mhurhangee/ep-ind-claims huggingface dataset:
Heating device for heating water, wherein - the heating device has a carrier, - at least one heating element is applied to the carrier, - the heating element has precisely one heating conductor or a plurality of heating conductors which are connected one behind the other, - the heating device has at least one flat dielectric layer which substantially covers the at least one heating element, - an electrically conductive connection area is in each case provided on both sides of the dielectric layer, - at least one of the connection areas is connected to a controller or measuring device for detecting a leakage current as current flow through the dielectric layer, characterized in that - the at least one heating element is connected to measuring means for monitoring a heating conductor current through the heating element, - at least two heating elements (117a, 117b) which are electrically separated and can be operated independently of one another are applied to the carrier, - a single flat dielectric layer is provided on one side of the heating elements (117a, 117b) for the purpose of connection to the controller or measuring device for detecting a leakage current, - the dielectric layer substantially covers the heating elements (117a, 117b). - the heating device has a carrier, - at least one heating element is applied to the carrier, - the heating element has precisely one heating conductor or a plurality of heating conductors which are connected one behind the other, - the heating device has at least one flat dielectric layer which substantially covers the at least one heating element, - an electrically conductive connection area is in each case provided on both sides of the dielectric layer, - at least one of the connection areas is connected to a controller or measuring device for detecting a leakage current as current flow through the dielectric layer, characterized in that - the at least one heating element is connected to measuring means for monitoring a heating conductor current through the heating element, - at least two heating elements (117a, 117b) which are electrically separated and can be operated independently of one another are applied to the carrier, - a single flat dielectric layer is provided on one side of the heating elements (117a, 117b) for the purpose of connection to the controller or measuring device for detecting a leakage current, - the dielectric layer substantially covers the heating elements (117a, 117b).
A method of constructing a concrete tower, the method including: a) erecting a central pillar; b) mounting a platform on the central pillar; c) setting a slipform defining a portion of the concrete tower; d) pouring liquid concrete from the platform into the slipform; e) leaving the liquid concrete to solidify in the slipform; and f) repeating steps c) through e) to form further portions of the concrete tower, wherein each of the further portions of the concrete tower is formed on top of at least a preceding one of the portions of the concrete tower, wherein each portion of the concrete tower extends along a part of a perimeter of the concrete tower characterised in that, an orientation of a top side of each portion is acute-angled with respect to a horizontal direction such that a series of subsequent portions of the concrete tower assume a spiral form. a) erecting a central pillar; b) mounting a platform on the central pillar; c) setting a slipform defining a portion of the concrete tower; d) pouring liquid concrete from the platform into the slipform; e) leaving the liquid concrete to solidify in the slipform; and f) repeating steps c) through e) to form further portions of the concrete tower, wherein each of the further portions of the concrete tower is formed on top of at least a preceding one of the portions of the concrete tower, wherein each portion of the concrete tower extends along a part of a perimeter of the concrete tower characterised in that, an orientation of a top side of each portion is acute-angled with respect to a horizontal direction such that a series of subsequent portions of the concrete tower assume a spiral form.
A composition comprising a carrier conjugated to laminin-based peptide comprising a segment with at least 75% sequence similarity with SEQ ID NO: 1 that promotes cell adhesion, cell proliferation, and/or cell migration into the composition, wherein the carrier comprises poly(polyethyleneglycol citrate-co-N-isopropylacrylamide) (PPCN).
A method of manufacturing a security document, comprising: providing a first security element article (18, 16) having a corresponding predetermined first unique identification code which is detectable from the first security element article; incorporating the first security element article (18, 16) into a document; generating a machine-readable security feature containing document data representative of the first unique identification code corresponding to the first security element article and of at least a second unique identification code corresponding to a second security element (17, 15) applied to the document; and applying the machine-readable security feature to the document. providing a first security element article (18, 16) having a corresponding predetermined first unique identification code which is detectable from the first security element article; incorporating the first security element article (18, 16) into a document; generating a machine-readable security feature containing document data representative of the first unique identification code corresponding to the first security element article and of at least a second unique identification code corresponding to a second security element (17, 15) applied to the document; and applying the machine-readable security feature to the document.
