NL1037355A - CLIMATIZATION DEVICE. - Google Patents

Description

CLIMATIZATION DEVICE

This invention relates to a climatization device comprising a solar collector for heating a gas and / or a liquid with the aid of sunlight.

Such solar collectors are usually used for heating either air or water, or a combination of both. The warm air and / or hot water can then be used for heating rooms, (tap) water, etc.

More specifically, but not limitingly, this invention also relates to air-conditioning devices for which the inventor also requested protection in Belgian patent application BE-2008/0558. For all the specific advantages and details of such climate control devices, reference is made to this patent application, for which priority is given to the current patent application. Consequently, the content of BE-2008/0558 should be considered as an integral part of the current patent application. The invention from the current patent application has already been described in respect of these air-conditioning devices from BE-2008/0558 in BE-2008/0558.

As traditional energy sources become increasingly scarce, it becomes increasingly necessary to use alternative energy sources. Solar energy provides an energy source that is still not being used sufficiently. This invention therefore wants to greatly increase the possibilities for using solar energy.

A major disadvantage of existing climate control devices that include solar collectors is that solar energy is thus not used to cool rooms from, for example, a home. Quite a few solar collectors are already known that either heat air currents or water currents in order to heat a building. However, when one can extract most heat from the solar energy, namely in the summer, one needs the least heating of a building. Climatisers with solar collectors that do have the option to cool rooms, either actively use an air-conditioning system that is usually powered by electricity, or, such as the climatiser described in US 2005/199234, cool the rooms only off when there is no light on the solar collector, such as in the evening and / or at night, where they use the cooled outside air to cool the rooms.

The object of this invention is therefore to provide such a climate control device in which it is possible to use the gas heated by the solar collector and / or the liquid heated by the solar collector in order to be able to cool spaces with it.

This object of the invention is achieved by providing a air-conditioning device comprising a solar collector for heating a gas and / or a liquid with the aid of sunlight, wherein this air-conditioning device comprises an absorption cooling device, said absorption cooling device comprising a boiler for boiling an absorption liquid and wherein this climatising device is provided with guiding means for guiding the gas heated by the solar collector or the liquid heated by the solar collector along the sleeve to use this heated gas or this heated liquid as a heat source for boiling up of said absorbent liquid in the boiler.

With this climate control system, one can now use solar energy to heat spaces to the maximum in the winter, while in the summer one can use solar energy to the maximum to cool those same spaces.

In a specific embodiment of a climate control device according to the present invention, said gas is air.

The said fluid of a climatiser according to the present invention is more specifically water. For example, glycol could also be used as a liquid.

When the solar collector of a climate control device is used to heat up water or glycol, in a first specific embodiment this solar collector preferably comprises a tube system through which the water flows to heat this water with the help of the sunlight incident on the solar collector , an inlet for supplying water to this tube system and an outlet for draining water from this tube system and the air-conditioning device comprises a guide tube as a guide means for guiding the heated water from said outlet to the boiler.

In a second specific embodiment of such a climate control device in which the solar collector is used to heat up water, the solar collector comprises an absorption plate which is flushed with water and which comprises an inlet for supplying the water to this absorption plate and an outlet for discharging water from this absorption plate and wherein the air-conditioning device comprises a guide tube as a guide means for guiding the heated water from said outlet to the boiler.

Of course, such a climate control device, comprising a solar collector that can heat both water and air, is also part of the possible embodiments of climate control devices according to the present invention.

An even more preferred embodiment of a climate control device according to the present invention comprises a heat pipe, the first end of which is exposed to sunlight and the second end of which is arranged along the sleeve to absorb the heat displaced by the heat pipe from the sunlight as an additional heat source. for boiling the said absorption fluid in the boiler.

Even more preferably, such a climate-control device therefore comprises a hollow spherical mirror which is arranged with respect to the heat pipe such that sunlight incident on the hollow spherical mirror is reflected towards the first end of the heat pipe.

In a special embodiment of a climate control device according to the present invention, the sleeve of the absorption cooling device is arranged in the solar collector itself.

A climate control device according to the present invention is preferably one of the many embodiments of climate control devices as described in BE-2008/0558, which is provided with an absorption cooling device and with means for heating the water heated with the aid of the solar collector and / or the to use air heated with solar collector as a heat source for boiling up the absorption liquid in the boiler of the absorption cooling device.

