Photosynthesis

The two most important output products from photosynthesis are oxygen and glucose. Oxygen is critical for cellular respiration in organisms that require it for survival, and glucose serves as a source of energy for most living organisms on Earth.

Photosynthesis is not a organism. It is a process on plants. It provides energy for us.

Cellular respiration is the process by which cells break down glucose and other organic molecules to produce energy in the form of ATP. This process involves the intake of oxygen and the release of carbon dioxide. In contrast, photosynthesis is the process by which plants, algae, and some bacteria convert light energy into chemical energy stored in glucose. Together, cellular respiration and photosynthesis are complementary processes in the carbon cycle, with the products from one process serving as the reactants for the other.

Cellular respiration is the process by which food is broken down by the body's cells to produce energy in the form of ATP molecules. Cells use ATP to supply their energy needs.

In plants, some of this ATP energy is used during photosynthesis to produce sugar. These sugars are in turn broken down during cellular respiration, continuing the cycle.

from my knowledge, it all comes down to the structure of the protein. if there is no complimentary shape for the protein then no binding will occur and therefore no reaction. furthermore there can be proteins or molecules that can bind to the protein and change its shape (i.e. goes through a conformational change) and therefore can stop other proteins binding to it and causing a reaction. in terms of enzymes and substrates, the substrate can ether bind in the active site of the enzyme, in which case it is classed as a competitive inhibitor or it can bind to an allosteric site (sites other than the active site of an enzyme) in which case it is classed as non competitive inhibitor. both these forms of inhibitory action can stop a reaction taking place.

Ive never done much chemistry so i may be wrong but from a chemistry point of view these non reaction can be explained by electron sharing, losing and gaining. atoms are more likely to share or give an electron depending on the number of electrons found on its most outer layer. in pure basic terms the first layer/shell/energy level likes to have two electrons and the second layer/shell/energy level has eight electrons. it is also important to note the first shall has to be full before it can move onto the second shell. so for example if we consider oxygen it has 8 electrons. the first layer will be filled with 2 electrons and the second with 6. oxygen by itself can be referred to as radicals and they are very unstable and can be toxic to the cells in the body. however when oxygen binds with another oxygen to form an oxygen molecule the structure becomes stable and will get a reaction. this is because oxygen will start to share two electron from its outer most layer which will conquer with the rule of having 2 or 8 electrons on its outer most layer. I've only talked about the first and second layer but there can be many more layers/shells/energy levels and the number of electrons on the outer most layer can change to a higher number.

a process of reduction of carbon dioxide to carbohydrate

The photodissociation of ozone (O3) in the stratosphere during the Chapman cycle produces oxygen atoms. Ultraviolet (UV) radiation breaks apart the ozone molecule into O2 and an oxygen atom (O).

The gas that is removed by sodium hydroxide and is needed for photosynthesis is carbon dioxide (CO2). This gas is essential for plants to produce glucose through the process of photosynthesis.

the cost of direct materials which can be easily identified with the unit of production. For example, the cost of glass is a direct materials cost in light bulb manufacturing.

Hope this helps!👍

In the light reactions of photosynthesis, light energy is converted into chemical energy in the form of ATP and NADPH. These organic molecules are key in driving the subsequent Calvin cycle, where they are used to convert carbon dioxide into glucose.

Yes, a plant with naturally yellow leaves likely contains chlorophyll for photosynthesis, but the yellow color can also be due to other pigments like carotenoids or xanthophylls. These pigments may be present in lower amounts compared to chlorophyll, causing the yellow color to become more apparent.

Plants produce oxygen as a byproduct of photosynthesis, which is a process that converts carbon dioxide and water into glucose and oxygen using sunlight. The oxygen is released into the atmosphere as waste during this process.

It takes the products of photosynthesis and uses cellular respiration to produce ATP, but it does not take part in the actual reactions of photosynthesis. The mitochondrion can, however, give carbon dioxide to the chloroplasts, so it is able to give reactants to the process.

Rotenone inhibits Complex I of the electron transport chain in cellular respiration, preventing the transfer of electrons from NADH to coenzyme Q. This disrupts the flow of electrons and ultimately impairs the production of ATP.

The presence of starch indicates that photosynthesis has taken place because starch is a storage form of glucose produced during photosynthesis. This process involves converting light energy into chemical energy, which is used to synthesize glucose. Starch is the final product of this conversion and serves as a long-term energy store in plants.

Chlorophyll is the green molecule that helps plants capture sunlight during the process of photosynthesis. It is responsible for absorbing light energy and converting it into chemical energy that the plant can use to produce food.

Like all plants, Snake plants perform photosynthesis during the day, releasing oxygen as a byproduct. However, at night, they undergo a process called cellular respiration where they consume oxygen and release carbon dioxide. So, Snake plants do not actively produce oxygen at night.

The reactants in photosynthesis are carbon dioxide (CO2) and water (H2O). These molecules are used by plants, algae, and some bacteria to produce glucose and oxygen in the presence of sunlight and chlorophyll.

Photosynthesis can be broken down into two main stages: light-dependent reactions and light-independent reactions (Calvin cycle). In the light-dependent reactions, light energy is used to split water molecules into oxygen, protons, and electrons. In the Calvin cycle, these electrons are used to assimilate carbon dioxide into organic molecules like glucose.

A plant cell can carry out photosynthesis because it contains chloroplasts, which are organelles that contain chlorophyll. Chlorophyll is a pigment that absorbs sunlight and is essential for converting carbon dioxide and water into glucose and oxygen during the process of photosynthesis.

Oxygen is one of the products that is produced by plants during photosynthesis. It is not a waste product. During aerobic cellular respiration, both plant and animals, and other types of organisms, consume oxygen and glucose, and produce carbon dioxide and water. Photosynthesis is responsible for 98% of the oxygen in the earth's atmosphere.

During photosynthesis, plants absorb carbon dioxide and water to produce sugar and oxygen. The sugar is used for energy or stored for later use, while the oxygen is released into the atmosphere through tiny pores in the leaves called stomata. This process helps plants to generate energy and maintain their metabolic activities.

The general equation for photosynthesis can be summarized as: 6CO2 + 6H2O + light energy → C6H12O6 + 6O2. The product of photosynthesis is glucose (C6H12O6) and oxygen gas (O2).

In laymen's terms, sugar and oxygen are the products.

Chemically, the sugar is glucose: C6H12O6, and oxygen is released as a gas: O2.

Obviously there are many intermediate products, but glucose and oxygen are the final products.

Rock phosphate needs to weather and break down over time due to physical, chemical, and biological processes. Physical weathering includes actions like freezing/thawing, while chemical weathering involves reactions with water and oxygen. Additionally, biological processes such as plant roots and microorganisms play a role in releasing phosphorus from rock phosphate for plant uptake.