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Showing posts with label AQUARIUM. Show all posts
Showing posts with label AQUARIUM. Show all posts

AQUAPONICS IN FISH FARMING

A mini aquaponic system is an excellent means of demonstrating aquaponic principles and the nitrification cycle in a recirculating aquatic environment. Following are instructions for building a small system that is ideal for a teacher, students of hobbyists who wants to get a start in aquaponics.  If you are looking for a complete kit, be sure to check out our Clear Flow Aquaponic Systems®

AQUAPONIC DEMOSTRATION BY KINGSWAY AGRO SERVICES.

Following is a list of the parts you'll need to build an aquaponic system. The next section, Components Explained, describes and explains each of these components and includes recommendations for alternative items and specific products.
  • A tank for the fish: 3-20 gallon, glass or plastic container ($5 - $20)
  • Gravel - 2.5 lbs./gravel for every 5 gallons of water in the fish tank ($2 - $5)
  • Water pump - 3-4 watt pump capable of lifting 18” - 54” at 30 - 100/gal/hour (small circulation or fountain pump is ideal) ($19 - $40)
  • 3 ft. of plastic tubing that fits the outlet on your water pump ($1 - $2)
  • Aquarium air pump sized for the number of gallons in your fish tank ($8 - $16)
  • Air stone (1” - 3”) ($1 - $2)
  • 3 ft. of air tubing to connect the air pump to the air stone (must fit the air pump outlet) ($ 1)
  • Grow Bed - must sit on top of fish tank and be 3” - 8” deep ($ 5 - $20)
  • Growing Medium - enough pea gravel, perlite, coconut coir, expanded clay pebbles or peat moss to fill the grow bed ($2 - $5)
  • pH test kit and, depending on the pH of your water, pH down or pH up ($5 - $15)
  • Fish and plants

Tools Required

  • Drill with 1/4” or 3/16” bit and 1/2” bit
  • Scissors
  • Electrical tape

Component Explanation

A tank for the fish
The fish tank can be a glass or plexi-glass aquarium or you can use any other clean container that holds water, for example, a plastic tub, bucket or barrel. We recommend anything between 3 - 20 gallons, although, you can go with a larger tank if you have the space. Small, clean plastic amphibian cages, available in most pet shops, make an excellent mini-system. They hold about 3 gallons and are quite inexpensive.
The standard sized fish aquariums of 10 and 20 gallons are also reasonably priced. The larger the tank, the larger grow bed area you can support. As a general rule, you can support 1 - 2 square feet of growing area for every 10 gallons of fish tank water.
Gravel for tank bottom
The gravel serves as a home to the nitrifying bacteria that convert ammonia to nitrite and then to nitrate, which can be used by the plants. Most pet stores carry natural or colored aquarium gravel. The individual pebbles are about 1/8” in size. Be sure to wash the gravel thoroughly before using it because it is often dusty. Unwashed gravel will cloud your tank water.
Water pump and tubing
A small water pump is used to pump the water from the fish tank to the grow bed. After the water is pumped into the grow bed, it gravity-feeds back to the fish tank. You'll need enough tubing to go from the outlet on the pump to the top of your grow bed and form a circle within it.
Air pump, air stone and tubing
You need an air pump to blow air into the tank water for both the fish and the plants. Tubing connects the air pump to an air stone at the bottom of the tank. The air stone breaks the stream of bubbles coming from the air pump into micro-bubbles, which greatly increase the oxygenation in the water.
Grow bed
The grow bed, which sits on top of the tank, must be slightly larger than the length and width of the fish tank. The grow bed is filled with a growing medium that the plants grow in. A plastic Rubbermaid container, a garden planter or other container that will sit on top of the tank will work fine. The container should be between 3” - 8” deep.
You can use a plastic tub or, for a very nice looking unit, build one out of plexi-glass and seal it with a non-toxic, silicone glue. If you build the grow bed, you can accommodate an aquarium light by making a cavity in the grow bed that the light can slide into. If you are using some other kind of container, a light can sit just behind it if there is room.
Growing medium
A growing medium is a porous, chemically inert material that holds the plant roots and maintains moisture. Examples include: perlite, expanded clay pebbles, peat moss, pea gravel and coconut coir. You need enough to fill your grow bed.
Fish and plants
In an aquaponic system, the fish provide the nutrients the plants need and the plants purify the water by consuming those nutrients.

