DK200800009U3

DK200800009U3 - Ion heating system

Info

Publication number: DK200800009U3
Application number: DK200800009U
Authority: DK
Inventors: Hanikat Eero
Original assignee: Leidi Consult Ltd
Priority date: 2007-01-16
Filing date: 2008-01-15
Publication date: 2008-05-09
Also published as: LV13756B; FI7968U1; EE00759U1; LT2008002A; NO20071182L; PL64594Y1; LT5556B; FIU20080016U0

Description

55

?! elektrisk ©pvarmnlri si varmest?! electric © pvarmnlri say warmest

Der kemies forskelge elektrodetosninger, sam omfatter forelig© varmettans-· to m tinThere are different electrode tufts, which include the presence of heat dissipation

Mi opvarmnlngssysternøf til opvarmning af vand eller til damppmdukiiom Løsninger, hver efetørøde&edter anvendes som varmeder og elektricitet konverteres dirékfi 1 varmeenergi, n bfeskrwes eksempelvis i de russiske patenter PU216&S74 og RU2i89S41.My heating system nut for heating water or for steam steam solutions Solutions, each effluent red & edter are used as heaters and electricity is converted directly into heat energy, which is described, for example, in the Russian patents PU216 & S74 and RU2i89S41.

[fen sterste ulempe ved elektrodekedler er instabiliie pr på ©tektrodeme på grund åf anvendelsen ti ©t yegnetThe greatest disadvantage of electrode boilers is the instability of the electrodes due to their use.

ISICE

Læsninger, som ligger tættest på den foreliggende frembringelse, er aontek© mt~ mesystemiøsnlnger{29,G92004, ^;<%i^vambive,erd/%eb^)06f " ° \ ♦' wwwJijdliOfeketmkiJitm) af Lsidt Ccrasulf GO fbhtpy/wwvJøk«^^?, Datos låsninger omfatter et monooyklisk system, hvor den elektriske ferisk© kedaLReadings closest to the present invention are aontek © mt ~ mesystemiøsnlnger {29, G92004, ^; <% i ^ vambive, erd /% eb ^) 06f "° \ ♦ 'wwwJijdliOfeketmkiJitm) by Lsidt Ccrasulf GO fbhtpy / wwvJøk «^^ ?, Datos locks include a monocyclic system in which the electric ferric © kedaL

m mm opvarmer rarmetranspertiiifdfet alter vand, som cirkulerer I systemat, er femundet mad radiatorer, gylvvarme eller en varmtvandsbeholder.m mm heats rarmetranspertiiifdfet alter water, which circulates In system, is femundet food radiators, underfloor heating or a hot water tank.

Ulempen ved denne eller lignende løsninger er, at når den teniskø kedel isiufr tes til varmesystemet, skal fisfe systemet genprojekteres separat afhængig af 25 brugen af radiatorer eller et epvarmningesysfem, som især er fremstillet far ef opvarm© ksdiaa I tilfælde af den ovennævnte losning er vandet som imjps som YørmetmnaponmedÉum, Ikke ©gnet mm drSikeyand, og vandet som tw-ges tit opvarmning, kan ikke adskilles i systemet Derfor kan sådan en løsning være kompleks og ireavrerfig at brup.The disadvantage of this or similar solutions is that when the ignition boiler isiufr tes to the heating system, the fisfe system must be redesigned separately depending on the use of radiators or an epheating heating system, which is specially made far ef heating © ksdiaa In the case of the above solution is the water as imjps as YørmetmnaponmedÉum, Ikke © gnet etc. drSikeyand, and the water as tw-ges often heating, can not be separated in the system Therefore, such a solution can be complex and ireavrerfig to brup.

fonvarmesystemet ffålge frembringelsen or den næste gensrato ©tor de al-mindelige toniske ©g elektrocfeksdefsystemar. Formålet med fremprfepteen er at tliv©)©Oringe et epvarmntegssystem II indendørs run med et areal op 1 30 2 DK 2008 00009 U3 400 m2 samt til større industrianlæg, trappehus og andre større bygninger. For at opvarme store rum kan løsningen ifølge frembringelsen forbindes til større systemer, som omfatter to eller flere ionvarmesystemer.the phonothermal system following the generation or the next gene ratator of the common tonic electroceflex def systems. The purpose of the preprpepteen is to tliv ©) © Oringe an epvarmnteg system II indoor run with an area up 1 30 2 DK 2008 00009 U3 400 m2 as well as for larger industrial plants, stairwells and other larger buildings. In order to heat large spaces, the solution according to the invention can be connected to larger systems, which comprise two or more ion heating systems.

