Stanley Enemuo: Numerade Educator Profile

Biography

An experienced , creative, knowledgeable instructor that can help guide students towards learning and understanding the complexities in education. I've been an Instructor/Tutor for over five years now with experience in tutoring 1 on 1 and in groups. I began tutoring various courses back in college : Algebra, Pre-calculus, Calculus, Linear Algebra, Differential Equations, English, Physics, and Electrical Engineering Courses. My Education has enabled me to become familiar with Standardized testing exams like SAT, ACT, etc.

My passion for teaching started because back in high school. i had trouble grasping information taught in the classroom, so i'm well aware of the challenges that students face when trying to acquire new knowledge. Acquiring new skills was never easy for me but just like anything in life, continuous practice always leads to progression. I've instructed students of different age range and through my experiences, i've learned that all students are different and there isn't a rigid way of teaching, rather; innovative methods are required for reach students at their level. I do this because nothing gives me greater joy than helping facilitates someone's growth and seeing them reach their full potential. I look forward to learning about you and seeing what aids you the best.

University Physics

Blood contains positive and negative ions and thus is a conductor. A blood vessel, therefore, can be viewed as an electrical wire. We can even picture the flowing blood as a series of parallel conducting slabs whose thickness is the diameter $d$ of the vessel moving with speed $v$. (See $\textbf{Fig. E29.34}$.) (a) If the blood vessel is placed in a magnetic field $B$ perpendicular to the vessel, as in the figure, show that the motional potential difference induced across it is $\varepsilon = vBd$. (b) If you expect that the blood will be flowing at 15 cm/s for a vessel 5.0 mm in diameter, what strength of magnetic field will you need to produce a potential difference of 1.0 mV? (c) Show that the volume rate of flow ($R$) of the blood is equal to $R = \pi\varepsilon{d}/4B$. (Note: Although the method developed here is useful in measuring the rate of blood flow in a vessel, it is limited to use in surgery because measurement of the potential $\varepsilon$ must be made directly across the vessel.)

Chapter 29: Electromagnetic Induction

Section 4: Motional Electromotive Force