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![Region to T = TM Tiwe taken to Cross Region (9.1x103) qB 1-6 xid!) (0.00870) Ti = 2053.77 x 102 sec [1= 2.05 x16 fec] Regiou@](http://img.homeworklib.com/questions/ae2cd910-d8b1-11ea-a81b-7f892160f04f.png?x-oss-process=image/resize,w_560)
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Question 4 of 7 < -/5 View Policies Current Attempt in Progress In the figure, an...
Question 4 of 7 < -75 View Policies Current Attempt in Progress In the figure, an...
Question 4 of 7 < -75 View Policies Current Attempt in Progress In the figure, an electron with an initial kinetic energy of 4.40 keV enters region 1 at timet = 0. That region contains a uniform magnetic field directed into the page, with magnitude 0.00870 T. The electron goes through a half-circle and then exits region 1, headed toward region 2 across a gap of 23.0 cm. There is an electric potential difference AV = 2100 V across the...
Question 7 /1 View Policies Current Attempt in Progress In the figure, an electron with an...
Question 7 /1 View Policies Current Attempt in Progress In the figure, an electron with an initial kinetic energy of 3.60 keV enters region 1 at time t 0. That region contains a uniform magnetic field directed into the page, with magnitude 0.0130 T. The electron goes through a half-circle and then exits region 1, headed toward region 2 across a gap of 22.0 cm. There is an electric potential difference AV 1900 V across the gap, with a polarity...
11:46 Question 7 View Policies Current Attempt in Progress In the figure, an electron with an initial kinetic energy of 4.30 keV enters region 1 at time t = O. That region contains a uniform magn...
11:46 Question 7 View Policies Current Attempt in Progress In the figure, an electron with an initial kinetic energy of 4.30 keV enters region 1 at time t = O. That region contains a uniform magnetic field directed into the page, with magnitude 0.00710 T. The electron goes through a half-circle and then exits region 1, headed toward region 2 across a gap of 22.0 cm. There is an electric potential difference AV- 1900 V across the gap, with a...
In the figure, an electron with an initial kinetic energy of 3.50 keV enters region 1...
In the figure, an electron with an initial kinetic energy of
3.50 keV enters region 1 at time t = 0. That region contains a
uniform magnetic field directed into the page, with magnitude
0.00910 T. The electron goes through a half-circle and then exits
region 1, headed toward region 2 across a gap of 22.0 cm. There is
an electric potential difference ?V = 2000 V across the gap, with a
polarity such that the electron's speed increases uniformly...
Chapter 28, Problem 030 GO In the figure, an electron with an initial kinetic energy of...
Chapter 28, Problem 030 GO In the figure, an electron with an initial kinetic energy of 4.00 keV enters region 1 at time t = 0. That region contains a uniform magnetic field directed into the page, with magnitude 0.0100 T. The electron goes through a half-circle and then exits region 1, headed toward region 2 across a gap of 29.0 cm. There is an electric potential difference AV = 2000 V across the gap, with a polarity such that...
Chapter 28, Problem 030 In the figure, an electron with an initial kinetic energy of 3.50...
Chapter 28, Problem 030 In the figure, an electron with an initial kinetic energy of 3.50 keV enters region 1 at time t 0. That region contains a uniform magnetic field directed into the page, with magnitude 0.00820 T. The electron goes through a half-circle and then exits region 1, headed toward region 2 across a gap of 29.0 cm. There is an electric potential difference ?? = 2100 V across the gap, with a polarity such that the electron's...
Question 5 View Policies Current Attempt in Progress The figure below shows two circular regions R1 and R2 with rad...
Question 5 View Policies Current Attempt in Progress The figure below shows two circular regions R1 and R2 with radir 21.7 cm and r2-32.4 cm. In R, there is a uniform magnetic field of magnitude B 50.7 mT directed into the page, and in R2 there is a uniform magnetic field of magnitude B2-78.4 mT directed out of the page (ignore fringing). Both for (a) path 1, (b) path 2 and (d) path 3. helds are decreasing at the rate...
Question 6 View Policies Current Attempt in Progress An electron is accelerated from rest through potential...
Question 6 View Policies Current Attempt in Progress An electron is accelerated from rest through potential difference Vand then enters a region of uniform magnetic field, where it undergoes uniform circular motion. The figure gives the radius of that motion versus V12 The vertical axis scale is set byr - 3.9 mm, and the horizontal axis scale is set by V 1/2-38.5 V12 What is the magnitude of the magnetic field? Number 1 Units
VIEW FUNCIES Current Attempt in Progress The figure below shows two circular regions R, and R,...
VIEW FUNCIES Current Attempt in Progress The figure below shows two circular regions R, and R, with radiir, -22.4 cm and r2 - 31.6 cm. In R, there is a uniform magnetic field of magnitude B, -52.6 mT directed into the page, and in R, there is a uniform magnetic field of magnitude B2 - 75.5 m directed out of the page (ignore fringing). Both fields are decreasing at the rate of 10.0 mT/s. Calculate $ E. d3 for (a)...