En væsentlig fordel ved en løsning ifølge frembringelsen er, at der ikke behøves bygget et separat kedelhus for at installere ionvarmesystemet. Systemet kan installeres ved indgangen i bryggerset, i kælderen, på loftet, i garagen eller i et hvilket som helst andet rum, hvor et centralvarmesystems tilstrømnings- og udstrømningsrør samt et industristik til forsyning med tilstrækkeligt elektrisk effekt kan installeres.A significant advantage of a solution according to the invention is that a separate boiler house is not needed to install the ion heating system. The system can be installed at the entrance in the utility room, in the basement, in the attic, in the garage or in any other room, where a central heating system inflow and outflow pipe as well as an industrial socket for supply with sufficient electrical power can be installed.

lonvarmesystemets ioniske kedel kan anvendes som varmekilde i gulv, radiator eller varmluftvarmesystemer og til at producere varmt drikkevand, lonvarme-systemet kan tilsluttes både separat i forhold til og parallelt med det eksisterende system. Til forskel fra kendte opvarmningsløsninger omfatter ionvarmesystemet ikke varmespiraler, brandkamre eller andre varmeelementer, og det er derfor fuldstændigt brandsikret og sikkert.the ion heating system of the lon heating system can be used as a heat source in floor, radiator or hot air heating systems and to produce hot drinking water, the lon heating system can be connected both separately in relation to and in parallel with the existing system. Unlike known heating solutions, the ion heating system does not include heating coils, fire chambers or other heating elements, and is therefore completely fireproof and safe.

Frembringelsens virkemåde beror på at konvertere elektrisk energi til varme direkte i varmetransportmediet, hvor varmen genereres af elektronernes bevægelse og en væskes ionisering, hvilket giver mulighed for at spare energi og opnå den maksimalt mulige virkningsgrad. I princippet omdannes al brugt energi til varmeenergi, hvorfor frembringelsen ideelt set har en større virkningsgrad end alle andre kendte løsninger, og hele ionvarmesystemet opvarmer hurtigt.The mode of operation is based on converting electrical energy into heat directly in the heat transport medium, where the heat is generated by the movement of the electrons and the ionization of a liquid, which makes it possible to save energy and achieve the maximum possible efficiency. In principle, all spent energy is converted into heat energy, which is why the generation ideally has a greater efficiency than all other known solutions, and the entire ion heating system heats up quickly.

lonvarmesystemet kan også anvendes ved renovering af eksisterende opvarmningssystemer, hvor ionvarmesystemets vand og det vand, som cirkulerer i det eksisterende opvarmningssystem, ikke kommer i kontakt med hinanden på grund af en varmeveksler, og opvarmningssystemets renhed er uden betydning, lonopvarmningssystemet kan tilsluttes støbejernsradiatorer, akkumulationsholdere, kedler og andre systemer, hvor der kan findes rust, metalpartikler og kalkflager.the ion heating system can also be used in the renovation of existing heating systems, where the water of the ion heating system and the water circulating in the existing heating system do not come into contact with each other due to a heat exchanger and the purity of the heating system is irrelevant, the ion heating system can be connected to cast iron radiators. boilers and other systems where rust, metal particles and limescale flakes can be found.

