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HISTORY
 Ordovarian Period (425-500 million
years ago)
 OSTRACODERMS
○ Slow, bottom-dwelling animals
○ Covered with thick bony plates and scales
○ Had very poorly developed fins and didn’t
have jaws
○ Believed to be the first animal with backbone
 Extinct about 250 million years ago
2 Groups of Fishes with movable jaws
PLACODERMS ACANTHODIANS
 Appeared about 395 million
years ago
 Had thick, bony plates and
paired fins
 Their upper jaw was fused
to the skull while the lower
jaw was hinged and
movable
 Extinct about 345 million
years ago
 Class Chondrichthyes
evolved
 Appeared about 410
million years ago
 Distinguished by the
bony spines projecting in
front their fins and by
minute diamond-shaped
scales
 Class Osteichthyes
evolved
GENERAL CHARACTERICTICS
 Fish are cold-blooded vertebrates that
breathe with gills and move with the aid of
fins.
 They have the most numerous vertebrates
with more than 30, 000 species.
 All fish must maintain proper levels of salt
and water in their bodies through osmosis.
 Freshwater fishes: Body salts are higher in
concentration than surrounding water
 Saltwater fishes: Surrounding water has higher
concentration than their bodies
 Most fish are able to react to changes in
water pressure, temperature, currents and
sounds.
 Fish have taste buds in their mouth, on their
lips and on their body and fins. Some are on
their barbels (whisker-like projections
around their mouth)
 Has highly developed sense of smell
Philippine island goby (Pandaka pygmea)
The smallest fish.
Only 1/3 or ½ inch long.
Whale Shark (Rhincodon typus)
The largest fish.
Average size is 25 feet long.
Grows about 50 feet and weigh up to 15 tons.
EXTERNAL ANATOMY
EYE
MOUTH
OPERCULUM
(GILL COVER)
PECTORAL FIN
ANAL FIN
PELVIC FIN
LATERAL LINE
SOFT DORSAL FIN
CAUDAL/TAIL FIN
SPINY DORSAL FIN
SCALES
VENT
NOSTRILS
PENDUCLE
Scales
 Thin bony plates that overlap each other and
provide protection.
 Develop from and are embedded in a pocket of
the dermis.
 The exposed part is covered with a thin layer of
epidermis.
Four types of scales:
1. Ctenoid
2. Cycloid
3. Gamoid
4. Placoid
1. Ctenoid
○ Have serrations on the
edges and rough
surfaces
2. Cycloid
○ Have smooth surfaces
and edges that make
the fish feel smooth
and slick
3. Ganoid
4. Placoid
Skin
 it contains glands that produce a slimy
mucus which makes the fish slippery and
provide protection from bacteria
 Contains chromatophores which are
pigment cells that give the fish its colors.
○ Usually allows to blend with its surroundings
 Sensory receptors are also contained in
the skin
Anal fin
 Single
 Found on the underside near the tail
 Acts as rudder or keel to help steer the fish during
faster motion
 In some species, this has adapted to become a
sex organ
Fins
 Movable structures that aid the fish in
swimming and maintaining its balance.
 Most have rayed fins.
 These fins consist of a web of skin
supported by a bone or cartilage rods called
rays
○ May have sharp, spiny or soft rays
 Very flexible
 Pectoral fin
 generally in symmetrical pairs
 Found on the side just behind the head
 Used to stabilize, rotate and stop the fish during
slower motion
Caudal fin
 Single; also called tail fin
 Together with the caudal penducle, they
generate the forward thrust in most fish. These
are the main release point for that forward thrust.
Pelvic fin
 also called ventral fins
 Generally in symmetrical pairs
 Found below and just behind the pectoral fins
 Used in similar fashion to the pectoral fins
Dorsal fin
 Found along their back
 Soft dorsal fin
○ Used to stabilize the fish and keep them upright
○ Has similar purpose to the anal fin.
 Spinous dorsal fin
○ Also used to stabilize and keep them upright
○ Spiny and sharp
○ In some species, it contains venom for protection
from predators.
○ Display of an erect dorsal fin shows readiness to
mate and is in prime condition therefore a good
mate
Eyes
 Has spherical lens that focuses by moving
within the eyeball, not by changing the
curvature of the lens
 They don’t have eyelids, kept moist by the
water
 Size usually depends on the amount of
light reaching the eye
○ Fish living shallow and brightly lit waters
have small eyes
○ Those that live in dimly lit water have big
eyes
Lateral line
 Series of fluid-filled ducts/sacs with hair-like
sensory apparatus that are open to the
water through a series of pores located just
under the scales.
 Neuromasts – Row of sensors that allow
the fish to detect movement (vibration)
around them in order to capture prey, elude
predators and navigate efficiently
Mouth
 Have taste buds
 Feeding/food is based on its shape
○ Top dwellers – upturned
○ Middle dwellers – small mouths and are
straight forward, neither upward nor
downward
○ Bottom-dwellers – downward turned or
underslung
Nostrils
 Used to detect odors in water and can be
quite sensitive
Operculum (Gill cover)
 Flexible bony plate
 Protects the sensitive gills
Vent
 External opening to digestive urinary and
reproductive tracts
INTERNAL ANATOMY
BRAIN
GILL
HEART
LIVER
STOMACH
INTESTINES
PYLORIC CAECA
GONADS (EGGS)
MUSCLES
KIDNEY
SWIM BLADDER
SPINAL AND SPINAL CORD
Kidney
 Filters liquid waste materials from the blood
then these waters are then passed out of
the body
 Regulates water and salt concentrations
within the fish’s body allowing certain fish
species to exist in freshwater or saltwater
and in some cases both
Liver
 Assists in digestion by secreting enzymes
that break down fats
 Serve as storage area for fats and
carbohydrates
 Destroys old blood cells
 Maintains proper blood chemistry
 Plays a role in nitrogen (waste) excretion
Muscle
 Provides movement and locomotion
 Part usually eaten and composes the fillet
or fish
Spinal Cord
 Connects the brain to the rest of the body
 Relays sensory information from the rest of
the body to the brain and vice versa
Spine
 Primary structural framework upon which the
fish’s body is built
 Connects to the skull at the front and to the tail
at the rear of the fish.
 Made up of numerous vertebrae (hollow which
house and protect the delicate spinal cord)
Stomach and Intestines
 Break down (digest) food and absorb
nutrients
 Piscivorous fish (eat other fish) have
fairly short intestine because such food is
easy to chemically break down and digest
 Herbivorous fish (eat plants) require
longer intestines because plant matter is
usually tough and fibrous and more difficult
to break down into usable components
Swim Bladder
 located in the abdominal cavity
 Filled with gases produced by blood which
enables the fish to maintain a particular depth.
 A few bony fishes are able to breathe
atmospheric air because their swim bladder is
supplied with blood vessels thus allows it to
function like a lung
 A few fish species have a part of their intestines
that are modified to allow oxygen intake.
○ They rise to the surface and gulp air into their
mouths
○ The air is swallowed into the digestive system,
then taken to the blood.
 Anabantoid fish have special rosette-shaped
plates in a labyrinthine chamber behind their
gills
○ These are supplied with numerous blood vessels
that absorb oxygen from the atmospheric air they
inhale through their mouth
>>These are important adaptation for fish living in
swamps or other waters that are poorly oxygenated
FEEDING
 Flake foods
 Ideal for small fishes up to 4 or 5 inches long
 Produced from the meat of fish, fish eggs, wheat
and vegetables.
 Usually contain additional vitamins and minerals
○ Pellet
For larger fish
○ Floating fish sticks
For large top-feeding fish
○ Sinking small pellets
For middle feeders
Sinks slowly
○ Sinking tablets
For bottom-feeders
 Live foods
 Daphnia
 Water fleas (small crustacean)
 Artemina
 Brine shrimp
 Small shrimp that live in salt lakes or brackish waters
 River shrimp and bloodworms
 For large fish
 Earthworms, flies, maggots, wood lice, caterpillars,
crickets and grasshoppers.
Parasites and diseases that they may carry can be
harmful to fish.
 Freeze-dried and Frozen foods
 Safe form
○ Mysis shrimp
○ Pacific shrimp
○ Tubifex worms
○ Krill
○ Plankton
 Meat
 Carnivorous fish
 Minced or chopped
○ Beef heart, liver, Raw fish meat and
Shellfish meat
○ Pieces of turkey and chicken
○ Small goldfish (for larger carnivorous fish)
 Vegetables
○ Chopped or shredded lettuce, spinach
leaves, canned peas, wheat germ and oat
flakes
If not consumed within 8 hours, it should be
removed or disposed.
Four types of marine invertebrates:
1. Those that feed on plankton that is filtered from
the water, including stone and horny coral,
tubeworms, bivalves, some species of sea
cucumbers and crustaceans.
○ Commercially prepared plankton foods and
frozen foods are available
2. Those that feed on plant material, including sea
urchins, mollusks and sea slugs.
○ A diet of lettuce and spinach will hopefully
prevent them from feeding on aquarium plants.
3. Those that are carnivorous, including crabs, sea
stars, sea anemones, shrimp and lobsters.
○ Sea anemones should be fed only when their
tentacles are out (in bloom).
○ Drop the food in their tentacles.
4. Those that are scavengers including sea
cucumbers.
○ They feed on debris and uneaten foods on the
bottom of the aquarium.
REPRODUCTION
 Reproduce by means of fertilization of
the female’s eggs by the sperm (milt)
from the male
EGG-LAYERS
a) Egg-Scatterers
 Fish that lay their eggs in a haphazard
manner on the floor of an aquarium
○ Some species lay adhesive eggs that stick
to the gravel on the aquarium floor/on
decorations and plant materials.
○ Other species lay nonadhesive eggs
 No parental care of the egg/young
 Once the egg is laid, they are forgotten
Several steps taken to reduce the number of eggs
eaten by parents:
1. Cut down on the amount of light. This encourages
spawning and increases the number of eggs
produced.
2. Have aquarium plants so dense that adult fish will
have difficulty swimming among plants to find eggs
and newly hatched fry.
3. Place on or two layers of glass marbles on the
floor of the aquarium. The eggs will settle among
them and the adults won’t be able to get to the
eggs.
4. Place spawning grass or Spanish moss or man-
made grass on the aquarium floor. This material
can be placed over layers of marbles also.
5. Drape a nylon curtain in the tank. The adults
can swim above the curtain and as the eggs are
laid, they will fall through the curtain to the floor
aquarium.
6. Use a large spawning tank that allows the eggs
to go undiscovered and the newly-hatched fry to
hide or evade the adults.
 Egg-buryers
 Fish that lay their eggs in the mud of rivers and
ponds or in the material on the floor of the
aquarium.
 In river muds and ponds
○ Adults lay their eggs in the mud an die when the
river and ponds dry up.
○ The eggs survive and hatches when the next rain
comes.
 In aquariums
○ Annual fish lay their eggs in two or three inches of
peat in the material.
○ Lives more than a year.
○ These annual fish may also lay eggs in dense plant
growth or spawning grass.
○ The eggs can be removed with tweezers and stored
in moist peat.
