Ecology Glossary - hrsbstaff.ednet.ns.ca
... 11) Nutrients - chemical elements used by organisms to build and operate their bodies. example: carbon (C), oxygen (O), hydrogen (H), nitrogen (N) 12) Nutrient Cycles - movement of nutrients through the environment. example: Carbon cycle; nitrogen cycle 13) Closed system - an environment in which s ...
... 11) Nutrients - chemical elements used by organisms to build and operate their bodies. example: carbon (C), oxygen (O), hydrogen (H), nitrogen (N) 12) Nutrient Cycles - movement of nutrients through the environment. example: Carbon cycle; nitrogen cycle 13) Closed system - an environment in which s ...
Photosynthesis ppt
... + water + energy glucose + oxygen dioxide 6CO2 + 6H2O + light C6H12O6 + 6O2 energy Regents Biology ...
... + water + energy glucose + oxygen dioxide 6CO2 + 6H2O + light C6H12O6 + 6O2 energy Regents Biology ...
THE CIRCLE OF LIFE – Fill in the Blank
... Cellular respiration and photosynthesis are paired cellular cycles. The waste of one is the starting ingredient of the next. These are examples of _______________________ reactions, or chemical reactions within the cell. We will first attempt to explain the basics of cellular respiration. In any for ...
... Cellular respiration and photosynthesis are paired cellular cycles. The waste of one is the starting ingredient of the next. These are examples of _______________________ reactions, or chemical reactions within the cell. We will first attempt to explain the basics of cellular respiration. In any for ...
CELLULAR ENERGY – CH. 8 • All cellular activities require energy
... when a bond is broken and energy is released ADP can then bond with another phosphate group and form ATP again. This is a renewable cycle so energy is always available for cells to use. ...
... when a bond is broken and energy is released ADP can then bond with another phosphate group and form ATP again. This is a renewable cycle so energy is always available for cells to use. ...
Powering the Cell: Cellular Respiration and Glycolysis/Practice!
... chains used in photosynthesis. In both ETCs, energy carrier molecules are arranged in sequence within a membrane so that energy-carrying electrons cascade from one to another, losing a little energy in each step. In both photosynthesis and aerobic respiration, the energy lost is harnessed to pump hy ...
... chains used in photosynthesis. In both ETCs, energy carrier molecules are arranged in sequence within a membrane so that energy-carrying electrons cascade from one to another, losing a little energy in each step. In both photosynthesis and aerobic respiration, the energy lost is harnessed to pump hy ...
The Chemistry of Life
... Each step on the pH scale represents a factor of 10 ◦ An acid with a pH of 4 is ten times stronger than an acid with a pH of 5 ◦ How many times more basic is a pH of 10 than a pH of 8? 100 times more basic ...
... Each step on the pH scale represents a factor of 10 ◦ An acid with a pH of 4 is ten times stronger than an acid with a pH of 5 ◦ How many times more basic is a pH of 10 than a pH of 8? 100 times more basic ...
individual (or organism) biosphere ecosystem population community
... 17. Why does there always need to be more producers than primary consumers in a food chain or web? Since only 10% of energy is transferred, there must be a lot more producers at the bottom in order for enough energy to be left over and making it to the top levels. 18. How does the element carbon mov ...
... 17. Why does there always need to be more producers than primary consumers in a food chain or web? Since only 10% of energy is transferred, there must be a lot more producers at the bottom in order for enough energy to be left over and making it to the top levels. 18. How does the element carbon mov ...
File - G. Scott`s Bio Page
... – Form of diffusion; passive transport because it does not require energy • Hypertonic = more water inside the cell (less solute) • Hypotonic = more water outside the cell ( less solute) • Isotonic = equilibrium; same concentration of water in and out of cell ...
... – Form of diffusion; passive transport because it does not require energy • Hypertonic = more water inside the cell (less solute) • Hypotonic = more water outside the cell ( less solute) • Isotonic = equilibrium; same concentration of water in and out of cell ...
Plants Review
... Structures and functions, vascular bundles p285/6 Compare monocot and dicot Leaves: structures and functions, veins, cuticle p287 Photosynthesis (mesophyll) Stomata & gas exchange Compare monocot and dicot Transport in plants (see notes) Water transport- xylem, dead cells Capillarity ...