3 DK 2008 00009 U3 lonvarmesystemet omfatter to kredsløb: et første primær- eller kedelkredsløb og et andet sekundær- eller opvarmningskredsløb, hvor der ud over vand også kan anvendes en særlig frostsikret væske som varmetransportmedium. Fordelen ved denne væske i forhold til vand er, at den kan modstå kulde, og at den har en høj varmekapacitet, som garanterer transport af en større mængde varme med den samme mængde væske. Når der bruges et særligt varmetransportmedium, opstår der ingen kalkskal eller korrosion i ionvarmesystemet, og den ioniske kedels driftstid kan forøges betydeligt.3 DK 2008 00009 The U3 ion heating system comprises two circuits: a first primary or boiler circuit and a second secondary or heating circuit, where in addition to water, a special frost-proof liquid can also be used as a heat transport medium. The advantage of this liquid over water is that it can withstand cold and that it has a high heat capacity, which guarantees the transport of a larger amount of heat with the same amount of liquid. When a special heat transport medium is used, no limescale or corrosion occurs in the ion heating system and the operating time of the ionic boiler can be significantly increased.

Hele ionvarmesystemet er tildannet som en komplet løsning, som er klar til umiddelbar anvendelse, og som tillader en hurtig og kompakt installation, hvortil installatøren ikke behøver nogen særlig træning.The entire ion heating system is designed as a complete solution, which is ready for immediate use and which allows a fast and compact installation, for which the installer does not need any special training.

Frembringelsen forklares nærmere i det følgende under henvisning til tegningen. Påtegningen viser figur 1 ionvarmesystemet i perspektiv, figur 2, set i snit, ionvarmesystemet fra fig. 1 i en første udførelsesform, figur 3, set i snit, ionvarmesystemet ifølge fig. 1 i en anden udførelsesform, figur 4, set i snit, et ionvarmesystem ifølge fig. 1 i en tredje udførelsesform, figur 5, set i snit, et ionvarmesystem ifølge fig. 1 i en fjerde udførelsesform, og figur 6, set i snit, et ionvarmesystem ifølge fig. 1 i en femte udførelsesform.The creation is explained in more detail below with reference to the drawing. The endorsement shows figure 1 the ion heating system in perspective, figure 2, seen in section, the ion heating system from fig. 1 in a first embodiment, FIG. 3, seen in section, the ion heating system according to FIG. 1 in another embodiment, FIG. 4 is a sectional view of an ion heating system according to FIG. 1 in a third embodiment, FIG. 5 is a sectional view of an ion heating system according to FIG. 1 in a fourth embodiment, and FIG. 6 is a sectional view of an ion heating system according to FIG. 1 in a fifth embodiment.

lonvarmesystemet ifølge frembringelsen, som er vist i figurerne 1, 2 og 3, omfatter et hus, som omfatter et frontpanel 1 og modsat over for frontpanelet en side 2, en overside 3, en underside 4, en bagside 5 og modsat over for bagsiden en dør 6. lonvarmesystemet omfatter yderligere en ionisk kedel 7, en ekspansionsbeholder 8, en kontraventil 9, en cirkulationspumpe 10, en manifold- 4 DK 2008 00009 U3 opdeler 11, en sensorenhed 12, en automatisk udluftningsindretning 13, som er anbragt på manifoldopdeleren 11, en trykventil 14, et trykmanometer 15, en automatisk ventil 16 (f.eks. en termisk eller magnetisk ventil, som ved hjælp af sensorer eller lignende kan styres ved en konstant temperatur eller en temperaturindstilling mellem 30-100 °C), og ved renovering af eksisterende opvarmningssystemer: en varmeveksler 17, varmerørledninger, som omfatter rør 18, 19,20,21,22,23,24,25,26, 27 og i tilfælde af, at varmeveksleren 17 er til stede, rør 28 og 29, øvre fastgørelseselementer 30, nedre fastgørelseselementer 31, en styreenhed 32, fastgjort til frontpanelet 1 og forbundet med ionvarmesystemets elektriske system, konnektorer 33, en yderligere jordforbindelse 34, røråbninger 35, 36, 37, 38, en termisk sensor 39, anbragt på døren 6, en overopvarmningssensor 40, et låsesystem 41 og en sensor 42.The ion heating system according to the invention, shown in Figures 1, 2 and 3, comprises a housing which comprises a front panel 1 and opposite the front panel a side 2, an upper side 3, a lower side 4, a rear side 5 and opposite to the rear side a door 6. The heating system further comprises an ionic boiler 7, an expansion vessel 8, a non-return valve 9, a circulation pump 10, a manifold divider 11, a sensor unit 12, an automatic venting device 13, which is arranged on the manifold divider 11, a pressure valve 14, a pressure manometer 15, an automatic valve 16 (for example a thermal or magnetic valve which can be controlled by means of sensors or the like at a constant temperature or a temperature setting between 30-100 ° C), and by renovation of existing heating systems: a heat exchanger 17, heat pipelines comprising pipes 18, 19,20,21,22,23,24,25,26, 27 and in case the heat exchanger 17 is present, pipes 28 and 29, upper fasteners 30, lower phase operating elements 31, a control unit 32, attached to the front panel 1 and connected to the electrical system of the ion heating system, connectors 33, a further earth connection 34, pipe openings 35, 36, 37, 38, a thermal sensor 39, arranged on the door 6, an overheating sensor 40, a locking system 41 and a sensor 42.

