gar
Senior Member
- Location
- Ann Arbor, Michigan
- Occupation
- EE
180516-1442 EDT
Education is a theme that has popped up in this thread.
I also think education has degenerated in most areas. From 1st grade on.
My belief is that an education should be directed at basic knowledge, understanding, skills, tools, and how to build on this background to understand, and study new problems.
I spent in the range of 11 years in college, and had some great teachers that taught basic concepts.
Precise equations with constants to get some absolute value were not a primary concern.
I don't know off the top of my hat the scaling constants for a shunt wound DC motor. But I still know how this type of motor works. How speed varies with shunt excitation. How speed varies with mechanical load. How a compound motor works. I had an excellent prof, J. G. Tarboux, that taught basic fundamental concepts. I also had him for AC Machinery. By the way my field of interest was communications or electronics. But we were expected to have a broad knowledge of electrical theory. If I need absolute constants I can look them up, but I generally have no need.
In one class we had a problem to shoot an electron at some initial velocity perpendicular to the surface of one side of a cube at a particular location on that surface so as to exit a hole at another location on the opposite side of the cube. The magnetic and electric fields in the cubic space had to be determined to accomplish the necessary path.
An electron at constant velocity moving perpendicular to a constant magnetic field moves in an arc. This is how a magnetron works. Here you deal with the force on an electron moving in a magnetic field, the electron motion produces a magnetic field that interacts with the fixed magnetic field, and then counteracted by a mechanical force from f = mass*acceleration.
When I see students in classes on TV I see virtual none that know how to properly hold a pen or pencil. This is first grade stuff. They were never taught this skill.
I remember very few differential or integral equations, easily found in references, but I retain the basic concepts of calculus. Differential equations made transient circuit analysis quite understandable.
I have a basic concept of magnetic fields, ferromagnetic materials, saturation, and magnetic coupling. Helps to understand many things.
From what I see more theoretical basics need to be taught, too much is skipped (return to some past basics), add more practical experience, and increase a BSEE to possibly 6 years. Students should be on paid work programs in their field along with their academic work to get an association with real problems and equipment. Student loans should be greatly reduced. These loans are the wrong kind of burden.
.
Education is a theme that has popped up in this thread.
I also think education has degenerated in most areas. From 1st grade on.
My belief is that an education should be directed at basic knowledge, understanding, skills, tools, and how to build on this background to understand, and study new problems.
I spent in the range of 11 years in college, and had some great teachers that taught basic concepts.
Precise equations with constants to get some absolute value were not a primary concern.
I don't know off the top of my hat the scaling constants for a shunt wound DC motor. But I still know how this type of motor works. How speed varies with shunt excitation. How speed varies with mechanical load. How a compound motor works. I had an excellent prof, J. G. Tarboux, that taught basic fundamental concepts. I also had him for AC Machinery. By the way my field of interest was communications or electronics. But we were expected to have a broad knowledge of electrical theory. If I need absolute constants I can look them up, but I generally have no need.
In one class we had a problem to shoot an electron at some initial velocity perpendicular to the surface of one side of a cube at a particular location on that surface so as to exit a hole at another location on the opposite side of the cube. The magnetic and electric fields in the cubic space had to be determined to accomplish the necessary path.
An electron at constant velocity moving perpendicular to a constant magnetic field moves in an arc. This is how a magnetron works. Here you deal with the force on an electron moving in a magnetic field, the electron motion produces a magnetic field that interacts with the fixed magnetic field, and then counteracted by a mechanical force from f = mass*acceleration.
When I see students in classes on TV I see virtual none that know how to properly hold a pen or pencil. This is first grade stuff. They were never taught this skill.
I remember very few differential or integral equations, easily found in references, but I retain the basic concepts of calculus. Differential equations made transient circuit analysis quite understandable.
I have a basic concept of magnetic fields, ferromagnetic materials, saturation, and magnetic coupling. Helps to understand many things.
From what I see more theoretical basics need to be taught, too much is skipped (return to some past basics), add more practical experience, and increase a BSEE to possibly 6 years. Students should be on paid work programs in their field along with their academic work to get an association with real problems and equipment. Student loans should be greatly reduced. These loans are the wrong kind of burden.
.