An air-frying cooker, comprising: a vessel; a heating means located above the vessel; a food support located in the vessel and having an air-permeable bottom; an airflow generating device configured to enable air heated by the heating means to form an airflow to heat food accommodated in the food support; a partition (104; 204; 304; 404; 504; 604) located in the vessel and located below the food support, the partition (104; 204; 304; 404; 504; 604) divides a space in the vessel into a first chamber accommodating the food support and a second chamber located below the first chamber; and a guide member located on a bottom wall of the vessel, wherein the partition (104; 204; 304; 404; 504; 604) at least partially blocks heat transfer from the first chamber to the second chamber, and guides materials falling from the air-permeable bottom of the food support into the first chamber to the second chamber and the guide member guides the materials entering the second chamber from the first chamber towards a direction away from a radial center of the vessel. a vessel; a heating means located above the vessel; a food support located in the vessel and having an air-permeable bottom; an airflow generating device configured to enable air heated by the heating means to form an airflow to heat food accommodated in the food support; a partition (104; 204; 304; 404; 504; 604) located in the vessel and located below the food support, the partition (104; 204; 304; 404; 504; 604) divides a space in the vessel into a first chamber accommodating the food support and a second chamber located below the first chamber; and a guide member located on a bottom wall of the vessel, wherein the partition (104; 204; 304; 404; 504; 604) at least partially blocks heat transfer from the first chamber to the second chamber, and guides materials falling from the air-permeable bottom of the food support into the first chamber to the second chamber and the guide member guides the materials entering the second chamber from the first chamber towards a direction away from a radial center of the vessel.
A method of coating a pipe on a chemical basis with an epoxy/acrylic-based internally disposed anti-corrosion coating in its interior, wherein the pipe to be coated in its interior has - an outside (a) and an inside (b), - a first outer end (e 1) at the first end of the pipe and a second outer end (e 2) at the second end of the pipe, - a length, - a first inside diameter (D 1) at the first outer end (e 1) of the pipe and a second inside diameter (D 2) at the second outer end (e 2) of the pipe, and - a central axis, wherein the method is characterised in that the method has at least the following method steps: (i.) providing an immersion basin which - is filled up to a filling level (h) with a coating liquid which contains FeF 3 iron fluoride and paint particles in dispersion and - is suitable for receiving over its full length the pipe to be coated, (ii.) first immersion of the pipe to be coated into the coating liquid, (iii.) first removal of the pipe to be coated from the coating liquid ensuring an angle (α) between the central axis and the surface of the coating liquid with 1° < (α) < 30°, (iv.) second immersion of the pipe to be coated into the coating liquid, (v.) second removal of the pipe to be coated from the coating liquid ensuring an angle (β) between the central axis and the surface of the coating liquid with -30° < (β) < -1°, and (vi.) ensuring a filling level of the coating liquid in the immersion basin with (h) > ● sin (α) and (h) > ● sin (β). - an outside (a) and an inside (b), - a first outer end (e 1) at the first end of the pipe and a second outer end (e 2) at the second end of the pipe, - a length, - a first inside diameter (D 1) at the first outer end (e 1) of the pipe and a second inside diameter (D 2) at the second outer end (e 2) of the pipe, and - a central axis, (i.) providing an immersion basin which - is filled up to a filling level (h) with a coating liquid which contains FeF 3 iron fluoride and paint particles in dispersion and - is suitable for receiving over its full length the pipe to be coated, - is filled up to a filling level (h) with a coating liquid which contains FeF 3 iron fluoride and paint particles in dispersion and - is suitable for receiving over its full length the pipe to be coated, (ii.) first immersion of the pipe to be coated into the coating liquid, (iii.) first removal of the pipe to be coated from the coating liquid ensuring an angle (α) between the central axis and the surface of the coating liquid with 1° < (α) < 30°, (iv.) second immersion of the pipe to be coated into the coating liquid, (v.) second removal of the pipe to be coated from the coating liquid ensuring an angle (β) between the central axis and the surface of the coating liquid with -30° < (β) < -1°, and (vi.) ensuring a filling level of the coating liquid in the immersion basin with (h) > ● sin (α) and (h) > ● sin (β).
An asphalt finisher, comprising: a tractor; a hopper disposed in front of the tractor and configured to accept a pavement material; a conveyor configured to supply the pavement material in the hopper to a rear side of the tractor; a screw configured to lay and spread the pavement material supplied by the conveyor at the rear side of the tractor; a screed configured to flatten the pavement material laid and spread by the screw at a rear side of the screw; a controller configured to adjust an illumination range of a lighting apparatus (52, 204) that illuminates areas behind the asphalt finisher; and an object detecting apparatus configured to detect a worker behind the screed, wherein the controller is configured to adjust the illumination range of the lighting apparatus (52, 204) based on a detection result of the object detecting apparatus such that an area around the detected worker is illuminated. a tractor; a hopper disposed in front of the tractor and configured to accept a pavement material; a conveyor configured to supply the pavement material in the hopper to a rear side of the tractor; a screw configured to lay and spread the pavement material supplied by the conveyor at the rear side of the tractor; a screed configured to flatten the pavement material laid and spread by the screw at a rear side of the screw; a controller configured to adjust an illumination range of a lighting apparatus (52, 204) that illuminates areas behind the asphalt finisher; and an object detecting apparatus configured to detect a worker behind the screed, wherein the controller is configured to adjust the illumination range of the lighting apparatus (52, 204) based on a detection result of the object detecting apparatus such that an area around the detected worker is illuminated.
