0 Mathematics Review 1 Models, Measurements, And Vectors 2 Motion Along A Straight Line 3 Motion In A Plane 4 Newton's Laws Of Motion 5 Applications Of Newton's Laws 6 Circular Motion And Gravitation 7 Work And Energy 8 Momentum 9 Rotational Motion 10 Dynamics Of Rotational Motion Periodic Motion, Waves, And Fluids 11 Elasticity And Periodic Motion 12 Mechanical Waves And Sound 13 Fluid Mechanics 14 Temperature And Heat 15 Thermal Properties Of Matter 16 The Second Law Of Thermodynamics 17 Electric Charge And Electric Field 18 Electric Potential And Capacitance 19 Current, Resistance, And Direct Current Circuits 20 Magnetic Field And Magnetic Forces 21 Electromagnetic Induction 22 Alternating Current 23 Electromagnetic Waves 24 Geometric Optics 25 Optical Instruments 26 Interference And Diffraction 27 Relativity 28 Photons, Electrons, And Atoms 29 Atoms, Molecules, And Solids 30 Nuclear And And High-energy Physics expand_more
Chapter Questions expand_more
Problem 1CQ: Why must electric field lines be perpendicular to equipotential surfaces? Problem 2CQ: Which way do electric field lines point, from high to low potential or from low to high? Explain... Problem 3CQ: If the electric field is zero throughout a certain region of space, is the potential necessarily... Problem 4CQ: The potential (relative to a point at infinity) midway between two charges of equal magnitude and... Problem 5CQ: A capacitor is charged by being connected to a battery and is then disconnected from the battery The... Problem 6CQ: A capacitor is charged by being connected to a battery of fixed potential and is kept connected to... Problem 7CQ: Two parallel-plate capacitors, identical except that one has twice the plate separation of the... Problem 8CQ: The two plates of a capacitor are given charges Q, and then they are immersed in a tank of benzene.... Problem 9CQ: Liquid dielectrics having polar molecules (such as water) have dielectric constants that decrease... Problem 10CQ: To store the maximum amount of energy in a parallel-plate capacitor with a given battery (voltage... Problem 11CQ: You have two capacitors and want to connect them across a voltage source (battery) to store the... Problem 12CQ: You have three capacitors, not necessarily equal, that you can connect across a battery of fixed... Problem 1MCP: A surface will be an equipotential surface if (there may be more than one correct choice) A. the... Problem 2MCP: In Figure 18.31, point P is equidistant from both point charges. At that point (there may be more... Problem 3MCP: For the capacitor network shown in Figure 18.32, a constant potential difference of 50 V is... Problem 4MCP: Two charges are placed on the x axis. A charge of +q is placed at the point x = +L, and a charge of... Problem 5MCP: Two point charges with charge +q are initially separated by a distance d. If you double the charge... Problem 6MCP: If the potential (relative to infinity) due to a point charge is V at a distance R from this charge,... Problem 7MCP: If the electric potential energy of two point charges is U when they are a distance d apart, their... Problem 8MCP: An electron is released between the plates of a charged parallel-plate capacitor very close to the... Problem 9MCP: The plates of a parallel-plate capacitor are connected across a battery of fixed potential... Problem 10MCP: When a certain capacitor carries charge of magnitude Q on each of its plates, it stores energy U. In... Problem 11MCP: Two large metal plates carry equal and opposite charges spread over their surfaces, as shown in... Problem 12MCP: The electric potential (relative to infinity) due to a single point charge Q is +400 V at a point... Problem 1P: A charge of 28.0 nC is placed in a uniform electric field that is directed vertically upward and... Problem 2P: Two very large charged parallel metal plates are 10.0 cm apart and produce a uniform electric field... Problem 3P: How far from a 7.20 C point charge must a +2.30 C point charge be placed in order for the electric... Problem 4P: A point charge q1 = +2 40 C is held stationary at the origin. A second point charge q2 = 4 30 C... Problem 5P: Two stationary point charges of +3.00 nC and +2.00 nC are separated by a distance of 50.0 cm. An... Problem 6P: A set of point