Biochemical Reaction Catalysing Solar Trap

In summary, light provides the energy to make things happen in photosynthesis, and catalysts are parts of proteins that help speed up the reaction.
  • #1
MadmanMurray
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I was thinking about an alternative way to harness solar energy there after reading a bit about photosynthesis. So these antennae pigments which chlorophyll is composed of trap solar energy and direct it so that it can be used to catalyse chemical reactions if I'm not mistaken. Wouldn't there exist substances that we can use to catalyse chemical reactions necessary for making fuels and other useful substances?

I haven't got any specific reactions in mind since I was just thinking about how it would be possible to setup a large scale biochemical solar trap geared towards catalysing chemical reactions.
 
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  • #2
One of my good friends is really big into photosynthesis and "synthetic photosynthesis", so he's been keeping me up to date on the latest breakthroughs. You're pretty close, but a little mixed up (though I'm not an expert either by any means). Most of the latest researching had been focusing on the catalysts plants use to split water, which happens to be based on manganese is I remember right. Many people hope that if this one step of photosynthesis could be isolated and removed from the rest of the system then we might be able to use it to produce cheap hydrogen with which to fuel a new green hydrogen economy.

Getting to the point though, light isn't the catalyst. Light just provides all the energy to make things happen. The catalysts are parts of proteins (I think). If you're intesrets in doing a home experiment to split water the way that plants do I think you can do a simple extraction with spinach leaves and acetone. Google the terms "spinach" and "photosynthesis" and you should be able to find tons of articles on this type of research.

Also, we already use catalysts to produce fuel. When crude oil is refined a process called catalytic cracking is used to increase the percentage yield of gasoline. Currently it employs a zeolite based catalyst which breaks apart the heavier chain hydrocarbons thus increasing the relative amount of lighter products.

I don't feel like I really answered your question, but I hope I've still helped somehow.
 
  • #3
In order for a chemical reaction to occur, it must meet two criteria: 1) the reaction must be thermodynamically favorable, and 2) the reaction must be kinetically favorable. The conversion of carbon dioxide into glucose is normally a very thermodynamically unfavorable process (the reverse reaction, burning glucose, releases a lot of energy). In photosynthesis, the energy from light gives the reaction enough extra energy so that the reactions are now thermodynamically favorable.

The second criteria is where catalysts come in. Normally, the reactions of photosynthesis occur very slowly. You could take carbon dioxide and water, and shine light on them, but nothing would occur even though all of the ingredients are there. To speed up the reaction and make it occur on a reasonable time scale, nature has evolved enzymes (biological catalysts) to help along the reactions.

As for using light to power reactions, there are a number of reactions that are commonly used in organic chemistry labs that are powered by light. It is very common for light energy to be used to add chlorine or bromine atoms to an organic compound. Unfortunately, the CFCs use similar mechanisms to harvest the energy of light to promote the destruction of ozone in the upper atmosphere.
 
  • #4
I have a question. does research like this fall under Biochemistry & Biotechnology?

Also I was wondering, since the mitochondria in our cells produce protons which are trapped in the matrix of the organelle, couldn't we use a similar process to produce cheap Hydrogen?
 

1. What is a Biochemical Reaction Catalysing Solar Trap?

A Biochemical Reaction Catalysing Solar Trap is a device that utilizes biochemical reactions to trap and store solar energy. It converts sunlight into chemical energy, which can then be used to power various processes and devices.

2. How does a Biochemical Reaction Catalysing Solar Trap work?

The trap consists of a series of chemical reactions that are triggered by sunlight. These reactions produce molecules that store energy in the form of chemical bonds. The energy can then be released when needed by reversing the reactions.

3. What are the benefits of using a Biochemical Reaction Catalysing Solar Trap?

There are several benefits of using this type of trap. It is a renewable and sustainable source of energy since it uses sunlight. It is also more efficient at storing and releasing energy than traditional batteries. Additionally, it is environmentally friendly and does not produce harmful emissions.

4. What types of biochemical reactions are involved in the trap?

The trap can use a variety of biochemical reactions, such as photosynthesis, to convert sunlight into energy-storing molecules. Other reactions may involve the conversion of carbon dioxide into fuels or the production of hydrogen gas.

5. How can a Biochemical Reaction Catalysing Solar Trap be used in real-world applications?

This type of trap has potential applications in renewable energy production, energy storage, and even in space exploration. It can also be used in remote areas where access to traditional energy sources is limited. Additionally, it can be integrated into buildings or vehicles to provide sustainable energy sources.

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