Question 2 of 7 < > 3.5/5 E Show Attempt History Current Attempt in Progress Your...
Question 2 of 7 < > 3.5/5 E Show Attempt History Current Attempt in Progress Your answer is partially correct. In the figure, an electron accelerated from rest through potential difference V1=1.41 kV enters the gap between two parallel plates having separation d = 28.6 mm and potential difference V2= 100 V. The lower plate is at the lower potential. Neglect fringing and assume that the electron's velocity vector is perpendicular to the electric field vector between the plates. In...
Question 4 of 7 < -75 View Policies Current Attempt in Progress In the figure, an electron with an initial kinetic energy of 4.40 keV enters region 1 at timet = 0. That region contains a uniform magnetic field directed into the page, with magnitude 0.00870 T. The electron goes through a half-circle and then exits region 1, headed toward region 2 across a gap of 23.0 cm. There is an electric potential difference AV = 2100 V across the...
Question 7 /1 View Policies Current Attempt in Progress In the figure, an electron with an initial kinetic energy of 3.60 keV enters region 1 at time t 0. That region contains a uniform magnetic field directed into the page, with magnitude 0.0130 T. The electron goes through a half-circle and then exits region 1, headed toward region 2 across a gap of 22.0 cm. There is an electric potential difference AV 1900 V across the gap, with a polarity...
11:46 Question 7 View Policies Current Attempt in Progress In the figure, an electron with an initial kinetic energy of 4.30 keV enters region 1 at time t = O. That region contains a uniform magnetic field directed into the page, with magnitude 0.00710 T. The electron goes through a half-circle and then exits region 1, headed toward region 2 across a gap of 22.0 cm. There is an electric potential difference AV- 1900 V across the gap, with a...
In the figure, an electron with an initial kinetic energy of
3.50 keV enters region 1 at time t = 0. That region contains a
uniform magnetic field directed into the page, with magnitude
0.00910 T. The electron goes through a half-circle and then exits
region 1, headed toward region 2 across a gap of 22.0 cm. There is
an electric potential difference ?V = 2000 V across the gap, with a
polarity such that the electron's speed increases uniformly...
Chapter 28, Problem 030 GO In the figure, an electron with an initial kinetic energy of 4.00 keV enters region 1 at time t = 0. That region contains a uniform magnetic field directed into the page, with magnitude 0.0100 T. The electron goes through a half-circle and then exits region 1, headed toward region 2 across a gap of 29.0 cm. There is an electric potential difference AV = 2000 V across the gap, with a polarity such that...
Chapter 28, Problem 030 In the figure, an electron with an initial kinetic energy of 3.50 keV enters region 1 at time t 0. That region contains a uniform magnetic field directed into the page, with magnitude 0.00820 T. The electron goes through a half-circle and then exits region 1, headed toward region 2 across a gap of 29.0 cm. There is an electric potential difference ?? = 2100 V across the gap, with a polarity such that the electron's...
Question 5 View Policies Current Attempt in Progress The figure below shows two circular regions R1 and R2 with radir 21.7 cm and r2-32.4 cm. In R, there is a uniform magnetic field of magnitude B 50.7 mT directed into the page, and in R2 there is a uniform magnetic field of magnitude B2-78.4 mT directed out of the page (ignore fringing). Both for (a) path 1, (b) path 2 and (d) path 3. helds are decreasing at the rate...
Question 6 View Policies Current Attempt in Progress An electron is accelerated from rest through potential difference Vand then enters a region of uniform magnetic field, where it undergoes uniform circular motion. The figure gives the radius of that motion versus V12 The vertical axis scale is set byr - 3.9 mm, and the horizontal axis scale is set by V 1/2-38.5 V12 What is the magnitude of the magnetic field? Number 1 Units
VIEW FUNCIES Current Attempt in Progress The figure below shows two circular regions R, and R, with radiir, -22.4 cm and r2 - 31.6 cm. In R, there is a uniform magnetic field of magnitude B, -52.6 mT directed into the page, and in R, there is a uniform magnetic field of magnitude B2 - 75.5 m directed out of the page (ignore fringing). Both fields are decreasing at the rate of 10.0 mT/s. Calculate $ E. d3 for (a)...
Question 2 of 7 < > 3.5/5 E Show Attempt History Current Attempt in Progress Your answer is partially correct. In the figure, an electron accelerated from rest through potential difference V1=1.41 kV enters the gap between two parallel plates having separation d = 28.6 mm and potential difference V2= 100 V. The lower plate is at the lower potential. Neglect fringing and assume that the electron's velocity vector is perpendicular to the electric field vector between the plates. In...
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