mhurhangee/ep-ind-claims huggingface dataset:
A mobile device having location services for determining a location of the mobile device, the mobile device comprising: a user interface; a memory for storing two or more predetermined geo-fences (5032, 5034) each defining a different sized region about a home of a user of the mobile device; a controller operatively coupled to the user interface and the memory, wherein the controller is configured to accept a selection of one of the two or more predetermined geo-fences (5032, 5034) via the user interface; the controller is configured to report when the location of the mobile device crosses the selected one of the two or more predetermined geo-fences to a remote device; the mobile device being characterized by the controller being configured to: automatically increase the size of the region of the selected geo-fence if the controller receives an indication from a user that the geo-fence is too sensitive; and automatically decrease the size of the region of the selected geo-fence if the controller receives an indication from a user that the geo-fence is not sensitive enough. a user interface; a memory for storing two or more predetermined geo-fences (5032, 5034) each defining a different sized region about a home of a user of the mobile device; a controller operatively coupled to the user interface and the memory, wherein the controller is configured to accept a selection of one of the two or more predetermined geo-fences (5032, 5034) via the user interface; the controller is configured to report when the location of the mobile device crosses the selected one of the two or more predetermined geo-fences to a remote device; the mobile device being characterized by the controller being configured to: automatically increase the size of the region of the selected geo-fence if the controller receives an indication from a user that the geo-fence is too sensitive; and automatically decrease the size of the region of the selected geo-fence if the controller receives an indication from a user that the geo-fence is not sensitive enough. automatically increase the size of the region of the selected geo-fence if the controller receives an indication from a user that the geo-fence is too sensitive; and automatically decrease the size of the region of the selected geo-fence if the controller receives an indication from a user that the geo-fence is not sensitive enough.
Method for producing a motor vehicle component having at least two regions with differing strengths and a protective layer, characterised by the following method steps: - provision of pre-coated plates, in particular plate blanks, made of a hardenable steel alloy, - homogeneous heating to a heating temperature greater than or equal to AC3 temperature, - maintaining the heating temperature so that the pre-coating alloys with the plate, - homogeneous intermediate cooling of the alloyed plate to an intermediate cooling temperature between 450 and 700°C, - partial heating of the plate in regions of the first type from the intermediate cooling temperature to at least AC3 temperature and maintaining regions of the second type substantially at the intermediate cooling temperature, - hot-forming and press-hardening of the partially tempered plate to form the motor vehicle component, a tensile strength greater than 1400 MPa being set in regions of the first type and a tensile strength less than 1050 MPa being set in regions of the second type and in a transition region lying therebetween. - provision of pre-coated plates, in particular plate blanks, made of a hardenable steel alloy, - homogeneous heating to a heating temperature greater than or equal to AC3 temperature, - maintaining the heating temperature so that the pre-coating alloys with the plate, - homogeneous intermediate cooling of the alloyed plate to an intermediate cooling temperature between 450 and 700°C, - partial heating of the plate in regions of the first type from the intermediate cooling temperature to at least AC3 temperature and maintaining regions of the second type substantially at the intermediate cooling temperature, - hot-forming and press-hardening of the partially tempered plate to form the motor vehicle component, a tensile strength greater than 1400 MPa being set in regions of the first type and a tensile strength less than 1050 MPa being set in regions of the second type and in a transition region lying therebetween.
A climbing hold, having a polymer body, associated with a radio-identification element (12a-12b) comprising an electronic chip embedding an identification number of said climbing hold, an antenna (14a-14b) configured to power said electronic chip by electromagnetic coupling so as to transmit said identification number to an external reading device, and a protective layer (15a-15b) covering said electronic chip and said antenna (14a-14b), said radio-identification element (12a-12b) being embedded in said polymer body of said climbing hold, characterised in that said protective layer (15a-15b) is made of polyphenylene sulphide with a minimum thickness of between 0.5 mm and 2 mm.
