Basic Plant Care
HOW TO PLANT CORRECTLY:
As with most plants, whenever in doubt never plant to deep. The Anubias genus has a root system called a rhizome meaning that it has a horizontal type root which have smaller roots that grow outward from the main root. Never plant the rhizome, in which rot can occur, only plant the smaller hair like roots.
As with most plants, whenever in doubt never plant to deep. When you receive anyone of these particular species of plant, you may receive them with a bulb attached or as a bareroot plant. In the case of receiving the bulb, plant in aquarium as so that the sprout of the bulb is facing up and that the sprout is clearly visible above the planting material/substrate.
In the case you have received just the plant itself plant only the roots of the plant leaving the entire stem above the plant material/substrate; failure to do so may cause rotting of the stems of the plant and premature death of the plant.
When you receive these plants they will arrive with a weight wrapped around the bottom of the plants. First remove the weight and if any discoloration of the plant or any decay or dead leaves are present give the plant a fresh cut above this area of the plant(NOTE: the trimming of this material will in no way harm the plant). Next; plant the individual stems of the plant in the planting material/substrate, plant anchors will aid in planting of these types of stem plants.
Plant ONLY the roots of the plant in planting material/substrate. Planting these plants to deep can cause rotting of the stem and therefore premature death of the plant.
When you receive these plants, before planting remove plant from pot, and remove as much of the potting material as possible without damaging the roots of the plant. Next, plant ONLY the roots of the plant in planting material/substrate. Planting these plants to deep can cause rotting of the stem and therefore premature death of the plant.
Plant ONLY the roots of the plant in planting material/substrate. Planting these plants to deep can cause rotting of the stem and therefore premature death of the plant. Plant anchors will aid in planting of these types of plants
Plant ONLY the roots of the plant in planting material/substrate. Planting these plants to deep can cause rotting of the stem and therefore premature death of the plant.
Plant ONLY the roots of the plant in planting material/substrate. Planting these plants to deep can cause rotting of the stem and therefore premature death of the plant. Plant anchors will aid in planting of these types of plants
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Planting and Care Instructions
For Water Garden Plants
We recommend planting all plants in pots rather than directly in the bottom of the pool. This aids in maintenance by making the containers retrievable, thus making plant care easier. All of the plants require at least 8 to 10 hours of direct sunlight each day for maximum growth. Fertilize freely throughout the growing season.
TROPICAL WATER LILIES – Day and night blooming tropical water lilies should be planted in pots at least 12 inches in diameter. A 3 to 5 gallon size should suffice for each lily, however a larger pot will produce a larger lily. Fill the pot half full with a rich garden soil and add 2 to 4 fertilizer tablets, then continue to fill the pot with soil to about 2 inches from the top. The rhizome should be set upright with the roots buried gently in the soil. Make sure the tip of the rhizome is not buried. Next, add an inch or two of gravel or sand in order to prevent the soil from escaping from the container. Remember to keep the gravel away from the crown of the rhizome. The plant can now be lowered into the water to a depth of 12 inches. Tropical lilies cannot tolerate cold temperatures and should not be planted until the water reaches a temperature of at least 70 degrees. Planting too early can cause dormancy and restrict the potential growth of the plant. Tropicals bloom from late spring through early fall, depending on the weather.
HARDY WATER LILIES – Hardy lilies are planted in much the same way as tropicals except that Hardies grow horizontally across the container so a wide pot is necessary for planting. The rhizome should be planted at one edge of the container with the rhizome planted at an angle of about 45 degrees with the crown exposed. Remember to add fertilizer, use a rich garden soil, and top the soil with an inch or two of gravel or sand. The plant can be lowered to a depth of 6 inches to begin with, and then lowered to a depth of 12 to 18 inches or deeper as the plant grows. Hardies should be planted in early spring. They bloom from June through September depending on the weather, and become dormant during the colder months. As spring approaches, growth will begin again.
MARGINAL OR BOG PLANTS – marginal plants should be planted in individual containers of approximately 1 to 3 gallon capacity. Plant as you would the lilies, but when adding fertilizer tablets, use 1 tablet for 1 gallon size pots and 2 tablets for 2 to 3 gallon size pots. Marginal plants should be lowered to a depth of only 2 to 3 inches. They grow out of the water and are usually found at the water’s edge.
FLOATING PLANTS - These plants require no planting. Simply place them in the water and they will grow. Floating plants desire tropical temperatures and cannot tolerate a frost.