The present invention will now be explained in more detail with reference to the following detailed description of some preferred embodiments of air-conditioning devices according to the present invention. The purpose of this description is to give only illustrative examples and to indicate further advantages and details of these climate control devices, and thus cannot be interpreted as limiting the scope of the invention or the patent rights claimed in the claims.

In this detailed description reference is made to the accompanying drawings by reference numerals, in which - figure 1 shows a first embodiment of an absorption cooling device of a climate control device according to the present invention; figure 2 shows a sketch of a second embodiment of an absorption cooling device of a climate control device according to the present invention; figures 3 and 4 show a third embodiment of an absorption cooling device of a climate control device according to the invention in two parts, wherein in figure 3 the first part and in figure 4 the second part are shown; - figure 5 shows a first embodiment of a climate control device according to the present invention in sketchy longitudinal section, wherein the absorption cooling device comprises a water or glycol-cooled condenser, which is installed above the solar collector and a boiler and a heat pipe, which are installed below the solar collector ; figure 6 shows the installation of an absorption cooling device and a solar collector in a climate control device according to the invention; figure 7 shows the connection of a water-flowed tube system of a solar collector to the boiler of an absorption cooling device in a climate control device according to the present invention; figure 8 shows a second embodiment of a climate control device according to the present invention in sketchy longitudinal section, wherein the absorption cooling device comprises an air-cooled condenser that is built in above the solar collector and a boiler that is built in below the solar collector; figure 9 shows a third embodiment of a climate control device according to the present invention in sketchy longitudinal section, wherein the absorption cooling device comprises an air-cooled condenser which is built in above the solar collector and a boiler which is built into the solar collector; figure 10 shows a fourth embodiment of a climate control device according to the present invention in sketchy longitudinal section, wherein the absorption cooling device comprises a water or glycol-cooled condenser, which is built in above the solar collector and a boiler and a heat pipe, which are built in below the solar collector ; figure 11 shows a fifth embodiment of a climate control device according to the present invention in sketchy longitudinal section, wherein the absorption cooling device comprises a water or glycol-cooled condenser that is built in above the solar collector and a boiler that is built in below the solar collector; - figures 12a-1 show a climatization device according to the present invention, schematically in successive longitudinal sections.

The reference numbers used refer to the following components: 1 air-conditioning device 2 absorption plate 3 air inlet 4 air outlet 5 air flow channel 6 insulation plate 7 inlet diffuser 8 outlet diffuser 9 expansion room 10 fan 14 condensation outlet 16 edge insulation 17 light-transmitting plate 18 air block 19 rubber seal 22 air-flow chamber 23 second insulation plate 31 water-permeable tubing 32 condenser 33 metal plate 34 corrugated plate 35 evaporator 50 solar collector 51 absorption cooling device 52 boiler 53 absorber 54 evaporator 55 guide tube 56 space 57 air inlet to space 58 air outlet from space 59 heat pipe 60 spherical mirror 61 absorption vessel 62 resistance 63 heat exchanger 64 extra heat exchanger 65 pump 66 fan 67 inlet heat exchanger 68 outlet heat exchanger 69 outside air inlet 70 outside air outlet 71 boiler or heat pump or ...

72 valve absorption cooling 73 inlet water 74 outlet water 75 airflow chamber 76 return boiler - absorption tank 77 glass 78 heat exchanger

The air-conditioning devices (1) according to the present invention, as shown in Figures 5 and 8 to 12, comprise a solar collector (50) for heating air and water. Furthermore, these air-conditioning devices (1) comprise an absorption cooling device (51), some possible embodiments of which have been shown separately in Figures 1 to 4.

Solar collectors (50) for heating air and / or water are already known, so that this is not discussed in more depth. For a climate control device (1) according to the present invention, solar collectors (50) as described in the Belgian patent application BE- 2008/0558 from this inventor is particularly suitable, since solar energy can be used to heat air and / or water to the maximum with the aid of these solar collectors (50). The detailed description of these solar collectors (50) from BE-2008/0558 should be considered as an integral part of the current detailed description for the advantages and specificities of these solar collectors (50).

Such absorption cooling devices (51) in each case comprise a boiler (52), a condenser (32), an evaporator (35) and an absorber (53). These absorption cooling devices (51) comprise closed circuits filled with, for example, ammonia, water, hydrogen and aqueous ammonia solutions.

