For the circuit shown, V = 10 V, R₁ = 2.0, R₂ = 3.00, and C = 3.0 F. The capacitor is initially uncharged and the switch is open. What is the charge on the capacitor a long time after the switch is closed, in Coulomb? Your answer needs to have 2 significant figures, including the negative sign in your answer if needed. Do not include the positive sign if the answer is positive. No unit is needed in your answer, it is already given in the question statement.

Consider the circuit shown in (Figure 1). Assume E = 15 V. a) What is the equivalent capacitance? Express your answer with the appropriate units.

Three capacitors are connected as shown, where C = 0.035 F.  Part A) What is the equivalent capacitance, in farads, between points A and B?  Part B)If the capacitors are charged with a ΔV = 10 V source, how much energy will the circuit store, in joules?

Capacitances of 20uF and 60uF are connected in a parallel, and this pair is then connected in series with a 50uF A. Draw & Label B. What is the equivalent capacitance of this arrangment ?

You are working on an electronics project that requires a variety of capacitors, but you have only five capacitors available, each with a capacitance of 170 nF. Part A What is the maximum capacitance that you can produce with these five capacitors? Express your answer in nanofarads. Cmax = Submit Part B Cmin = VG ΑΣΦ Submit Request Answer What is the minimum capacitance, other than zero, that you can produce? Express your answer in nanofarads. VG ΑΣΦ ? Request Answer nF nF

Part A Capacitors C, = 10µF and C2 = 20µF are each charged to 22 V, then disconnected from the battery without changing the charge on the capacitor plates. The two capacitors are then connected in parallel, with the positive plate of C connected to the negative plate of C2 and vice versa. Afterward, what is the charge on each capacitor? Express your answer using two significant figures. Enter your answers numerically separated by a comma. ? Q1, Q2 = µC Submit Request Answer Part B What is the potential difference across each capacitor? Express your answer using two significant figures. Enter your answers numerically separated by a comma. nν ΑΣφ ? AVi, AV2 = V Submit Request Answer

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For the capacitor network shown in (Figure 1), the potential difference across ab is 46 V Figure a 150 nF 120 nF H HE b Find the energy stored in the 150 nF capacitor. Express your answer in microjoules to one decimal place. U150 OF Submit Part F U120 AF = Find the energy stored in the 120 nF capacitor. Express your answer in microjoules to one decimal place. Submit Part G VISO AF = for Part E for East Edo for Part redo fort E reor Part E keyboard shortcuts for Part E help for Part E Submit Request Answer Part H Find the potential difference across the 150 nF capacitor. Express your answer in volts as an integer. For Parve for fan do for Part redo foart Fre@or Part F keyboard shortcuts for Part F help for Part F Request Answer for Part for Part do for Part redo fort G resor Part G keyboard shortcuts for Part G help for Part G VOC Request Answer Find the potential difference across the 120 nF capacitor. Express your answer in volts as an integer. Part for Parto for Part redo for eart H…

Electrostatic forces are conservative. This means that mechanical energy (KE +PE) is constant or conserved in absence of other dissipative forces such as friction. If a charged particle moves from point A to point B in an electric field (assume that dissipative forces such as friction are absent), select all the statements that are true. The symbol A represents the change in the particular quantity. Recall what does positive and negative work mean? Reflect on what the negative sign represents in each case? Select multiple answers. APE=-Work A→B i.e., for positive work, PE decreases and for negative work, PE increases ΔΚΕ # -ΔΡΕ ✓ changes in KE and PE are not connected. ΔΚΕ = -ΔΡΕ i.e., if KE increases, PE decreases and vice-versa APE=WorkAB Ⓒi.e., for positive work, PE increases and for negative work, PE decreases