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C. Ecology I. Ecosystems and Communities

C. Ecology I. Ecosystems and Communities. Biodiversity

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Page 1: C. Ecology I. Ecosystems and Communities. Biodiversity

C. Ecology I. Ecosystems and Communities

Page 2: C. Ecology I. Ecosystems and Communities. Biodiversity

Biodiversity

Page 3: C. Ecology I. Ecosystems and Communities. Biodiversity

Zebra Mussels

Page 4: C. Ecology I. Ecosystems and Communities. Biodiversity

Predator Removal

Page 5: C. Ecology I. Ecosystems and Communities. Biodiversity

Climograph

Page 6: C. Ecology I. Ecosystems and Communities. Biodiversity

Community Ecology

Interspecific Interactions and Community Structure

Disturbance and Community Structure

Biogeographic Factors

Page 7: C. Ecology I. Ecosystems and Communities. Biodiversity

Competitive Exclusion Hypothesis

Page 8: C. Ecology I. Ecosystems and Communities. Biodiversity

Microhabitats of Lizard Species

Page 9: C. Ecology I. Ecosystems and Communities. Biodiversity

Anolis distichus – sunny leaf surface

Anolis insolitus – shady branch

Page 10: C. Ecology I. Ecosystems and Communities. Biodiversity

Deceptive coloration

Page 11: C. Ecology I. Ecosystems and Communities. Biodiversity

Camouflage – chick (poorwill); lizard

Page 12: C. Ecology I. Ecosystems and Communities. Biodiversity

Aposematic (warning) coloration

Page 13: C. Ecology I. Ecosystems and Communities. Biodiversity

Batesian mimicry – the hawkmoth larva (left) resembles a snake when

disturbed{harmless resembles harmful}

Page 14: C. Ecology I. Ecosystems and Communities. Biodiversity

Mullerian mimicry – the cuckoo bee (left) and the yellow jacket both

have stingers that release toxins {both harmful but more exposure to potential

predators of linking markings with harm}

Page 15: C. Ecology I. Ecosystems and Communities. Biodiversity

Mutualism – between acacia trees

and ants

Page 16: C. Ecology I. Ecosystems and Communities. Biodiversity

Parasitic Nasonia (wasps)

Page 17: C. Ecology I. Ecosystems and Communities. Biodiversity

Commensalism – one species

benefits, the other is neither harmed

nor helped (usually)

Page 18: C. Ecology I. Ecosystems and Communities. Biodiversity
Page 19: C. Ecology I. Ecosystems and Communities. Biodiversity

Trophic levels

– terrestrial and marine food chains

{make sure your assignment doesn’t

resemble this one! ; ) }

Page 20: C. Ecology I. Ecosystems and Communities. Biodiversity

Antarctic marine food

web

Page 21: C. Ecology I. Ecosystems and Communities. Biodiversity

Partial food web

Page 22: C. Ecology I. Ecosystems and Communities. Biodiversity

Without Pisaster

ochraceous (sea stars) as

keystone predators…,

…the Mytilus californianus monopolized the space

Page 23: C. Ecology I. Ecosystems and Communities. Biodiversity

Sea Otters are

keystone predators in the North

Pacific

Page 24: C. Ecology I. Ecosystems and Communities. Biodiversity

A fire on a grassland burns the detritus and rejuvenates the prairie so that virtually all the biomass is living a month after a burn (right)

Page 25: C. Ecology I. Ecosystems and Communities. Biodiversity

Large disturbances occur more often when small disturbances are prevented. Lodgepole pine cones

require intense heat to open and germinate.

Page 26: C. Ecology I. Ecosystems and Communities. Biodiversity

Soil nitrogen concentration during succession after a glacial retreat

Page 27: C. Ecology I. Ecosystems and Communities. Biodiversity

Forest community 1 is

more diverse b/c it has greater

heterogeneity – both in species

richness (number) and

relative abundance

Page 28: C. Ecology I. Ecosystems and Communities. Biodiversity

Species richness generally

decreases towards the poles

Page 29: C. Ecology I. Ecosystems and Communities. Biodiversity

Energy and Species Richness - annual available energy is measured by evapotranspiration

(combining solar radiation and temperature) and expressed as rainfall equivalents in mm/yr.