Artificial reef for recreational diving comprising a base and a substantially vertically extending superstructure having the general form of an upstanding elongate monolith seated thereupon, wherein the superstructure is made with a structural frame having an exterior and an interior structural complexity predetermined in accordance with a preselected design pattern, said structural frame comprising a plurality of stem members of predetermined structure extending all around a trunk member characterized in that the base is made of a slab of reinforced concrete, said structural frame being implanted into the base and a plurality of plastic grid items suspended onto said stem members all around said trunk member in a predetermined manner that corresponds to said preselected design pattern, said structural frame of the superstructure being thereafter coated with concrete ejected thereupon in one or more successive stages, whereby a plurality of blind crevices, through holes leading to chambers inside the reef and exterior holes of smaller or larger dimensions that define small cavities and larger cavities respectively are being formed functionally dependent on the predetermined design pattern of said structural frame of stem members around said trunk and of said plastic grid items mounted thereupon, wherein said blind crevices, through holes leading to chambers and small and large cavities (10, 11) constitute microhabitats and refuges for targeted benthic and benthopelagic species, which live permanently or find a long term or temporary shelter within said microhabitats selecting them according to their size.
A polyethylsilicate composition comprising: 18-50% by weight SiO 2 based on the total composition weight; 0-60% by weight alcohol based on the total composition weight; and a positive amount of solvent, wherein said solvent forms up to 40% by weight, based on the total composition weight, and wherein said solvent comprises at least one of propylene carbonate, or propylene carbonate in combination with tert-butylacetate, 2-amino 2-methyl 1-propanol or parachlorobenzotrifluoride; and wherein said solvent and said alcohol in combination comprise 5-70% by weight, based on the total composition weight. 18-50% by weight SiO 2 based on the total composition weight; 0-60% by weight alcohol based on the total composition weight; and a positive amount of solvent, wherein said solvent forms up to 40% by weight, based on the total composition weight, and wherein said solvent comprises at least one of propylene carbonate, or propylene carbonate in combination with tert-butylacetate, 2-amino 2-methyl 1-propanol or parachlorobenzotrifluoride; and wherein said solvent and said alcohol in combination comprise 5-70% by weight, based on the total composition weight.
An electrolyte composition comprising at least one sodium salt dissolved in a solvent and a combination of additives, wherein: - said solvent comprises at least one compound selected from the group consisting of ethylene carbonate, dimethyl carbonate, ethyl methyl carbonate, diethyl carbonate, propylene carbonate, a carboxylate ester such as methyl acetate, ethyl acetate, ethyl propionate, and methyl propionate, 4-fluorotoluene, 1,1,2,2-tetrafluoroethyl 2,2,3,3-tetrafluoropropyl ether, di-fluoro ethylene carbonate, ethyl difluoroacetate and diglyme, and - the combination of additives comprises at least tris(trimethylsilyl)phosphite (TMSPi) and succinonitrile. - said solvent comprises at least one compound selected from the group consisting of ethylene carbonate, dimethyl carbonate, ethyl methyl carbonate, diethyl carbonate, propylene carbonate, a carboxylate ester such as methyl acetate, ethyl acetate, ethyl propionate, and methyl propionate, 4-fluorotoluene, 1,1,2,2-tetrafluoroethyl 2,2,3,3-tetrafluoropropyl ether, di-fluoro ethylene carbonate, ethyl difluoroacetate and diglyme, and - the combination of additives comprises at least tris(trimethylsilyl)phosphite (TMSPi) and succinonitrile.
