Based on the information given bad debt expense is $8,675 and the journal entry is: Debit Bad debt $6,575; Credit Allowance for Doubtful Account $6,575.
<h2>a.
Bad debt expense:</h2>
Accounts Receivable Amount % Estimated Uncollectible
Current $65,000 2% $1,300
1–30 days past due $12,900 5% $645
31–90 days past due $10,100 30% $3,030
Over 90 days past due $7,400 50% $3,700
Total $8,675
<h2>b.
Journal entry:</h2>
March 31 2021
Debit Bad debt $6,575
Credit Allowance for Doubtful Account $6,575
($8,675-$2,100)
Inconclusion bad debt expense is $8,675 and the journal entry is: Debit Bad debt $6,575; Credit Allowance for Doubtful Account $6,575.
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Answer:
the correct answer is okay
Explanation:
thx wolfie :D
Using the t-distribution, as we have the standard deviation for the sample, it is found that the 95% confidence interval for the number of units students in their college are enrolled in is (11.7, 12.7).
<h3>What is a t-distribution confidence interval?</h3>
The confidence interval is:

In which:
is the sample mean.
- s is the standard deviation for the sample.
The critical value, using a t-distribution calculator, for a two-tailed <em>95% confidence interval</em>, with 49 - 1 = <em>48 df</em>, is t = 2.0106.
Hence:


The 95% confidence interval for the number of units students in their college are enrolled in is (11.7, 12.7).
More can be learned about the t-distribution at brainly.com/question/16162795
The acceleration of the pendulum mass D is; r"_d = [x''(t) + lθ'' cos θ - lθ'² sin θ]i - l[θ'' sin θ - θ'² cos θ]j
<h3>What is Kinematics of particles?</h3>
Kinematics is the study of the geometry of motion of particles, rigid bodies, etc., disregarding the forces associated with these motions. However, Kinematics of a particle is the motion of a point in space.
From the sample problem, we can solve it using the (x, y, z) coordinate system to get;
r_c = x(t) i
r_d = [x(t) + l sin θ]i + l cos θ j
Finding the first derivative of r_d gives velocity as;
r'_d = [x'(t) + lθ' cos θ]i - lθ' sin θ j
Taking the second derivative of r_d gives the acceleration as;
r"_d = [x''(t) + lθ'' cos θ - lθ'² sin θ]i - l[θ'' sin θ - θ'² cos θ]j
A sample problem of kinematics of particles is;
A block C slides along the horizontal rod, while a pendulum attached to the block can swing in the vertical plane. Find the acceleration of
the pendulum mass D.
Read more about Kinematics of Particles at; brainly.com/question/26269548
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