In other words, any chemical—even water and oxygen—can be toxic if too much is ingested or absorbed into the body. The toxicity of a specific substance depends on a variety of factors, including how much of the substance a person is exposed to, how they are exposed, and for how long.
For anyone downvoting this who didn't understand the reference:
Russia is saying that they're the ones shooting down their own planes, because they don't want to admit that Ukraine has the capability to shoot down their planes.
We have a half finished skyscraper, and you're asking me to Just add a new basement between the second and third floor. Do you see how that might be difficult? If we want to do it, we have to tear down the entire building floor by floor, then build up again from the second floor. Are you prepared to spend the money and push back the release date for that new feature?
what things did the LHC discover that have real practical applications right now other than validating some hypothesis
Is really multiple questions:
Is doing fundamental research with no application in mind useful?
Has the LHC led to practical applications usable today
The answer to question 1 is yes.
There's different types of research programs made to target different goals. Some aim for short or medium term applications, and others are just pure fundamental research.
Just because pure research doesn't have an application in mind, doesn't mean it's not useful. The application isn't the goal, the expansion of our knowledge base is. Everyone who ever thought up of an application for something did so based on their own knowledge base. If the knowledge base never expands, then we run out of applications to think up. This is why pure research is useful.
And all of history supports this:
The discovers of rays shooting off cathode-ray-tubes in the 1800s were just doing pure research and had no idea it would lead to TVs
particle accelerator research lead to invention of cat scans
chemists trying to research heavier elements leading to the discovery of nuclear fission, leading to nuclear power
electrolysis research lead to the invention of lead (and rechargeable) batteries
etc...
The answer to question 2 is also yes:
The obvious ones are:
improved manufacturing processes
improved supercooled superconductors
improved large scale vacuum chambers
Improved data processing
Trained a new cohort of experienced scientists/engineers/workers/etc (who can now work on new projects outside of the LHC)
Because: "The dose makes the poison".