A convex insert for an ostomy barrier having a convex ring-like body and comprising: an inlet opening; an inner flange; a middle portion including a pouch-side surface, a core-out portion, and a skin barrier support structure, wherein the core-out portion is configured to improve flexibility of the convex insert; and an outer flange, wherein the inner flange and the outer flange are connected by the middle portion and arranged in different axial planes to define the convex ring-like body; wherein the convex insert comprises a radial wall radially extending from the outer flange toward the inlet opening, and an axial wall extending axially from the radial wall in a body-side direction, wherein the inner flange extends from the axial wall toward the inlet opening, wherein the outer flange, the middle portion, and the inner flange provides a step-like protrusion in the body-side direction, and wherein the pouch-side surface is defined on a pouchside of the radial wall. an inlet opening; an inner flange; a middle portion including a pouch-side surface, a core-out portion, and a skin barrier support structure, wherein the core-out portion is configured to improve flexibility of the convex insert; and an outer flange, wherein the inner flange and the outer flange are connected by the middle portion and arranged in different axial planes to define the convex ring-like body; wherein the convex insert comprises a radial wall radially extending from the outer flange toward the inlet opening, and an axial wall extending axially from the radial wall in a body-side direction, wherein the inner flange extends from the axial wall toward the inlet opening, wherein the outer flange, the middle portion, and the inner flange provides a step-like protrusion in the body-side direction, and wherein the pouch-side surface is defined on a pouchside of the radial wall.
A process for producing alumina, comprising the following steps: i) preparing an alumina mixture by adding an aluminum salt to an aqueous solution; the alumina mixture having a pH of 3 to 4; ii) adding an alkaline metal aluminate to the alumina mixture to form a seed mixture, wherein the addition of the alkaline metal aluminate occurs at a rate to maintain the pH of the seed mixture from 6.0 to 7.5; iii) aging the seed mixture; iv) adding to the seed mixture additional aluminum salt and additional alkaline metal aluminate, said addition being at a rate to produce a precipitated mixture comprising a precipitated alumina and to maintain the pH of the precipitated mixture from 6.9 to 7.8; v) heating the precipitated mixture comprising the precipitated alumina whilst increasing the pH from a pH of 8.8 to a pH of 9.3; and vi) recovering the precipitated alumina. i) preparing an alumina mixture by adding an aluminum salt to an aqueous solution; the alumina mixture having a pH of 3 to 4; ii) adding an alkaline metal aluminate to the alumina mixture to form a seed mixture, wherein the addition of the alkaline metal aluminate occurs at a rate to maintain the pH of the seed mixture from 6.0 to 7.5; iii) aging the seed mixture; iv) adding to the seed mixture additional aluminum salt and additional alkaline metal aluminate, said addition being at a rate to produce a precipitated mixture comprising a precipitated alumina and to maintain the pH of the precipitated mixture from 6.9 to 7.8; v) heating the precipitated mixture comprising the precipitated alumina whilst increasing the pH from a pH of 8.8 to a pH of 9.3; and vi) recovering the precipitated alumina.
A method of operating an electromechanical converter, in particular an electric variable transmission, provided with a primary shaft having a rotor mounted thereon, a secondary shaft having an interrotor mounted thereon, and a stator, fixedly mounted to the housing of the electromechanical converter, wherein, viewed from the primary shaft in radial direction, the rotor, the interrotor and the stator are arranged concentrically relative to each other, and wherein the rotor and the stator are designed with one or more windings, wherein the interrotor forms one whole both mechanically and electromagnetically, and is arranged as a conductor for magnetic flux in at least a tangential and a radial direction, the method comprising the step of indirectly controlling a magnetic flux (Φ) of the interrotor by variably controlling a magnetic flux of the rotor, wherein, by reducing the interrotor magnetic flux (Φ), a work point is moved to another work point that is more in the linear region of a flux curve, so that the interrotor is less magnetized and copper losses in the rotor windings are reduced, wherein the flux curve corresponds to the interrotor magnetic flux (Φ) plotted as a function of an effective interrotor magnetization current flowing in the stator and/or rotor windings (23, 24).