OXYGENATING PLANTS – All ponds should have underwater oxygenating plants to aid in maintaining clean and pure water. These plants help prevent algae growth and provide oxygen. Oxygenating plants can be planted as you would lilies and marginals. A one gallon size pot is recommended. Completely submerge these plants to a depth of at least 12 inches.
If you have ANY doubts about how to set up a "successful" planted aquarium, let us help...if you follow our suggestions and guidelines/advice, we will GUARANTEE the success of your aquarium.
Plant Dips/Baths for disinfecting and killing snails and algae
The tip below is ONLY if you are concerned about snails...we actually suggest eliminating snails with 2 or 3 clown, or puffer loach fish...
(NO aquariumplant distributor/nursery/wholesaler/retailer, can or will, "guarantee" their plants to be 100% snail free)
so, if you have doubts, simply treat your plants with this alum solution.
Below, we describe three dips, please pay attention to the words of caution also.
Potassium Permanganate Dip
The first dip is milder and safer for the plants. It is a Potassium Permanganate dip. Potassium Permanganate is available at Sear's and Ace Hardware in the area where they sell water softener's and supplies. You can also purchase Potassium Permanganate from chemical supply companies, both local and online.
To prepare a disinfectant dip, use a bucket filled about 1/2 full of water. Add enough Potassium Permanganate to color the water a dark pink. This solution can be saved if covered, and it's a great way to store your nets and tools, soaking the this solution. Back to the dipping. To disinfect and kill most algae a 10-20 minute dip (more like bath) in Potassium Permanganate is very effective. Rinse the plants under tap water thoroughly and add dechlor to your tank...it neutralizes Potassium Permanganate too.
CAUTION: Potassium Permanganate is a strong powerful oxidizer. Treatment should be made outside the tank...it will kill your bio-filter. Like all chemicals you should wear protective eye wear and gloves. Potassium Permanganate will stain clothing, carpeting, skin, etc. Never combine Potassium Permanganate and Formalin, this will result in explosive results and dangerous gases.
Bleach (Chlorine) Dip
This is a more effective and sure-fire way to kill algae. It is also very easy to kill the plant in the process. Regular household bleach (i.e. Clorox) is diluted to a 5% (19 parts water to 1 part bleach) solution in a bucket. It's good to have a second bucket filled with rinse water containing 3X the normal dechlor. Dip large leaf plants for 3 minutes, immediately move to the dechlor rinse water, then rinse under running tap water for a few seconds, if you still smell chlorine, repeat the rinse process again. For small delicate leaf plants and mosses dip for only 2 minutes in the bleach. To be safe, add dechlor to the tank after adding the plants back. Also, if your dipping a lot of plants you may need to add more dechlor to your rinse water.
Remember, the bleach dip is a last resort solution. It can and may kill your plants! Use the same caution handling bleach as recommended for Potassium Permanganate.
Alum Dip
The Alum dip is more for killing microscopic bugs. Use at 1 tablespoon per gallon of water. Soak the plant for at least an hour, longer soaks of 2 to 3 days are needed to kill snails and snail eggs. For snails and snails eggs a 2-3 hour soak in a stronger solution of 3 tablespoons per gallon of water is a better choice. Alum isn't nearly as effective as the prior two for killing algae. Alum is aluminum sulfate and Alum USP can be obtained from a compounding pharmacy or grocery stores. (It's usually with the spices, herbs and pickling supplies).
What...you already have snails? No problem, don't panic... buy 2 or 3 small puffer loaches and they'll take care of the snails and the eggs in short order.