Optional Components

Aquarium heater (for tropical fish)
Most gardeners or aquarists setting up an aquaponic system choose ornamental fish for the tank and most ornamental fish originate in tropical waters. A tank temperature of 78 degrees F will need to be maintained for tropical fish. Two kinds of aquarium heaters are available, submerged and tank-side mounted. Either will work, but be sure the heater you choose is sized for the number of gallons of water in your fish tank. If the aquaponic system is placed in an area where the air temperature is maintained between 70 - 76 F or, if you choose cool water fish goldfish, you do not need a heater.
Light for fish tank
Most aquariums have a florescent light so you can see the fish and monitor their health. You can add one if you'd like but it is not a necessity.
Grow light for the plants
If you establish your system in an area with low light levels, you may need to add artificial light for healthy plant growth. Keep in mind that bright light will quickly encourage algae growth in the fish tank. You should try to point an artificial light in a way so that it does not directly penetrate the fish tank. If you do have rapid algae growth, you can scrape the interior walls of the fish tank or buy a plecostomus, a fish that eats algae. If the grow bed is in a windowsill with bright sunlight, in a greenhouse or planted with plants requiring low light levels, a grow light isn't necessary.

Assembly Instructions

Step 1

Thoroughly wash the gravel and place in the bottom of the fish tank.

Step 2

Drill 1/8” or 3/16” holes in the bottom of the grow bed every 2 square inches so the water can drain into the tank. In one of the back corners of the grow bed, drill a 1/2” hole for the tubing from the water pump to pass through.

Step 3

Place the water pump in the fish tank then set the grow bed on top of the tank. Feed the tubing from the water pump through the 1/2” hole. Leave enough tubing to extend about 3/4 the height of the grow bed and to loop around the inside of the grow bed. Cut off any excess tube and fold the end over. Seal the folded piece with electrical tape.

Step 4

Fill the grow bed with the growing medium to just under the top of the tube.

Step 5

Puncture small holes every 2 inches in the section of tubing that loops in the grow bed.

Step 6

Cover the loop of tubing with an inch or two of growing medium.

Step 7

Fill the fish tank with water. Plug in the pump to ensure that the water is pumped into the grow bed, trickles down through the growing medium and continuously back into the tank. Depending on the size of your tank, grow bed and pump, you may have to adjust to flow.

Step 8

Connect you air pump to the air stone with the air tubing. Place the air stone in the tank and plug in the air pump. A steady stream of bubbles should rise through the water, providing fresh air

Step 9

Check the pH of your water using litmus paper, a pH test kit or pH meter. Limtmus paper and inexpensive pH test kits are avilable in most hardware pool supply stores. The ideal pH is 7.0 for an aquaponic system. If it is higher than 7.2 you should lower it with a “pH down” product and if it is lower than 6.8 you should raise it with a “pH up” product, both of which are available from aquarium stores.

Step 10

Allow the unit sit for 24 hours to be sure all chlorine has dissipated from the water. If you want to stock you fish right away, you'll need to add a chlorine remover, which is available from aquarium shops and pet stores.

Step 11

Add your fish to the fish tank. Initially, you should lightly stock your tank with no more than 1/2” of fish per gallon of water. Once your system has been established for over a month you can increase to fish density to 1” per gallon of water.

Step 12

Ideally you should wait approximately 4 weeks to add plants to your system, but if you are eager to plant it, add just a few plants or seeds and increase plant density in a month or so when your system is well established.

Fish and Plant Selection

In selecting your fish, choose hardy species like goldfish, guppies, angelfish and other common varieties available from your local aquarium or pet store. Most desktop aquaponic gardens do not include food fish because there isn't enough space to grow them to maturity. If you do want to raise food fish or a local species, be sure to provide adequate water temperature and feed.
A desktop aquaponic garden will support most varieties of house plants, lettuce, spinach and herbs. Ideally, you should start your plants from seed in a grow cube (also called jiffy cubes) or loose in the growing medium in your grow bed. Very small seed can be sprouted by placing them between two paper towels that are kept warm and most. You can also transplant plants from an existing hydroponic system with good results.
If you must transplant from soil, thoroughly wash away all of the dirt surrounding the roots and wash the leaves being sure to remove any pest insects.
You will have the most success with leafy vegetables like lettuce, spinach and herbs or houseplants such as anthodium, dracaena, dieffenbachia and philodendron.
You can also plant aquatic plants in the fish tank. They will provide a more natural habitat for the fish and aid in purifying the water.