A fuel delivery system for delivering fuel to a gas turbine engine, the fuel delivery system comprising: a fixed critical flow nozzle connected to a fuel source, the fixed critical flow nozzle having an orifice throat with a fixed effective cross-sectional area; a variable critical flow nozzle connected to the fuel source and in parallel with the fixed critical flow nozzle, the variable critical flow nozzle having an orifice throat with a variable effective cross-sectional area, an inlet, and a nozzle having a converging-diverging shape and including the orifice throat and a recovery section downstream of the orifice throat; and a first fuel nozzle connected to the fixed critical flow nozzle for delivering fuel to the gas turbine engine; and a second fuel nozzle connected to the variable critical flow nozzle for delivering fuel to the gas turbine engine; wherein the variable critical flow nozzle further includes: a needle mounted on a spring biased piston, the needle positionable in the orifice throat to adjust the effective cross-sectional area of the orifice throat based upon a fuel pressure at the inlet, characterized in that the needle includes fingers (86a, 86b, 86c, 86d) extending axially from the spring biased piston and limit the axial movement of the spring biased piston relative to the nozzle. a fixed critical flow nozzle connected to a fuel source, the fixed critical flow nozzle having an orifice throat with a fixed effective cross-sectional area; a variable critical flow nozzle connected to the fuel source and in parallel with the fixed critical flow nozzle, the variable critical flow nozzle having an orifice throat with a variable effective cross-sectional area, an inlet, and a nozzle having a converging-diverging shape and including the orifice throat and a recovery section downstream of the orifice throat; and a first fuel nozzle connected to the fixed critical flow nozzle for delivering fuel to the gas turbine engine; and a second fuel nozzle connected to the variable critical flow nozzle for delivering fuel to the gas turbine engine; wherein the variable critical flow nozzle further includes: a needle mounted on a spring biased piston, the needle positionable in the orifice throat to adjust the effective cross-sectional area of the orifice throat based upon a fuel pressure at the inlet, characterized in that the needle includes fingers (86a, 86b, 86c, 86d) extending axially from the spring biased piston and limit the axial movement of the spring biased piston relative to the nozzle.
Apparatus for supplying a coil-like padding product for packaging purposes, comprising a supply device for supplying a web-type padding material and a rolling-up apparatus which rolls up the web-type padding material to form the coil-like padding product, characterized in that the rolling-up apparatus comprises a flexible delimiting means which can form an at least regionally curved delimiting wall of an at least temporarily present rolling-up space, of which the extent is preferably alterable and which has an inlet for the web-type padding material through which the web-type padding material can enter into the rolling-up space, the web-type padding material being guided by the at least regionally curved delimiting wall, which results in the formation of the coil-like padding product.
Process for the production of chocolate articles (21-25, 29, 32, 34, 35, 38) by continuous tempering of cocoa butter-containing chocolate mass and forming it, by which heated chocolate mass with crystal-free cocoa-butter is pumped as a complete stream through a cooling stage and further through a crystallization stage, that when entering the cooling stage the chocolate mass is divided into a row of several parallel, plate-like streams of mass, which are simultaneously cooled by a row of intermediary, plate-like streams of cooling water until the mass is being collected again to a complete stream, characterized in, that the chocolate mass is cooled by passage through the cooling stage to a temperature which is below 26°C and above 23°C depending of the particular chocolate mass, and which temperature is below the Beta V-crystal-creation temperature for the particular mass, that the chocolate mass is subjected to intensive homogenous mixing and shear passing through the crystallization stage as planetary mixers accomplish a circular path in the chambers simultaneously being rotated in an orbital rotation around their own axis of rotation, that the chocolate mass is cooled simultaneously in the crystallization stage by cooling water temperatures between 20°C and 25°C maintaining the chocolate mass temperature essentially constant within a few tenth of a degree Celcius, that the chocolate mass is subjected to the planetary mixers for a time period of between 100 and 250 seconds being sufficient to remove the latent heat produced as the Beta V crystals are created, and that the tempered chocolate mass is finally extruded.
