board , - the frame includes a second space portion configured to accommodate a substrate connection portion electrically connecting the antenna substrate and the control board, - the second space portion is located in the first space, - the frame includes an antenna attachment portion that is an upper part of the frame and a control board accommodation portion that is a lower part of the frame , - the first space portion is formed by an upper side wall , a left side wall , a right side wall , and a bottom wall of the antenna attachment portion , - the antenna attachment portion includes a column wall connecting the upper side wall and the bottom wall , and - the second space portion is defined by an inner surface of the column wall to have a cylindrical shape. - an antenna portion having an antenna element; and - a frame accommodating a heat generation member , wherein - the frame includes a first space portion having a cylindrical shape and defining a first space, the first space portion being exposed to an outside air in a condition where the vehicular antenna device is attached to the vehicle, - the heat generation member is located along a second surface of the frame that is a reverse side of a first surface defining the first space, - the antenna portion is an antenna substrate having a flat plate shape, - the antenna element is located on an opposite side of the first space opposite from the heat generation member, - the heat generation member is mounted on a control board , - the frame includes a second space portion configured to accommodate a substrate connection portion electrically connecting the antenna substrate and the control board, - the second space portion is located in the first space, - the frame includes an antenna attachment portion that is an upper part of the frame and a control board accommodation portion that is a lower part of the frame , - the first space portion is formed by an upper side wall , a left side wall , a right side wall , and a bottom wall of the antenna attachment portion , - the antenna attachment portion includes a column wall connecting the upper side wall and the bottom wall , and - the second space portion is defined by an inner surface of the column wall to have a cylindrical shape.
A device for generating waves for the practice of sports or water sledging activities, the device comprising at least one sledging zone including an inlet , an outlet , a top part and a bottom part, the sledging zone being supplied with water by means of water injection means capable of generating a water jet or a water blade , the device being designed to direct a user from the inlet to the outlet of the sledging zone and alternately from the top zone to the bottom zone of the sledging zone , in particular by means of the water jet or the water blade , the device including means for determining position of the user and means for controlling the water injection means capable of generating a water jet or a water blade when the user is in a lowering phase towards the bottom part of the sledging zone , so as to redirect said user to the top part of the sledging zone .
An in situ hybridization composition comprising at least one nucleic acid sequence, a polar aprotic solvent in an amount effective to denature double-stranded nucleotide sequences, and a hybridization solution, wherein the polar aprotic solvent is not dimethyl sulfoxide (DMSO), wherein the polar aprotic solvent is: and wherein said composition further comprises at least one additional component selected from the group consisting of: buffering agents, salts, accelerating agents, chelating agents, detergents, and blocking agents, wherein the concentration of sulfolane is 10% to 95% (v/v).
An electric vehicle, called a rollator, comprising: a support pad on which a user places his forearms or elbows during walking; a detector which detects a load applied by weight of the user to the support pad , and generates a detection signal; and a controller which controls braking of a wheel (12 or 13) or a continuous track based on the detection signal, wherein the controller releases the braking if the detection signal indicates that the user intends to walk and the controller does not release the braking if the detection signal indicates that the user does not intend to walk. a support pad on which a user places his forearms or elbows during walking; a detector which detects a load applied by weight of the user to the support pad , and generates a detection signal; and a controller which controls braking of a wheel (12 or 13) or a continuous track based on the detection signal, wherein the controller releases the braking if the detection signal indicates that the user intends to walk and the controller does not release the braking if the detection signal indicates that the user does not intend to walk.
A compound represented by the following formula (1-1-1): wherein, in the formula (1-1-1), X m+ represents an m-valent counter cation and the m-valent counter cation X m+ is selected from a nitrogen-containing aliphatic cation represented by the following formula : (R 21 ) 2 N + = C(NR 22 2 ) 2 wherein, in the formula , R 21 each independently represents a hydrogen atom or an alkyl group, R 22 each independently represents a hydrogen atom or an alkyl group; a nitrogen-containing aliphatic cation represented by the following formula : wherein, in the formula , R 31 each independently represents a hydrogen atom or an organic group, and s represents an integer of 2 or more and 6 or less; a nitrogen-containing aromatic cation represented by the following formula : wherein, in the formula , R H , R 41 and R 42 represent a hydrogen atom; or a cation represented by the following formula: m is 1; n is 0; R 3 is absent as n is 0; R 4 , R 5 , R 6 and R 7 are hydrogen atoms; and R 8 is -O-R 9 , wherein R 9 is an alkyl group having 1 or more and 3 or less carbon atoms.