Varmetransporten er opdelt i to kredsløb ved hjælp af en automatisk ventil 16: et første primær- eller kedelkredsløb og et andet sekundær- eller opvarmningskredsløb. Den automatiske ventil 16 vælger automatisk det primære kredsløb, lonvarmesystemets primære kredsløb skal varmes op til den forudvalgte temperatur (f.eks. 60 °C), hvorefter den automatiske ventil 16 åbner det andet kredsløb, og ionvarmesystemet frigiver varmetransportmediet med den forudbestemte temperatur. På denne måde er det muligt at prioritere en del af varmesystemet i forhold til en anden, f.eks. at anvende primærkredsløbet til varmt vand og radiatorer, og det andet kredsløb til radiatorer og gulvvarme. Den automatiske ventil 16 kan være en termisk ventil, som skal anvendes til at øge fastbrændselskedlens driftstemperatur for at øge brændslets forbrændingsgrad og virkningsgraden. Den automatiske ventils 16 input 43 er forbundet med manifoldopdeleren 11 ved hjælp af et rør 18, og manifoldopdeleren er forbundet med den ioniske kedels 7 øvre del ved hjælp af rør 19 og 20.The heat transport is divided into two circuits by means of an automatic valve 16: a first primary or boiler circuit and a second secondary or heating circuit. The automatic valve 16 automatically selects the primary circuit, the primary circuit of the ion heating system must be heated to the preselected temperature (eg 60 ° C), after which the automatic valve 16 opens the second circuit and the ion heating system releases the heat transport medium at the predetermined temperature. In this way, it is possible to prioritize one part of the heating system over another, e.g. to use the primary circuit for hot water and radiators, and the second circuit for radiators and underfloor heating. The automatic valve 16 may be a thermal valve to be used to increase the operating temperature of the solid fuel boiler to increase the combustion rate and efficiency of the fuel. The input 43 of the automatic valve 16 is connected to the manifold divider 11 by means of a pipe 18, and the manifold divider is connected to the upper part of the ionic boiler 7 by means of pipes 19 and 20.

Ifølge den første udførelsesform for frembringelsen, som er vist i fig. 1 og 2, er ionvarmesystemet beregnet til forbindelse med nyt varmeudstyr. I dette tilfælde er den automatiske ventils 16 output 44 forbundet med et rør 21, og den anden output 45 er forbundet med kontraventilen 9 via et rør 22, hvor kontraventilen via rør 24 og 25 og cirkulationspumpens 10 rør 26 er forbundet med den ioniske 5 DK 2008 00009 U3 kedels 7 nedre del, og hvor kontraventilen er forbundet med rør 23, som er forbundet med ekspansionsbeholderen 8 og røret 27.According to the first embodiment of the invention shown in FIG. 1 and 2, the ion heating system is intended for connection with new heating equipment. In this case, the output 44 of the automatic valve 16 is connected to a pipe 21, and the other output 45 is connected to the non-return valve 9 via a pipe 22, the non-return valve via pipes 24 and 25 and the pipe 26 of the circulation pump 10 being connected to the ionic 5 DK 2008 00009 U3 boiler 7 lower part, and where the non-return valve is connected to pipe 23, which is connected to the expansion vessel 8 and the pipe 27.