charges is held in place at the vertices of an equilateral triangle of side 10.0 cm.... Problem 7P: Three equal 1.20 C point charges are placed at the corners of an equilateral triangle whose sides... Problem 8P: When two point charges are a distance R apart, their potential energy Is 2.0 J. How far (In terms of... Problem 9P: Two large metal parallel plates carry opposite charges of equal magnitude. They are separated by... Problem 10P: A potential difference of 4.75 kV is established between parallel plates in air. If the air becomes... Problem 11P: BIO Axons. Neurons are the basic units of the nervous system They contain long tubular structures... Problem 12P: BIO Electrical sensitivity of sharks. Certain sharks can detect an electric field as weak as 1.0... Problem 13P: A particle with a charge of +4 20 nC is in a uniform electric field E directed in the negative x... Problem 14P: Two very large metal parallel plates are 20.0 cm apart and carry equal, but opposite, surface charge... Problem 15P: A uniform electric field has magnitude E and is directed in die negative x direction. The potential... Problem 16P: A point charge is sitting at the origin. The electric potential at the position x = 3 m, y = 5 m is... Problem 17P: An electron is to be accelerated from 3.00 108 m/s to 8.00 108 m/s. Through what potential... Problem 18P: A small particle has charge 5.00 C and mass 2.00 104 P moves from point A where the electric... Problem 19P: Two point charges q1 = +2.40 nC and q2 = 6.50 nC are 0.100 m apart. Point A is midway between them;... Problem 20P: A point charge Q = +4.00 C is held fixed al the origin. A second point charge q = +1.20 C with mass... Problem 21P: Two protons are released from rest when they are 0.750 nm apart. (a) What is the maximum speed they... Problem 22P: x-ray tube. An x-ray tube is an evacuated glass tube that produces electrons at one end and then... Problem 23P: A parallel-plate capacitor having plates 6.0 cm apart is connected across the terminals of a 12 V... Problem 24P: Two very large metal parallel plates that are 25 cm apart, oriented perpendicular to a sheet of... Problem 25P: (a) A +5.00 C charge is located on a sheet of paper. (a) Draw to scale the curves where the... Problem 26P: A +1.50 C point charge is sitting at the origin. (a) What is the radial distance between the 500 V... Problem 27P: Dipole. A dipole is located on a sheet of paper. (a) In the plane of that paper, carefully sketch... Problem 28P: (a) You find that if you place charges of 1.25 C on two separated metal objects, the potential... Problem 29P: The plates of a parallel-plate capacitor are 3.28 mm apart, and each has an area of 12.2 cm2. Each... Problem 30P: The plates of a parallel-plate capacitor are 2.50 mm apart, and each carries a charge of magnitude... Problem 31P: A parallel-plate air capacitor has a capacitance of 500.0 pF and a charge of magnitude 0.200 C on... Problem 32P: Suppose you were to design a 1 F parallel-plate capacitor that has a plate separation of 0.01 mm.... Problem 33P: A 10.0 F parallel-plate capacitor with circular plates is connected to a 12.0 V battery. (a) What is... Problem 34P: A 10.0 F parallel-plate capacitor is connected to a 12.0 V battery. After the capacitor is fully... Problem 35P: You make a capacitor by cutting the 15.0-cm-diameter bottoms out of two aluminum pie plates,... Problem 36P: A 5.00 pF parallel-plate air-filled capacitor with circular plates is to be used in a circuit in... Problem 37P: A disk-shaped parallel-plate capacitor has a capacitance C. In terms of C, what would the... Problem 38P: A parallel-plate capacitor C is charged up to a potential V0 with a charge of magnitude Q0 on each... Problem 39P: For the system of capacitors shown in Figure 18.38, find the equivalent capacitance (a) between b... Problem 40P: Electric eels. Electric eels and electric fish generate large potential differences that are used to... Problem 41P: In Figure 18.39, C1 = 6.00 f, C2 = 3.00 F. and C3 = 5.00 F. The capacitor network is connected to an... Problem 42P: You are working on an electronics pro.ect that requires a variety of capacitors, but you have only... Problem 43P: In Figure 18 39, C1 = 3.00 F anri Vab = 120 V. The charge on capacitor C1 is 150 C. Calculate