In the absorption cooling devices (51) shown in Figures 1 to 4, the water heated by the solar collector (50) is guided in each case with the aid of a guide tube (55) along the sleeve (52) around this heated water or this heated air to be used as a heat source for boiling up the absorption liquid (for example a solution of ammonia in water) in the boiler (52). The boiler (52) is in each case also provided with an electrical resistor (62) to heat up the solution if coolness is desired, if insufficient solar energy is present. A heat pipe (59) can also be provided to extract extra heat from the solar energy. Such a heat pipe (59) was not shown in Figures 1 to 4, but is further discussed.

The ammonia partially evaporates from this solution in the boiler (52) and rises to the condenser (32). This condenser (32) can be a water or glycol-cooled condenser (32), as shown in Figures 1 and 3, or can be an air-cooled condenser (32), as shown in Figure 2.

A solution with a lesser concentration of ammonia in water runs into the boiler (52) under the influence of gravity via the return (76) in the absorber (53).

In the condenser (32) the ammonia condenses and flows in liquid form towards the evaporator (54). For example, the evaporator (54) is filled with hydrogen, in which the liquid ammonia evaporates, the ammonia absorbing heat from its environment. This environment is cooled in this way. Here, glycol is used as a coolant, with heat being extracted from the glycol in the evaporator (54). Water could also be used as coolant. As shown in Figures 3 and 4, this absorption cooling device (51) can be worked out, for example, in two parts. The major part, as shown in Fig. 3, can then, for example, be incorporated into a panel together with the solar collector (50), which is arranged in an outside environment where it can be exposed to sunlight. This part of the absorption cooling device (51) can then, for example, be built into the solar collector (50) as shown in Figure 5. The part with the heat exchanger (78) of the evaporator (54), as shown in figure 4, can then be arranged, for example, in an indoor environment, and this, for example, between the air inlet (3) and the air outlet (4) of the solar collector (50) In addition, a pump (65) can then be used to circulate the glycol or water in this heat exchanger (78). Additionally, an additional fan (66) can also be provided here, in this way the cooled glycol or the cooled water from the evaporator (54) is sent via the pump (65) through the heat exchanger (78), whereby it absorbs heat more quickly with the aid of the fan (66). Both said pump (65) and the additional fan (66) are preferably driven with the aid of a thermostat Figure 4 shows the air inlet (3) and the air outlet (4) of the solar collector (50) of this climate control device (1) The position of this air inlet (3) and air outlet (4) naturally depends entirely on the construction of this solar collector (50). Depending on the solar collector (50), the air inlet (3) can, for example, be placed equally well in the middle below this heat exchanger and the air outlet (4) can also be equally well positioned in the middle above this heat exchanger, depending on the solar collector (50). to be.

The mixture of hydrogen and ammonia then enters the absorber (53) from the evaporator (54). The solution with a lesser concentration of ammonia in water also arrived via reflux (76). This solution absorbs the ammonia from the evaporator (54), whereby the hydrogen can rise back to the evaporator (54). In this way again a solution with a higher concentration of ammonia flows into the absorption vessel (61) and from there into the boiler (52). The absorber (53) can optionally be provided with an additional heat exchanger (64), as shown in figure 1, which is for example flowed through with cooling water or with glycol.

As stated, in the absorption-cooling devices (51) shown in Figs. 1 to 4, the water heated by the solar collector (50) is guided in each case with the aid of a guide tube (55) along the boiler (52) around this heated water or using this heated air as a heat source for boiling up the absorption liquid in the boiler (52). This guide tube (55) may, for example, be connected to a water-permeable absorption plate (2) of a solar collector (50), or may be connected to a tube system (31) of a solar collector (50) as shown in Figure 6. This illustrated pipe system (31) comprises an inlet (73) for supplying water to this pipe system (31) and an outlet (74) for discharging water from this pipe system (31). The guide tube (55) guides the water heated in the tube system (31) from the outlet (74) to the boiler (52) and back to the inlet with the help of sunlight heated to the solar collector (50). The water is hereby pumped around with the aid of a pump (65) which is preferably controlled with the aid of a thermostat.

In these air-conditioning devices (1), in which water heated by the solar collector (50) is used as a heat source for boiling up absorption liquid in the boiler (52), it is advantageous to also use the heated water for other purposes. For this purpose, a valve (72) is shown in Figure 6, with which the supply of water from the pipe system (31) to the boiler (52) can be opened or closed. Additional valves (71) can then be provided to open or close the heated water supply to, for example, a boiler for use of the hot water in a central heating system or for use of the hot water as sanitary water, or for supply to buffer means , such as a buffer tank, in groundwater or in soil, to subsequently recover this buffered heat with the aid of a heat pump, or for generating electricity using the principle of a Stirling engine, etc.