An information processing apparatus having a physical operation member, and a memory configured to store the characteristics of vibration caused by an operation of the physical operation member, the information processing apparatus comprising: a vibration detecting unit configured to detect vibration of the information processing apparatus; a member operation detecting unit configured to detect an operation of the physical operation member; and an execution unit configured to, if the operation of the physical operation member is detected by the member operation detecting unit within a predetermined period after the vibration detecting unit has detected vibration (YES in S205) or if vibration is detected by the vibration detecting unit during a period of the physical operation member chattering caused by the operation of the physical operation member (YES in S303), execute a first function corresponding to the operation of the physical operation member when the detected vibration resembles the characteristics of vibration caused by the operation of the physical operation member stored in the memory (YES in S306) and execute a second function assigned to the detected vibration without executing the first function corresponding to the operation of the physical operation member when the detected vibration does not resemble characteristics of vibration caused by the operation of the physical operation member stored in the memory (NO in S306). a vibration detecting unit configured to detect vibration of the information processing apparatus; a member operation detecting unit configured to detect an operation of the physical operation member; and an execution unit configured to, if the operation of the physical operation member is detected by the member operation detecting unit within a predetermined period after the vibration detecting unit has detected vibration (YES in S205) or if vibration is detected by the vibration detecting unit during a period of the physical operation member chattering caused by the operation of the physical operation member (YES in S303), execute a first function corresponding to the operation of the physical operation member when the detected vibration resembles the characteristics of vibration caused by the operation of the physical operation member stored in the memory (YES in S306) and execute a second function assigned to the detected vibration without executing the first function corresponding to the operation of the physical operation member when the detected vibration does not resemble characteristics of vibration caused by the operation of the physical operation member stored in the memory (NO in S306).
A compound of formula: (R 1) n -R 2 -(CF 3) m, wherein n is 1 to 5, m is 1 to 5, - each R 1 is independently selected from the group consisting of -OH, -NH 2, -COOH, -COOR 4, -CHO, -C -R 4, -CONH 2, and -CONHR 4; wherein R 4 is in each instance independently selected from linear or branched, substituted or non-substituted C 1-10 alkyl, alkenyl or cycloalkyl and each R 1 is bound to R 2, - R 2 denotes a linear, substituted or non-substituted alkyl, - (CF 3) denotes a group that is in each instance bound to R 2, and wherein the compound of formula has less than seven carbon atoms, for use in the treatment of a patient suffering from ischemia reperfusion injury, severe inflammatory response syndrome, sepsis, or organ or implant rejection, or being subjected to organ transplantation or organ resection. n is 1 to 5, m is 1 to 5, - each R 1 is independently selected from the group consisting of -OH, -NH 2, -COOH, -COOR 4, -CHO, -C -R 4, -CONH 2, and -CONHR 4; wherein R 4 is in each instance independently selected from linear or branched, substituted or non-substituted C 1-10 alkyl, alkenyl or cycloalkyl and each R 1 is bound to R 2, - R 2 denotes a linear, substituted or non-substituted alkyl, - (CF 3) denotes a group that is in each instance bound to R 2, and - each R 1 is independently selected from the group consisting of -OH, -NH 2, -COOH, -COOR 4, -CHO, -C -R 4, -CONH 2, and -CONHR 4; wherein R 4 is in each instance independently selected from linear or branched, substituted or non-substituted C 1-10 alkyl, alkenyl or cycloalkyl and each R 1 is bound to R 2, - R 2 denotes a linear, substituted or non-substituted alkyl, - (CF 3) denotes a group that is in each instance bound to R 2, and
Rotor for a reluctance motor, wherein the rotor has a laminated core with a number of rotor sheet metal blanks, of which each has flux barriers cast with a non-ferromagnetic casting compound and at least one soft-magnetic rotor sheet (18, 18') delimiting the flux barriers, wherein each rotor sheet metal blank has a single rotor sheet with punches for the flux barriers or a number of rotor sheets separated respectively from one another by a flux barrier and wherein in each case the flux barriers of adjacent adjoining rotor sheet metal blanks are arranged offset relative to one another so that the flux barriers of one of the rotor sheet metal blanks are delimited in the axial direction at least partially by a respective rotor sheet (18, 18') of the other rotor sheet metal blank and in each case the casting compound of the flux barrier in an adhesion zone adheres to the respective rotor sheet (18, 18'), characterised in that - in each case the rotor sheet (18, 18') has at least one depression formed by a stamping and/or a recess in the adhesion zone, wherein the at least one depression and the casting compound adhering to the rotor sheet (18, 18') form a form closure in the radial direction, and/or - in each case the rotor sheet (18, 18') in the adhesion zone is roughened by comparison with an adjacent zone. - in each case the rotor sheet (18, 18') has at least one depression formed by a stamping and/or a recess in the adhesion zone, wherein the at least one depression and the casting compound adhering to the rotor sheet (18, 18') form a form closure in the radial direction, and/or - in each case the rotor sheet (18, 18') in the adhesion zone is roughened by comparison with an adjacent zone.
