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|Step_Title=Watermaker 2 - Evaporation tank 2.2 - Step 1 | |Step_Title=Watermaker 2 - Evaporation tank 2.2 - Step 1 | ||
− | |Step_Content= | + | |Step_Content=Step 1: Cutting the sheet into 5 sections |
− | * | + | * 5-sided cut-out |
− | * | + | * Base side: 200x200mm |
− | * 4 | + | * 4 side panels: 200x355mm |
− | * | + | * Fold the side faces on top to create edges for screwing on a lid (using the same system as in the previous step). |
− | * | + | * Welding of the base and 4 sides |
|Step_Picture_00=_Ebauche__Dessalinisateur_solaire_autonome_Capture_d_e_cran_2017-11-26_a_14.49.13.png | |Step_Picture_00=_Ebauche__Dessalinisateur_solaire_autonome_Capture_d_e_cran_2017-11-26_a_14.49.13.png | ||
|Step_Picture_01=Ebauche_Dessalinisateur_solaire_autonome_Capture_d_e_cran_2017-11-08_a_22.36.25.png | |Step_Picture_01=Ebauche_Dessalinisateur_solaire_autonome_Capture_d_e_cran_2017-11-08_a_22.36.25.png | ||
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− | |Step_Title= | + | |Step_Title=Watermaker 2 - Evaporation tank 2.2 - Step 2 |
− | |Step_Content= | + | |Step_Content=Step 2 : Holes |
− | + | Four holes to drill: | |
− | * | + | * A water inlet hole from the storage tank, which accommodates a flow regulator (such as a flush valve for autonomous use, but a simple manual valve may suffice). This hole should be at the top of the tank. The 2.2.2.2 pipe passes through it. |
− | * | + | * An outlet hole for brackish water preheated by steam condensation, at the bottom of tank 2.2, towards evaporation tank 2.1. Pipe 2.2.2.3 passes through. |
− | * | + | * A steam inlet hole from the evaporation tank 2.1 (condensation coil inlet 2.2.2.1), located below the water level in tank 2.2. |
− | * | + | * A drinking water outlet hole (condensing coil outlet 2.2.2.1), lower than the previous hole. |
− | * | + | * Note: these holes must be made in relation to the other parts of the prototype (particularly for the condensation coil 2.2.2.1 where it is advisable to manufacture it before drilling the holes: see next step). |
− | * | + | * See image where the brackish water outlet hole is not shown (water inlet: top right and the 2 ends of the condensing coil 2.2.2.1 are top left and bottom right). |
|Step_Picture_00=Ebauche_Dessalinisateur_solaire_autonome_Capture_d_e_cran_2017-11-26_a_14.35.54.png | |Step_Picture_00=Ebauche_Dessalinisateur_solaire_autonome_Capture_d_e_cran_2017-11-26_a_14.35.54.png | ||
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− | |Step_Title= | + | |Step_Title=Watermaker 2 - Evaporation tank 2.2 - Step 3 |
− | |Step_Content= | + | |Step_Content=Step 3: Condensing coil 2.2.2.1 (where the steam condenses) |
− | * | + | * Surround the copper tube 2.2.2.1 with a rigid spring (to obtain a circular shape). |
− | * | + | * If the copper is not annealed, heat it to a red colour and immerse it in cold water immediately. |
− | * | + | * Then give it a helical shape by gradually winding it around a cylinder. |
− | * | + | * Insert the coil 2.2.2.1 into the tank 2.2 through the 2 holes previously made. |
|Step_Picture_00=_Ebauche__Dessalinisateur_solaire_autonome_15.png | |Step_Picture_00=_Ebauche__Dessalinisateur_solaire_autonome_15.png | ||
|Step_Picture_01=_Ebauche__Dessalinisateur_solaire_autonome_11.png | |Step_Picture_01=_Ebauche__Dessalinisateur_solaire_autonome_11.png | ||
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− | |Step_Title= | + | |Step_Title=Watermaker 2 - Evaporation tank 2.2 - Step 4 |
− | |Step_Content= | + | |Step_Content=Step 4: Lid 2.3 of tank 2.2 |
− | * | + | * Drill at least 8 holes on the edges of the tank 2.2 for the screws that will secure the lid 2.3. |
− | * | + | * Cut a 250x250mm square sheet to serve as the lid 2.3 and drill at least 8 holes in it corresponding to the previous ones so that the lid can be screwed on; |
− | * | + | * A bicycle inner tube can be inserted between the edges of tank 2.2 and lid 2.3 for a better seal. |
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− | |Step_Title= | + | |Step_Title=Total circuit 3 |
− | |Step_Content= | + | |Step_Content=Now that the two main parts have been built, all that remains is to close the circuit where the heat transfer fluid will circulate! The heat transfer fluid is vegetable oil, which will be circulated by the 3.2 pump built into the circuit. 3.1 pipes should be well insulated (insulate yourself if necessary) and flexible (so you can move the prototype easily). |
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− | |Step_Title= | + | |Step_Title=Pump 3.2 |
− | |Step_Content= | + | |Step_Content=When choosing the 3.2 pump, care must be taken to use an oil pump. Such a pump may be a recovery pump and may be found on motorbikes or cars or any other machine whose operation requires an oil pump. |
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{{Notes | {{Notes |
Prototype de L'eauTech | Catégories : Eau, Énergie
A project by engineering students to build a low-tech solar watermaker to help disadvantaged communities.
