Three capacitors have capacitances 13.0 μ μ F, 21.0 μ μ F, and 38.0 μ μ F. 1) What is their effective capacitance if the three are connected in parallel? (Express your answer to three significant figures.) μF μ F 2) What is their effective capacitance if the three are connected in series? (Express your answer to three significant figures.)
Three capacitors have capacitances 13.0 μ μ F, 21.0 μ μ F, and 38.0 μ μ...
Part A What is the equivalent capacitance of two capacitors with capacitances of 0.50 μF and 0.60 μF when they are connected in series? Express your answer using two significant figures. answer needs to be in μF
Three capacitors having capacitances of 8.3 μF, 8.9 μF and 4.9 μF are connected in series across a 36 V potential difference. Part A What is the charge on the 4.9 μF capacitor? Part B What is the total energy stored in all three capacitors?Part C The capacitors are disconnected from the potential difference without allowing them to discharge. They are the reconnected in parallel with each other, with the positively charged plates connected together. What is the voltage across each capacitor...
Problem 24.61 (C) 6orta Three capacitors having capacitances of 85F 81 and 45 F are connected in series across a 31-V potential difference Constants The capacitors are disconnected from the potential difference without allowing them to discharge. They are then reconnected in parallel with each other, with the positively charged plates connected together. What is the voltage across each capacitor in the parallel combination? Express your answer using two significant figures. Pal AΣΦ c 2 221 X10 VE V Submit...
Two capacitors, C1 = 19.0 μF and C2 = 38.0 μF, are connected in series, and a 21.0-V battery is connected across them. (a) Find the equivalent capacitance, and the energy contained in this equivalent capacitor. equivalent capacitance μF total energy stored J (b) Find the energy stored in each individual capacitor. energy stored in C1 J energy stored in C2 J Show that the sum of these two energies is the same as the energy found in part (a)....
Consider three capacitors, of capacitance 2000 pF , 7800 pF , and 0.013 μF . Part A: What maximum capacitance can you form from these? Express your answer to two significant figures and include the appropriate units. Part B: How do you make the connection in this case? A)The capacitors must be connected in parallel. B)The capacitors must be connected in series. Part C: What minimum capacitance can you form from these? Express your answer to two significant figures and...
Three capacitors having capacitances of 8.0 µF, 8.6 µF, and 4.1 µF are connected in series across a 36-V potential difference. (A) What is the charge on the 4.1μF capacitor? ( Express your answer using two significant figures ) i tried to find it and my answers was : ( 7.5*10^2 ) , ( 745 ) , ( 17 ) , ( 74 ) , ( 74.2 ) all are wrong :( (B) What is the total energy stored in...
When five capacitors with equal capacitances are connected in series, the equivalent capacitance of the combination is 4.51 mF. The capacitors are then reconnected so that a parallel combination of two capacitors is connected in series with a parallel combination of three capacitors. Calculate the equivalent capacitance of this combination. Enter your result in millifarads.
Two capacitors connected in parallel produce an equivalent capacitance of 45.0 μF but when connected in series the equivalent capacitance is only 4.4 μF . What is the individual capacitance of each capacitor? Enter your answers in ascending order. Express your answers using two significant figures separated by a comma.
Three capacitors having capacitances of 9.0 μF, 8.7 μF. and 5.0 μF are connected in series across a 32- V potential difference.Part A What is the charge on the 5.0 μF capacitor? Part B What is the total energy stored in all three capacitors? Part C The capacitors are disconnected from the potential difference without allowing them to discharge. They are then reconnected in parallel with each other, with the positively charged plates connected together. What is the voltage across each capacitor in the parallel...
Consider three capacitors, of capacitance 1400 pF, 8400 pF, and 0.013 uF. Part A What maximum capacitance can you form from these? Express your answer to two significant figures and include the appropriate units. Cmax = Value Units Submit Request Answer Part B How do you make the connection in this case? The capacitors must be connected in series. O The capacitors must be connected in parallel. Submit Request Answer Part C What minimum capacitance can you form from these?...