○ Take the peat containing the eggs, squeeze out the
water, place the peat in plastic bag and seal them.
○ After two or three months, place the peat in water
so that the eggs will hatch.
c.) Egg-Depositors
 Usually select their own mate
 Have complex spawning routines
○ They clean off a nesting site where the female
deposits her eggs and the male fertilizes them.
 Excellent parents
○ Take turns guarding the nest
○ They constantly fan the nest and eggs with their fins
to keep them clean from dirt or silt and dust that
may settle on them.
○ When they young fry hatch, they keep watch for
several days to protect them from predators.
d.) Mouth-Brooders
 Fish that carry their eggs in their mouth until they
hatch.
○ During this incubation of two to three weeks, parent
does not eat.
 Then, the young may continue to be carried in
their parents mouth until they are ready to fend.
 In some species
○ The young, after leaving the parent’s mouth may
return if threatened
e.) Nest-Builders
 Constructs a nest in which the eggs are deposited
 Nest can be:
○ Bubble nest on the surface made from saliva-blown
bubbles
○ Prepared from materials found on the floor of the
aquarium.
 After the eggs are fertilized, the female should be
removed because the male will become
aggressive towards her and he then guards the
nest.
LIVE-BEARERS
 The male’s anal fin is modified so that he can
deposit milt into the vent of the female.
 Gonopodium – the modification which is a
characteristic that helps identify the male of the
species.
 Give birth to twenty or as many as 200 young
fry.
 Female store the milt in their oviducts for
several months, thereby several brood can be
produced.
 In viviparous species:
○ The young are nourished from the female’s bloodstream
 In ovoviviparous species:
○ The young are nourished by the yolk sac
In preparing breed fish, several conditions
should be observed:
1. Temperature of the water should be increased 2
or 3 °F. This stimulates breeding.
2. Filtration and healthy water conditions are vital
to successful breeding and reproduction.
However, a system that provides too much up-lift
or suction may draw the young fry into the
gravel on the bottom. And if aeration is too
strong, the young can be injured.
3. Air-operated sponge filter and a gentle flow of
air from an air stone provide adequate
conditions.
AQUARIUM
 The term combines the Latin root aqua,
meaning water, with the suffix -arium,
meaning "a place for relating to“
TYPES OF AQUARIUM
 Community Aquarium
 Freshwater and Saltwater Aquarium
 Mix of fish and plants originating from different
geographical areas with emphasis placed on color and
hardiness
 Can be successful if it follows the basic rules for
compatibility of its inhabitants with respect to
temperature, water chemistry, aquarium size and
character
 Planted aquariums
 Features emphasis on plants and limited fish populations
 Typical fish species are tetras or rasboras and some
angelfish
 Lighting and attention to appropriate filtration media are
important details
FILTER
FILTER SYSTEMS
FILTER MEDIA
HEATER
AIR PUMP
THERMOMETER
LIGHTING
AQUARIUM DECORATIONS
TEST KITS
FILTER
 Remove solid waste and uneaten food
materials from the water
 For water purity and quality
 Takes out visible particles, breaks down
toxic substances, and removes harmful
chemicals in aquariums
Filter Media
 Is the content of a filter system which is
in contact with the water flow and is the
substance that actually performs the
mechanical, biological and chemical
filtering.
MECHANICAL FILTRATION
 Removal of particulate waste from the
water
 Mechanical filter media, which is very
fine, will trap greater quantities of debris
and plug more rapidly
Regularly remove accumulated debris.
This will help support superior oxygen
levels, stable water conditions and reduce
nitrate accumulations.
 Foam
 is an excellent mechanical filter media.
 The porous channel structure within the foam obliges the
incoming water to deviate from a straight path,
maximizing contact time and giving the foam a huge
holding capacity for debris.
 Maximum mechanical effect is achieved after
approximately 10 to 14 days.
 It also supports essential bacteria and can be a
mechanical and biological filter media, as evidenced by
internal filter systems, as long as a regular water change
schedule is respected.
 Polywool
 Effective mechanical filter media that will remove fine
particles and prevent other filter media from being
prematurely clogged.
 It will contribute to polishing aquarium water for ultra
clear conditions.
CHEMICAL FILTRATION
 Active control and change of specific water
characteristics.
 Filter media and various products exist that
clarify water, eliminate odor, remove chlorine,
eliminate medications after disease treatments,
neutralize heavy metal ions and effect changes
in hardness and pH levels.
 Specific chemical filter media should be used to
optimize water conditions for various groups of
fish and plants. This will ensure that fish and
plants will look their best and stay healthy.
 Accomplished with the use of activated
charcoal (soaks up dissolved minerals
and chemicals)
 Activated charcoal can be placed in box
filters or return water can flow through
the charcoal.
Charcoal must be replaced periodically as
it reaches the point where it can no longer
absorb dissolved materials.
 Carbon
 highly adsorptive and is capable of removing odors and liquid
wastes such as urine, dyes and many other impurities from
aquarium water.
 Provides the correct pore size and selection of optimal raw
ingredients to provide long lasting aquarium filtration. This is very
important as there are carbons that are manufactured using raw
materials which are designed for filtering air, not water, and are
sold for aquarium use.
 Opti–Carb
 An advanced chemical filter media that combines a high quality
carbon with both a synthetic Organic Adsorption and Ion
Exchange Resin.
 This potent combination of ingredients will ensure that aquarium
water is effectively free of dissolved protein matter, toxic heavy
metals, dissolved gasses that cause odor and discoloration for a
crystal clear aquarium.
 Both fresh and saltwater aquariums will benefit from improved
water quality. Fresh and saltwater fish will thrive in ultra pure water
while plants and corals will benefit from improved light availability
due to ultra clear water conditions.
 Phosphate Remover
 Phosphate is major nutrient and is undesirable within
freshwater aquariums that do not contain plants and in
marine aquariums in general. It’s presence is linked to
undesirable aquarium conditions and can result in an
unsightly appearance.
 Pre-Filter
 consists of inert, solid rings that are ideal for medium to
coarse filtration. These durable rings also serve as a
surface for beneficial bacteria, contributing to biological
filtration.
 Ammonia Remover
 natural mineral, which safely and effectively scavenges
ammonium from aquarium water.
 Particularly useful when chloramine is present in tap
water, and in instances where ammonia can occur,
such as new aquariums, fish loss, overfeeding, after
disease treatment, and overpopulated installations.
 Zeo-Carb
 Combines Ultra Grade Carbon and Ammonia Remover to
protect the aquarium from build-ups of ammonia and liquefied
waste, dyes and medication.
 It effectively controls and removes ammonia while trapping
organic compounds. In addition, it also supports biological
filtration.
 Nitrate Remover
 Effectively bind large quantities of Nitrate and highly toxic
Nitrite.
 As ammonia and nitrite are continuously converted by
nitrifying bacteria, there is an accumulation of nitrate. The
greater the concentration of fish and other life within the
aquarium the faster Nitrate will accumulate. This is a direct
reflection of poor water quality as well as being a major factor
in unsightly aquarium conditions. Regular use of this product is
highly recommended for well stocked freshwater aquariums,
especially those that do not contain live plants.
BIOLOGICAL FILTRATION
 Neutralize toxic substances, essentially
ammonia excreted from fish during respiration
and produced from decaying waste and food
materials.
 In this system, a slotted plastic plate is placed in
the bottom of the aquarium.
 A 2 or 3 inch layer of gravel is placed over the
slotted plate; should be 0.125 inches in
diameter
 Gravel containing large particles allows food to
fall and decay while too small particles block the
air pump
 Aquarium Peat
 Highly desirable filter media which is very beneficial for
aquariums containing plants, South American Cichlids, Tetras,
Gouramis, Rasboras, Killifish, and many other species of fish
originating from acidic waters.
 Peat will lightly stain the water a natural tan color, lower pH
and KH values, and release natural substances, optimizing
aquarium water conditions for many fresh water fish and
aquatic plants.
 Fish that originate in acidic water will exhibit optimum
coloration, improved behavior and reproduction.
 Peat can also have a positive effect in supporting acidic water
conditions
 Bio-Max
 Perfect biological media for fresh or salt water aquariums.
 BioMax porous cylinders are capable of supporting huge
populations of water purifying bacteria. They are composed of
85% Micro-Tunnels, ideal for hosting the beneficial bacteria
which consume toxic ammonia and nitrite. The remaining 15%
are micro-cavities, ideal for hosting other species of beneficial
bacteria that can contribute to biological filtration.
Air pump
 Achieves aeration (air or gas passing
through)
 Pumps are either:
 Vibrator-diaphragm type
 Rotary-vane type
Waste and ammonia
 Fish excrete waste and an unestablished (or
uncycled) aquarium is not capable of processing
these waste materials efficiently, so this creates toxic
conditions for the fish. The result is fish loss. Your
aquarium water must be free of toxic compounds in
order for fish to survive and thrive.
 Ammonia, perhaps the most notorious toxin, is
introduced into your aquarium through fish waste,
respiration, and other biological processes. It is
extremely toxic and fish will show signs of stress,
such as erratic swimming behavior, when ammonia is
present. High levels of ammonia attack the gills first,
causing fish to gasp at the surface. Continued
exposure affects their fins and skin, and eventually
their entire system is under attack.
 Factors contributing to the increase of
ammonia and nitrites:
 Increase in waste material and uneaten food on
the bottom of the aquarium
 Dirty filters
 Failure to change water at regular intervals
( ¼ to 1/5 of the water should be changed every 3
to 4 weeks)
 Overfeeding
 Overpopulation of fish
 In an established aquarium, ammonia is
promptly converted into less toxic substances
by beneficial bacteria through a natural
process called the nitrogen cycle.
 New aquariums do not have established
colonies of beneficial bacteria to adequately
process these toxins.
Cycling
 The process of establishing and maturing
biological filtration.
 The nitrogen cycling process that all new
aquarium setups go through when they first start
is what leads to the birth of the aquarium's
biological filtration. From start to finish, this cycle
usually takes around 30 to 45 days to complete.
 Importance:
 In order to establish efficient biological filtration
capable of breaking down these toxic compounds.
 Nitrification
 Growth of colonies of aerobic bacteria
 Most efficient at a pH of 9
 Nitrosomonas
○ Coverts ammonia into nitrites
 Nitrobacter
○ Converts nitrites into nitrates
pH scales read:
0 = very acidic
14 = very alkaline
7.0 = neutral
The Nitrogen Cycle
Importance
 The nitrogen cycle of an aquarium is a
natural chain of events resulting in the
colonization of various types of nitrifying
bacteria, each with their own job to do.
Without a strong, healthy biological filter,
an aquarium will never be able to
support a healthy population of fish and
invertebrates.
 What does toxic ammonia convert into
during the nitrogen cycle?
 First, oxygen-loving bacteria, called
Nitrosomonas, feed on ammonia and through
biological processes they excrete nitrite, a less
toxic but still dangerous chemical.
 Another oxygen-utilizing bacteria, called
Nitrobacter, feeds on the nitrite, converting it
into relatively harmless nitrate. Nitrate can be
used by plants in the aquarium, or can be
removed with water changes.
