Question

Notify Me Bookmark

A 22 kg chimpanzee hangs from the end of a horizontal, broken branch of length L0 = 1.6 m, as shown in the figure(Figure 1). The branch is a uniform cylinder 4.2 cm in diameter, and the end of the branch supporting the chimp sags downward through a vertical distance Δx = 16 cm. Figure 1 of 1 Part A What is the shear modulus for this branch? Express your answer using two significant figures. Submit Request Answer

A 22 kg chimpanzee hangs from the end of a horizontal, broken branch of length L0 = 1.6 m, as shown in the figure(Figure 1). The branch is a uniform cylinder 4.2 cm in diameter, and the end of the branch supporting the chimp sags downward through a vertical distance Δx = 16 cm. Figure 1 of 1 Part A What is the shear modulus for this branch? Express your answer using two significant figures. Submit Request Answer

Image text
A 22 k g chimpanzee hangs from the end of a horizontal, broken branch of length L 0 = 1.6 m , as shown in the figure(Figure 1). The branch is a uniform cylinder 4.2 c m in diameter, and the end of the branch supporting the chimp sags downward through a vertical distance Δ x = 16 c m .
Figure 1 of 1 Part A
What is the shear modulus for this branch? Express your answer using two significant figures. ◻ Submit Request Answer

Detailed Answer

0 0

Please enter your email here. You will get email when this question is answered by our tutor.

Doubtrix Logo

Problem is not yet solved!

Click on Notify me to get email when question is answered.

Join Doubtrix with 7-days free trial

  • Icon Correct & Verified Answers
  • Icon No AI-Generated Answers
  • Icon Video Solution for Difficult Questions
  • Icon Work With Experts to Reach at Correct Answers
Notify me Login Sign Up

Similar/Related Questions

A uniform electric field is directed axially in a cylindrical region that includes a rectangular loop of wire with total resistance R. This loop has radially oriented width a and axially oriented length b, and sits tight against the cylinder axis, as shown in (Figure 1). The electric field is zero at time t = 0 and then increases in time according to E→ = ηt2k^, where η is a constant with units of V/(m⋅s2). Figure 1 of 1 Part A What is the magnitude of the displacement current through a circular loop centered on the cylinder axis with radius r ≤ a, at time t ? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Submit Request Answer Part B Use Ampere's law to determine the magnitude of the magnetic field a distance r ≤ a from the cylinder axis at time t. Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Part C What is the magnetic flux at time t through the rectangular wire loop? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Submit Request Answer Part D What magnitude of current flows in the wire? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Part E Does the current flow clockwise or counterclockwise from the perspective shown in the figure? clockwise counterclockwise Submit Request AnswerA uniform electric field is directed axially in a cylindrical region that includes a rectangular loop of wire with total resistance R. This loop has radially oriented width a and axially oriented length b, and sits tight against the cylinder axis, as shown in (Figure 1). The electric field is zero at time t = 0 and then increases in time according to E→ = ηt2k^, where η is a constant with units of V/(m⋅s2). Figure 1 of 1 Part A What is the magnitude of the displacement current through a circular loop centered on the cylinder axis with radius r ≤ a, at time t ? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Submit Request Answer Part B Use Ampere's law to determine the magnitude of the magnetic field a distance r ≤ a from the cylinder axis at time t. Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Part C What is the magnetic flux at time t through the rectangular wire loop? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Submit Request Answer Part D What magnitude of current flows in the wire? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Part E Does the current flow clockwise or counterclockwise from the perspective shown in the figure? clockwise counterclockwise Submit Request AnswerA uniform electric field is directed axially in a cylindrical region that includes a rectangular loop of wire with total resistance R. This loop has radially oriented width a and axially oriented length b, and sits tight against the cylinder axis, as shown in (Figure 1). The electric field is zero at time t = 0 and then increases in time according to E→ = ηt2k^, where η is a constant with units of V/(m⋅s2). Figure 1 of 1 Part A What is the magnitude of the displacement current through a circular loop centered on the cylinder axis with radius r ≤ a, at time t ? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Submit Request Answer Part B Use Ampere's law to determine the magnitude of the magnetic field a distance r ≤ a from the cylinder axis at time t. Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Part C What is the magnetic flux at time t through the rectangular wire loop? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Submit Request Answer Part D What magnitude of current flows in the wire? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Part E Does the current flow clockwise or counterclockwise from the perspective shown in the figure? clockwise counterclockwise Submit Request AnswerA uniform electric field is directed axially in a cylindrical region that includes a rectangular loop of wire with total resistance R. This loop has radially oriented width a and axially oriented length b, and sits tight against the cylinder axis, as shown in (Figure 1). The electric field is zero at time t = 0 and then increases in time according to E→ = ηt2k^, where η is a constant with units of V/(m⋅s2). Figure 1 of 1 Part A What is the magnitude of the displacement current through a circular loop centered on the cylinder axis with radius r ≤ a, at time t ? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Submit Request Answer Part B Use Ampere's law to determine the magnitude of the magnetic field a distance r ≤ a from the cylinder axis at time t. Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Part C What is the magnetic flux at time t through the rectangular wire loop? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Submit Request Answer Part D What magnitude of current flows in the wire? Express your answer in terms of some or all of the variables R, a, b, r, t, and constants η, ϵ0, μ0, π. Part E Does the current flow clockwise or counterclockwise from the perspective shown in the figure? clockwise counterclockwise Submit Request Answer
Solution
0 0