Nitrification Cycle

Fish excrete ammonia in their wastes and through their gills. In sufficient quantities ammonia is toxic to plants and fish. Nitrifying bacteria, which naturally live in the soil, water and air, convert ammonia first to nitrite and then to nitrate. In your aquaponic system the nitrifying bacteria will thrive in the gravel in the fish tanks and in the growing medium in the grow bed. Nitrate is used by plants to grow and flourish. The plants readily uptake the nitrate in the water and in consuming it, keep the levels safe for the fish.

System Maintenance

The only daily input in this system is fish food. With any aquarium, frequent small feedings are better than fewer large feedings. Unless you have a really large tank, a pinch of food is all it takes. You should never feed more than the fish can completely consume in 5 minutes. Most tropical fish will be fine with a dry flake fish food but occasionally varying their diet with brine shrimp or blood worms will definitely keep them healthier and happier.
The water level in the tank will slowly decrease as some water is absorbed by the plants and some evaporates. Every few days you should refill the tank to the top. About once a month a 10 - 15% of the tank water should be siphoned out and replaced with fresh water.

Experiment Ideas

An aquaponic system is an excellent tool for experimentation and proving or disproving a hypothesis. Following are four theories and experiments that can be done to prove each.

Theory 1

Although an aquaponics system will produce good plant growth, the hydroponic system with precisely measured nutrients will produce faster growing, higher quality plants.

Experiment 1

Set up a hydroponic system and an aquaponic system. Monitor and document which one best supports plant growth.

Theory 2

A healthy aquaponic system has ample nutrients for leafy crop growth, but fruiting plants will be lacking sufficient quantities of certain elements.

Experiment 2

Plant a leafy crop such as lettuce and a fruiting crop such as tomatoes and monitor to see which one does best in aquaponics.

Theory 3

A pH of 7.0 is the best for an aquaponic system. At a lower pH, nitrification slows down and the water quality will be reduced, stressing the fish, and at a higher pH the plants will be stressed.

Experiment 3

Set up three aquaponic systems. Run each at a different pH, one at 6.0, one at 7.0 and one at 8.0. Observe and document the plant growth and fish health at varying pH levels.

Theory 4

Denser fish populations will support more plant growth due to increased fish waste and nutrients in the water.

Experiment 4

Set up two aquaponic systems, stock one with 1” of fish/gallon of water and the other with 1/2” of fish per gallon of water. Observe the difference in plant growth.


PREPARED FEASIBILITY STUDY ON FISH BUISNESS ON 5,000 CATFISH

In fish farming the first culture chamber used was the earthen pond, and because of the requirements about the quality of soil which must have 75% clay and retain water. Other qualities which disqualifies other farm sites brought about a concrete pond in which one can culture fish in any farm site even in the compound. But because of some problems in concrete ponds brought about the latest pond designed which is tarpaulin pond, this pond is mobile and does not need one going into any form of constructions.
 LIMITATIONS OF CONCRETE PONDS
1. The chemical from the cement affects the fish all year because of the reaction with water.
 2. The concrete pond is prone to be plastered every season because of the cracks as a result of reactions with water and cement.
 3. The cost is high.
 4. The growth rate of the fish is not encouraging.
 5. A lot of treatment is needed before the pond can be used after construction
. ADVANTAGES OF TARPAULIN POND
1. You can culture fish even inside your compound.
 2. You can use a temporally site to start your fish farm.
3. It is the ideal replacement for earthen pond.
 4. It enhance faster growth of fish. 5
. It makes the fish to feel as if the environment is natural.
 6. It is cheaper and does not need servicing all season.
 COST IMPLICATION IN USING A TARPAULIN POND.
 A pond of 10ft by 20ft will cost N50,000 and galvanized pipe used for the stands for the 20ft by 10ft by 4ft is N18,000, making the total cost of the pond to be N68000.
 COST OF POST FINGERLING OR THE FISH SEED.
 We have three breeds, and their prize on growth rate differs, we have one of N10, N20 and N35 respectively.
 And after six months of culture their growth rate will be 1kg, 1.5kg, and 2.5kg respectively.
So the cost for N10 is N50,000
 N20 is N100,000
 N35 is N175,000
 But the size of the fish determines the market, if 1kg of fish is sold at N400 the 2.5kg will be sold at N1000 plus.
 COST OF FEEDING
 In fish farming the cost of feeding goes up to 75% of the money spent in fish farming and that is why is good that one must culture the breed that will grow well.
 N1000 fishes will consume 40 bags of feed and a bag is sold at N4500 40x5 ponds = N200 bags in all 200x4500 = 900,000
 WATER TREATMENT= This treatment is done in water before stocking fish to prevent shock and any form of bacterial in the water. Each pond will cost N5000 5000x5 ponds = N25,000
GROWTH BOOSTER= This is a multi mineral supplement mixed together with the feed everyday to boost its growth
 PLUMBING= The outlet and inlet connection of the ponds will cost N40,000.
THERE ARE MANY WAYS OF REDUCING THE COST OF FEEDING, AT LEAST SAVING 20% OF THE COST OF FEEDING. THE BENEFITS IS FOR THOSE AM CONSULTING FOR TOTAL COST
 Cost of Ponds : 68,000x5 = N 340,000
 Cost of fish seed : = 175,000
 Cost of feeding: =900,000
 Cost of water treatment =2 5,000
 Cost of booster : = 80,000
 Plumbing: =40,000
 TOTAL: = 1,560,000
COST OF INPUT = N1,560,000
 OUT PUT
When the good breed is culture and fed well the average weight of the fish will be 2kg. And at whole sale price will be at N700 and if 4,800 fishes survives the out put will be 4,800xN700
which is = 3,360,000
 Gain = output – input = 3,360,000 – 1,560,000 = 1,8000,000 profit
 OUR SERVICES Our consultant services covers the farm set up and weekly or monthly check ups on the welfare of the farm to ensure that the fishes are doing well. Our charge for consultancy depends on what the owner wants such as full service or short services. CALL US ON 08032861326 +2348032861326 for help and consultancy.

