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46 Cards in this Set

  • Front
  • Back

WHAT ARE ORGANELLES?

MEMBRANE ENCLOSED STRUCTURES THAT PERFORM SPECIFIC FUNCTIONS

COMMON STRUCTURES OF PROKARYOTIC AND EUKARYOTIC CELLS

PLASMA MEMBRANE


CYTOSOL


ONE OR MORE CHROMOSOMES


RIBOSOMES

FUNCTION OF CHLOROPLASTS

PERFORM PHOTOSYNTHESIS

CELLS IN CHLOROPLASTS

EUKARYOTIC


PLANT CELLS ONLY

PRIMARY PHOTOSYNTHSIS PIGMENT

GREEN

WHY IS PHOTOSYNTHESIS IMPORTANT?

GIVES US OXYGEN


PRODUCES CHEMICAL ENEGRY

ULTIMATE FUNCTION OF PHOTOSYNTHESIS

CONVERT RADIENT ENERGY FROM SUNLIGHT INTO CHEMICAL ENERGY IN THE FORM OF GLUCOSE



PRODUCES OXYGEN

PHOTOSYNTHESIS EQUATION

WATER + CARBON DIOXIDE ---> GLUCOSE + OXYGEN

WHY IS RESPIRATION IMPORTANT?

MAIN WAY CHEMICAL ENERGY IS HARVESTED FROM FOOD AND CONVERTED TO ATP

CELLULAR RESPIRATION EQUATION

GLUCOSE + OXYGEN ---> CARBON DIOXIDE + WATER + ATP

ATP

MAIN SOURCE OF ENERGY USED BY CELLS AND IS PRODUCED WHEN ORGANIC MOLECULES ARE BROKEN DOWN VIA CELLULAR RESPIRATION OR FERMENTATION

FERMENTATION

ANAEROBIC HARVEST OF CHEMICAL ENERGY FROM ORGANIC MOLECULES



CONVERTS CHEMICAL ENERGY TO ATP W/O OXYGEN ((FEWER MOLECULES)

ECOLOGY

STUDY OF INTERACTIONS AMONG ORGANISMS AND B/W ORGANISMS AND THEIR ENVIRONMENT

ECOLOGICAL COMMUNITY

ASSEMBLAGE OF DIFFERENT SPECIES LIVING AT THE SAME PLACE AT THE SAME TIME

TYPES OF INTERACTIONS

COMPETITION (-/-)


EXPLOITATION (+/-)


MUTALISM (+/+)


EXPLOITATION

PREDATION


HERBIVORY


PARASITISM

AUTOTROPH/PRODUCER

PRODUCE OWN FOOD

HETEROTROPH/CONSUMER

EAT OTHER ORGANISMS


TYPES OF HETEROTROPHS/CONSUMERS

HERBIVORE


CARNIVORE


OMNIVORE

DETRITIVORE

EAT WASTE PRODUCTS OR DEAD PLANTS AND ANIMALS



MILIPEDES/EARTHWORMS

DECOMPOSERS

BREAK DOWN NON-LIVING MATERIAL EVEN FURTHER USING ENZYMES



FUNGI/BACTERIA

PRIMARY PRODUCTIVITY

RATE AT WHICH AN ECOSYSTEMS PRODUCERS CONVERT SOLAR ENERGY TO CHEMICAL ENERGY STORED IN BIOMASS

BIOGEOCHEMICAL CYCLE

DESCRIBE MOVEMENT OF NUTRIENTS THRU THE BIOTIC AND ABIOTIC COMPONENTS OF THE ECOSYSTEM

BIOTIC RESERVOIR

LIVING ORGANISMS

ABIOTIC RESERVOIRS

AREAS OUTLISE LIVING ORGANISMS WHERE ELEMENTS ARE STORES


(OCEANS/SOIL)

CLIMATE CHANGE

MAJOR CHANGE IN CLIMATE VARIABLES THAT OCCUR OVER SEVERAL DECADES OR LONGER

GLOBAL WARMING

INCREASE IN EARTHS AVERAGE TEMP

GREENHOUSE EFFECT

WARMING OF THE ATMOSPHERE CAUSED BY THA LAYER OF GREENHOUSE GASSES THAT ABSORB HEAT RADIATION AND SLOWS RELEASE FROM EARTHS SURFACE

COMMON GREENHOUSE GASSES

CARBON DIOXIDE


METHANE


NITROUS OXIDE


HALOCARBONS


OZONE

WITHOUT GREENHOUSE GASSES, WHAT WOULD HAPPEN?

EARTHS TEMP WOULD DROP TO EXTREMELY LOW TEMPS EACH NIGT PREVENTING LIFE AS WE KNOW IT

ENVIRONMENTAL IMPACTS OF CLIMATE CHANGE

INCREASE GLOBAL TEMP


RAIN PATTERS CHANGE


WARMING OCEANS


OCEAN ACIDIFICATION


SHRINKING ICE SHEETS


SEA LEVEL RISE


EXTREME EVENTS

IMPACTS OF CLIMATE CHANGE ON ORGANISMS

RELY ON SUITABLE ENVIRONMENTAL CONDITIONS AND RECOURCES TO SURVIVE


IMPACTS OF CLIMATE CHANGE ON HUMANS

AGRICULTURE


FORESTRY


HEALTH


IF ENVIRONMENT CONDITIONS CHANGE HOW WILL SPECIES RESPOND?

MOVE TO SUITABLE PLACES


ADAPT OVER TIME


GO EXTINCT

PRIMARY SOLUTION FOR CLIMATE CHANGE

MITIGATION

MITIGATION

PURSUING ACTIONS THAT REDUCE GREENHOUSE GAS EMISSIONS TO LESSON GASSES IN THE ATMOSPHERE


EXAMPLES OF MITIGATION

DRIVE LESS


TURN OFF LIGHTS


UNPLUG ELECTRONICS

POPULATION

GROUP OF INDIVIDUALS BELONGING TO THE SAME SPECIES THAT LIVE IN THE SAME REGION AT THE SAME TIME

POPULATION ECOLOGY

STUDY OF FACTORS THAT INFLUENCE A POPULATIONS SIZE, DENSITY, STRUCTURE, AND GROWTH RATE

GLOBAL POPULATION GROWTH RATE

DETERMINED BY BIRTH AND DEATH RATE

EXPONENTIAL GROWTH RATE

DESCRIBES THE EXPANSION/GROWTH OF A POPULATION IN AN IDEAL/UNLIMITED ENVIRONMENT


CANT SUSTAIN FOREVER

"LIMITING FACTORS"

ENVIRONMENTAL FACTORS THAT KEEP POPULATION GROWTH IN CHECK BY REDUCING BIRTH RATE/ DECREASING DEATH RATE

EXAMPLES OF LIMITING FACTORS

WATER


FOOD


SPACE


PREDATORS


DISEASE

CARRYING CAPACITY

MAX POPULATION SIZE THAT A PARTICULAR ENVIRONMENT CAN SUSTAIN

WHY IS CARRYING CAPACITY IMPORTANT?

HIGH GROWING POPULATIONS WILL HAVE LESS RECOURCES

ECOLOGICAL FOOTPRINT

AREA OF BIOLOGICALLY PRODUCTIVE LAND AND WATER NEEDED TO PRODUCE THE RESOURCES AND DISPOSE/RECYCLE WASTE FOR EACH PERSON.



PERSONS IMPACT ON EARTH