HEATERS
 Warms water to maintain water
temperatures preferred by tropical fish
 Stabilizes the water temperature for the
health of the fish
 There are two types of heaters:
 Submersible
 Electronic
THERMOMETER
 To monitor water temperature and
heater accuracy
LIGHTING
 Brings out extraordinary colors in the
aquarium and facilitates the growth of
live plants
 For viewing aquarium inhabitants or for
healthy live plants
TYPES OF LIGHTING
 Fluorescent
 Incandescent
 LED
Factors that influence the type
and quantity of light required:
 Size of aquarium
 Fish species and other aquatic
inhabitants
 Plant life
 Aesthetics
Lighting tips:
 Most plants require approximately 12 hours per
day of light from a fluorescent fixture.
 Sudden changes in light may stress fish. When
turning canopy lights on or off, it is beneficial to
have room lights on for at least 30 minutes.
 Fish fed during the day should be allowed 30
minutes of light before and after feeding.
 Use timers when possible. Plants and fish will
respond better to consistent lighting periods.
 Plants and fish will adapt to gradual light
changes. When changing bulbs in a multiple
bulb installation, change 1 to 2 weeks apart.
 A remote ballast should be mounted in an area
where there is adequate ventilation to efficiently
dissipate heat. This is especially important in
ballast types that generate more heat.
 Electrical wiring leading to the ballast should
always incorporate a drip loop.
 Consider a GFI (Ground Fault Interrupter) power
bar as an inexpensive insurance to avoid
unpleasant circumstances surrounding any
potential electrical mishaps.
 Do not leave lights on 24 hours a day. As in
nature, fish and plants require dark periods as
well.
 To make it attractive
 Also provide shelter and hiding places
for inhabitants
 Plants can be added for attractiveness
and to provide a means of using carbon
dioxide while releasing oxygen
AQUARIUM DECOR
AQUARIUM DECOR
 GRAVEL
 DRIFTWOOD
 SHELLS
 ORNAMENTS
 ARTIFICIAL PLANTS
 AQUARIUM BACKGROUNDS
 CORRALS
 ROCKS
Water star
Water milfoil
Live plants
Amazon sword plant Arrowhead
Ambulia Giant eel grass
Willow moss Ludwigia
Java moss Java fern
Japanese dwarf rush Indian water star
Hornwart Hairgrass
 TEST KITS
Success Begins with
Research
1. What aquarium inhabitants are appealing to you
and what others can be housed with them?
2. What size and shape of aquarium is
recommended for them?
3. What types of filtration, lighting, decorative
structure, and accessory equipment are needed
in order for the aquarium inhabitants to thrive?
4. What feeding and maintenance is required to
keep them healthy?
5. Most importantly, are you willing to invest the
time and money necessary for ongoing
maintenance?
Rules of the thumb
 Generally, the larger the aquarium the better, unless it will be too
heavy for the flooring to hold it. A tank that is filled with gravel and
water will weigh at least 10 lbs. per gallon. That adds up quickly, if
you consider that a seemingly small 20-gallon tank will weigh 200
pounds . . . and that does not account for the stand, lighting, or
filtration!
 It is imperative to choose a sturdy stand to hold the tank. If you
choose to setup your tank in an environment frequented by small
children, choose a stand that cannot be climbed on or pulled over.
 Choose a filter appropriate to the type of inhabitants you are keeping
and water capacity of the tank. Buy the best filter that you can
afford. At minimum, a filter should provide mechanical and biological
filtration.
 Next, you'll need a heater and a good thermometer. Make sure the
heater is at least 3-5 watts per gallon. For example, a 50-gallon tank
would require a 150-250 watt heater.
 You will need to choose an aquarium cover or hood. If the
inhabitants require special lighting, you'll want to purchase a
fixture that can accommodate it.
 A water conditioner will be needed to remove chlorine and heavy
metals if they are present in your water supply.
 Don't forget a net!
 Now, you're ready to decorate. It's essential to choose
decorations that provide fish with structure and hiding places to
relieve stress. Plants and decorations can also be used to
conceal filter parts. Gravel in the bottom of the tank holds plants
and decorations while hiding wastes. If you will be using an
under gravel filter, the gravel should be about 2 inches thick.
Dark colors will make the fish color appear more vibrant.
 A gravel cleaner and algae cleaner will be needed within 30 days
so you can begin regular maintenance.
 Before you place the items in the tank, rinse them off and rinse
gravel thoroughly until water drained off is clear.
 Choose a sturdy, level area to set up the tank.
 Set up the stand, then the tank. Pour in cleaned
gravel.
 Fill the tank with tap water about 3/4 full, then put in
decorations, set up filtration, heater, and
thermometer. Continue filling aquarium to 1/2" from
bottom of rim. This allows extra space for when you
put your first batch of fish in to acclimate.
 Now, you're ready to start up filtration, heater, and
add any water conditioners needed. Assemble
lighting/cover. Then, wait until tank heater has
adjusted the water to the correct temperature (75°F
for most fish) and maintains it.
 Finally, you can purchase your fish and acclimate
them to their new home; remember not to put too
many in at one time.
10 BASIC TIPS FOR A
SUCCESSFUL AQUARIUM
1. AVOID OVERCOMPENSATING
Instead: Assess the situation and determine a prudent course of action. Many situations
benefit from patience rather than misguided action.
2. AVOID ADDING TOO MANY FISH TOO SOON
Instead: Allow two to three weeks between each introduction of new fish. Also, use a
biological additive with every addition. Adding too many fish too quickly taxes the biological
filter. The subsequent spike in ammonia level can often result in fish loss.
3. AVOID SKIPPING QUARANTINE
Instead: Always house new fish in a separate quarantine aquarium for a minimum of 2
weeks for observation and treatment of potential illness.
4. AVOID NEGLECTING WATER TESTS
Instead: Test aquarium water regularly to make sure water parameters are within acceptable
levels. Many common aquarium pollutants are invisible. Regular water testing is the only
accurate way to detect toxins such as ammonia or nitrite.
5. AVOID OVER-CLEANING
Instead: Stagger water changes and perform partial gravel cleaning to preserve vital
beneficial bacteria. Aggressive cleaning can upset established biological filtration by
removing beneficial bacteria. An imbalance may result where ammonia levels exceed the
processing capacity of the diminished bacterial population.
6. AVOID UNDER-CLEANING
Instead: Perform routine partial water changes and follow the manufacturer's
recommended schedule for replacing filter media. Lax maintenance habits have a
cumulative negative effect on overall water quality. Not only do pollutants accumulate
to unhealthy levels, it becomes more difficult to bring aquarium conditions within
acceptable parameters.
7. AVOID SKIPPING RESEARCH
Instead: Research care requirements of the species you are interested in first. Resist
impulse purchases. Make sure you are able to properly provide for the species and
that your aquarium is capable of supporting the new addition. Also, confirm
compatibility of existing aquarium inhabitants.
8. AVOID "GENERIC" EQUIPMENT SELECTION
Instead: Purchase equipment that satisfies the specific needs of YOUR aquarium
inhabitants. Each aquarium setup is unique, so research and customize filtration,
lighting, water movement, and aeration requirements.
9. AVOID IMPROPER NUTRITION
Instead: Offer a wide variety of foods, including flake foods, freeze-dried foods, and
frozen foods. Avoid over-feeding by following the manufacturer's feeding instructions.
Adjust feeding amount so fish are able to finish the dispensed portion within a couple
minutes.
10. AVOID IMPROPER USE OF BOTTLE REMEDIES
Instead: Always read and follow the manufacturer's label completely before
dispensing any medications, water conditioners, or algaecides. More does not always
mean better results.
Fish pond
 a controlled pond, artificial lake,
or reservoir that is stocked with fish and
is used in aquaculture for fish farming,
or is used for recreational fishing or for
ornamental purposes.
STEP-BY STEP
1. MAKING CONTOURS
2. THE DIGGING
3. THE LINER
• 1st layer – polyester
• 2nd layer – rubber
4. INSTALLING EQUIPMENT
 Filter system
5. ADDING STRUCTURE
THINGS TO CONSIDER:
1. LOCATION
 A place with a good mixture of sun and shade.
 Build on a natural hill so we could put a waterfall
using a terrain.
2. STYLE/SIZE
 Depth
 Levels
 Most comfortable way of enjoying and feeding the
fish
3. MAINTENANCE COMMITMENT
4. SELECTING FISH
5. PLANT
6. WATERFALL
Water hardness
 Hardness – caused by a dissolved
magnesium and calcium salts
 can be diluted by removing some of the hard
water and adding soft water
 2 types:
 Temporary
○ can be removed by boiling the water
 Permanent
○ Removed by chemical means or distillation
 Measured by:
 German scale measure (°DH)
 Clark or English scale measure (°H)
 ppm (parts per million of either CaCo3 or CaO)
 gpg (grains per gallon)
Conversion factors:
1 °DH = 17.9 ppm CaCo3
1 °H = 14.3 ppm CaO
Selecting Healthy Fish
 Clear Eyes (not cloudy).
 Erect, undamaged fins.
 Scales should be intact, parallel with body (not sticking outwards)
and no red blotches.
 No holes, ulcerations, or lumps.
 Species with translucent bodies, no inner appearing whitish areas.
 Active, lively, normal swimming patterns (some species are naturally
shy and reclusive).
 No white spots (salt grain size) or white cottony growths on the fins
or body.
 Respiration rate should be regular and steady (in unstressed
circumstances).
 Gills should be red inside, not faded or discolored, and not distended
or puffy.
 Actively feeding.
 Avoid selecting fish from a system that contains any sick specimens.
ACCLIMATION OF NEW
FISH
 Close the aquarium lights during the acclimation
period. Float the bag in the aquarium for
approximately 20 minutes to equalize water
temperatures.
 Open the bag and gently pour in some aquarium
water (approximately 1/3 the bag volume), wait 10
minutes. Repeat this water introduction twice more at
the same interval.
 Carefully net the fish out of the bag and place them
in the aquarium. Dispose of the water in the bag, DO
NOT release this water into the aquarium.
 If the newly introduced specimens are the only ones
in the aquarium, wait 24 hours before initial feeding.
To determine the number of fish
can be put in a tank
 One should multiply the length by the width to
determine the square inches of surface area
 Rule of thumb:
 Tropical Freshwater aquarium – no more than 1
inch of fish for every 10 square inches of surface
area
 Cold Freshwater aquarium – 1 inch of fish for every
30 square inches of surface area
 Marine aquarium – 1 inch of fish for every 48
square inches
SUBORDER CHARACOIDEI
FAMILY CHARACIDAE
FAMILY GASTEROPELECIDAE
FAMILY ANOSTOMIDAE
FAMILY HEMIODONTIDAE
SUBORDER CYPRINOIDEI
FAMILY CYPRINIDAE
FAMILY GYRINOCHEILDAE
FAMILY COBITIDAE
Family Characidei
 Large family containing 1,300 species: about
1,000 are found in Central America and the
remaining are found in Africa
 Most are brightly colored and have narrow dorsal
fin and small adipose fin.