Physical lung model for training and teaching comprising - a lung compartment (8, 8') which is delimited by - an enlargeable and reducible piston (5, 5') for enlarging and reducing the volume of the lung compartment (8, 8'), - a lid (21, 21') sealing a first end of the piston (5, 5'), and - a support body (6, 6') carrying the piston (5, 5') in that a second end of the piston (5, 5') is sealingly attached to the support body (6, 6'); and comprising - an airway leading from the lung compartment (8, 8') to an airway opening, characterized in that - a mechanical stop (7, 7') is attached to the piston (5, 5') and partitions the piston (5, 5') into a first enlargeable and reducible section (5a, 5a') and a second enlargeable and reducible section (5b, 5b'), the mechanical stop (7, 7') describing a path of movement during the enlargement of the lung compartment (8, 8'), and - a lever (20, 20') is installed for blocking the movement of the stop (7, 7') at a predefined point on the path of movement during enlargement of the lung compartment (8, 8') and, thereby, restricting the enlargement of the lung compartment (8, 8'). - a lung compartment (8, 8') which is delimited by - an enlargeable and reducible piston (5, 5') for enlarging and reducing the volume of the lung compartment (8, 8'), - a lid (21, 21') sealing a first end of the piston (5, 5'), and - a support body (6, 6') carrying the piston (5, 5') in that a second end of the piston (5, 5') is sealingly attached to the support body (6, 6'); and comprising - an enlargeable and reducible piston (5, 5') for enlarging and reducing the volume of the lung compartment (8, 8'), - a lid (21, 21') sealing a first end of the piston (5, 5'), and - a support body (6, 6') carrying the piston (5, 5') in that a second end of the piston (5, 5') is sealingly attached to the support body (6, 6'); and comprising - an airway leading from the lung compartment (8, 8') to an airway opening, characterized in that - a mechanical stop (7, 7') is attached to the piston (5, 5') and partitions the piston (5, 5') into a first enlargeable and reducible section (5a, 5a') and a second enlargeable and reducible section (5b, 5b'), the mechanical stop (7, 7') describing a path of movement during the enlargement of the lung compartment (8, 8'), and - a lever (20, 20') is installed for blocking the movement of the stop (7, 7') at a predefined point on the path of movement during enlargement of the lung compartment (8, 8') and, thereby, restricting the enlargement of the lung compartment (8, 8').
A boat comprising: two outdrive devices (20, 20) as propulsion devices configured to generate propulsion force for a vessel body from driving force from an engine; a detection unit configured to detect a current position, a bow direction, and a movement speed of the vessel body; a steering wheel configured to change a cruising direction of the vessel body; a steering sensor configured to detect a rotation angle of the steering wheel; and a control device that is connected to the propulsion devices, the detection unit, and the steering sensor, and is configured to acquire an operating status of the propulsion devices and a detection result obtained by the detection unit and the steering sensor, and to control the propulsion devices based on the detection result, characterized in that the control device is configured to execute a pivot turn involving no front or rear movement of the vessel with the propulsion devices by setting the output direction of the two outdrive devices (20, 20) opposite to each other, when the rotation angle of the steering wheel detected by the steering sensor exceeds a predetermined threshold and when the cruising speed of the vessel detected by the detection unit is not higher than a predetermined value. two outdrive devices (20, 20) as propulsion devices configured to generate propulsion force for a vessel body from driving force from an engine; a detection unit configured to detect a current position, a bow direction, and a movement speed of the vessel body; a steering wheel configured to change a cruising direction of the vessel body; a steering sensor configured to detect a rotation angle of the steering wheel; and a control device that is connected to the propulsion devices, the detection unit, and the steering sensor, and is configured to acquire an operating status of the propulsion devices and a detection result obtained by the detection unit and the steering sensor, and to control the propulsion devices based on the detection result, characterized in that the control device is configured to execute a pivot turn involving no front or rear movement of the vessel with the propulsion devices by setting the output direction of the two outdrive devices (20, 20) opposite to each other, when the rotation angle of the steering wheel detected by the steering sensor exceeds a predetermined threshold and when the cruising speed of the vessel detected by the detection unit is not higher than a predetermined value.