Figure 5 shows how some parts (52, 32, 75) of an absorption cooling device (51) and of a solar collector (50) can be built into a climate control device (1) according to the present invention. The solar collector (50) comprises an absorption plate (2) and an airflow space (75) which is located along the absorption plate (2). The sleeve (52) is arranged in a space (56) adjacent to this airflow space (75), which is provided with an air inlet (57) for supplying air from the air flow space (75) to this space (56) and an air outlet (58) ) for exhausting air from this space (56).

The boiler (52) is also provided with an electrical resistor (62) to heat up the solution if cooling is required if insufficient solar energy is present. A heat pipe (59) is also provided to extract extra heat from the solar energy. This heat pipe (59) is exposed to incident sunlight at its first end. Liquid in this heat pipe (59) is hereby heated and evaporated. This vapor flows to the second end of the heat pipe (59) under the influence of the pressure difference that occurs in the heat pipe (59). At the second end, this vapor condenses, releasing heat into the environment. Here the second end is arranged against the boiler (52), so that the heat that is released when condensing the vapor is used to boil up the absorption liquid. The back condensed liquid flows into the heat pipe (59) due to the pressure difference back to the first end of the heat pipe (59), where it is again exposed to the sunlight to evaporate again.

When the heat from the heat pipe (59) is not used for the absorption cooling, this heat can be used as an additional source of heat for producing heat by means of the air inlet (57), the space (56) and the air outlet (58) hot air or hot water using the solar collector (50).

Such a heat pipe (59) is especially useful where the solar collector (50) is not placed at an angle, so that sunlight incident on it cannot be used to the maximum during the entire year. This is usually during the summer when the sunlight is almost perpendicular to the earth. The heat pipe (59) can then be positioned in such a way that the sunlight that does not enter the solar collector (50) at a correct angle, is reflected back to the heat pipe (59), so that the solar energy can still be used to the maximum cooling a home for example. In the air-conditioning device (1) as shown in Figure 9, such a placement of a heat pipe (59) with respect to a solar collector (50) is shown.

In Figure 5, further, the water-cooled condenser (32) of the air-conditioning device (1) is installed in a space above the solar collector (50). This condenser (32) could just as well be an air-cooled condenser (32). The tube that brings the solution warmed up by the boiler (52) to the condenser (32) is built into a space adjacent to the solar collector (50). This tube is pre-cooled with the aid of outside air, which flows into this space via inlet (69) and flows out of this via outlet (70), so that part of the water from this solution already condenses. Instead or additionally, fins could also be provided on this tube so that it is air-cooled.

The different embodiments of a climate control device (1) according to the present invention as shown in Figs. 5 and 8 to 10 each comprise a frame which is fixed on the outside against an outside wall of a room to be climate controlled. This frame is made of metal or plastic, or any other material that is eligible for this. The room to be air-conditioned is a room that, for example, needs to be heated, or needs to be cooled, or a room whose air needs to be dried, etc.

Away from the outer wall, this frame is bordered by a light-transmitting plate (17), which is provided for transmitting solar radiation. Edge insulation (16) is provided on the side edges of the frame. An absorption plate (2) is provided at a certain distance from the light-transmitting plate, which plate is partially enclosed at its edges in the edge insulation (16). A greenhouse effect is thus created between the light-transmitting plate (17) and the absorption plate (2), whereby heat is accumulated and the absorption plate (2) can absorb maximum heat from the sun's rays.

The light-transmitting plate (17) is preferably made of glass, and more preferably in the form of a double glass, and furthermore preferably provided with a reflective layer.

The absorption plate (2) is made of a heat-absorbing material and is preferably a metal plate and even more preferably a black corrugated plate, as in the illustrated embodiments.

On the opposite side of the absorption plate (2) than the light-transmitting plate (17), an insulating plate (6) is provided at a certain distance from this absorption plate (2). The surface of this insulation plate (6) that faces the absorption plate (2) is heat-reflecting.

In the embodiment from Figure 5, this insulation plate (6) shields the frame.