 Most are omnivorous and consume all types of
food while few are carnivorous
 Inhabit shallow, slow-moving rivers of the
rainforest and live among sand and ground shoal
areas.
 Most are sociable and do well in the aquarium
community
TETRA
Blind Cave Fish
Astyanax mexicanus
 Native to the underground
caves of Mexico
 Grows about 3 ½ inch long
 Primarily flesh colored and
fins are colorless
 The young has eyes but as
they mature skin grows on
them thus nonfunctional
 Uses their sense of smell
to seek out and consume
food
Bucktoothed Tetra
Exodon paradoxus
 Grows about 5 ½ inch in
lenth
 Very aggressive and
should be kept in thickly
planted aquariums with
fish that are able to
protect themselves
 Gold-colored with
reddish orange fins
 Feed on vegetation and
fruit
 Native to South America
Red-eyed or Glass Tetra
Moenkhausia oligolepis
 Grows slightly less than
5 inches in length
 Silver gray with dark
edges to the scales on
the upper body
 Upper part of the eyes is
red
 There is a yellow band
around the penducle and
a black band at the base
of the caudal fin
PIRANHA
Red Piranha
Serrasalmus nattereri
 Most widespread among the
piranha species
 Found in South America
 Grows about 12 inches in
length
 Disc-shaped, muscular and
very powerful
 Eats young fish, lean meat,
meat-based flake foods and
insects
 Primary color is steel gray,
darker blue-gray color back
and red underside with
numerous black spots
 Must be kept in an aquarium
by themselves
 Temperature should be
maintained at about 78 F
Cardinal tetra
Family Gasteropelecidae
 Commonly referred as hatchet fish
 have distinctive hatchet shaped, deep, narrow
bodies and are small fish 1 ½ to 2 ½ inches long
 Elongated pectoral fins used to fly short distances
across the water’s surface
 Aquariums should be fitted with cover lid to
prevent them from flying out
 Temperature control: 79 F
 Native to South America
 Top-feeders
HATCHET FISH
Common hatchet fish
Gasteropelecus sternicla
Black-wing hatchet fish
Carnegiella marthae
Marbled hatchet fish
Carnegiella strigata
Family Anostomidae
 Native to South America
 Reach 3 to 5 inches length
 During rest, these fish position themselves
vertically among plants and rocks
 Middle to bottom dwelling fish, feed on all
types of food
 Do well in community aquariums
 Good jumpers
 Water should be soft, slightly acidic, filtered
through peat and maintained at 79 F
Marbled headstander
Abramites hypselonotus
Striped headstander
Anostomus anostomus
Spotted headstander
Chilodus punctatus
Banded headstander
Leporinus fasciatus
Family Hemiodontidae
 Native to South and Central America
 Distinguished by having no teeth in its
lower jaw
 Have small pointed mouths; some have
adipose fin and some swim at an oblique
angle
 Take on different coloration at night than
during the day
 Top to middle dwellers
 Water should be soft, slightly acidic, filtered
through peat and 76 F, plus or minus 6
Common pencil fish
Nannostomus eques
Dwarf pencil fish
Nannostomus marginatus
One-lined or golden pencil fish
Nannostomus unifasciatus
Three-lined pencil fish
Nannostomus trifasciatus
Family Citharinidae
 Native to Africa
 Sometimes referred to as moon fish
Six-banded Distichodus
Distichodus sexfasciatus
 Primary color is orange with
silver or gold iridescence;
white with dark edge
adipose fin and other fins
have a reddish tinge, caudal
fin is bright red with dark
edges
 Does well in community
aquarium
 Grows up to 10 inches, may
be aggressive to smaller fish
 Feed on all types of food;
young and tender shoots
 Water should be maintained
at 78 F, plus or minus 3 F
One-striped African Characin
Nannaethiops unitaeniatus
 Grows about 2 ½ inches
long
 Upper parts are brown and
lower parts are yellow with
white belly
 Dark striped run from the
mouth through the eye to
the base of the caudal fin
and above this is a golden
iridescent strip
 Does well in aquarium
community
 Water temp.: 78 F
 Feed on all types of food
Pike Characin
Phago maculatus
 Grows about 6 inches
 Very thin, narrow fish
with long beak-like jaws.
Both upper and lower
jaws habe two rows of
teeth
 Has large caudal fin;
others are small
 Very aggressive should
be kept only in a species
aquarium
 Eats insects and other
fish
 Water temp: 81 F, plus or
minus 2 F
African Redfin
Neolebias ansorgii
 Grows to about 1 ½ inches
long
 Primary color is dark blue
with white underside and red
fins
 Overall blue-gold iridescence
 Bottom-dwellers
 Does best in shoals (group of
fish) of its own kind
 Feed on all types of food
 Water temp.: 78 F, plus or
minus 5 F
Family Cyprinidei
 Commonly referred to as carps and minnows
 Doesn’t have teeth in its jaws, but uses
pharyngeal teeth in its throat (pharyngeal teeth)
to grin and break up food
 Some have barbels at the corner of the mouth
while none have adipose fin
 Most are bottom-dwellers; do well in aquarium
community
 Water temperature: 75 F, plus or minus 2 F
 Feed on all types of food
Goldfish
Carassius auratus
 Kept and developed by
Chinese for centuries
 Most grow from 3 ½ to 8
inches long
 Occupy all levels of
aquarium
 Single-tail varieties: easiest
to keep and water temp.
between 32 and 68 F
 Two-tail varieties: more
delicate and require more
care, water temp between
46 to 68 F
 Feed on all types of foods
 Water must be kept clean
Koi
Cyprinus carpio
 Originated in Japan
 Grow to 3 feet can be worth
thousand of dollars
 Small koi are usually kept
indoors and then moved
outdoor pools when they
reach 5 inches
 Occupy all levels
 Water temp.: between 32
and 68 F
 Water must be well filtered
 Consume all types of foods.
 Three main varieties:
 Single-colored = yellow or orange
 Two-colored = white with red markings (Kohaku)
gold and silver (Hariwaki)
 Three-colored = light blue with orange and black
markings (Asagi);
white with red and black markings (Taisho Sanke);
black with red and white markings (Showa Sante)
 Divided with type of scales:
 Doitsu – few large scales
 Matsuba – pinecone scales
 Kin-rin – gold metallic speckled scales
 Gin-rin – silver metallic speckled scales
BARB
Spanner Barb
Barbus lateristiga
 Native to Thailand, Malaysia
and Indonesia
 Grows up to 7 inches long
 Primary color is greenish gold,
darker on the back getting
lighter downsides with silver
underside.
 2 large vertical bars run from
back to belly & 1 dark
horizontal bar through
penducle to the caudal fin
 Occupies all levels
 Should be kept with similar
size fish
 Consumes all types of food
 Water temp.: 71 F, plus or
minus 5
Tinfoil barb or goldfoil barb or
Schwanenfeld’s barb
Barbus schwanenfeldi
 Native to Thailand,
Malaysia and Indonesia
 Grows to 12 inches long
 Primary color is silver with
gold or blue irdescence
 Fins are red, dorsal fin has
black tip and caudal tip has
black edges
 Does well in community
aquarium but should be
kept with similar size fish
 Diet: vegetation, lettuce
leaves along with other
types of food
 Water temp: 72 F, plus or
minus 5 F
Clown barb or Everett’s barb
Barbus everetti
 Native to Singapore and
Borneo
 Grows to 6 inches long
 Primary color is reddish
brown with orange tinge &
silver/gold iridescence; fins
are light red
 Does well in community
aquarium but should be
kept with similar size fish
 Consumes all type of food
 Water temp.: 79 F, plus or
minus 2 F
Cherry barb
Barbus titteya
Zebra barb
Barbus fasciatus
Arulius Barb
Barbus arulius
Dwarf or Pygmy barb
Barbus phutunio
MINNOW
White Cloud Mountain Minnow
Tanichthys albonubes
 Native to China
 Grows to 1 ¾ inches
 Olive brown back with green
iridescence and white
underside
 Thin dark blue stripe runs the
length of body and bordered
above with golded iridescent
stripe and reddish band below
 Reddish with silver blue tip
fins
 Does well in community
aquarium
 Feeds on all types of food
 Very hardy fish, tolerates wide
variety of aquarium
temperatures from 61 to 72 F
DADIO
Dadio
Laubaca dadiburjori
 Native to Indonesia, Burma,
Malaysia, Sri Lanka &
Thailand
 Grows to 1 ¾ inches
 Primary color is golden
brown, with blue stripe runs
the length of the body and
yellow fins
 Does well in community
tanks
 Top-dwellers
 Feeds on all types of food
 Water temp. : 75 F
Red-tailed Shark
Epalzeorhynchus bicolor
Family Gyrinocheilidae
Chinese algae eater or Sucking
Loach
Gyrinocheilus aymonieri
 Native to Thailand
 Grows to 10 inches long
 Primary body color is gray-
brown with dark blotches
along its sides and back
 Has large, fleshy lips on the
underside of the snout and
can cling to vegetation, rocks
and to glass side of aquarium
 Feed primarily on algae and
other vegetation
 Do well in community
aquarium
 Water temp: 75 F, pus or
minus 5 F
Family Cobitidae
 Native to Indonesia
 Distinguished by their flat underside
mouths on lower side of their snout and
three pairs of barbels
 Nocturnal and hide among vegetation and
rocks during the day
 Several grow from 2 ¼ to 12 inches long
 Most do best in community aquariums
 Feed on all types of food
 Water temp.: 80 F, plus or minus 5 F
LOACH
Clown loach
Botia macracantha
 Most colorful and popular
 Primary color is bright
orange, 3 dark bands
encircle the body
 Front portion of dorsal
and anal fins are orange;
others are red
 Does well in community
aquarium
Orange-finned loach
Botia modesta
Chain or dwarf loach
Botia sidthimunki
FAMILY SILURIDAE
FAMILY SCHILBEIDAE
FAMILY MOCKOKIDAE
FAMILY PIMELODIDAE
FAMILY CALLICHTHYIDAE
FAMILY LORICARIIDAE
Family Siluridae
Glass catfish
Kryptopterus bicirrrhis
Three-striped glass catfish
Eutropiellus debauwi
Upside-down catfish
Synodontis nigriventris
Family Mochokidae
Family Pimelodidae
 Commonly referred to as unarmored
catfish
 Covered with skin but have no scales or
bones
Spotted Pimelodella
Pimelodella pictus
Graceful Pimelodella
Pimelodella gracilis
Family Loricariidae
 Commonly referred to as sucker catfish
 Have three or four rows of bony plates
or scutes and have underslung mouths
designed for sucking or clinging onto
vegetation and rocks
Whiptail catfish
Loricaria filamentosa
 Grows to about 10
inches long
 Has elongated body with
very elongated penducle;
upper lobe of the caudal
tail is elongated into an
appendage
Golden otocinclus
Otocinclus affinis
Sucker catfish
Plecostomus punctatus
FAMILY CICHLIDAE
Family Cichlidae
 Most are native to South America and Africa
 Have one pair of nostrils
 Dorsal fin has a long base and the first three
rays form spines
 The anal fin is short and the first three rays are
also spines; caudal fin is usually rounded
 2 main spawning patterns:
 Some lay egg their eggs on rocks, leaves, logs or on
holes dug by male
 Shelter-breeders, lay their eggs in spawning areas
out in the open that have been cleared
Angelfish
Pterophyllum scalare
 From South America
 Narrow, disc-shaped with
large fins
 Dorsal, pelvic and anal
fins are usually
elongated
 Grows about 6 inches
 Peaceful fish that do well
in community aquarium
 Consume all types of
food
 Water temp. : 79 F, plus
or minus 7 F
Oscar
Astronotus ocellatus
 Grow to 14 inches
 Coloration varies
considerably
 Usually gray with black,
vertical blotches along the
sides; some have reddish
orange scales along lower
sides
 Aggressive & should be kept
in a species aquarium
 Water temp. : 75 F, plus or
minus 3 F
 Consume all types of food
including chopped meat, live
minnows and small fish

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Fish

  • 1.