An integrated thermoelectric generator of out-of-plane heat flux configuration, said generator comprising: a bottom substrate; a dielectric layer deposited onto a face of said bottom substrate with uneven thickness, in order to define hills and valleys of dielectric material; juxtaposed segments (4, 5), alternately p-doped and n-doped, of defined thin film lines of segments of a polycrystalline semiconductor, extending over inclined opposite flanks of said hills, useful for converting in electricity part of the heat flowing in a direction orthogonal to the generator, hill-top junction metal contacts and valley-bottom junction metal contacts joining juxtaposed ends of said segments (4, 5) alternately p-doped and n-doped, a planar electrically non conductive cover layer laying onto said hill-top junction metal contacts and suspended above said valleys, all valleys among said hills being void spaces delimited at the top by the non conductive cover layer, characterized in that portions of said planar electrically non conductive cover layer suspended over each valley of said valleys have through holes, said through holes communicating with said void spaces and being sufficiently large to let isotropic etching solutions or etching plasma pass therethrough across the thickness of the electrically non conductive cover layer; said generator further comprises a top capping layer deposited onto a free surface, oriented in an opposite direction in respect to said void spaces, of said planar electrically non conductive cover layer so as to occlude the through holes of the electrically non conductive cover layer. a bottom substrate; a dielectric layer deposited onto a face of said bottom substrate with uneven thickness, in order to define hills and valleys of dielectric material; juxtaposed segments (4, 5), alternately p-doped and n-doped, of defined thin film lines of segments of a polycrystalline semiconductor, extending over inclined opposite flanks of said hills, useful for converting in electricity part of the heat flowing in a direction orthogonal to the generator, hill-top junction metal contacts and valley-bottom junction metal contacts joining juxtaposed ends of said segments (4, 5) alternately p-doped and n-doped, a planar electrically non conductive cover layer laying onto said hill-top junction metal contacts and suspended above said valleys, all valleys among said hills being void spaces delimited at the top by the non conductive cover layer, portions of said planar electrically non conductive cover layer suspended over each valley of said valleys have through holes, said through holes communicating with said void spaces and being sufficiently large to let isotropic etching solutions or etching plasma pass therethrough across the thickness of the electrically non conductive cover layer; said generator further comprises a top capping layer deposited onto a free surface, oriented in an opposite direction in respect to said void spaces, of said planar electrically non conductive cover layer so as to occlude the through holes of the electrically non conductive cover layer.
A fuel manifold assembly for a gas turbine engine, the fuel manifold assembly defining a walled conduit through which a fuel flows in a fuel passage, the walled conduit defining a first end and a second end opposite of the first end along a length of the walled conduit, wherein the fuel manifold assembly includes an exit manifold to which a fuel nozzle attaches, the fuel manifold assembly comprising: a damper assembly coupled to the walled conduit of the fuel manifold assembly, the damper assembly comprising a walled tube extended from the walled conduit, and wherein the damper assembly comprises a walled enclosure defining a damper cavity therein, wherein the damper cavity is in fluid communication with a damper passage defined within the walled tube, and wherein the damper passage is in fluid communication with the fuel passage, wherein the fuel manifold assembly defines a first damper assembly disposed at the first end of the walled conduit and a second damper assembly disposed at the second end of the walled conduit, and wherein the fuel manifold assembly further comprises: a connecting tube coupled to each of the walled enclosure of the first damper assembly and the second damper assembly. a damper assembly coupled to the walled conduit of the fuel manifold assembly, the damper assembly comprising a walled tube extended from the walled conduit, and wherein the damper assembly comprises a walled enclosure defining a damper cavity therein, wherein the damper cavity is in fluid communication with a damper passage defined within the walled tube, and wherein the damper passage is in fluid communication with the fuel passage, wherein the fuel manifold assembly defines a first damper assembly disposed at the first end of the walled conduit and a second damper assembly disposed at the second end of the walled conduit, and wherein the fuel manifold assembly further comprises: a connecting tube coupled to each of the walled enclosure of the first damper assembly and the second damper assembly. a connecting tube coupled to each of the walled enclosure of the first damper assembly and the second damper assembly.