the... Problem 44P: A 4.00 F and a 6.00 F capacitor are wired in parallel, and this combination is connected across a... Problem 45P: In the circuit shown in Figure 18.40, the potential difference across ab is +24.0 V. Calculate (a)... Problem 46P: In Figure 18.41 each capacitor has C = 4.00 f and Vab = +28.0 V Calculate (a) the charge on each... Problem 47P: Figure 18.42 shows a system of four capacitors where the potential difference across ab is 50.0 V... Problem 48P: For the system of capacitors shown in Figure 18.43, a potential difference of 25 V is maintained... Problem 49P: How much charge does a 12 V battery have to supply to fully charge a 2.5 F capacitor and a 5.0 F... Problem 50P: A 5.80 F parallel-plate air capacitor has a plate separation of 5.00 mm and is charged to a... Problem 51P: (a) How much charge does a battery have to supply to a 5.0 f capacitor to create a potential... Problem 52P: In the text, it was shown that the energy stored in a capacitor C charged to a potential V is U =... Problem 53P: A parallel-plate vacuum capacitor has 8.38 J of energy stored in it. The separation between the... Problem 54P: A 5.00 nF parallel-plate capacitor contains 25.0 J of stored energy. (a) What is the potential... Problem 55P: For the capacitor network shown in Figure 18.44, the potential difference across ab is 36 V. Find... Problem 56P: For the capacitor network shown in Figure 18.45, the potential difference across ab is 220 V. Find... Problem 57P: For the capacitor network shown in Figure 18.46, the potential difference across ab is 12.0 V. Find... Problem 58P: A parallel-plate air capacitor has a capacitance of 920 PF. The charge on each plate is 2.55 C (a)... Problem 59P: Cell membranes. Cell membranes (the walled enclosure around a cell) are typically about 7.5 nm... Problem 60P: A parallel-plate capacitor is to be constructed by using, as a dielectric, rubber with a dielectric... Problem 61P: A 12.5 F capacitor is connected to a power supply that keeps a constant potential difference of 24.0... Problem 62P: The paper dielectric in a paper-and-foil capacitor is 0.0800 mm thick. Its dielectric constant is... Problem 63P: A constant potential difference of 12 V is maintained between the terminals of a 0.25 F,... Problem 64GP: (a) If a spherical raindrop of radius 0.650 mm carries a charge of 1.20 C uniformly distributed over... Problem 65GP: At a certain distance from a point charge, the potential and electric-field magnitude due to that... Problem 66GP: Two oppositely charged identical insulating spheres, each 50.0 cm in diameter and carrying a uniform... Problem 67GP: A positive point charge Q is placed at a position x0on the x axis. The potentialVis then measured at... Problem 68GP: An alpha particle with a kinetic energy of 10.0 MeV makes a head-on collision with a gold nucleus at... Problem 69GP: In the Bohr model of the hydrogen atom, a single electron revolves around a single proton In a... Problem 70GP: A proton and an alpha particle are released from rest when they are 0.225 nm apart. The alpha... Problem 71GP: A parallel-plate air capacitor is made from two plates 0.200 m square, spaced 0.800 cm apart It is... Problem 72GP: In the previous problem, suppose the battery remains connected while the plates are pulled apart.... Problem 73GP: A capacitor consists of two parallel plates, each with an area of 16.0 cm2, separated by a distance... Problem 74GP: Electronic flash units for cameras contain a capacitor for storing the energy used to produce the... Problem 75GP: In Figure 18.49, each capacitance C1 is 6.9 F and each capacitance C2 is 4.6 F. (a) Compute the... Problem 76PP Problem 77PP: A helium ion (He++) that comes within about 10 fm of the center of the nucleus of an atom in the... Problem 78PP: The maximum voltage at the center of a typical tandem electrostatic accelerator is 6.0 MV. If the... Problem 79PP: How many moles of Na+ must move per unit area of membrane to change Vm from 70 mV to +30 mV, if we... Problem 80PP Problem 81PP: Suppose that the change in Vm was caused by the entry of Ca2+ instead of Na+. How many Ca2+ ions... Problem 82PP: What is the minimum amount of work that must be done by the cell to restore Vm to 70 mV? A. 3 mJ B.... format_list_bulleted