  • 2. HISTORY  Ordovarian Period (425-500 million years ago)  OSTRACODERMS ○ Slow, bottom-dwelling animals ○ Covered with thick bony plates and scales ○ Had very poorly developed fins and didn’t have jaws ○ Believed to be the first animal with backbone  Extinct about 250 million years ago
  • 3. 2 Groups of Fishes with movable jaws PLACODERMS ACANTHODIANS  Appeared about 395 million years ago  Had thick, bony plates and paired fins  Their upper jaw was fused to the skull while the lower jaw was hinged and movable  Extinct about 345 million years ago  Class Chondrichthyes evolved  Appeared about 410 million years ago  Distinguished by the bony spines projecting in front their fins and by minute diamond-shaped scales  Class Osteichthyes evolved
  • 4. GENERAL CHARACTERICTICS  Fish are cold-blooded vertebrates that breathe with gills and move with the aid of fins.  They have the most numerous vertebrates with more than 30, 000 species.  All fish must maintain proper levels of salt and water in their bodies through osmosis.  Freshwater fishes: Body salts are higher in concentration than surrounding water  Saltwater fishes: Surrounding water has higher concentration than their bodies
  • 5.  Most fish are able to react to changes in water pressure, temperature, currents and sounds.  Fish have taste buds in their mouth, on their lips and on their body and fins. Some are on their barbels (whisker-like projections around their mouth)  Has highly developed sense of smell
  • 6. Philippine island goby (Pandaka pygmea) The smallest fish. Only 1/3 or ½ inch long.
  • 7. Whale Shark (Rhincodon typus) The largest fish. Average size is 25 feet long. Grows about 50 feet and weigh up to 15 tons.
  • 8. EXTERNAL ANATOMY EYE MOUTH OPERCULUM (GILL COVER) PECTORAL FIN ANAL FIN PELVIC FIN LATERAL LINE SOFT DORSAL FIN CAUDAL/TAIL FIN SPINY DORSAL FIN SCALES VENT NOSTRILS PENDUCLE
  • 9. Scales  Thin bony plates that overlap each other and provide protection.  Develop from and are embedded in a pocket of the dermis.  The exposed part is covered with a thin layer of epidermis. Four types of scales: 1. Ctenoid 2. Cycloid 3. Gamoid 4. Placoid
  • 10. 1. Ctenoid ○ Have serrations on the edges and rough surfaces 2. Cycloid ○ Have smooth surfaces and edges that make the fish feel smooth and slick 3. Ganoid 4. Placoid
  • 11. Skin  it contains glands that produce a slimy mucus which makes the fish slippery and provide protection from bacteria  Contains chromatophores which are pigment cells that give the fish its colors. ○ Usually allows to blend with its surroundings  Sensory receptors are also contained in the skin
  • 12. Anal fin  Single  Found on the underside near the tail  Acts as rudder or keel to help steer the fish during faster motion  In some species, this has adapted to become a sex organ
  • 13. Fins  Movable structures that aid the fish in swimming and maintaining its balance.  Most have rayed fins.  These fins consist of a web of skin supported by a bone or cartilage rods called rays ○ May have sharp, spiny or soft rays  Very flexible
  • 14.  Pectoral fin  generally in symmetrical pairs  Found on the side just behind the head  Used to stabilize, rotate and stop the fish during slower motion
  • 15. Caudal fin  Single; also called tail fin  Together with the caudal penducle, they generate the forward thrust in most fish. These are the main release point for that forward thrust.
  • 16. Pelvic fin  also called ventral fins  Generally in symmetrical pairs  Found below and just behind the pectoral fins  Used in similar fashion to the pectoral fins
  • 17. Dorsal fin  Found along their back  Soft dorsal fin ○ Used to stabilize the fish and keep them upright ○ Has similar purpose to the anal fin.  Spinous dorsal fin ○ Also used to stabilize and keep them upright ○ Spiny and sharp ○ In some species, it contains venom for protection from predators. ○ Display of an erect dorsal fin shows readiness to mate and is in prime condition therefore a good mate
  • 18. Eyes  Has spherical lens that focuses by moving within the eyeball, not by changing the curvature of the lens  They don’t have eyelids, kept moist by the water  Size usually depends on the amount of light reaching the eye ○ Fish living shallow and brightly lit waters have small eyes ○ Those that live in dimly lit water have big eyes
  • 19. Lateral line  Series of fluid-filled ducts/sacs with hair-like sensory apparatus that are open to the water through a series of pores located just under the scales.  Neuromasts – Row of sensors that allow the fish to detect movement (vibration) around them in order to capture prey, elude predators and navigate efficiently
  • 20. Mouth  Have taste buds  Feeding/food is based on its shape ○ Top dwellers – upturned ○ Middle dwellers – small mouths and are straight forward, neither upward nor downward ○ Bottom-dwellers – downward turned or underslung
  • 21. Nostrils  Used to detect odors in water and can be quite sensitive
  • 22. Operculum (Gill cover)  Flexible bony plate  Protects the sensitive gills
  • 23. Vent  External opening to digestive urinary and reproductive tracts
  • 24. INTERNAL ANATOMY BRAIN GILL HEART LIVER STOMACH INTESTINES PYLORIC CAECA GONADS (EGGS) MUSCLES KIDNEY SWIM BLADDER SPINAL AND SPINAL CORD
  • 25. Kidney  Filters liquid waste materials from the blood then these waters are then passed out of the body  Regulates water and salt concentrations within the fish’s body allowing certain fish species to exist in freshwater or saltwater and in some cases both
  • 26. Liver  Assists in digestion by secreting enzymes that break down fats  Serve as storage area for fats and carbohydrates  Destroys old blood cells  Maintains proper blood chemistry  Plays a role in nitrogen (waste) excretion
  • 27. Muscle  Provides movement and locomotion  Part usually eaten and composes the fillet or fish
  • 28. Spinal Cord  Connects the brain to the rest of the body  Relays sensory information from the rest of the body to the brain and vice versa Spine  Primary structural framework upon which the fish’s body is built  Connects to the skull at the front and to the tail at the rear of the fish.  Made up of numerous vertebrae (hollow which house and protect the delicate spinal cord)
  • 29. Stomach and Intestines  Break down (digest) food and absorb nutrients  Piscivorous fish (eat other fish) have fairly short intestine because such food is easy to chemically break down and digest  Herbivorous fish (eat plants) require longer intestines because plant matter is usually tough and fibrous and more difficult to break down into usable components
  • 30. Swim Bladder  located in the abdominal cavity  Filled with gases produced by blood which enables the fish to maintain a particular depth.  A few bony fishes are able to breathe atmospheric air because their swim bladder is supplied with blood vessels thus allows it to function like a lung  A few fish species have a part of their intestines that are modified to allow oxygen intake. ○ They rise to the surface and gulp air into their mouths ○ The air is swallowed into the digestive system, then taken to the blood.
  • 31.  Anabantoid fish have special rosette-shaped plates in a labyrinthine chamber behind their gills ○ These are supplied with numerous blood vessels that absorb oxygen from the atmospheric air they inhale through their mouth >>These are important adaptation for fish living in swamps or other waters that are poorly oxygenated
  • 33.  Flake foods  Ideal for small fishes up to 4 or 5 inches long  Produced from the meat of fish, fish eggs, wheat and vegetables.  Usually contain additional vitamins and minerals ○ Pellet For larger fish ○ Floating fish sticks For large top-feeding fish ○ Sinking small pellets For middle feeders Sinks slowly ○ Sinking tablets For bottom-feeders
  • 34.  Live foods  Daphnia  Water fleas (small crustacean)  Artemina  Brine shrimp  Small shrimp that live in salt lakes or brackish waters  River shrimp and bloodworms  For large fish  Earthworms, flies, maggots, wood lice, caterpillars, crickets and grasshoppers. Parasites and diseases that they may carry can be harmful to fish.
  • 35.  Freeze-dried and Frozen foods  Safe form ○ Mysis shrimp ○ Pacific shrimp ○ Tubifex worms ○ Krill ○ Plankton
  • 36.  Meat  Carnivorous fish  Minced or chopped ○ Beef heart, liver, Raw fish meat and Shellfish meat ○ Pieces of turkey and chicken ○ Small goldfish (for larger carnivorous fish)  Vegetables ○ Chopped or shredded lettuce, spinach leaves, canned peas, wheat germ and oat flakes If not consumed within 8 hours, it should be removed or disposed.
  • 37. Four types of marine invertebrates: 1. Those that feed on plankton that is filtered from the water, including stone and horny coral, tubeworms, bivalves, some species of sea cucumbers and crustaceans. ○ Commercially prepared plankton foods and frozen foods are available 2. Those that feed on plant material, including sea urchins, mollusks and sea slugs. ○ A diet of lettuce and spinach will hopefully prevent them from feeding on aquarium plants.
  • 38. 3. Those that are carnivorous, including crabs, sea stars, sea anemones, shrimp and lobsters. ○ Sea anemones should be fed only when their tentacles are out (in bloom). ○ Drop the food in their tentacles. 4. Those that are scavengers including sea cucumbers. ○ They feed on debris and uneaten foods on the bottom of the aquarium.
  • 39. REPRODUCTION  Reproduce by means of fertilization of the female’s eggs by the sperm (milt) from the male
  • 40. EGG-LAYERS a) Egg-Scatterers  Fish that lay their eggs in a haphazard manner on the floor of an aquarium ○ Some species lay adhesive eggs that stick to the gravel on the aquarium floor/on decorations and plant materials. ○ Other species lay nonadhesive eggs  No parental care of the egg/young  Once the egg is laid, they are forgotten
  • 41. Several steps taken to reduce the number of eggs eaten by parents: 1. Cut down on the amount of light. This encourages spawning and increases the number of eggs produced. 2. Have aquarium plants so dense that adult fish will have difficulty swimming among plants to find eggs and newly hatched fry. 3. Place on or two layers of glass marbles on the floor of the aquarium. The eggs will settle among them and the adults won’t be able to get to the eggs. 4. Place spawning grass or Spanish moss or man- made grass on the aquarium floor. This material can be placed over layers of marbles also.
