You should get as far away from rapeseed oil (Canola Oil) as you can. The FDA refused to allow rapeseed oil for 50 years because it was harmful to the human body. Suddenly and without explanation the FDA lifted its ban. The scientific reasoning for not allowing rape seed oil is still there and people do get sick from it. Google "aniline-denatured rapeseed oil."
And read about it.
Aniline derivatives typically produce a reddish tint in hair. To identify if a hair dye contains an aniline derivative, you can check the ingredient list for common derivatives like p-phenylenediamine (PPD) or related compounds. A patch test can also help determine if the hair dye contains an aniline derivative and if it may cause a reaction.
Not much happens when albumin is shaken. It may cause the protein to denature, or warm a bit when shaking.
Boiling an egg doesn't cause loss of protein, it does denature the protein and changes its form (changes from clear and runny to hard and white).
When leather is produced it is dyed with aniline dyes before any other surface finishes are added. Aniline style leathers (those that have no pigment coating added) are more prone to fading from sunlight and in some cases this can happen quite quickly and quite dramatically. It is an easy problem to fix as Aniline dyes can be used to restore the colour Using a quality leather protector that contains UV protection can help to slow this process down.
Aniline derivatives are derivatives of aniline (phenylamine, C6H5NH2). Aniline is used in an incredibly wide variety of chemical products. You may have heard of the chemical company BASF; the "A" stands for aniline, which is an indication of how important that single compound is to the chemical industry. (The "S" stands for "soda", i.e. sodium hydroxide, another important raw material.) Among other things, it can be used to produce an enormous number of different highly colored materials that can be used as dyes. It's hardly surprising that some of them might be used in hair coloring.
Temperature and enzymes. A good temperature example is the proteins in egg whites denaturing when exposed to heat. Specific enzymes denature specific proteins: lactase (an enzyme) denatures lactose (protein present in dairy products). Protein denaturation can be caused by a number of different factors. These include heat exposure, introduction to acidic surroundings, and exposure to high energy electromagnetic radiation.
Isopropyl alcohol can react with milk because of its hydrophobic properties that can disrupt the structure of proteins in milk. This can cause proteins to denature and lead to the formation of curds or clumps when mixed together.
Not directly. Radiation can cause mutations in DNA. Excess heat (as in the case of a fever) can denature (destroy) the DNA sequence as well as other proteins which will usually result in cell death.
If the body temperature increases too much it can cause proteins within the body to denature and fall part. This disrupts physiological functioning which is bad
Acid coagulation is using acid to coagulate proteins. For most proteins, adding acid will cause the proteins to denature and stick to each other. This happens when making cottage cheese.
The answer is: "Excessive salt ions can cause an enzyme to denature." Although most enzymes function near neutrality, in the range of pH 6-8, there are some exceptions. For example, Pepsin, a digestive enzyme, works best at pH 2. While some coenzymes are inorganic, there are several organic coenzymes as well.
The pH level of boiled milk typically ranges from 6.6 to 6.8. Heating milk can cause some proteins to denature, which may lead to a slight decrease in pH.