So, like me, most of you are trying to create a formula that relies on your knowledge of the laws of physics to do what you want. I'll tell you how to make your own fluid, even without chemistry knowledge (to a point). This will follow the scientific theory of deduction.
To deduce, create as many theories as you can and disprove them until you find the perfect one for you.
For the webbing fluid, we will look at the properties, as each deduction is built on a purpose. The Properties of web fluid are:
1.) being incredibly strong. The comic theorizes that peter's webbing is as strong as steel.
2.)Being rapidly changing in adhesion. This thing will be so strong that it can hold steel in place, but he can still let go.
3.) It is elastic. This thing will stretch and return to it's original shape.
4.)it is flame ******ant. A batch of this can extinguish fire.
5.)It is shear thinning. The webbing will flow like liquid when under pressure, but it can hold it's shape.
6.) It is white. What does that tell us? Chances are, it's not burned
7.) It's biodegradable.
8.)It's expansive. There is no way to make those tiny cartridges with that much fluid.
Now, we research. I'd start with research in adhesion and tensile strength, and move your way down. Wikipedia is actually good for this. Even though it has lost credit for being easy to edit, it also means that people can explain it their own words making it much easier to understand the basics. For example:
http://en.wikipedia.org/wiki/Tensile_strength I went to wikipedia, checked to see if the sources listed were legit, and looked at all of the substances that were stronger than steel by at least 3 times. From that, I gathered metals, plastics, and carbon composites.
Next, start cutting out the impossible. If you want to wear the shooters, cut out metals. It is impossible to wear something that could maintain the heat of metal melting without the use of aerogel or other hard to obtain materials. I can cut out most carbon composites in research because they all require hard to make materials and equipment.
Now that I've made it this far, I have (for me) various plastics and graphene. Keep in mind that I've done this for each property. Now it's time to research how to keep it in a liquid form. This requires reverse deduction. For that, you need the answer to the question, in this case "How to keep is a liquid"
Answer:The fluid is maintained as a liquid.
Theory one: it started out as a liquid and as it hit air it turned into a solid.
Theory two:It is a solid that contains a solvent.
Theory three:It was sheer thinning and could transfer.
Now that you have all possible guesses (there are more but I am getting tired of this message) you can pick out the one that will work for you. In the case of sheer thinning, I can't find an article that explains how that works in detail enough. I also can find a correlation between items that are known to be "Shear thinning". Therefore, I eliminate it. As for the theory that it turns into a solid, that requires a massive knowledge of chemistry that I dount any one of us other than thebatsam has. Therefore I am left with the solvent/plasticizer theory.
Finally, when you've found a way to support a theory after disproving all other alternatives, it's time to work on experimenting to create it. Now I will go through my conclusions on popular theories and how I've disproved them.
Theory One: Nylon and contact cement are the formula.
disproving points: Nylon has an incredibly high melting point, there is almost no solvent for it, and contact cement is too weak unless given alot of time.
answer:NOPE
Theory two: use actual spider silk. Spidersilk is strong, but it is not biodegradable. IT is hard to come by. Spiders are mean when it comes to territory. Finally the glue on spider silk is actually a coating. It hasn't successfully been created.
answer:NOT LIKELY
Theory: Pure Cyanoacylate
problems:It isn't cohesive and it requires a surface to polymerize.
Answer:NO but I did find that it was the only instant glue other than dry adhesion (like that of duct tape.)
So this is how I came up with my current formula.
Use Graphene alone? It's not adhesive and doesn't measure up on a mcro level. Add an adhesive and a plastic. So now it's graphene and cyanoacrylate. Cyanoacrylate bonds two different things and reacts with hydroxide. Now the formula is graphene, cyanoacrylate, and polyvinyl acetate. How do we keep those in liquid form. Acetone dissolves all three of them and water has special effects with all three of them. Add them in. What if the formula doesn't react quick enough? Find a catalyst. Vinegar and water speed up cyanoacrylate so that the formula will work faster. What about expansion? Use a surfactant.
Take the most likely candidates in the research and find a way to blend them together. I knew from the second that I learned about superglue and graphene that I had winners. It was now just a matter of messing with them.
Now accidents will happen, but they can be lucky. For example, when I was researching graphene, I found the method that created that and magnesium oxide. I didn't want to seperate them (as I am lazy) and I found out that magnesium oxide was fire proof, strong, and clear. It fit, and I'm sticking with it (pardon the pun)
That's how I figured out this formula that we have now. Look up properties and then find the best options for those properties, and you can deduce which will work best.