  • 42. 5. Drape a nylon curtain in the tank. The adults can swim above the curtain and as the eggs are laid, they will fall through the curtain to the floor aquarium. 6. Use a large spawning tank that allows the eggs to go undiscovered and the newly-hatched fry to hide or evade the adults.
  • 43.  Egg-buryers  Fish that lay their eggs in the mud of rivers and ponds or in the material on the floor of the aquarium.  In river muds and ponds ○ Adults lay their eggs in the mud an die when the river and ponds dry up. ○ The eggs survive and hatches when the next rain comes.  In aquariums ○ Annual fish lay their eggs in two or three inches of peat in the material. ○ Lives more than a year.
  • 44. ○ These annual fish may also lay eggs in dense plant growth or spawning grass. ○ The eggs can be removed with tweezers and stored in moist peat. ○ Take the peat containing the eggs, squeeze out the water, place the peat in plastic bag and seal them. ○ After two or three months, place the peat in water so that the eggs will hatch.
  • 45. c.) Egg-Depositors  Usually select their own mate  Have complex spawning routines ○ They clean off a nesting site where the female deposits her eggs and the male fertilizes them.  Excellent parents ○ Take turns guarding the nest ○ They constantly fan the nest and eggs with their fins to keep them clean from dirt or silt and dust that may settle on them. ○ When they young fry hatch, they keep watch for several days to protect them from predators.
  • 46. d.) Mouth-Brooders  Fish that carry their eggs in their mouth until they hatch. ○ During this incubation of two to three weeks, parent does not eat.  Then, the young may continue to be carried in their parents mouth until they are ready to fend.  In some species ○ The young, after leaving the parent’s mouth may return if threatened
  • 47. e.) Nest-Builders  Constructs a nest in which the eggs are deposited  Nest can be: ○ Bubble nest on the surface made from saliva-blown bubbles ○ Prepared from materials found on the floor of the aquarium.  After the eggs are fertilized, the female should be removed because the male will become aggressive towards her and he then guards the nest.
  • 48. LIVE-BEARERS  The male’s anal fin is modified so that he can deposit milt into the vent of the female.  Gonopodium – the modification which is a characteristic that helps identify the male of the species.  Give birth to twenty or as many as 200 young fry.  Female store the milt in their oviducts for several months, thereby several brood can be produced.  In viviparous species: ○ The young are nourished from the female’s bloodstream  In ovoviviparous species: ○ The young are nourished by the yolk sac
  • 49. In preparing breed fish, several conditions should be observed: 1. Temperature of the water should be increased 2 or 3 °F. This stimulates breeding. 2. Filtration and healthy water conditions are vital to successful breeding and reproduction. However, a system that provides too much up-lift or suction may draw the young fry into the gravel on the bottom. And if aeration is too strong, the young can be injured. 3. Air-operated sponge filter and a gentle flow of air from an air stone provide adequate conditions.
  • 50.
  • 51. AQUARIUM  The term combines the Latin root aqua, meaning water, with the suffix -arium, meaning "a place for relating to“
  • 52. TYPES OF AQUARIUM  Community Aquarium  Freshwater and Saltwater Aquarium  Mix of fish and plants originating from different geographical areas with emphasis placed on color and hardiness  Can be successful if it follows the basic rules for compatibility of its inhabitants with respect to temperature, water chemistry, aquarium size and character  Planted aquariums  Features emphasis on plants and limited fish populations  Typical fish species are tetras or rasboras and some angelfish  Lighting and attention to appropriate filtration media are important details
  • 53. FILTER FILTER SYSTEMS FILTER MEDIA HEATER AIR PUMP THERMOMETER LIGHTING AQUARIUM DECORATIONS TEST KITS
  • 54. FILTER  Remove solid waste and uneaten food materials from the water  For water purity and quality  Takes out visible particles, breaks down toxic substances, and removes harmful chemicals in aquariums
  • 55. Filter Media  Is the content of a filter system which is in contact with the water flow and is the substance that actually performs the mechanical, biological and chemical filtering.
  • 56. MECHANICAL FILTRATION  Removal of particulate waste from the water  Mechanical filter media, which is very fine, will trap greater quantities of debris and plug more rapidly Regularly remove accumulated debris. This will help support superior oxygen levels, stable water conditions and reduce nitrate accumulations.
  • 57.  Foam  is an excellent mechanical filter media.  The porous channel structure within the foam obliges the incoming water to deviate from a straight path, maximizing contact time and giving the foam a huge holding capacity for debris.  Maximum mechanical effect is achieved after approximately 10 to 14 days.  It also supports essential bacteria and can be a mechanical and biological filter media, as evidenced by internal filter systems, as long as a regular water change schedule is respected.  Polywool  Effective mechanical filter media that will remove fine particles and prevent other filter media from being prematurely clogged.  It will contribute to polishing aquarium water for ultra clear conditions.
  • 58. CHEMICAL FILTRATION  Active control and change of specific water characteristics.  Filter media and various products exist that clarify water, eliminate odor, remove chlorine, eliminate medications after disease treatments, neutralize heavy metal ions and effect changes in hardness and pH levels.  Specific chemical filter media should be used to optimize water conditions for various groups of fish and plants. This will ensure that fish and plants will look their best and stay healthy.
  • 59.  Accomplished with the use of activated charcoal (soaks up dissolved minerals and chemicals)  Activated charcoal can be placed in box filters or return water can flow through the charcoal. Charcoal must be replaced periodically as it reaches the point where it can no longer absorb dissolved materials.
  • 60.  Carbon  highly adsorptive and is capable of removing odors and liquid wastes such as urine, dyes and many other impurities from aquarium water.  Provides the correct pore size and selection of optimal raw ingredients to provide long lasting aquarium filtration. This is very important as there are carbons that are manufactured using raw materials which are designed for filtering air, not water, and are sold for aquarium use.  Opti–Carb  An advanced chemical filter media that combines a high quality carbon with both a synthetic Organic Adsorption and Ion Exchange Resin.  This potent combination of ingredients will ensure that aquarium water is effectively free of dissolved protein matter, toxic heavy metals, dissolved gasses that cause odor and discoloration for a crystal clear aquarium.  Both fresh and saltwater aquariums will benefit from improved water quality. Fresh and saltwater fish will thrive in ultra pure water while plants and corals will benefit from improved light availability due to ultra clear water conditions.
  • 61.  Phosphate Remover  Phosphate is major nutrient and is undesirable within freshwater aquariums that do not contain plants and in marine aquariums in general. It’s presence is linked to undesirable aquarium conditions and can result in an unsightly appearance.  Pre-Filter  consists of inert, solid rings that are ideal for medium to coarse filtration. These durable rings also serve as a surface for beneficial bacteria, contributing to biological filtration.  Ammonia Remover  natural mineral, which safely and effectively scavenges ammonium from aquarium water.  Particularly useful when chloramine is present in tap water, and in instances where ammonia can occur, such as new aquariums, fish loss, overfeeding, after disease treatment, and overpopulated installations.
  • 62.  Zeo-Carb  Combines Ultra Grade Carbon and Ammonia Remover to protect the aquarium from build-ups of ammonia and liquefied waste, dyes and medication.  It effectively controls and removes ammonia while trapping organic compounds. In addition, it also supports biological filtration.  Nitrate Remover  Effectively bind large quantities of Nitrate and highly toxic Nitrite.  As ammonia and nitrite are continuously converted by nitrifying bacteria, there is an accumulation of nitrate. The greater the concentration of fish and other life within the aquarium the faster Nitrate will accumulate. This is a direct reflection of poor water quality as well as being a major factor in unsightly aquarium conditions. Regular use of this product is highly recommended for well stocked freshwater aquariums, especially those that do not contain live plants.
  • 63. BIOLOGICAL FILTRATION  Neutralize toxic substances, essentially ammonia excreted from fish during respiration and produced from decaying waste and food materials.  In this system, a slotted plastic plate is placed in the bottom of the aquarium.  A 2 or 3 inch layer of gravel is placed over the slotted plate; should be 0.125 inches in diameter  Gravel containing large particles allows food to fall and decay while too small particles block the air pump
  • 64.  Aquarium Peat  Highly desirable filter media which is very beneficial for aquariums containing plants, South American Cichlids, Tetras, Gouramis, Rasboras, Killifish, and many other species of fish originating from acidic waters.  Peat will lightly stain the water a natural tan color, lower pH and KH values, and release natural substances, optimizing aquarium water conditions for many fresh water fish and aquatic plants.  Fish that originate in acidic water will exhibit optimum coloration, improved behavior and reproduction.  Peat can also have a positive effect in supporting acidic water conditions  Bio-Max  Perfect biological media for fresh or salt water aquariums.  BioMax porous cylinders are capable of supporting huge populations of water purifying bacteria. They are composed of 85% Micro-Tunnels, ideal for hosting the beneficial bacteria which consume toxic ammonia and nitrite. The remaining 15% are micro-cavities, ideal for hosting other species of beneficial bacteria that can contribute to biological filtration.
  • 65. Air pump  Achieves aeration (air or gas passing through)  Pumps are either:  Vibrator-diaphragm type  Rotary-vane type
  • 66. Waste and ammonia  Fish excrete waste and an unestablished (or uncycled) aquarium is not capable of processing these waste materials efficiently, so this creates toxic conditions for the fish. The result is fish loss. Your aquarium water must be free of toxic compounds in order for fish to survive and thrive.  Ammonia, perhaps the most notorious toxin, is introduced into your aquarium through fish waste, respiration, and other biological processes. It is extremely toxic and fish will show signs of stress, such as erratic swimming behavior, when ammonia is present. High levels of ammonia attack the gills first, causing fish to gasp at the surface. Continued exposure affects their fins and skin, and eventually their entire system is under attack.
  • 67.  Factors contributing to the increase of ammonia and nitrites:  Increase in waste material and uneaten food on the bottom of the aquarium  Dirty filters  Failure to change water at regular intervals ( ¼ to 1/5 of the water should be changed every 3 to 4 weeks)  Overfeeding  Overpopulation of fish
  • 68.  In an established aquarium, ammonia is promptly converted into less toxic substances by beneficial bacteria through a natural process called the nitrogen cycle.  New aquariums do not have established colonies of beneficial bacteria to adequately process these toxins.
  • 69. Cycling  The process of establishing and maturing biological filtration.  The nitrogen cycling process that all new aquarium setups go through when they first start is what leads to the birth of the aquarium's biological filtration. From start to finish, this cycle usually takes around 30 to 45 days to complete.  Importance:  In order to establish efficient biological filtration capable of breaking down these toxic compounds.
  • 70.  Nitrification  Growth of colonies of aerobic bacteria  Most efficient at a pH of 9  Nitrosomonas ○ Coverts ammonia into nitrites  Nitrobacter ○ Converts nitrites into nitrates pH scales read: 0 = very acidic 14 = very alkaline 7.0 = neutral
  • 72. Importance  The nitrogen cycle of an aquarium is a natural chain of events resulting in the colonization of various types of nitrifying bacteria, each with their own job to do. Without a strong, healthy biological filter, an aquarium will never be able to support a healthy population of fish and invertebrates.