pH/hardness/PPM Co2
| KH pH |
6.0 |
6.2 |
6.4 |
6.6 |
6.8 |
7.0 |
7.2 |
7.4 |
7.6 |
7.8 |
8.0 |
| 0.5 |
15 |
9.5 |
6.0 |
3.8 |
2.4 |
1.5 |
0.9 |
0.6 |
0.4 |
0.23 |
0.15 |
| 1.0 |
30 |
19 |
12 |
8 |
4.8 |
3 |
1.9 |
1.2 |
0.8 |
0.5 |
0.3 |
| 1.5 |
45 |
28 |
18 |
11 |
7.1 |
4.5 |
2.8 |
1.8 |
1.1 |
0.7 |
0.45 |
| 2.0 |
60 |
38 |
24 |
15 |
9.5 |
6 |
3.8 |
2.4 |
1.5 |
1.0 |
0.6 |
| 2.5 |
75 |
47 |
30 |
19 |
12 |
7.5 |
4.7 |
3 |
1.9 |
1.2 |
0.75 |
| 3.0 |
90 |
57 |
36 |
23 |
14 |
9 |
5.7 |
3.6 |
2.3 |
1.4 |
0.9 |
| 3.5 |
105 |
68 |
42 |
26 |
17 |
10.5 |
6.6 |
4.2 |
2.6 |
1.7 |
1.0 |
| 4.0 |
120 |
75 |
48 |
30 |
19 |
12 |
7.6 |
4.8 |
3.0 |
1.9 |
1.2 |
| 5.0 |
150 |
95 |
60 |
38 |
24 |
15 |
9.5 |
6 |
3.8 |
2.4 |
1.5 |
| 6.0 |
180 |
114 |
72 |
45 |
29 |
18 |
11 |
7.2 |
4.5 |
2.9 |
1.8 |
| 8.0 |
240 |
151 |
96 |
60 |
38 |
24 |
15 |
9.6 |
6.0 |
3.8 |
2.4 |
| 10.0 |
300 |
189 |
119 |
75 |
48 |
30 |
19 |
12 |
7.5 |
4.8 |
3 |
| 15.0 |
450 |
284 |
179 |
113 |
71 |
45 |
28 |
18 |
11.3 |
7.1 |
4.5 |
Green = Good CO2 levels 10-25ppm Good CO2 levels are also shown in BOLD. |
Yellow = High CO2 levels Over 25ppm Levels over 25 can be harmful to your fish |
White = Low CO2 levels Less than 10ppm |
Measuring CO2 levels in a Planted Tank
When injecting CO2 into a planted tank, it is useful to know how much CO2 is actually getting dissolved into the water. Lucky for us, there is a simple way to calculate the CO2 level, based on the pH, and KH of the tank water. There is a fixed relationship between the pH, KH, and CO2 level. As you increase the amount of CO2 that is dissolved into the water, the pH will drop. And if you then stop adding CO2, the pH will climb as that extra CO2 is released from the water.
A little background science: pH is a measure of the concentration of hydrogen ions [H+] in solution. pH is actually a logarithmic measure (-log[H+]). This formula has two implications. First, it means that the hydrogen ion concentration increases (thus the solution becomes more acidic) as the pH number decreases. Second, each time the pH is reduced by 1, the concentration of hydrogen ions increases by a factor of 10.
In more simple terms, the pH is simply a measure of the acidity or alkalinity of a solution. pH values from 0 to 7 are considered acids, and pH values from 7-14 are considered bases. 7 is neutral, neither an acid nor base.
As we add CO2 to water, it forms carbonic acid, which lowers the pH. The more CO2 that gets dissolved into the water, the lower the pH.
Working to raise the pH of the water is the KH. While KH refers to Carbonate Hardness, what is really measured by a standard KH test kit is really the buffering capacity. In "most" water sources, the buffering is provided by Carbonate. In that case, buffering capacity and KH are the same thing. Assuming a constant amount of CO2, a higher KH, will result in a higher pH.
Myth: A Low KH results in a larger pH swing when adding CO2.
Many people are under the mistaken impression that a low KH results in large pH swings when adding CO2, while raising the KH will result in smaller pH swings. This is not the case. The KH will move the start and end pH values, but the pH swing will be the same for a given level of CO2. You can see this in the chart below, or using the calculation:
| Case 1: Assume a KH of 15 degrees, and a starting CO2 level of 4.5ppm, which would result in a pH of 8.0. If we then add CO2, to increase the CO2 level to 28ppm, that would drop the pH down to 7.2, for a pH shift of .8.
Case 2: Assume a KH of just 1.5 degrees, and a starting CO2 level of 4.5ppm, which would result in a pH of 7.0. If we then add CO2, to increase the CO2 level to 28ppm, that would drop the pH down to 6.2, for a pH shift of .8, the exact same as in case 1.
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One possible explanation for this myth is that many copies of this pH chart skip some of the higher pH values, for example, jumping from pH 7.4 to a pH of 8.0. If the reader didn't pay careful attention, they might mis-interpret the size of the pH swing. I specifically made sure to include all pH values, between 6 and 8, in steps of .2.
This relationship will break down at extremely low KH levels (below 1 degree), when there isn't enough carbonate to completely buffer the acids present. In that case, the pH can drop quickly and dramatically. But if the KH is 1 degree or higher, then the size of the pH swing when injecting CO2 will be determined only by the amount of CO2 dissolved in the water.
