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Table 1 Statistical tests for the significance of the power-law property in distributions of rest bouts according to the method described by Clauset et al. (control)

From: Temporal organization of rest defined by actigraphy data in healthy and childhood chronic fatigue syndrome children

No.

Basic parameters

Power law vs. exponential

Power law test

24h

UP

DOWN

n

<x>

Total

sd

LR

p

LR

p

LR

p

xmax

xmin

α

ntail

p’

1

570

12.3

6998

34.8

12.4

0.00

1.5

0.13

-6.8

0.00

416

1

1.66

570

0.14

2

652

10.9

7111

48.0

9.9

0.00

1.9

0.06

-3.1

0.00

468

1

1.82

652

0.01

3

340

18.9

6424

62.8

12.4

0.00

1.6

0.12

-0.8

0.40

439

1

1.67

340

0.10

4

627

12.6

7870

53.5

11.7

0.00

0.6

0.52

-3.4

0.00

660

2

1.87

342

0.00

5

636

10.5

6657

36.0

14.3

0.00

1.0

0.31

-2.8

0.01

342

1

1.82

636

0.00

6

864

9.3

8005

34.2

11.4

0.00

1.3

0.20

-5.1

0.00

395

2

1.90

486

0.01

7

782

8.7

6825

35.7

9.1

0.00

1.0

0.31

-2.5

0.01

420

1

1.80

782

0.00

8

719

10.4

7469

40.7

9.5

0.00

1.2

0.23

-2.1

0.03

446

2

1.85

407

0.23

9

1035

7.8

8083

25.6

12.2

0.00

0.9

0.35

-10.6

0.00

250

2

1.88

539

0.03

10

687

10.8

7420

47.1

9.7

0.00

2.5

0.01

-2.6

0.01

444

1

1.80

687

0.02

11

561

10.8

6050

34.6

13.7

0.00

1.6

0.11

-1.5

0.15

406

1

1.79

561

0.00

12

990

8.9

8828

40.4

8.1

0.00

1.0

0.34

-5.3

0.00

688

2

1.91

556

0.02

13

759

9.0

6804

20.0

8.3

0.00

2.2

0.03

-9.8

0.00

185

2

1.73

449

0.00

14

680

11.4

7738

38.5

10.8

0.00

2.2

0.02

-4.4

0.00

461

1

1.70

680

0.14

15

223

12.3

2750

58.2

6.8

0.00

3.2

0.00

1.6

0.12

475

1

1.90

223

0.21

16

489

7.3

3568

30.3

5.3

0.00

1.2

0.23

-1.0

0.33

424

2

1.98

282

0.01

17

246

12.1

2967

29.5

10.4

0.00

3.5

0.00

-1.8

0.08

184

1

1.67

246

0.03

18

415

10.6

4393

30.6

10.6

0.00

2.3

0.02

-6.8

0.00

311

1

1.71

415

0.21

19

409

10.8

4416

53.1

8.3

0.00

1.4

0.15

-2.2

0.03

464

1

1.93

409

0.04

20

381

6.6

2505

34.3

6.3

0.00

0.8

0.42

1.0

0.33

396

2

2.19

174

0.03

21

503

10.7

5359

37.2

8.3

0.00

3.2

0.00

-1.1

0.27

332

2

1.80

281

0.11

22

290

13.5

3928

56.1

9.5

0.00

1.8

0.07

-1.4

0.18

501

1

1.85

290

0.01

23

629

12.5

7861

52.3

10.4

0.00

1.4

0.16

-2.3

0.02

501

2

1.87

377

0.20

mean

586

10.8

6088

 

10.0

0.05>

1.7

0.05>

-3.3

0.05>

418

1.4

1.83

451

0.1<

s.d.

221

2.5

1933

 

2.3

23

0.8

8

3.0

15

121

0.5

0.1

169

7

  1. n, number of all of the rest bouts; <x>, average length of the rest bout (min); total, total length of rest bout (min); sd, standard deviation of the length of the rest bout (min); LR, log likelihood ratio of the power-law distribution to exponential distribution; p, p-value, positive values of the LR with p<0.05 indicate that the power-law distribution is statistically favored over the alternative distribution. p-values less than 0.05 are indicated in italic. In the power law test, we calculated the p′-value for the best power-law fit for the empirical data set. p′-values larger than 0.1 are indicated in italic. xmax, maximum value of fitted portion; xmin, minimum value of fitted portion; a, exponent of the fitted power law function; ntail, number of bouts with x ≥ xmin.