For at forbinde ionvarmesystemet med et eksisterende varmesystem ifølge en anden udførelsesform for frembringelsen, som vist i figurerne 1 og 3, er varmeveksleren 17 installeret i ionvarmesystemet for at forhindre, at forureninger (kalkflager, rust, m.m.) kommer ind i systemet. I dette tilfælde er den automatiske ventils ene output 44 forbundet med varmevekslerens 17 øvre del 171 via et rør 23, den øvre del 171 er forbundet med et rør 21 og den automatiske ventils 16 anden output 45 er forbundet med varmevekslerens 17 nedre del 172 via et rør 22 og rørene 27 og 29. Den nedre del 172 er forbundet med røret 24.To connect the ion heating system to an existing heating system according to another embodiment of the generation, as shown in Figures 1 and 3, the heat exchanger 17 is installed in the ion heating system to prevent contaminants (lime flakes, rust, etc.) from entering the system. In this case, one output 44 of the automatic valve is connected to the upper part 171 of the heat exchanger 17 via a pipe 23, the upper part 171 is connected to a pipe 21 and the other output 45 of the automatic valve 16 is connected to the lower part 172 of the heat exchanger 17 via a pipe 22 and pipes 27 and 29. The lower part 172 is connected to the pipe 24.

Den tredje udførelsesform ifølge frembringelsen er vist i figur 4, hvor den automatiske ventil 16 er forsynet med to input 46 og 47 og en output 48. Den automatiske ventils 16 input 46 er via et rør 50 forbundet med kontraventilen 9, som via et rør 22 er forbundet med rørene 18 og 21, og røret 22 er forbundet med ekspansionsbeholderen 8 via røret 23. Den automatiske ventils 16 anden input 47 er forbundet med røret 24, og den automatiske ventils 16 output 48 er forbundet med røret 25.The third embodiment according to the invention is shown in Figure 4, where the automatic valve 16 is provided with two inputs 46 and 47 and an output 48. The input 46 of the automatic valve 16 is connected via a pipe 50 to the non-return valve 9, which via a pipe 22 is connected to the tubes 18 and 21, and the tube 22 is connected to the expansion vessel 8 via the tube 23. The second input 47 of the automatic valve 16 is connected to the tube 24, and the output 48 of the automatic valve 16 is connected to the tube 25.

Den fjerde udførelsesform ifølge frembringelsen er vist i fig. 5, hvor ionvarmesystemet er suppleret med en varmeveksler 17, og den automatiske ventil 16 er forsynet med to input 46 og 47 og en output 48.1 dette tilfælde er den automatiske ventils 16 ene input 46 forbundet med et rør 22, som via røret 23 er forbundet med ekspansionsbeholderen 8, via røret 18 med manifoldopdeleren 11 og via røret 28 med varmevekslerens 17 øvre del 171. Den automatiske ventils 16 output 48 er forbundet via røret 29 med varmevekslerens 17 nedre del 172. Den automatiske ventils 16 anden input 47 er forbundet med røret 27, som er forbundet med røret 25.The fourth embodiment according to the invention is shown in fig. 5, where the ion heating system is supplemented by a heat exchanger 17, and the automatic valve 16 is provided with two inputs 46 and 47 and an output 48.1 in this case one input 46 of the automatic valve 16 is connected to a pipe 22, which is connected via the pipe 23 with the expansion vessel 8, via the pipe 18 with the manifold divider 11 and via the pipe 28 with the upper part 171 of the heat exchanger 17. The output 48 of the automatic valve 16 is connected via the lower part 172 of the heat exchanger 172. The second input 47 of the automatic valve 16 is connected to the pipe 27, which is connected to the tube 25.