In the embodiments from figures 8 to 11, this insulation plate (6) is mounted centrally in the frame. At the rear, this frame is then provided with a second insulation plate (23). Between the two insulation plates (6, 23), the evaporator (35) of the absorption cooling device (51) is arranged between a metal plate (33) and a corrugated plate (34).

Furthermore, the air-conditioning devices (1) of Figures 5 and 8 to 11 comprise an air inlet (3) for supplying air and an air outlet (4) for discharging air.

The waves from the corrugated plate (2) define air flow channels (5) for flow of air between the air inlet (3) and the air outlet (4). The air flow channels (5) are not channels in the strict sense, but rather guide paths that determine the main flows of air between the air inlet (3) and the air outlet (4). These air flow channels (5) open into expansion spaces (9).

The air flows between the absorption plate (2) and the insulation plate (6) and between the absorption plate (2) and the light-transmitting plate (17).

For this purpose, the absorption plate (2) is in its state of use of the air-conditioning device (1) enclosed at its side edges in edge insulation (16), wherein an airflow space (22) is provided both between its upper edge and the frame and between its lower edge and the frame. The absorption plate (2) is hereby supported in the frame with one or more supports, which were not shown.

To this end, the air inlet (3) is provided above the air outlet (4), an air block (18) being provided between the insulation plate (6) and the absorption plate (2), between the air inlet (3) and the air outlet (4). The inlet diffuser (7) is then provided between the insulation plate (6) and the absorption plate (2) on the opposite side of the air inlet (3), then the air block (18) and the outlet diffuser (8) between the insulation plate (6) and the absorption plate (2) on the opposite side of the air outlet (4) than the air block (18).

Therefore, air is forced to flow completely around the absorption plate (2), so that the heat transfer between the absorption plate (2) and the air flowing through occurs on both surfaces of the absorption plate (2). Heat transfer is therefore greatly increased compared to solar collectors where only heat transfer to one surface of the absorption plate (2) is provided.

After the air inlet (3), at the beginning of the air flow channels (5), an inlet diffuser (7) is provided, to distribute the supplied air evenly over the air flow channels (5) and thus over the absorption plate (2). For the air outlet (4), at the end of the air flow channels (5), an outlet diffuser (8) is provided to guide the air that these air flow channels (5) have flowed through to the air outlet (4).

In the embodiments from Figures 8 to 11, an air flow space (22) is also provided between the upper edge of both the metal plate (33) and the corrugated plate (34) and the frame. A space is provided between the first insulation plate (6) and the metal plate (33), so that air can flow around the whole of evaporator (35), metal plate (33) and corrugated plate (34). In the gap between the corrugated plate (34) and the second insulation plate (23), an air block (18) is also provided between the air inlet (3) and the air outlet (4). Here too, an inlet diffuser (7) and an outlet diffuser (8) are provided.

The air blocks (18) of the embodiments from figures 5 and 8 to 11 are preferably provided for discharging condensed water to the underside of the space between the absorption plate (2) and the insulation plate (6), where a condensate collection with condensation outlet (14). With the air block (18) shown here, condensed water is led to the sides of the air block (18) and drained there.

The air inlet (3) of these air-conditioning devices (1) is each provided with a fan (10) for pumping the air around in the solar collector (50). Furthermore, this air inlet (3) can be provided with concentric rings to damp the noise of the fan (10). This air inlet (3) can also be provided with a pollen filter or with a dust filter.

The air outlet (4) is preferably provided with a non-return valve which automatically closes to prevent heat recoil and thus to prevent a cold fall.

The air inlet (3) and the air outlet (4) are preferably also provided towards the room to be air-conditioned with grilles (24) which can control the supply and discharge of air and, if desired, completely close off.

The air-conditioning device (1) is also preferably provided with an inlet for fresh air.

The air flow channels (5) can also be provided with, for example, helical or boomerang-shaped obstructions for maximally distributing the air over the absorption plate (2).

In the embodiment of a climate control device (1) as shown in Fig. 8, the air-cooled condenser (32) of the absorption cooling device (51) is installed on top of the solar collector (50) in a space provided for this purpose. Instead of this air-cooled condenser (32), such a climate control device (1) can equally well be provided with a water or glycol-cooled condenser (32), as shown in Figure 11. Both in the embodiment from Figure 8 and in this embodiment from Figure 8, Figure 11 shows the sleeve (52) of the absorption cooling device (51) built under the solar collector (50) in a space provided for this purpose.