  • 73.  What does toxic ammonia convert into during the nitrogen cycle?  First, oxygen-loving bacteria, called Nitrosomonas, feed on ammonia and through biological processes they excrete nitrite, a less toxic but still dangerous chemical.  Another oxygen-utilizing bacteria, called Nitrobacter, feeds on the nitrite, converting it into relatively harmless nitrate. Nitrate can be used by plants in the aquarium, or can be removed with water changes.
  • 74. HEATERS  Warms water to maintain water temperatures preferred by tropical fish  Stabilizes the water temperature for the health of the fish  There are two types of heaters:  Submersible  Electronic
  • 75. THERMOMETER  To monitor water temperature and heater accuracy
  • 76. LIGHTING  Brings out extraordinary colors in the aquarium and facilitates the growth of live plants  For viewing aquarium inhabitants or for healthy live plants
  • 77. TYPES OF LIGHTING  Fluorescent  Incandescent  LED
  • 78. Factors that influence the type and quantity of light required:  Size of aquarium  Fish species and other aquatic inhabitants  Plant life  Aesthetics
  • 79. Lighting tips:  Most plants require approximately 12 hours per day of light from a fluorescent fixture.  Sudden changes in light may stress fish. When turning canopy lights on or off, it is beneficial to have room lights on for at least 30 minutes.  Fish fed during the day should be allowed 30 minutes of light before and after feeding.  Use timers when possible. Plants and fish will respond better to consistent lighting periods.  Plants and fish will adapt to gradual light changes. When changing bulbs in a multiple bulb installation, change 1 to 2 weeks apart.
  • 80.  A remote ballast should be mounted in an area where there is adequate ventilation to efficiently dissipate heat. This is especially important in ballast types that generate more heat.  Electrical wiring leading to the ballast should always incorporate a drip loop.  Consider a GFI (Ground Fault Interrupter) power bar as an inexpensive insurance to avoid unpleasant circumstances surrounding any potential electrical mishaps.  Do not leave lights on 24 hours a day. As in nature, fish and plants require dark periods as well.
  • 81.  To make it attractive  Also provide shelter and hiding places for inhabitants  Plants can be added for attractiveness and to provide a means of using carbon dioxide while releasing oxygen AQUARIUM DECOR
  • 90. Amazon sword plant Arrowhead
  • 94. Japanese dwarf rush Indian water star
  • 97.
  • 98. Success Begins with Research 1. What aquarium inhabitants are appealing to you and what others can be housed with them? 2. What size and shape of aquarium is recommended for them? 3. What types of filtration, lighting, decorative structure, and accessory equipment are needed in order for the aquarium inhabitants to thrive? 4. What feeding and maintenance is required to keep them healthy? 5. Most importantly, are you willing to invest the time and money necessary for ongoing maintenance?
  • 99. Rules of the thumb  Generally, the larger the aquarium the better, unless it will be too heavy for the flooring to hold it. A tank that is filled with gravel and water will weigh at least 10 lbs. per gallon. That adds up quickly, if you consider that a seemingly small 20-gallon tank will weigh 200 pounds . . . and that does not account for the stand, lighting, or filtration!  It is imperative to choose a sturdy stand to hold the tank. If you choose to setup your tank in an environment frequented by small children, choose a stand that cannot be climbed on or pulled over.  Choose a filter appropriate to the type of inhabitants you are keeping and water capacity of the tank. Buy the best filter that you can afford. At minimum, a filter should provide mechanical and biological filtration.  Next, you'll need a heater and a good thermometer. Make sure the heater is at least 3-5 watts per gallon. For example, a 50-gallon tank would require a 150-250 watt heater.
  • 100.  You will need to choose an aquarium cover or hood. If the inhabitants require special lighting, you'll want to purchase a fixture that can accommodate it.  A water conditioner will be needed to remove chlorine and heavy metals if they are present in your water supply.  Don't forget a net!  Now, you're ready to decorate. It's essential to choose decorations that provide fish with structure and hiding places to relieve stress. Plants and decorations can also be used to conceal filter parts. Gravel in the bottom of the tank holds plants and decorations while hiding wastes. If you will be using an under gravel filter, the gravel should be about 2 inches thick. Dark colors will make the fish color appear more vibrant.  A gravel cleaner and algae cleaner will be needed within 30 days so you can begin regular maintenance.  Before you place the items in the tank, rinse them off and rinse gravel thoroughly until water drained off is clear.
  • 101.  Choose a sturdy, level area to set up the tank.  Set up the stand, then the tank. Pour in cleaned gravel.  Fill the tank with tap water about 3/4 full, then put in decorations, set up filtration, heater, and thermometer. Continue filling aquarium to 1/2" from bottom of rim. This allows extra space for when you put your first batch of fish in to acclimate.  Now, you're ready to start up filtration, heater, and add any water conditioners needed. Assemble lighting/cover. Then, wait until tank heater has adjusted the water to the correct temperature (75°F for most fish) and maintains it.  Finally, you can purchase your fish and acclimate them to their new home; remember not to put too many in at one time.
  • 102. 10 BASIC TIPS FOR A SUCCESSFUL AQUARIUM 1. AVOID OVERCOMPENSATING Instead: Assess the situation and determine a prudent course of action. Many situations benefit from patience rather than misguided action. 2. AVOID ADDING TOO MANY FISH TOO SOON Instead: Allow two to three weeks between each introduction of new fish. Also, use a biological additive with every addition. Adding too many fish too quickly taxes the biological filter. The subsequent spike in ammonia level can often result in fish loss. 3. AVOID SKIPPING QUARANTINE Instead: Always house new fish in a separate quarantine aquarium for a minimum of 2 weeks for observation and treatment of potential illness. 4. AVOID NEGLECTING WATER TESTS Instead: Test aquarium water regularly to make sure water parameters are within acceptable levels. Many common aquarium pollutants are invisible. Regular water testing is the only accurate way to detect toxins such as ammonia or nitrite. 5. AVOID OVER-CLEANING Instead: Stagger water changes and perform partial gravel cleaning to preserve vital beneficial bacteria. Aggressive cleaning can upset established biological filtration by removing beneficial bacteria. An imbalance may result where ammonia levels exceed the processing capacity of the diminished bacterial population.
  • 103. 6. AVOID UNDER-CLEANING Instead: Perform routine partial water changes and follow the manufacturer's recommended schedule for replacing filter media. Lax maintenance habits have a cumulative negative effect on overall water quality. Not only do pollutants accumulate to unhealthy levels, it becomes more difficult to bring aquarium conditions within acceptable parameters. 7. AVOID SKIPPING RESEARCH Instead: Research care requirements of the species you are interested in first. Resist impulse purchases. Make sure you are able to properly provide for the species and that your aquarium is capable of supporting the new addition. Also, confirm compatibility of existing aquarium inhabitants. 8. AVOID "GENERIC" EQUIPMENT SELECTION Instead: Purchase equipment that satisfies the specific needs of YOUR aquarium inhabitants. Each aquarium setup is unique, so research and customize filtration, lighting, water movement, and aeration requirements. 9. AVOID IMPROPER NUTRITION Instead: Offer a wide variety of foods, including flake foods, freeze-dried foods, and frozen foods. Avoid over-feeding by following the manufacturer's feeding instructions. Adjust feeding amount so fish are able to finish the dispensed portion within a couple minutes. 10. AVOID IMPROPER USE OF BOTTLE REMEDIES Instead: Always read and follow the manufacturer's label completely before dispensing any medications, water conditioners, or algaecides. More does not always mean better results.
  • 104. Fish pond  a controlled pond, artificial lake, or reservoir that is stocked with fish and is used in aquaculture for fish farming, or is used for recreational fishing or for ornamental purposes.
  • 105. STEP-BY STEP 1. MAKING CONTOURS 2. THE DIGGING 3. THE LINER • 1st layer – polyester • 2nd layer – rubber 4. INSTALLING EQUIPMENT  Filter system 5. ADDING STRUCTURE
  • 106. THINGS TO CONSIDER: 1. LOCATION  A place with a good mixture of sun and shade.  Build on a natural hill so we could put a waterfall using a terrain. 2. STYLE/SIZE  Depth  Levels  Most comfortable way of enjoying and feeding the fish 3. MAINTENANCE COMMITMENT 4. SELECTING FISH 5. PLANT 6. WATERFALL
  • 107. Water hardness  Hardness – caused by a dissolved magnesium and calcium salts  can be diluted by removing some of the hard water and adding soft water  2 types:  Temporary ○ can be removed by boiling the water  Permanent ○ Removed by chemical means or distillation
  • 108.  Measured by:  German scale measure (°DH)  Clark or English scale measure (°H)  ppm (parts per million of either CaCo3 or CaO)  gpg (grains per gallon) Conversion factors: 1 °DH = 17.9 ppm CaCo3 1 °H = 14.3 ppm CaO
  • 109. Selecting Healthy Fish  Clear Eyes (not cloudy).  Erect, undamaged fins.  Scales should be intact, parallel with body (not sticking outwards) and no red blotches.  No holes, ulcerations, or lumps.  Species with translucent bodies, no inner appearing whitish areas.  Active, lively, normal swimming patterns (some species are naturally shy and reclusive).  No white spots (salt grain size) or white cottony growths on the fins or body.  Respiration rate should be regular and steady (in unstressed circumstances).  Gills should be red inside, not faded or discolored, and not distended or puffy.  Actively feeding.  Avoid selecting fish from a system that contains any sick specimens.
  • 110. ACCLIMATION OF NEW FISH  Close the aquarium lights during the acclimation period. Float the bag in the aquarium for approximately 20 minutes to equalize water temperatures.  Open the bag and gently pour in some aquarium water (approximately 1/3 the bag volume), wait 10 minutes. Repeat this water introduction twice more at the same interval.  Carefully net the fish out of the bag and place them in the aquarium. Dispose of the water in the bag, DO NOT release this water into the aquarium.  If the newly introduced specimens are the only ones in the aquarium, wait 24 hours before initial feeding.
  • 111. To determine the number of fish can be put in a tank  One should multiply the length by the width to determine the square inches of surface area  Rule of thumb:  Tropical Freshwater aquarium – no more than 1 inch of fish for every 10 square inches of surface area  Cold Freshwater aquarium – 1 inch of fish for every 30 square inches of surface area  Marine aquarium – 1 inch of fish for every 48 square inches
  • 112.
