Assuming normal data, under $H_0: \sigma_2^2/\sigma_1^2, $ the ratio $F =s_2^2/s_1^2 = 60.18^2/42^2 = 2.053 \sim \mathsf{F}(9,999).$
For a one-sided test against $H_a: \sigma_2^2/\sigma_1^2 >1,$ one rejects if the F-statistic exceeds the the 95th percentile $1.8892$ of $\mathsf{F}(9,999),$ called the critical value. So you do (just barely) reject at the 5% level of significance. [For a two-sided test against $H_a: \sigma_2^2/\sigma_1^2$ the critical values would be at $0.299$ and $2.126,$ so you would not reject against the 2-sided alternative at the 5% level.]
qf(0.95,9,999)
[1] 1.889236
qf(c(.025,0.975),9,999)
[1] 0.299400 2.126391
In terms of P-values, the P-value for the 1-sided test is $0.031 < 0.05 = 5\%$ so you'd reject at the 5% level. [The P-value of the 2-sided test would be double the P-value of the 1-sided test.]
1 - pf(2.053, 9, 999)
[1] 0.0310929
The figure below shows the density function of $\mathsf{F}(9,999)$ along with the observed value of $F$ (solid black
vertical line) and the one-sided critical value (dotted red).
Note: Traditionally, the larger sample variance is put
in the numerator of the F-statistic because many printed
tables of F distributions do not give lower tail probabilities. (Of course, most software programs give
probabilities in both tails.)