In the embodiment as shown in Figure 9, the sleeve (52) is built into the solar collector (50) itself. In this embodiment, an air-cooled condenser (32) was also installed in a space on top of the solar collector (50). Equally well, this air-cooled condenser (32) could also be replaced by a water or glycol-cooled condenser (32).

Such a climate control device (1) as shown in Figs. 8, 9 and 11 are particularly suitable for placing under a slope, so that sufficient sunlight always falls on the solar collector (50) when the sun shines. Where it cannot be placed under a slope, it is more advantageous to install a climate control device (1) as shown in figure 5 or 10. This also includes a heat pipe (59) that is built into a space delimited with glass (77) that is placed under a slope, so that sunlight will always fall on it when the sun shines. This glass (77) can also be advantageously designed on both sides and be provided with a reflective layer on the inside, in order to create a greenhouse effect in the space of the heat pipe (59). Furthermore, as shown, a hollow spherical mirror (60) is preferably placed in this space relative to the heat pipe (59) such that incident sunlight is reflected on it towards the heat pipe (59).

The air-conditioning device (1) from Figures 5 and 10 are also provided with a water or glycol-cooled condenser (32). These could just as well be equipped with an air-cooled condenser (32). In these embodiments, the boiler (52) is re-installed in a space below the solar collector (50), the heat pipe (59) being arranged in that same space.

The installation of the absorption cooling device (51) in such air-conditioning devices (1) as shown in Figures 8 to 11 is further clarified by the different successive layers of such a air-conditioning device, as shown in Figures 12a-1. to discuss.

Figure 12a shows the light-transmitting plate (17) of the solar collector (50), which is preferably double-glazed, provided with a reflective layer. At the bottom of the solar collector (50) a space is provided in which the sleeve (52) is arranged, together with the heat pipe (59). This is therefore an illustration of this layer in a climate control device (1) as shown in Figure 10, which is provided with a sleeve (52) and a heat pipe (59). This sleeve (52) and heat pipe (59) are no longer shown in the following figures 12b-1.

Figures 12b to 12e show a double-walled corrugated plate as an absorption plate (2), which is internally provided with a water-permeable pipe system (31).

Figure 12b shows the first wall of the corrugated plate (2) and Figure 12e shows the second wall of the corrugated plate (2). An airflow space (22) is provided both between its upper edge and the frame and between its lower edge and the frame to allow air to flow around the corrugated plate (2). The double-walled corrugated sheet (2) is hereby supported with the aid of supports which were not shown.

Figure 12c shows a possible water-flowable tube system (31) and an air-cooled condenser (32), which is arranged above the solar collector (50). Figure 12d shows the same water-permeable tube system (31) and a water-cooled condenser (32), which is arranged above the solar collector (50). The layers from these figures therefore do not occur together in the air-conditioning device (1), but depict alternative embodiments. The condensers (32) were only shown in these figures and not repeated in the other figures. Optionally, solar cells can be provided on the sun-facing side of the condenser (32) to provide the control of the absorption cooling device (51) on electricity generated with the aid of solar energy. In this way the entire climate control device (1) can again run on solar energy.

Many variants of such a tube system (31) are possible. The double-walled corrugated plate (2) could also be designed in such a way that it is water-permeable. A single-walled corrugated sheet (2) against which a water-flowable tubing (31) is arranged could also serve as an alternative. This part of the air-conditioning device (1) is provided to be used to produce hot water. With the pipe system (31) of Figure 12c, it is possible to let water run through this pipe system (31) on the basis of the thermosiphon principle. A water pump can also be installed to pump the water through this pipe system (31). This water pump can, for example, be controlled with the aid of a thermostat.

The hot water that is produced in this way can be used directly in a central heating system. However, this can also be buffered in a buffer tank, in groundwater or in soil to be recovered with the aid of a heat pump, etc. The necessary buffer means then form part of the air-conditioning device (1). In the absence of sunlight, it can then also be used as a radiator, by sending the buffered heat back through the tubing (31) using a medium. The heat produced could further be used to use the principle of a Stirling engine generate electricity or can be used as domestic hot water, etc.

Figure 12f shows the air inlet (3), an inlet diffuser (7), the air outlet (4) and an outlet diffuser (8) of the solar collector (50), with an air block (18) in between. Dotted line also show the air inlet (3) and the air outlet (4) of the part of the air-conditioning device (1) shown in Figures 12h-1. The air block (18) is here centrally provided with a drain to drain condensed water to the underside of the space between the absorption plate (2) and the insulation plate (6). A condensate trap and condensate outlet may also be provided, but were not shown here.