Den femte udførelsesform for ionvarmesystemet er vist i fig. 6, hvor ionvarmesystemet med en varmeveksler 17 i stedet for den automatiske ventil 16 i ovennævnte udførelsesformer er forsynet med en ventil i varmevekslerens output- 6 DK 2008 00009 U3 punkter 491 eller 492 eller en ventil ved varmevekslerens inputpunkter 493 eller 494 for at begrænse varmetransporten.The fifth embodiment of the ion heating system is shown in fig. 6, where the ion heat system with a heat exchanger 17 instead of the automatic valve 16 in the above embodiments is provided with a valve in the heat exchanger output points 491 or 492 or a valve at the heat exchanger input points 493 or 494 to limit the heat transport.

Ifølge en sjette udførelsesform til opvarmning af store arealer, såsom industriel-5 le anlæg, lagerhaller, med mere, er ionvarmesystemer forbundet i en kaskade.According to a sixth embodiment for heating large areas, such as industrial plants, storage halls, and more, ion heating systems are connected in a cascade.

lonvarmesystemet skal monteres vertikalt, uafhængigt af centralvarmesystemets rørledninger. For at forhindre lækage i ionvarmesystemets varmere hedninger kan der anvendes plastrør, som kan være isoleret for at forhindre varme-10 tab. Varmerørledningen kan fastgøres ved hjælp af øvre fastgørelseselementer 30, som er forbundet med husets indre øvre side 3, og nedre fastgørelseselementer 31, som er forbundet med indersiden af husets bagside 5. For at forhindre kontakt mellem neutral og jordforbindelsen er fastgørelseselementerne forsynet med overtræk.the central heating system must be installed vertically, independently of the central heating system's pipelines. To prevent leakage in the warmer heats of the ion heating system, plastic pipes can be used, which can be insulated to prevent heat loss. The heating pipe can be fastened by means of upper fastening elements 30, which are connected to the inner upper side 3 of the housing, and lower fastening elements 31, which are connected to the inside of the back of the housing 5. To prevent contact between neutral and the ground connection, the fastening elements are coated.

1515

For at aktivere ionvarmesystemet fyldes dette med et egnet varmetransportmedium på forhånd. Det foretrukne varmetransportmedium kan være vand, som svarer til drikkevandsstandard (ledningsevne 350-400 pS ved +20 °C) eller en speciel frostsikret væske. Det foretrukne arbejdstryk i ionvarmesystemet er 1,5-20 2,2 bar, og den foretrukne arbejdstemperatur er 70-75°C. For at aktivere det andet kredsløb skal primærkredsløbet være varmet op til den forindstillede temperatur (fortrinsvis 60°C). Primærkredsløbets temperatur, som er nødvendig for at aktivere sekundærkredsløbet, kan styres ved hjælp af et termisk relæ og vælges efter behov.To activate the ion heating system, it is pre-filled with a suitable heat transport medium. The preferred heat transport medium may be water corresponding to drinking water standard (conductivity 350-400 pS at +20 ° C) or a special frost-proof liquid. The preferred working pressure in the ion heating system is 1.5-20 2.2 bar and the preferred working temperature is 70-75 ° C. To activate the second circuit, the primary circuit must be heated to the preset temperature (preferably 60 ° C). The temperature of the primary circuit required to activate the secondary circuit can be controlled by means of a thermal relay and selected as required.

2525

Tabel 1 viser, hvordan den nominelle effekt af den ioniske kedel 7, som drives i ionvarmesystemet ved en arbejdstemperatur på 70 °C som foreskreven af løsningen ifølge den første udførelsesform, og den foretrukne mængde af varmetransportmedium afhænger af det opvarmede areal.Table 1 shows how the nominal power of the ionic boiler 7, which is operated in the ionic heating system at a working temperature of 70 ° C as prescribed by the solution according to the first embodiment, and the preferred amount of heat transport medium depends on the heated area.