... Structures and functions, vascular bundles p285/6 Compare monocot and dicot Leaves: structures and functions, veins, cuticle p287 Photosynthesis (mesophyll) Stomata & gas exchange Compare monocot and dicot Transport in plants (see notes) Water transport- xylem, dead cells Capillarity ...
Oxidations – loss of electrons
... • Reduces organic molecules in order to regenerate NAD+ 1.Ethanol fermentation occurs in yeast – CO2, ethanol, and NAD+ are produced ...
... • Reduces organic molecules in order to regenerate NAD+ 1.Ethanol fermentation occurs in yeast – CO2, ethanol, and NAD+ are produced ...
Solutions for Biochemistry Unit Exam
... and concentration gradient . H+ ions of the gradient flow down the charge and concentration gradient through ATP synthase. ATP synthase can use the stored energy to make ATP from ADP. ...
... and concentration gradient . H+ ions of the gradient flow down the charge and concentration gradient through ATP synthase. ATP synthase can use the stored energy to make ATP from ADP. ...
Biology Spring Final Bingo
... If some xylem of a young oak tree was destroyed, this would not be carried to the leaves In dicot plants, secondary growth (mostly after the first year) forms Most of the photosynthetic activity in plants takes place in this leaf region Gases like CO2 and O2 enter and are released from these… Water ...
... If some xylem of a young oak tree was destroyed, this would not be carried to the leaves In dicot plants, secondary growth (mostly after the first year) forms Most of the photosynthetic activity in plants takes place in this leaf region Gases like CO2 and O2 enter and are released from these… Water ...
Chapter 9 Cellular Respiration
... Photosynthesis (6H2O + 6CO2 light C6H12O6 + 6O2) This is how autotrophs obtain energy= Producers because they produce their own food from solar energy! Respiration (C6H12O6 + 6O2 6H2O + 6CO2 + 36 ATP) ...
... Photosynthesis (6H2O + 6CO2 light C6H12O6 + 6O2) This is how autotrophs obtain energy= Producers because they produce their own food from solar energy! Respiration (C6H12O6 + 6O2 6H2O + 6CO2 + 36 ATP) ...
Plants and Seeds
... way for plants to acquire nutrients • Cotyledons push up and when they sense sunlight, expand providing energy until ...
... way for plants to acquire nutrients • Cotyledons push up and when they sense sunlight, expand providing energy until ...
Water Wise Gardening Lesson Notes
... need to have these factors in the correct amounts. They need the right balance of each in order to grow efficiently. This is called the LIMITING FACTOR PRINCIPLE which states that, “too much or too little of any biotic factor can limit or prevent the growth of an organism, even if all other factors ...
... need to have these factors in the correct amounts. They need the right balance of each in order to grow efficiently. This is called the LIMITING FACTOR PRINCIPLE which states that, “too much or too little of any biotic factor can limit or prevent the growth of an organism, even if all other factors ...
Ecology - Yorba Linda High School
... 1. CO2 released by volcanoes, human activity, respiration, decomposition 2. Photosynthesis uses CO2 to make glucose 3. Glucose (C6H12O6 eaten by consumers for energy) ...
... 1. CO2 released by volcanoes, human activity, respiration, decomposition 2. Photosynthesis uses CO2 to make glucose 3. Glucose (C6H12O6 eaten by consumers for energy) ...
Ecology
... 1. CO2 released by volcanoes, human activity, respiration, decomposition 2. Photosynthesis uses CO2 to make glucose 3. Glucose (C6H12O6 eaten by consumers for energy) ...
... 1. CO2 released by volcanoes, human activity, respiration, decomposition 2. Photosynthesis uses CO2 to make glucose 3. Glucose (C6H12O6 eaten by consumers for energy) ...
Plants
... Stomata open when guard cells actively accumulate K+ into the vacuole leads to a flow of water by osmosis and increasing turgor. Stomatal closing results from an exodus of K+ from guard cells, leading to osmotic loss of water. ...
... Stomata open when guard cells actively accumulate K+ into the vacuole leads to a flow of water by osmosis and increasing turgor. Stomatal closing results from an exodus of K+ from guard cells, leading to osmotic loss of water. ...
Cellular Energy
... NADH are used to make more ATP. Electrons are donated to make an even more ATP ...
... NADH are used to make more ATP. Electrons are donated to make an even more ATP ...