A project by engineering students to build a low-tech solar watermaker to help disadvantaged communities.
dessalinisateur, Solaire, eau, potable, low-tech, en fr 1
L'EauTech is a project run by six students from the Ecole Centrale de Lille in collaboration with the Gold Of Bengal association. The aim of the project is to build a low-tech solar watermaker, based on two projects already carried out at the Ecole Centrale de Lille: the Opensol project, which created a low-tech solar concentrator, and the Delta project, which created a low-tech watermaker.
You can find and download a summary of this tutorial in PDF format by clicking on this link: https://drive.google.com/open?id=1aqvStMdIfSuhj4bioxSa0Zk8wiuJO1vL .
1. Solar concentrator
1.1. Frame
1.2 Main reflector
1.2.1. Main reflector support
1.2.2. Mirrors
OR
1.3. Secondary reflector
1.3.1. Copper pipe and reflector support
1.3.2. Secondary reflector and copper pipe
2. Watermaker
2.1. Evaporation tank
2.1.1. Frame
2.1.2. Stages
2.1.3. Copper pipe
2.2 Condensation tank
2.2.1. Frame
2.2.2. Copper pipe
2.2.2.1. Copper condensing coil 2.2.2.2. Copper water inlet pipe 2.2.2.3. Copper water outlet pipe
2.2.3. Cover
3. Total circuit
3.1 Circuit-closing pipes
3.2. Pump
1 Solar concentrator
1.1 Frame 1.2 Main reflector 1.2.1 Support for main reflector 1.2.2 Mirrors 1.3 Secondary reflector 1.3.1 Support for secondary reflector 1.3.2 Secondary reflector and copper pipe
2 Watermaker
2.1 Evaporation tank 2.1.1 Frame 2.1.2 Stages 2.1.3 Copper pipe 2.2 Condensation tank 2.2.1 Frame 2.2.2 Copper pipes 2.2.2.1 Copper condensing coil 2.2.2.2 Copper water inlet pipe 2.2.2.3 Copper water outlet pipe 2.2.3 Cover
3 Total circuit
3.1 Circuit closing pipes4 3.2 Pump
The system can be split into two sub-systems: the solar concentrator 1 and the watermaker 2.
In the solar concentrator 1, the sun's rays are reflected by the main reflector 1.2 and the secondary reflector 1.3 towards a copper tube 1.3.2 in which a heat transfer fluid (oil) circulates. This fluid is then heated until it boils. It circulates in a closed circuit thanks to a pump 3.2.
This circuit goes through an evaporation tank 2.1 filled with dirty water, which is heated to boiling point by the heat transfer fluid. This water vapour then goes through two successive distillation stages 2.1.2 in the evaporation tank 2.1, before reaching the condensation tank 2.2 in which the water vapour is condensed by a coil 2.2.2.1 through which it travels before emerging as clean liquid water.
Step 1: Frame 1.1
Step 2: Main reflector brackets 1.2.1
Step 3: Mirrors 1.2.2
Note: The 1.2.2 mirror can be replaced by an aluminium plate that can be covered with self-adhesive mirror.
Step 1: Cutting the battens
Step 2: Secondary reflector support 1.3.1 and clamps
Step 4: Consolidation
Step 5: Screwing
The secondary reflector 1.3 reflects light rays not intercepted by the copper tube 1.3.2 back onto it. It is located above the tube 1.3.2.
Step 1: Cutting the PVC pipe
The PVC tube is what supports the secondary reflector 1.3. It holds the soda cans that reflect the light rays.
Step 2: Cutting and gluing the cans
As the cans are made of aluminium, the inside of the can proved to be a good alternative for reflecting light rays.
Step 1: Manufacture of the frame 2.1.1
Stage 2: Manufacture of stages 2.1.2
Step 3: Making the 3 holes for the copper pipes inlet to the condensing coil 2.2.2.1 and pipe 2.2.2.3 which passes through the tank 2.1 at the bottom.
Step 1: Cutting the sheet into 5 sections
* Base side: 200x200mm * 4 side panels: 200x355mm
Step 2 : Holes
Four holes to drill:
Step 3: Condensing coil 2.2.2.1 (where the steam condenses)
Step 4: Lid 2.3 of tank 2.2
Now that the two main parts have been built, all that remains is to close the circuit where the heat transfer fluid will circulate! The heat transfer fluid is vegetable oil, which will be circulated by the 3.2 pump built into the circuit. 3.1 pipes should be well insulated (insulate yourself if necessary) and flexible (so you can move the prototype easily).
When choosing the 3.2 pump, care must be taken to use an oil pump. Such a pump may be a recovery pump and may be found on motorbikes or cars or any other machine whose operation requires an oil pump.
Published
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