Moonbear said:
Yes, that's it...why is it that engineers can't write in cursive? But when it comes to printing, I think most scientists have pretty meticulous writing; maybe not when jotting out a letter to a friend, but you know you need to print legibly and keep everything tidy or you risk losing that decimal point somewhere and someone could die!
Like brewnog, my handwriting is atrocious - I simply can't write neatly because I can't write faster than I think. So most of time my writting is more like scribbling - and sometime even I can't read it!

I should have taken 'shorthand'.
Reading back through the posts - I would have to say the differences between engineers and physicists, in general, may be superficial, but it also depends on they type of engineering/physics or field.
In nuclear engineering, we have a lot of nuclear physics and reactor (or neutron) physics. In that sense, nuclear engineering is a hybrid of engineering and physics.
As a nuclear engineer, one also studies electrical engineering, materials science, mechanical engineering (thermodynamics, fluid mechanics, corrosion), possibly chemical engineering, in addition to the core nuclear physics and engineering courses.
Nuclear engineers involved in shielding and radiation protection will get heavily involved in the interaction of radiation and materials, and some will become involved in the instrumentation, which combines physics and electrical engineering.
Nuclear engineers interested in fusion engineering would probably want to take courses in plasma physics.
In the modeling I do, I combine various aspects of physics, chemistry (electrochemistry, corrosion), materials science, and mechanical engineering to develop complex models of how fuel and structural materials respond in the nuclear environment. I read particular engineering and physics journals regarding applicable theories related to material behavior down to the atomic level (necessary for understanding things like thermal conductivity as its affected by composition and lattice structure over a range of temperatures from 300K-3000+ K, or micromechanics related to structural integrity (crack initiation and extension)). My group consults on experiments, we predict material behavior (predictive analysis), and we test our models against the experimental results.
So in a sense, my work is primarily both engineering and applied physics.