The pH-KH-CO2 Relationship pH, KH, and CO2 have a fixed relationship as long as carbonate is the only buffer present (no phosphate buffers like pH-UP and- DOWN, Discus Buffer, etc). There are some parts of the country that have high levels of phosphates in their water supply. For those cases, determining CO2 levels will be difficult, as the phosphate will throw off the pH-KH-CO2 relationship, which means the CO2 charts and calculator below won't work. Note that the commercially available CO2 test kits will also be invalidated by the phosphates.
To determine your CO2 level based on the pH and KH, you can enter the values into the on-line calculator, or use the chart at the bottom of the page.
NOTE: If you aren't adding CO2 to your water, and the CO2 level based on the pH and KH indicates more than 5ppm, then it is very likely that some other buffer (such as phosphate) is present in your water. In an inhabited aquarium, the amount of CO2 produced by the fish will not have an effect on CO2 levels in the water. Any excess CO2 created by fish will dissipate into the air, leaving a fairly constant CO2 level of about 3-4ppm. If you test your pH and KH, and without adding any CO2, the chart says you've got 20ppm CO2, don't believe it.
In some case, water coming right from the tap can contain very high or very low levels of CO2. This can result in tap water with a high KH, and low pH. But, in just a few hours, that excess CO2 will dissipate from the water, leaving the normal 3-4ppm, and the pH will rise. Sometimes, the water might come from the tap with extremely little CO2, which can result in tap water with a low KH, and a very high pH. Again, after a few hours, the CO2 level will equalize, and the water will end up with 3-4ppm CO2.
CO2/pH/KH calculator and chart
NOTE: This calculator (and the chart based on this formula) will only work if your water is carbonate buffered. If your water contains high levels of phosphates, it will alter your water properties, and invalidate these CO2 calculations.
If you have measured your pH and KH, and want to know how much CO2 you have, enter the pH and KH here.
An alternate use for this calculator, or the chart below, would be to determine the "target" pH needed to achieve a certain amount of CO2. A desireable CO2 level is 10-25ppm (which is indicated in green on the chart). Levels below that don't provide optimum CO2 concentrations for high plant growth. CO2 concentrations over 25ppm can be harmful to the inhabitants of your tank. I typically shoot for 15ppm CO2. So, using the calculator, enter your KH, then try entering different pH values until it shows a CO2 level around 15ppm. Using the chart, just find the row that contains your KH, then go across until you find your desired CO2 level, then look to the top of the column to see what your "target" pH should be. Once you know that, you can adjust your CO2 injection to hit that target pH.
Myth: CO2 level can be adjusted simply by adding chemicals to alter the KH or pH.
This is a common misconception when using the CO2 / KH / pH table. It appears that by altering any parameter, the other values should move. But this is not true. Treat the pH value you see as a result. If you alter the KH, then the pH will move. If you alter the CO2 level, then the pH will move. The pH will always react to changes in either of the other two parameters.
| Example: My water comes out of the tap with a KH of 3 degrees, and a pH of 7.6, which according to the the indicates a CO2 level of 2.3ppm. Looking at the chart, I might (incorrectly) assume that If I simply raised my KH to 10 degrees, I would end up with the same pH, but the CO2 level would now be 12ppm! How easy! I can add CO2 just by adding some baking soda to raise my KH.
BUT! it doesn't work that way. Instead, as I raise the KH, the pH will rise along with it, and the indicated CO2 level staying at it's 2.3ppm. In my case, if I raised the KH to 10 degrees,
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You can not alter the KH levels other than by adding or removing carbonate. You can not alter the CO2 levels other than by adding or removing CO2.
Adding certain "pH altering additives" can cause much confusion as well. Additives like "Proper pH 7.0" which force the pH to a certain value completely invalidate the CO2 / KH / pH relationship. This is because these pH altering additives contain phosphates. Phosphates replace the carbonates in the buffering system. And the CO2 / KH / pH relationship is only valid in a system that is buffered by Carbonates.
There is on case I've seen where the addition of CO2 resulted in an increase in KH. This can happen when you have something in the tank that dissolves carbonate into the water. Seashells, crushed coral, and many gravels and rocks will do this. With the addition of CO2, the water turns more acidic, which will increase the dissolving of the minerals. It appears that increasing CO2 raises the KH, which isn't really the case. The dissolving minerals raise the KH, and the increase in KH results in an increase in pH. In a system using a pH probe and controller to regulate CO2 levels, this can have fatal consequences, since the pH controller will keep trying to lower the pH, but as more CO2 is dissolved, it lowers the pH, which raises the KH, which raises the pH. So you now have more CO2, but the same pH. So the controller adds even MORE co2. And it will keep going. So it's important to know your KH whenever using pH to judge CO2 levels.
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