Figure 12g shows the insulation plate (6) of this climate control device (1).

Figures 12h-j show the evaporator (35) of the absorption cooling device (51), which is provided on one side with a metal plate (33) and on the other side with a corrugated plate (34). An airflow space (22) is provided between the upper edge of both the metal plate (33) and the corrugated plate (34) and the frame and between the lower edge of both the metal plate (33) and the corrugated plate (34) and the frame.

Figure 121 shows the second insulation plate (23) of the air-conditioning device (1). A certain gap is provided between the first insulation plate (6) and the metal plate (33), so that air can flow around the whole of evaporator (35), metal plate (33) and corrugated plate (34). In the second insulation plate (23) an air inlet (3) and an air outlet (4) are provided for the part of the air-conditioning device (1) shown in Figs. 12h-1. Also shown in these figures 12h-1 are the air inlet (3) and the air outlet for the part of the air-conditioning device (1) shown in figures 12a-g. In order to control the air around this whole, an air block (18) between the air inlet (3) and the air outlet (4) is provided in the gap between the corrugated plate (34) and the second insulation plate (23). Furthermore, an inlet diffuser (7) and an outlet diffuser (8) are also provided here.

A climate control device (1) according to the present invention, which is also provided with an absorption cooling device (51) for cooling the space, is preferably provided with shielding means which, in a first position of use, are in a stowed state and in a second position of use. shielding the absorption plate (2), or better the parts of the absorption cooling device (51) from the light-transmitting plate (17) of the solar collector (50). These screening means (36) can be, for example, a roller shutter or a roll-up and roll-down sunshade.

Just as well as these shielding means (36), a second part can be provided in the air-conditioning device (1), analogous to the embodiment of Figures 8 to 12, which is provided with the parts of the absorption cooling device (51) and which is shielded from the first part of the air-conditioning device (1) by means of an insulating plate (6).

By shielding the means for cooling the space from the light-transmitting plate, it is prevented that the cooling effect of the air-conditioning device (1) is counteracted by incident sunlight.

Claims (8)

Air-conditioning device (1) comprising a solar collector (50) for heating a gas and / or a liquid with the aid of sunlight, characterized in that this air-conditioning device comprises an absorption cooling device (51), said absorption cooling device (51) ) comprises a boiler (52) for boiling up an absorption liquid and that this air-conditioning device (1) is provided with guide means (55,56,57,58) around the gas heated by the solar collector (50) or the gas heated by the solar collector (50) conducting heated liquid along the sleeve (52) to use this heated gas or this heated liquid as a heat source for boiling the said absorption liquid in the sleeve (52). Air-conditioning device (1) according to claim 1, characterized in that said gas is air. Air-conditioning device (1) according to one of the preceding claims, characterized in that said liquid is water or glycol. Air-conditioning device (1) according to claim 3, characterized in that the solar collector (50) comprises a tube system (31) through which the water flows to heat this water with the help of the sunlight incident on the solar collector (50) , an inlet (73) for supplying water to this tube system (31) and an outlet (74) for draining water from this tube system (31) and that the air-conditioning device (1) has a guide tube (55) as a guide means (55) for guiding the heated water from said outlet (74) to the boiler (52) and back to the inlet (73). Air-conditioning device (1) according to claim 3, characterized in that the solar collector (50) comprises an absorption plate (2), which is designed to be flowable with water and which comprises an inlet for supplying the water to this absorption plate (2) and an outlet for draining water from this absorption plate (2) and that the air-conditioning device (1) comprises a guide tube (55) as guide means (55) for guiding the heated water from said outlet to the boiler (52) and back to the inlet. Air-conditioning device (1) according to one of the preceding claims, characterized in that it comprises a heat pipe (59), the first end of which is exposed to sunlight and the second end is arranged along the ridge (52) to heat pipe (59) displaced heat absorbed from the sunlight as an additional heat source for boiling the said absorption fluid in the boiler (52). The air-conditioning device (1) according to claim 6, characterized in that it comprises a hollow spherical mirror (60) arranged with respect to the heat pipe (59) such that sunlight incident on the hollow spherical mirror (60) is reflected towards the first end of the heat pipe (59). Air-conditioning device (1) according to one of the preceding claims, characterized in that the sleeve (52) of the absorption cooling device (51) is arranged in the solar collector (50).