Opposites Thylakoid Move INTO the cell Carbon Dioxide Grana Calvin Cycle Sun Semipermeable D Water Cuticle Stomata Cellular Respiration Carbon Dioxide & Water To Make Glucose Swell Hypotonic Lose Water & Shrink Producing Glucose Roots Glucose & Oxygen Gas Exchange Stroma Osmosis Cell Membrane ATP Out of the Cell 2 Side B Photosynthesis Animal & Plant Cells Heterotrophs Capture & Transfer Energy A-- >B High to Low Autotrophs Glucose 1 Sugar Chlorophyll Flow in and out Equally Hypertonic Chloroplast Plants Mitochondria Oxygen Opposites Thylakoid Move INTO the cell Carbon Dioxide Grana Calvin Cycle Sun Semipermeable D Water Cuticle Stomata Cellular Respiration Carbon Dioxide & Water To Make Glucose Swell Hypotonic Lose Water & Shrink Producing Glucose Roots Glucose & Oxygen Gas Exchange Stroma Osmosis Cell Membrane ATP Out of the Cell 2 Side B Photosynthesis Animal & Plant Cells Heterotrophs Capture & Transfer Energy A-- >B High to Low Autotrophs Glucose 1 Sugar Chlorophyll Flow in and out Equally Hypertonic Chloroplast Plants Mitochondria Oxygen
(Print) Use this randomly generated list as your call list when playing the game. There is no need to say the BINGO column name. Place some kind of mark (like an X, a checkmark, a dot, tally mark, etc) on each cell as you announce it, to keep track. You can also cut out each item, place them in a bag and pull words from the bag.
Opposites
Thylakoid
Move INTO the cell
Carbon Dioxide
Grana
Calvin Cycle
Sun
Semipermeable
D
Water
Cuticle
Stomata
Cellular Respiration
Carbon Dioxide & Water
To Make Glucose
Swell
Hypotonic
Lose Water & Shrink
Producing Glucose
Roots
Glucose & Oxygen
Gas Exchange
Stroma
Osmosis
Cell Membrane
ATP
Out of the Cell
2
Side B
Photosynthesis
Animal & Plant Cells
Heterotrophs
Capture & Transfer Energy
A-->B
High to Low
Autotrophs
Glucose
1
Sugar
Chlorophyll
Flow in and out Equally
Hypertonic
Chloroplast
Plants
Mitochondria
Oxygen