Question
Medical Physics equipment (Implantable cardioverter defibrillator) question to Physics (Electricity and Magenetism) Instruction : Select a medical investigation or scientific/engineering equipment (Use Implantable cardioverter defibrillator)
Medical Physics equipment (Implantable cardioverter defibrillator) question to Physics (Electricity and Magenetism)
Instruction : Select a medical investigation or scientific/engineering equipment (Use Implantable cardioverter
defibrillator) , that is based on physicsconcepts/principles studied. Briefly describe investigation (or equipment), then
explain how it works. You should discuss your topic with sufficient detail and concision as to present a unified whole.
Be specific rather than vague, concise rather than repetitive. Include the physical quantities you need to define in order
to describe how the equipment functions/the investigation measures and the principles/laws that apply. Estimate or look
up some of the values of the physical quantities involved and calculate others by using formulas from the formula sheet
Answer the question in the following parts:
Part 1: Theory of Implantable cardioverter defibrillatorin clinical practices (Examples) and how it is correlated with the concepts of electric fields/currents etc and the formulas
Part 2: Calculations with specific values and formulas along with explanations
(Include a table that incorporate columns of formulas, theory and application with calculations)
****** References are below, but please also search for more references, data, papers or information that involves values and figures that can be used for calculations for theory applied to the Implantable cardioverter defibrillator.
References : Formula Sheet for Topic and concepts to use for this question
(Apply and explain with calculations)
Constants mass of the proton = mp = 1.67 x 10-27 kg mass of the electron = me = 9.11 x 10-$1 kg Coulomb's law constant = k = = =9.0 x 109 Nm2/C2 permittivity constant = co = 8.85 x 10-12 C2/Nm2 permeability constant = Ho = 4x x 10-7 Tm/A = 1.26 x 10-6 Tm/A fundamental unit of charge = e = 1.60 x 10-19C Ch20 Fonz = Fzon1 = 7-2 E = Fong q Ecapacitor EDA , from positive to negative Ch21 Uelec = qV Kf + qVf= Ki + qVi Uelec = 1 49 V = k- Q = CAVc KEOA d UC = SC(AV)? = ZC Ch.22 Aq 1 = = At Elin = Clout Kirchhoff's junction lawR = PL Resistivity A Material (0 . m) AV Copper 1.7 X 10 R Aluminum 2.7 X 108 (AVA)2 Tungsten (20"C) 5.6 X 10 8 PR = IAVR = I'R = R Tungsten (1500 C) 5.0 X 10 7 Ch.23 Iron 9.7 X 10-8 Nichrome 1.5 x 106 AVloop = EAV Kirchhoff's loop law Seawater 0.22 Reg = R1 + R2 + Ry + .. series resistors Blood (average) 1.6 Muscle 13 1 +...) parallel resistors Fat 25 Pure water 2.4 X 105 T = RC Cell membrane 3.6 X 10' AVe = Vet capacitor discharging Vc = Vbattery (1 - e i) capacitor charging Table 21.3 Dielectric constants of some Ch.24 materials at 20*C Ho I Material Dielectric constant K Bwire 2nr Vacuum 1 (exactly) Air 1.00054* Bloop = 2 R Teflon 2.0 Bsolenoid= HONI Paper 3.0 L Pyrex glass 4.8 Fcharge = |qlvB sina (direction given by the right-hand Cell membrane 9.0 rule) Ethanol 24 Fwire = ILBsin a Water 80 Ch.25 Strontium 300 titanate E = VIB "Use 1.00 in all calculations D = AB coseStep by Step Solution
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