A Geiger counter is used to detect charged particles emitted by radioactive nuclei. It consists of a thin, positively charged central wire of radius R a , surrounded by a concentric conducting cylinder of radius R b with an equal negative charge (Fig. 23–40). The charge per unit length on the inner wire is λ (units C/m). The interior space between wire and cylinder is filled with low-pressure inert gas. Charged particles ionize some of these gas atoms; the resulting free electrons are attracted toward the positive central wire. If the radial electric field is strong enough, the freed electrons gain enough energy to ionize other atoms, causing an “avalanche” of electrons to strike the central wire, generating an electric “signal.” Find the expression for the electric field between the wire and the cylinder, and show that the potential difference between R a , and R b V a − V b = ( λ 2 π ϵ 0 ) ln ( R b R a ) . FIGURE 23-40 Problem 83.
A Geiger counter is used to detect charged particles emitted by radioactive nuclei. It consists of a thin, positively charged central wire of radius R a , surrounded by a concentric conducting cylinder of radius R b with an equal negative charge (Fig. 23–40). The charge per unit length on the inner wire is λ (units C/m). The interior space between wire and cylinder is filled with low-pressure inert gas. Charged particles ionize some of these gas atoms; the resulting free electrons are attracted toward the positive central wire. If the radial electric field is strong enough, the freed electrons gain enough energy to ionize other atoms, causing an “avalanche” of electrons to strike the central wire, generating an electric “signal.” Find the expression for the electric field between the wire and the cylinder, and show that the potential difference between R a , and R b V a − V b = ( λ 2 π ϵ 0 ) ln ( R b R a ) . FIGURE 23-40 Problem 83.
A Geiger counter is used to detect charged particles emitted by radioactive nuclei. It consists of a thin, positively charged central wire of radius Ra, surrounded by a concentric conducting cylinder of radius Rb with an equal negative charge (Fig. 23–40). The charge per unit length on the inner wire is λ (units C/m). The interior space between wire and cylinder is filled with low-pressure inert gas. Charged particles ionize some of these gas atoms; the resulting free electrons are attracted toward the positive central wire. If the radial electric field is strong enough, the freed electrons gain enough energy to ionize other atoms, causing an “avalanche” of electrons to strike the central wire, generating an electric “signal.” Find the expression for the electric field between the wire and the cylinder, and show that the potential difference between Ra, and Rb
You hold a spherical salad bowl 85 cm in front of your face with the bottom of the bowl facing you. The salad bowl is made of polished metal with a 40 cm radius of curvature. Where is the image of your 2.0 cm tall nose located? What is image's size, orientation, and nature. I keep getting the answer -26.2, but it keeps saying it is wrong. I just want to know what i'm doing wrong.
A converging lens with a focal length of 6.70 cm forms an image of a 4.60 mm tall real object that is to the left of the lens. The image is 1.50 cm tall and erect. Where are the object and image located? Is the image real or virtual? Please show all steps
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