Example from T.txt (mk all)
trace for pid 195
>awk '$2 == 195'

number of page faults
>awk '$2 == 195 && $6 == "pfault"' | wc -l
500

number of sleeps
>awk '$2 == 195 && $5 == "Sleep"' | wc -l
197

number of core switches
awk 'BEGIN{nsw = 0; last = -3;}
	$2 == 195 {if($3 != last) nsw++; last=$3} 
	END{print nsw}' <T.txt
217

number of acpi domain switches
awk 'BEGIN{nsw = 0; last = -3;}
	$2 == 195 {if($3%8 != last%8) nsw++; last=$3} 
	END{print nsw}' <T.txt
188

times from ready to run
awk 'BEGIN{nsw = 0; last = -3;}
	$2 != 195 {next}
	$6 == "Ready" {stime = $0; ln = NR}
	$6 == "Run" {if(stime) print $0 - stime, ln, NR; stime = 0} ' <ptrace.out |
 sort -nr
69695 T.txt:918 930
43670 15110 15111
38796 324 325
36930 2172 2173

which gives
  0s 287m 326µ 512n     195 00 mk   Ready  Ready     	4 287326512 0x0
  0s 287m 370µ 182n     195 21 mk   Run    Run       	3 287370182 0x0
as the top.
i.e. core 0 makes it ready, and core 21 picks it 69.695µs laters.

times for sleeps, and line numbers in the trace for the sleep and wakeup
sorted
awk 'BEGIN{nsw = 0; last = -3;}
	$2 != 195 {next}
	$5 == "Sleep" {stime = $0; ln = NR}
	$5 == "Ready" {print $0 - stime, ln, NR} ' <T.txt | sort -nr

This gives:
381601037 15175 19811	
140216350 10518 15064
58225471 6569 9619
...

which is
  0s 288m 716µ 164n     195 03 mk   Sleep      await    ...
  0s 288m 717µ 848n     195 03 mk   Sleep      Wakeme pc 0xfffffff017e1ac ...

Thus most of the time it's waiting for children, as expected.