7 DK 2008 00009 U37 DK 2008 00009 U3

Nominel effekt for en ionisk kedel ved 70 °C 6 kW 9 kW 12 kW 15 kW 20 kW 25 kW Maksimal strøm 13 A 16 A 20 A 25 A 32 A 40 A Anbefalet mængde af varmetransportmedium i det ioniske varmesystem >80 L >140 L >200 L >260 L >360 L >500 L Opvarmet areal i m* 90 135 180 225 300 375 lonvarmesystemet er forbundet med elektricitetsnettet via en 32A eller 63A konnektor 33 på frontpanelet 1, og huset og sekundærkredsløbets varmerør-5 ledning er forbundet via en yderligere jordforbindelse, lonvarmesystemet forbindes med elektricitetsnettet ved hjælp af en strømstik, og dette kan udføres af en person uden særlig elektrisk uddannelse. Al automatisk styringsudstyr er installeret i huset og kan styres fra frontpanelet 1.Nominal power for an ionic boiler at 70 ° C 6 kW 9 kW 12 kW 15 kW 20 kW 25 kW Maximum current 13 A 16 A 20 A 25 A 32 A 40 A Recommended amount of heat transport medium in the ionic heating system> 80 L> 140 L > 200 L> 260 L> 360 L> 500 L Heated area im * 90 135 180 225 300 375 The heating system is connected to the electricity grid via a 32A or 63A connector 33 on the front panel 1, and the housing and the heating circuit of the secondary circuit are connected via a additional ground connection, the lonheating system is connected to the electricity grid by means of a power plug, and this can be done by a person without special electrical training. All automatic control equipment is installed in the housing and can be controlled from the front panel 1.

10 Primærkredsløbet er adskilt fra huset 1 og er ikke forbundet med jordforbindelsen. En yderligere jordforbindelse er anbragt for nødsituationer. De strømførende dele er tildækket med isolering. Alle forbindelser er udført på en måde, hvor varmetransportmediet bevæger sig i et lukket system og ikke har direkte kontakt med ledende dele. En automatisk overophedningssensor 40 er installeret på 15 ionvarmesystemet, og brugeren har ikke adgang til de strømførende dele. Når husets dør 6 åbnes, afbrydes det elektriske system automatisk ved hjælp af sensoren 42, som er forbundet med ionvarmesystemet via låsesystemet 41. Når døren 6 lukkes, genetableres opvarmningsdriftstilstanden.The primary circuit is separated from the housing 1 and is not connected to the ground connection. An additional ground connection is provided for emergencies. The live parts are covered with insulation. All connections are made in a way where the heat transport medium moves in a closed system and does not have direct contact with conductive parts. An automatic overheating sensor 40 is installed on the ion heating system and the user does not have access to the live parts. When the door 6 of the housing is opened, the electrical system is automatically switched off by means of the sensor 42, which is connected to the ion heating system via the locking system 41. When the door 6 is closed, the heating operating state is re-established.

20 Styring og regulering af ionvarmesystemets drift gennemføres ved hjælp af en digital termisk sensor 39, som er installeret på husets dør 6. Den termiske sensor 39 styrer den ioniske kedels 7 drift og regulerer elektricitetsforbruget i overensstemmelse med den indstillede temperatur. Den termiske sensor består af en hovedafbryder, en magnetisk afbryder, automatiske sikringer, faseindikato-25 rer, et digitalt termisk relæ, en overophedningssensor, som kan tilbagesættes DK 2008 00009 U3 8 manuelt, og en sensor 42. Ved hjælp af det termiske relæ kan systemet arbejde jævnt og energibesparende ved at holde den forindstillede temperatur i primær-og sekundærkredsløbene. Den manuelt tilbagesætbare overophedningssensor beskytter systemet i nødstilfælde mod overophedning.20 Control and regulation of the operation of the ion heating system is carried out by means of a digital thermal sensor 39, which is installed on the door of the house 6. The thermal sensor 39 controls the operation of the ionic boiler 7 and regulates the electricity consumption in accordance with the set temperature. The thermal sensor consists of a main switch, a magnetic switch, automatic fuses, phase indicators, a digital thermal relay, an overheating sensor that can be reset manually, and a sensor 42. Using the thermal relay can the system works smoothly and energy-saving by keeping the preset temperature in the primary and secondary circuits. The manually reset overheating sensor protects the system against overheating in an emergency.