A 150 V battery is connected across two parallel metal plates of area 28.5 cm2 and separation 9.20 mm. A beam of alpha particles (charge +2e, mass 6.64×10−27 kg ) is accelerated from rest through a potential difference of 1.75 kV and enters the region between the plates perpendicular to the electric field, as shown in (Figure 1). Figure 1 of 1 Part A What magnitude of magnetic field is needed so that the alpha particles emerge undeflected from between the plates? Express your answer with the appropriate units. Submit Request Answer Part B What is the direction of this magnetic field? The magnetic field is directed into the page. The magnetic field is directed out of the page. The magnetic field is directed upward. The magnetic field is directed downward. Submit Request Answer Request Answer

Solution
0 0

The capacitors in the Figure (Figure 1) are initially uncharged and are connected, as in the diagram, with switch S open. The applied potential difference is Vab = + 210 V. Figure 1 of 1 Part A What is the potential difference Vcd ? Express your answer using two significant figures. Submit Request Answer Part B What is the potential difference Vad after switch S is closed? Submit Request Answer Part C What is the potential difference Vdb after switch S is closed? Vdb = V Submit Request Answer Part D What is the potential difference Vac after switch S is closed? Vac = V Part E What is the potential difference Vcb after switch S is closed? Submit Request Answer Part F How much charge flowed through the switch when it was closed?The capacitors in the Figure (Figure 1) are initially uncharged and are connected, as in the diagram, with switch S open. The applied potential difference is Vab = + 210 V. Figure 1 of 1 Part A What is the potential difference Vcd ? Express your answer using two significant figures. Submit Request Answer Part B What is the potential difference Vad after switch S is closed? Submit Request Answer Part C What is the potential difference Vdb after switch S is closed? Vdb = V Submit Request Answer Part D What is the potential difference Vac after switch S is closed? Vac = V Part E What is the potential difference Vcb after switch S is closed? Submit Request Answer Part F How much charge flowed through the switch when it was closed?The capacitors in the Figure (Figure 1) are initially uncharged and are connected, as in the diagram, with switch S open. The applied potential difference is Vab = + 210 V. Figure 1 of 1 Part A What is the potential difference Vcd ? Express your answer using two significant figures. Submit Request Answer Part B What is the potential difference Vad after switch S is closed? Submit Request Answer Part C What is the potential difference Vdb after switch S is closed? Vdb = V Submit Request Answer Part D What is the potential difference Vac after switch S is closed? Vac = V Part E What is the potential difference Vcb after switch S is closed? Submit Request Answer Part F How much charge flowed through the switch when it was closed?
Solution
0 0