Page 30: C. Ecology I. Ecosystems and Communities. Biodiversity

The number of plant species on the

Galapagos Islands in relation to the area of

the island.

Page 31: C. Ecology I. Ecosystems and Communities. Biodiversity

Ecosystems

Primary Production

Secondary Production

Cycling of Chemical Elements

Human Impact

Page 32: C. Ecology I. Ecosystems and Communities. Biodiversity

Energy flow = broken red lines; Material cycling = solid blue

lines

Energy = solar radiation chemical

transfers in food web heat radiated to space

Materials = pass through trophic levels

detritus back to primary producers

Page 33: C. Ecology I. Ecosystems and Communities. Biodiversity

Fungi decomposing a log

Page 34: C. Ecology I. Ecosystems and Communities. Biodiversity

Primary Production

Page 35: C. Ecology I. Ecosystems and Communities. Biodiversity

Net Primary Production

Page 36: C. Ecology I. Ecosystems and Communities. Biodiversity
Page 37: C. Ecology I. Ecosystems and Communities. Biodiversity
Page 38: C. Ecology I. Ecosystems and Communities. Biodiversity

II. Biomes

Page 39: C. Ecology I. Ecosystems and Communities. Biodiversity

Lake Zonation

Page 40: C. Ecology I. Ecosystems and Communities. Biodiversity

Oligotrophic Lake

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Eutrophic Lake

Page 42: C. Ecology I. Ecosystems and Communities. Biodiversity

Wetlands

Estuaries

Page 43: C. Ecology I. Ecosystems and Communities. Biodiversity

Marine: 1. Tide Zone 2. Coral Reef 3. Benthos

Page 44: C. Ecology I. Ecosystems and Communities. Biodiversity

Terrestrial Biomes

Page 45: C. Ecology I. Ecosystems and Communities. Biodiversity

Tropical Forests: 1. Highland 2. Lowland 3. Seasonal

Page 46: C. Ecology I. Ecosystems and Communities. Biodiversity

Deserts

Page 47: C. Ecology I. Ecosystems and Communities. Biodiversity

Tundra

Page 48: C. Ecology I. Ecosystems and Communities. Biodiversity

the Biosphere

Page 49: C. Ecology I. Ecosystems and Communities. Biodiversity

Behavioral Ecology

Learning

Animal Cognition

Sociobiology

Page 50: C. Ecology I. Ecosystems and Communities. Biodiversity

Behavior Components

Page 51: C. Ecology I. Ecosystems and Communities. Biodiversity

Digger Wasp Behavior

Page 52: C. Ecology I. Ecosystems and Communities. Biodiversity

Female Songbird Preferences

Page 53: C. Ecology I. Ecosystems and Communities. Biodiversity

Geese Imprinting

Page 54: C. Ecology I. Ecosystems and Communities. Biodiversity

Two types of bird-song development

Page 55: C. Ecology I. Ecosystems and Communities. Biodiversity

Electronic Surveillance of honeybees

Page 56: C. Ecology I. Ecosystems and Communities. Biodiversity

Cooperative Prey Capture

Page 57: C. Ecology I. Ecosystems and Communities. Biodiversity

Territories (small!)

Page 58: C. Ecology I. Ecosystems and Communities. Biodiversity

Staking Territories with Chemical Markers

Page 59: C. Ecology I. Ecosystems and Communities. Biodiversity

Three-spined stickleback

courtship behavior

Page 60: C. Ecology I. Ecosystems and Communities. Biodiversity

Bee Communication

Page 61: C. Ecology I. Ecosystems and Communities. Biodiversity

Colonial Mammals

Naked Mole Rats the Common Mole Rat

Page 62: C. Ecology I. Ecosystems and Communities. Biodiversity

Kin Selection and Altruism in the Belding Ground Squirrel

Page 63: C. Ecology I. Ecosystems and Communities. Biodiversity

Ecology

• the biosphere• behavioral biology• population biology• community ecology• ecosystems

Page 64: C. Ecology I. Ecosystems and Communities. Biodiversity

Population Ecology

Populations

Life Histories

Population Growth

Population Limiting Factors

Human Population /Growth

Page 65: C. Ecology I. Ecosystems and Communities. Biodiversity

Conservation Ecology

Biodiversity Crisis

Conservation at the Population and Species Level

Conservation at the Community, Ecosystem, and Landscape Levels