Formulas and laws currently used in physics are very complicated and difficult to understand or handle and it happens in some cases to completely forget the physical aspect.
Perhaps we need more physics with less mathematics.
Dear Dr. Amrani: In my opinion, physics without mathematics is empty: instead of testable predictions, it is reduced to fairy tales. This is the problem with many (most? all?) popular physics books: they present a view of physics that is not shared by actual physicists. The root cause is that they try to relate counterintuitive concepts to a lay audience without using the precise language that mathematics offers. (They also tend to hype the more "spectacular" aspects of relativity or quantum theory.)
It is not the fault of physics (or physicists) that Nature has more than a few counterintuitive surprises. That there is no absolute time. That at the fundamental level, elementary systems are described by noncommuting quantities, not numbers. But precisely because these secrets of Nature are so far removed from (and alien to) our everyday experience, the rigor offered by mathematics is absolutely needed.
Yes, it makes it hard (and outdated textbooks or unprepared lecturers don't help either.) Physics is arguably a lot harder today than it was a century ago. But then... also don't forget that physics is what gave birth to numerous mathematical ideas, starting with the very notion of calculus. That's because physics needed the exactness of mathematical language to describe, say, the relationship between position and velocity, even though the mathematics of the time was not yet ready to provide it.
Having said that... I agree with you on one point: sometimes, physicists treat purely mathematical constructs with no testable predictions as reality. Some even have the hubris to suggest that pure thought is sufficient to comprehend nature, and experiments may not even be needed anymore! That is just wrong. The foundation of physics is observation; we must not forget that.
Dear Dr. Amrani: In my opinion, physics without mathematics is empty: instead of testable predictions, it is reduced to fairy tales. This is the problem with many (most? all?) popular physics books: they present a view of physics that is not shared by actual physicists. The root cause is that they try to relate counterintuitive concepts to a lay audience without using the precise language that mathematics offers. (They also tend to hype the more "spectacular" aspects of relativity or quantum theory.)
It is not the fault of physics (or physicists) that Nature has more than a few counterintuitive surprises. That there is no absolute time. That at the fundamental level, elementary systems are described by noncommuting quantities, not numbers. But precisely because these secrets of Nature are so far removed from (and alien to) our everyday experience, the rigor offered by mathematics is absolutely needed.
Yes, it makes it hard (and outdated textbooks or unprepared lecturers don't help either.) Physics is arguably a lot harder today than it was a century ago. But then... also don't forget that physics is what gave birth to numerous mathematical ideas, starting with the very notion of calculus. That's because physics needed the exactness of mathematical language to describe, say, the relationship between position and velocity, even though the mathematics of the time was not yet ready to provide it.
Having said that... I agree with you on one point: sometimes, physicists treat purely mathematical constructs with no testable predictions as reality. Some even have the hubris to suggest that pure thought is sufficient to comprehend nature, and experiments may not even be needed anymore! That is just wrong. The foundation of physics is observation; we must not forget that.
According to me Mathematics is the language of Physics. To understand Physics correctly Mathematics is the basics need. Without proper understanding of Mathematics it is really very difficult for anyone to understand Physics. To understand Science anyone should know both Mathematics and Physics.
you may wish to have simpler formulas but I guess this will just remain a wish because an equation in physics is describing something. If the mathematical description matches the experimental observation you will have to deal with it the way it is. This means you cannot expect that you just simplify your equation until it gets "easy enough" and still obtain the same correct/acurate results.
There are some cases where you can examine special cases of a more general phenomenon and reduce the complexity of the equation but this has to be done very carefully in order to keep the physics right (an example would be Newtonian mechanics as a simple limit of relativistic mechanics). This will give you pretty good results as long as your velocity is much smaller than the speed of light but as soon as you approach c Newton's simple laws will break down.
The truth is that nature simply does not care if we find the mathematical formulation of the natural laws simple or complicated, they just are as they are. However, we have to keep in mind that each theory in physics has to be testable by experiments - so, a purely mathematical formulation of a problem without any testability is also not really sound, but as long as it's testable, it can be as complicated as it will.
Mathematics is the language of every science - we must understand the nature of the problem and we must be able to handle with the proper mathematical model.
As others have said, physics requires the precision of mathematical tools to be meaningful. Without that precision, what would it be? Vague concepts? Intuition? There would be no substance to the subject, without mathematical rigor.
My feeling on this matter is that to the non-technical layman, engineering curricula appear more like physics than what they would expect from engineering, physics looks more like math, and pure math curricula are quite incomprehensible.
It really does not matter where you use math. If its application is not limited to statistical data collection, then you have to deal with a variety of models (not only in physics).
The model (if you look at the definition) is an idealized analogue of an object that reproduces with some accuracy a certain limited set of properties of an object in a certain range of conditions.
This is equally true for the mathematical models. The mathematical model can be many times verified, free of math errors and internally consistent, but its compliance with simulated object is determined only by the correctness of the concept and degree of idealization.