figure co 7. simple, multicellular animals no organs or true tissues asymmetrical filter feeders

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Figure CO 7

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Page 1: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Figure CO 7

Page 2: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Simple, multicellular animalsNo organs or true tissuesAsymmetricalFilter feeders

Page 3: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders
Page 4: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders
Page 5: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Types of cellsin sponges

Page 6: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Water flowthrough a sponge

Page 7: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Reproduction in sponges

Page 8: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Reproduction in Sponges

AsexualBuddingGemmules (packets of cells in a resistant coating

Sexual reproductionHermaphroditicSperm or eggs released at any time/spongeInternal fertilizationCiliated larvae produced that swim in water

Settle on hard surface and create new sponge

Page 9: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

The carnivorous “velcro”sponge (Family Cladorhizidae)

Page 10: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Hermit crab sponges

Page 11: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Hermit crab sponges reproduce with gemmules, spore-like structures, resistant to being dried out.

Hermit crabs prefer shells without sponges on them.

Page 12: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

“Boring sponge” on a scallop shell. Major decomposer of calcium carbonate in ocean.

Page 13: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders
Page 14: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Phylum Cnidaria

Nematocysts (stinging cells)

Radial symmetry

Polyp and medusa form

Reproduce Asexually (budding)or Sexually (sperm and eggs)Planula larvae metamorphoses into adult

form.

Page 15: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Phylum CnidariaFeeding

carnivorous (use nematocysts)

and/or

photosynthetic (corals, anemones)cells contain zooxanthellae, symbiotic algae in the phylum Dinoflagellates

Page 16: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Phylum Cnidaria

4 major groups:

Anthozoans (corals, anemones, sea pens)

Hydrozoans (siphonophores, hydroids, fire corals, many medusae)

Cubozoa (box jellyfish)

Scyphozoa (Jellyfish)

Page 17: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Figure 7.5

Page 18: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Phylum Cnidaria

Hydroids- Siphonophores (above)(portuguese man-o-war)- Feathery hydroids(picture at right)

Polyp form is dominant.

Page 19: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Phylum Cnidaria

Box Jellyfish(Class Cubozoa)

Page 20: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Phylum Cnidaria: Jellyfish (medusa form only)

Page 21: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Phylum Cnidaria: Anthozoans corals and anemones, anemone shown above) (polyp form is dominant)

Page 22: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Phylum Cnidaria: Anthozoans (corals and anemones, coral shown above) (polyp form is dominant)

Page 23: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders
Page 24: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders
Page 25: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders
Page 26: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders
Page 27: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders
Page 28: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Figure 14.24

Page 29: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Figure 14.25

Page 30: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Figure 14.26

Page 31: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Figure 7.11

Page 32: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Phylum Annelida (segmented worms)Most marine annelids are polychaetes

Page 33: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Polychaetes living in tubes“tube worms”

Page 34: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Living polychaete

Page 35: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Feeding modes

Page 36: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Figure 7.29

Page 37: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders
Page 38: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Snail and radula

Page 39: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Figure 7.21d

Page 40: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Figure 7.20

Page 41: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Figure 7.25

Page 42: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Figure 7.24

Page 43: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

Phylum Mollusca

Snails and limpets (Gastropods)

Mussels, clams, scallops, oysters (Bivalves)

Octopus, squid, cuttlefish (Cephalopods)

Chitons (Polyplacophora)

Page 44: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

What are 3 examples of radially-symmetricanimals that live in the sea?

Page 45: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

What are 3 examples of radially-symmetricanimals that live in the sea?

What is an example of a radially-symmetric animal that lives on land?

Page 46: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

What are 3 examples of filter-feeding animals that live in the sea?

Page 47: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

What are 3 examples of filter-feeding animals that live in the sea?

What do they eat?

Page 48: Figure CO 7. Simple, multicellular animals No organs or true tissues Asymmetrical Filter feeders

What are 3 examples of filter-feeding animals that live in the sea?

What do they eat?

What is an example of a filter feeding animal that lives on land?