Frembringelsen er ikke begrænset til ovennævnte udførelsesformer og de beskrevne komponenter. Fagmanden på området forstår, at den foreliggende frembringelse kan varieres inden for de i brugsmodelkravene angivne træk.The invention is not limited to the above embodiments and the components described. Those skilled in the art will appreciate that the present invention may be varied within the features set forth in the utility model requirements.

Claims

9 DK 2008 00009 U3 Bruasmodelkrav 1. first heating system, which comprises a front panel (1) and a side (2) facing the front panel, an upper side (3), a underside (4), a back side (5) and at least one facing the back side door (6), an ionic boiler (7), an expansion tank (8), a non-return valve (9), a circulation pump (10), a manifold divider (11), a sensor unit (12), an automatic vent (13), which is arranged on the manifold divider (11), a pressure valve (14), a pressure manometer (15), pipelines (18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 29, 50), upper fastening elements (30), lower fastening elements (31), a control unit (32), which is arranged on the front panel (1) and which is connected to the electrical system of the ion heating system, connectors (33), an additional earth connection (34), pipe openings (35, 36, 37, 38), a thermal sensor (39) mounted on the door (6), an overheating sensor (40) and a locking system (41), which are new in that the ion heating system is further provided with an automatic valve 1 (16) for distributing the heat transport to a first boiler circuit and a second heating circuit, the automatic valve (16) being provided with an input (43) and two outputs (44 and 45). A heating system according to claim 1, which is new in that the input (43) of the automatic valve (16) is connected via the pipe (18) to the manifold divider (11), which is connected to the pipe (19) and via the pipe (20). with the upper part of the ionic boiler (7) and that one output (44) of the automatic valve (16) is connected to the pipe (21) and the other output (45) is connected to the non-return valve (9) via the pipe (22), which is connected via the pipes (24 and 25) and the pipes (26) of the circulation pump (10) to the lower part of the ionic boiler (7) and to the pipe (23) which is connected to the expansion vessel (9) and the pipe (27). The ion heating system according to claim 1, which is new in that the ion heating system is further provided with a heat exchanger (17), and one output (44) of the automatic valve (16) is connected via the pipe (28) to the upper part of the heat exchanger (17). (171), which is connected to the tube (21), and where the second output (45) is connected to the tube (22), which is connected via the tube (23) to the expansion vessel (DK) and the pipe (27) and via the pipe (29) with the lower part (172) of the heat exchanger (17), which is connected to the pipe (24). The ion heating system according to claim 1, which is new in that the ion heating system is further provided with an automatic valve (16) with two inputs (46 and 47) and an output (48), the automatic valve (16) having one input (46). ) is connected via the pipe (50) to the non-return valve (9), which is connected to the pipes (18 and 21) via the pipe (22), and the pipe (22) is connected to the expansion vessel (8) via the pipe (23), and where the second input (47) of the automatic valve (16) is connected to the pipe (24), and the output (48) of the automatic valve (16) is connected to the pipe (25). A heating system according to claims 3 and 4, which is new in that one input (46) of the automatic valve (16) is connected to the pipe (22), which is connected to the expansion vessel (8) via the pipe (23), and via the tube (18) is connected to the manifold divider (11) and via the tube (28) to the upper part (171) of the heat exchanger (17), and where the second input (48) is connected via the tube (29) to the heat exchanger (17) upper part (172), and wherein the output (47) of the automatic valve (16) is connected to the pipe (27) which is connected to the pipe (25). Ion heating system according to claim 1 and claim 3, which is new in that the heat transport of the ion heating system is limited in the output points (491 and 492) of the heat exchanger (17) and input points (493 and 494). The ion heating system according to claim 1, which is new in that the automatic valve (16) is a thermal valve, a magnetic valve or a valve which is controlled by means of an electric motor and sensors. A heating system according to claim 1, which is new in that the first circuit must be heated to 30-100 ° C, preferably to 55-65 ° C, in order to activate the second circuit. The ion heating system according to claim 1, which is new in that the locking system (41) is further provided with a sensor (42), and a neutral and a ground connection are separated in the electrical system of the ion heating system, where the neutral connection is connected to the first circuit and the ground connection is connected to ground. 5