HOW TO SETUP A MOBILE POND IN NIGERIA

Mobile pond (e.g) tarpaulin is the most cheapest and long lasting pond first used in advanced countries like china and other countries that have advanced in fish farming.
Nigeria as one of developing countries in fish farming has a very nice weather condition that fits the mobile pond. The fixing and management is very easy. see the picture below.
Call us 08032861326

tapoline pond

AGRIC LOANS IN NIGERIA

In Nigeria there are many financial intitutions established to help poor masses to achieve there dreams of becoming self employed and small scale industry or farms owners. But many does not know how to go about getting this help, and some does not know how to go about applying for such loans.
We undertake and write proporsals for people that need such loanes to start there business and to boost thier variouse businesses.
We afflict with financial instisutions like:
AsAA
NASI
AGRIC BANKS
MICRO FINANCE BANKS.
All you have to do is to send your Email address and your business plan which will be of help to us in writting the proporsal. And the feasibility study must be attacched to it wich we are going to prepare with your business plan.
After paying for our services, we will send you a copy and then to the Agric bank or any of the above for processing of your loane or you can eqaully present it your self. The most important thing is the convincing factor that will make a great differance. We have helped many to reach there goal and put smiles on many faces.
For payment of our services you can do that by paying in following account numbers:
First bank:3052856984
Access bank:0026460172.
Call: 08032861326.
Account name : obialor kingsley.o.

Why some fish farmers are not making profit in fish farming buisness.

Why some fish farmers are not making gains in fish culture is because of.
(1) culturing bad species.
(2) how there fish farm is been constructed.
(3) In ability to manipulate the growth rate when the fish is still at the juvenile stage.
(4) pond treatment.
And many more, farmers must understand that in fish farming there are more to learn before engaging in fish farming. Always go for a consultancy before you start your fish farming.
For help and consultancy call us 08032861326.