  • 113. SUBORDER CHARACOIDEI FAMILY CHARACIDAE FAMILY GASTEROPELECIDAE FAMILY ANOSTOMIDAE FAMILY HEMIODONTIDAE SUBORDER CYPRINOIDEI FAMILY CYPRINIDAE FAMILY GYRINOCHEILDAE FAMILY COBITIDAE
  • 114. Family Characidei  Large family containing 1,300 species: about 1,000 are found in Central America and the remaining are found in Africa  Most are brightly colored and have narrow dorsal fin and small adipose fin.  Most are omnivorous and consume all types of food while few are carnivorous  Inhabit shallow, slow-moving rivers of the rainforest and live among sand and ground shoal areas.  Most are sociable and do well in the aquarium community
  • 115. TETRA Blind Cave Fish Astyanax mexicanus  Native to the underground caves of Mexico  Grows about 3 ½ inch long  Primarily flesh colored and fins are colorless  The young has eyes but as they mature skin grows on them thus nonfunctional  Uses their sense of smell to seek out and consume food
  • 116. Bucktoothed Tetra Exodon paradoxus  Grows about 5 ½ inch in lenth  Very aggressive and should be kept in thickly planted aquariums with fish that are able to protect themselves  Gold-colored with reddish orange fins  Feed on vegetation and fruit  Native to South America
  • 117. Red-eyed or Glass Tetra Moenkhausia oligolepis  Grows slightly less than 5 inches in length  Silver gray with dark edges to the scales on the upper body  Upper part of the eyes is red  There is a yellow band around the penducle and a black band at the base of the caudal fin
  • 118. PIRANHA Red Piranha Serrasalmus nattereri  Most widespread among the piranha species  Found in South America  Grows about 12 inches in length  Disc-shaped, muscular and very powerful  Eats young fish, lean meat, meat-based flake foods and insects  Primary color is steel gray, darker blue-gray color back and red underside with numerous black spots  Must be kept in an aquarium by themselves  Temperature should be maintained at about 78 F
  • 120. Family Gasteropelecidae  Commonly referred as hatchet fish  have distinctive hatchet shaped, deep, narrow bodies and are small fish 1 ½ to 2 ½ inches long  Elongated pectoral fins used to fly short distances across the water’s surface  Aquariums should be fitted with cover lid to prevent them from flying out  Temperature control: 79 F  Native to South America  Top-feeders
  • 121. HATCHET FISH Common hatchet fish Gasteropelecus sternicla
  • 122. Black-wing hatchet fish Carnegiella marthae Marbled hatchet fish Carnegiella strigata
  • 123. Family Anostomidae  Native to South America  Reach 3 to 5 inches length  During rest, these fish position themselves vertically among plants and rocks  Middle to bottom dwelling fish, feed on all types of food  Do well in community aquariums  Good jumpers  Water should be soft, slightly acidic, filtered through peat and maintained at 79 F
  • 124. Marbled headstander Abramites hypselonotus Striped headstander Anostomus anostomus
  • 125. Spotted headstander Chilodus punctatus Banded headstander Leporinus fasciatus
  • 126. Family Hemiodontidae  Native to South and Central America  Distinguished by having no teeth in its lower jaw  Have small pointed mouths; some have adipose fin and some swim at an oblique angle  Take on different coloration at night than during the day  Top to middle dwellers  Water should be soft, slightly acidic, filtered through peat and 76 F, plus or minus 6
  • 127. Common pencil fish Nannostomus eques Dwarf pencil fish Nannostomus marginatus
  • 128. One-lined or golden pencil fish Nannostomus unifasciatus Three-lined pencil fish Nannostomus trifasciatus
  • 129. Family Citharinidae  Native to Africa  Sometimes referred to as moon fish
  • 130. Six-banded Distichodus Distichodus sexfasciatus  Primary color is orange with silver or gold iridescence; white with dark edge adipose fin and other fins have a reddish tinge, caudal fin is bright red with dark edges  Does well in community aquarium  Grows up to 10 inches, may be aggressive to smaller fish  Feed on all types of food; young and tender shoots  Water should be maintained at 78 F, plus or minus 3 F
  • 131. One-striped African Characin Nannaethiops unitaeniatus  Grows about 2 ½ inches long  Upper parts are brown and lower parts are yellow with white belly  Dark striped run from the mouth through the eye to the base of the caudal fin and above this is a golden iridescent strip  Does well in aquarium community  Water temp.: 78 F  Feed on all types of food
  • 132. Pike Characin Phago maculatus  Grows about 6 inches  Very thin, narrow fish with long beak-like jaws. Both upper and lower jaws habe two rows of teeth  Has large caudal fin; others are small  Very aggressive should be kept only in a species aquarium  Eats insects and other fish  Water temp: 81 F, plus or minus 2 F
  • 133. African Redfin Neolebias ansorgii  Grows to about 1 ½ inches long  Primary color is dark blue with white underside and red fins  Overall blue-gold iridescence  Bottom-dwellers  Does best in shoals (group of fish) of its own kind  Feed on all types of food  Water temp.: 78 F, plus or minus 5 F
  • 134. Family Cyprinidei  Commonly referred to as carps and minnows  Doesn’t have teeth in its jaws, but uses pharyngeal teeth in its throat (pharyngeal teeth) to grin and break up food  Some have barbels at the corner of the mouth while none have adipose fin  Most are bottom-dwellers; do well in aquarium community  Water temperature: 75 F, plus or minus 2 F  Feed on all types of food
  • 135. Goldfish Carassius auratus  Kept and developed by Chinese for centuries  Most grow from 3 ½ to 8 inches long  Occupy all levels of aquarium  Single-tail varieties: easiest to keep and water temp. between 32 and 68 F  Two-tail varieties: more delicate and require more care, water temp between 46 to 68 F  Feed on all types of foods  Water must be kept clean
  • 136. Koi Cyprinus carpio  Originated in Japan  Grow to 3 feet can be worth thousand of dollars  Small koi are usually kept indoors and then moved outdoor pools when they reach 5 inches  Occupy all levels  Water temp.: between 32 and 68 F  Water must be well filtered  Consume all types of foods.
  • 137.  Three main varieties:  Single-colored = yellow or orange  Two-colored = white with red markings (Kohaku) gold and silver (Hariwaki)  Three-colored = light blue with orange and black markings (Asagi); white with red and black markings (Taisho Sanke); black with red and white markings (Showa Sante)  Divided with type of scales:  Doitsu – few large scales  Matsuba – pinecone scales  Kin-rin – gold metallic speckled scales  Gin-rin – silver metallic speckled scales
  • 138. BARB Spanner Barb Barbus lateristiga  Native to Thailand, Malaysia and Indonesia  Grows up to 7 inches long  Primary color is greenish gold, darker on the back getting lighter downsides with silver underside.  2 large vertical bars run from back to belly & 1 dark horizontal bar through penducle to the caudal fin  Occupies all levels  Should be kept with similar size fish  Consumes all types of food  Water temp.: 71 F, plus or minus 5
  • 139. Tinfoil barb or goldfoil barb or Schwanenfeld’s barb Barbus schwanenfeldi  Native to Thailand, Malaysia and Indonesia  Grows to 12 inches long  Primary color is silver with gold or blue irdescence  Fins are red, dorsal fin has black tip and caudal tip has black edges  Does well in community aquarium but should be kept with similar size fish  Diet: vegetation, lettuce leaves along with other types of food  Water temp: 72 F, plus or minus 5 F
  • 140. Clown barb or Everett’s barb Barbus everetti  Native to Singapore and Borneo  Grows to 6 inches long  Primary color is reddish brown with orange tinge & silver/gold iridescence; fins are light red  Does well in community aquarium but should be kept with similar size fish  Consumes all type of food  Water temp.: 79 F, plus or minus 2 F
  • 141. Cherry barb Barbus titteya Zebra barb Barbus fasciatus
  • 142. Arulius Barb Barbus arulius Dwarf or Pygmy barb Barbus phutunio
  • 143. MINNOW White Cloud Mountain Minnow Tanichthys albonubes  Native to China  Grows to 1 ¾ inches  Olive brown back with green iridescence and white underside  Thin dark blue stripe runs the length of body and bordered above with golded iridescent stripe and reddish band below  Reddish with silver blue tip fins  Does well in community aquarium  Feeds on all types of food  Very hardy fish, tolerates wide variety of aquarium temperatures from 61 to 72 F
  • 144. DADIO Dadio Laubaca dadiburjori  Native to Indonesia, Burma, Malaysia, Sri Lanka & Thailand  Grows to 1 ¾ inches  Primary color is golden brown, with blue stripe runs the length of the body and yellow fins  Does well in community tanks  Top-dwellers  Feeds on all types of food  Water temp. : 75 F
  • 146. Family Gyrinocheilidae Chinese algae eater or Sucking Loach Gyrinocheilus aymonieri  Native to Thailand  Grows to 10 inches long  Primary body color is gray- brown with dark blotches along its sides and back  Has large, fleshy lips on the underside of the snout and can cling to vegetation, rocks and to glass side of aquarium  Feed primarily on algae and other vegetation  Do well in community aquarium  Water temp: 75 F, pus or minus 5 F
  • 147. Family Cobitidae  Native to Indonesia  Distinguished by their flat underside mouths on lower side of their snout and three pairs of barbels  Nocturnal and hide among vegetation and rocks during the day  Several grow from 2 ¼ to 12 inches long  Most do best in community aquariums  Feed on all types of food  Water temp.: 80 F, plus or minus 5 F
  • 148. LOACH Clown loach Botia macracantha  Most colorful and popular  Primary color is bright orange, 3 dark bands encircle the body  Front portion of dorsal and anal fins are orange; others are red  Does well in community aquarium
  • 149. Orange-finned loach Botia modesta Chain or dwarf loach Botia sidthimunki
  • 150. FAMILY SILURIDAE FAMILY SCHILBEIDAE FAMILY MOCKOKIDAE FAMILY PIMELODIDAE FAMILY CALLICHTHYIDAE FAMILY LORICARIIDAE
  • 155. Family Pimelodidae  Commonly referred to as unarmored catfish  Covered with skin but have no scales or bones
  • 158. Family Loricariidae  Commonly referred to as sucker catfish  Have three or four rows of bony plates or scutes and have underslung mouths designed for sucking or clinging onto vegetation and rocks
  • 159. Whiptail catfish Loricaria filamentosa  Grows to about 10 inches long  Has elongated body with very elongated penducle; upper lobe of the caudal tail is elongated into an appendage
  • 163. Family Cichlidae  Most are native to South America and Africa  Have one pair of nostrils  Dorsal fin has a long base and the first three rays form spines  The anal fin is short and the first three rays are also spines; caudal fin is usually rounded  2 main spawning patterns:  Some lay egg their eggs on rocks, leaves, logs or on holes dug by male  Shelter-breeders, lay their eggs in spawning areas out in the open that have been cleared
  • 164. Angelfish Pterophyllum scalare  From South America  Narrow, disc-shaped with large fins  Dorsal, pelvic and anal fins are usually elongated  Grows about 6 inches  Peaceful fish that do well in community aquarium  Consume all types of food  Water temp. : 79 F, plus or minus 7 F
  • 165. Oscar Astronotus ocellatus  Grow to 14 inches  Coloration varies considerably  Usually gray with black, vertical blotches along the sides; some have reddish orange scales along lower sides  Aggressive & should be kept in a species aquarium  Water temp. : 75 F, plus or minus 3 F  Consume all types of food including chopped meat, live minnows and small fish