Biology Ch. 6 Cellular Respiration Notes Glycolysis: “Glucose splits”
... Explain how the human body uses its daily supply of ATP. Minimum functions (maintenance) = 75% of calories taken in each day Voluntary Activity = varies according to activity ...
... Explain how the human body uses its daily supply of ATP. Minimum functions (maintenance) = 75% of calories taken in each day Voluntary Activity = varies according to activity ...
1. Egg, 2. Larva, 3. Pupa, 4. adult
... 4. _Epidermis___ _tissue__ is the outside layer of cells on the top and bottom of a leaf. 5. There are _3___ stages in an incomplete metamorphosis. 6. The process by which cells break down sugar to release energy is _cellular respiration___. 7. There are ___4_____ stages in a complete metamorphosis. ...
... 4. _Epidermis___ _tissue__ is the outside layer of cells on the top and bottom of a leaf. 5. There are _3___ stages in an incomplete metamorphosis. 6. The process by which cells break down sugar to release energy is _cellular respiration___. 7. There are ___4_____ stages in a complete metamorphosis. ...
Gas Exchange/Alveoli
... and the uptake/release of gases. Stomata open and close to take in CO 2 for photosynthesis and release O2 as a by-product; CO2 diffuses through parenchyma cells. The irregular shape and sponginess of these cells increases the internal surface area of the leaf 10-30 times greater than the external su ...
... and the uptake/release of gases. Stomata open and close to take in CO 2 for photosynthesis and release O2 as a by-product; CO2 diffuses through parenchyma cells. The irregular shape and sponginess of these cells increases the internal surface area of the leaf 10-30 times greater than the external su ...
cellular respiration
... and different environmental conditions. In wine-making, grapes are crushed to release the juice which contains sugars. Yeasts are added to this fluid, fermentation occurs which produces alcohol. When the alcohol concentration reaches about 12 per cent (v/v), this kills the yeast cells and fermentati ...
... and different environmental conditions. In wine-making, grapes are crushed to release the juice which contains sugars. Yeasts are added to this fluid, fermentation occurs which produces alcohol. When the alcohol concentration reaches about 12 per cent (v/v), this kills the yeast cells and fermentati ...
Photosynthesis
Photosynthesis is a process used by plants and other organisms to convert light energy, normally from the Sun, into chemical energy that can be later released to fuel the organisms' activities. This chemical energy is stored in carbohydrate molecules, such as sugars, which are synthesized from carbon dioxide and water – hence the name photosynthesis, from the Greek φῶς, phōs, ""light"", and σύνθεσις, synthesis, ""putting together"". In most cases, oxygen is also released as a waste product. Most plants, most algae, and cyanobacteria perform photosynthesis; such organisms are called photoautotrophs. Photosynthesis maintains atmospheric oxygen levels and supplies all of the organic compounds and most of the energy necessary for life on Earth.Although photosynthesis is performed differently by different species, the process always begins when energy from light is absorbed by proteins called reaction centres that contain green chlorophyll pigments. In plants, these proteins are held inside organelles called chloroplasts, which are most abundant in leaf cells, while in bacteria they are embedded in the plasma membrane. In these light-dependent reactions, some energy is used to strip electrons from suitable substances, such as water, producing oxygen gas. Furthermore, two further compounds are generated: reduced nicotinamide adenine dinucleotide phosphate (NADPH) and adenosine triphosphate (ATP), the ""energy currency"" of cells.In plants, algae and cyanobacteria, sugars are produced by a subsequent sequence of light-independent reactions called the Calvin cycle, but some bacteria use different mechanisms, such as the reverse Krebs cycle. In the Calvin cycle, atmospheric carbon dioxide is incorporated into already existing organic carbon compounds, such as ribulose bisphosphate (RuBP). Using the ATP and NADPH produced by the light-dependent reactions, the resulting compounds are then reduced and removed to form further carbohydrates, such as glucose.The first photosynthetic organisms probably evolved early in the evolutionary history of life and most likely used reducing agents, such as hydrogen or hydrogen sulfide, as sources of electrons, rather than water. Cyanobacteria appeared later; the excess oxygen they produced contributed to the oxygen catastrophe, which rendered the evolution of complex life possible. Today, the average rate of energy capture by photosynthesis globally is approximately 130 terawatts, which is about three times the current power consumption of human civilization.Photosynthetic organisms also convert around 100–115 thousand million metric tonnes of carbon into biomass per year.