Elements of good feasibility study by Kingsway Agro Services

The Elements of a Good Feasibility Study
By kingsway Agro Services "Those who do not do their home work do not graduate." Bryce's Law In its simplest form, a Feasibility Study represents a definition of a problem or opportunity to be studied, an analysis of the current mode of operation, a definition of requirements, an evaluation of alternatives, and an agreed upon course of action. As such, the activities for preparing a Feasibility Study are generic in nature and can
be applied to any type of project, be it for systems and software development, making an acquisition, or any other project. There are basically six parts to any effective Feasibility Study: 1.
 The Project Scope which is used to define the business problem and/or opportunity to be addressed. The old adage, "The problem well stated is half solved," is very apropos. The scope should be definitive and to the point; rambling narrative serves no purpose and can actually confuse project participants. It is also necessary to define the parts of the business affected either directly or indirectly, including project participants and end-user areas affected by the project. The project sponsor should be identified, particularly if he/she is footing the bill. I have seen too many projects in the corporate world started without a well defined project scope. Consequently, projects have wandered in and out of their boundaries causing them to produce either far too much or far too little than what is truly needed. 2. The Current Analysis is used to define and understand the current method of implementation, such as a system, a product, etc. From this analysis, it is not uncommon to discover there is actually nothing wrong with the current system or product other than some misunderstandings regarding it or perhaps it needs some simple modifications as opposed to a major overhaul. Also, the strengths and weaknesses of the current approach are identified (pros and cons). In addition, there may very well be elements of the current system or product that may be used in its successor thus saving time and money later on. Without such analysis, this may never be discovered. Analysts are cautioned to avoid the temptation to stop and correct any problems encountered in the current system at this time. Simply document your findings instead, otherwise you will spend more time unnecessarily in this stage (aka "Analysis Paralysis"). 3. Requirements -
how requirements are defined depends on the object of the project's attention. For example, how requirements are specified for a product are substantially different than requirements for an edifice, a bridge, or an information system. Each exhibits totally different properties and, as such, are defined
differently. How you define requirements for software is also substantially different than how you define them for systems. 4. The Approach represents the recommended solution or course of action to satisfy the requirements. Here, various alternatives are considered along with an explanation as to why the preferred solution was selected. In terms of design related projects, it is here where whole rough designs (e.g., "renderings") are developed in order to determine viability. It is also at this point where the use of existing structures and commercial alternatives are considered (e.g., "build versus buy" decisions). The over riding considerations though are: Does the recommended approach satisfy the requirements? Is it also a practical and viable solution? (Will it "Play in Pough keepsie?") A thorough analysis here is needed in order to perform the next step... 5. Evaluation - examines the cost effectiveness of the approach selected. This begins with an analysis of the estimated total cost of the project. In addition to the recommended solution, other alternatives are estimated in order to offer an economic comparison. For development projects, an estimate of labour and out-of- pocket expenses is assembled along with a project schedule showing the project path and start- and-end dates. After the total cost of the project has been calculated, a cost and evaluation summary is prepared which includes such things as a cost/benefit analysis, return on investment, etc. 6. Review - all of the preceding elements are then assembled into a
Feasibility Study and a formal review is conducted with all parties involved. The review serves two purposes: to substantiate the thoroughness and accuracy of the Feasibility Study, and to make a project decision; either approve it, reject it, or ask that it be revised before making a final decision. If approved, it is very important that all parties sign the document which expresses their acceptance and commitment to it; it may be a seemingly small gesture, but signatures carry a lot of weight later on as the project progresses. If the Feasibility Study is rejected, the reasons for its rejection should be explained and attached to the document. Conclusion It should be remembered that a Feasibility Study is more of a way of thinking as opposed to a bureaucratic process. For example, what I have just described is essentially the same process we all follow when purchasing an car or a home. As the scope of the project grows, it becomes more important to document the Feasibility Study particularly if large amounts of money are involved and/or the criticality of delivery. Not only should the Feasibility Study contain sufficient detail to carry on to the next succeeding phase in the project, but it should also be used for comparative analysis when preparing the final Project Audit which analyses what was delivered versus what was proposed in the Feasibility Study. Feasibility Studies represent a common sense approach to planning. Frankly, it is just plain good business to conduct them. However, I have read where some people in the IT field, such as the "Agile" methodology proponents, consider Feasibility Studies to be a colossal waste of time. If this is true, I've got a good used car I want to sell them. For your feasibility study about your investment call us on 08032861326.


Effect of ovaprim on cafish breeding.

Artificial spawning of two African Catfish species viz: C. gariepinus and H.
longifilis of 0.18 – 0.64kg and 0.53 – 1.63 kg
respectively were carried
out using various doses of Ovaprim with carp pituitary extract (C.P.E.)
as the control. Oocyte
maturation and ovulation
were successfully effected
with Ovaprim doses of 0.2, 0.25, 0.30, 0.35, 0.40
and 0.50ml/kg for C.
gariepinus and 0.30, 0.35,
0.40, 0.45, 0.50ml/kg for
H. longifilis. Latency
period was between 8 – 11.5 hrs at 26.3ºC – 28.0ºC
but was indirectly
influenced by
temperature, species and
type of hormone. Hatching was between 22
– 30 hrs at a temperature
range of 25.45 – 26.1ºC and was independent of hormone dosage.
Percentage deformed try
was relatively low and
ranged from 0.16 ± 0.28 –
1.08 ± 0.36 in C. gariepinus and 0.52 ±
0.59 . 1.50 ± 0.73 in H. longifilis. Fry survival
rate was high and ranged
from 89.44 ± 0.27 to 93.47
± 2.18 in C. gariepinus and 78.57 ± 11.12 to 90.7 ±
3.90 in H. longifilis. Physico-chemical
parameters were within
the desired range for catfish larval rearing in all the treatments. For more information or consultancy call our help line 08032861326.

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