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Erschienen in: Journal of Translational Medicine 1/2022

Open Access 01.12.2022 | Research

Treatments of chronic fatigue syndrome and its debilitating comorbidities: a 12-year population-based study

verfasst von: Kam-Hang Leong, Hei-Tung Yip, Chien-Feng Kuo, Shin-Yi Tsai

Erschienen in: Journal of Translational Medicine | Ausgabe 1/2022

Abstract

Background

This study aims to provide 12-year nationwide epidemiology data to investigate the epidemiology and comorbidities of and therapeutic options for chronic fatigue syndrome (CFS) by analyzing the National Health Insurance Research Database.

Methods

6306 patients identified as having CFS during the 2000–2012 period and 6306 controls (with similar distributions of age and sex) were analyzed.

Result

The patients with CFS were predominantly female and aged 35–64 years in Taiwan and presented a higher proportion of depression, anxiety disorder, insomnia, Crohn’s disease, ulcerative colitis, renal disease, type 2 diabetes, gout, dyslipidemia, rheumatoid arthritis, Sjogren syndrome, and herpes zoster. The use of selective serotonin receptor inhibitors (SSRIs), serotonin norepinephrine reuptake inhibitors (SNRIs), Serotonin antagonist and reuptake inhibitors (SARIs), Tricyclic antidepressants (TCAs), benzodiazepine (BZD), Norepinephrine-dopamine reuptake inhibitors (NDRIs), muscle relaxants, analgesic drugs, psychotherapies, and exercise therapies was prescribed significantly more frequently in the CFS cohort than in the control group.

Conclusion

This large national study shared the mainstream therapies of CFS in Taiwan, we noticed these treatments reported effective to relieve symptoms in previous studies. Furthermore, our findings indicate that clinicians should have a heightened awareness of the comorbidities of CFS, especially in psychiatric problems.
Hinweise
Kam-Hang Leong, Hei-Tung Yip and Chien-Feng Kuo are joint first authors and contributed equally to this paper

Publisher's Note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

Introduction

Chronic fatigue syndrome (CFS), also known as myalgic encephalomyelitis, is characterized by the experience of debilitating fatigue for more than 6 months that is not improved by rest [1]. The World Health Organization classifies CFS as a neurological illness, and over the last 30 years, numerous studies have identified and verified the diagnostic criteria for CFS, which are unexplained persistent or relapsing fatigue lasting at least 6 months with the addition of the concurrent presence of four or more of the following symptoms over a 6-month period: unusual postexertion fatigue, impaired memory or concentration, unrefreshing sleep, headache, muscle pain, joint pain, sore throat, and tender cervical nodes [2].
Several studies have indicated that the following multifactorial mechanisms contribute to the onset of CFS: Epstein–Barr virus, human herpes virus 6 [3], Helicobacter pylori,[4] Mycobacterium tuberculosis infection [5], immunoinflammatory pathways [6], neuroimmune dysfunctions [7], and oxidative and nitrosative stress pathways, such as those induced by burn injury [8, 9]. It also shares some features of autoimmune disease. In addition, we previously reported that inflammatory bowel disease, herpes zoster and psoriasis are associated with an increased risk of subsequent CFS [1012].
CFS considerably reduces patients’ quality of life and places a financial burden on the patients, their families, and health care systems [13]. The primary goals of management are to relieve symptoms and provide supportive health care to improve functional capacities. However, no pharmaceutical therapies have been licensed for CFS nor has any strong evidence been revealed on the efficacy of a single regimen. In the present study, we investigated the epidemiology and comorbidities of and therapeutic options for CFS by using Taiwan’s National Health Insurance Research Database (NHIRD). Our results can help physicians diagnose CFS early and manage the disorder effectively.

Methods

Data source

The data set used in this study was derived from the NHIRD, which contains details concerning the demographic characteristics, dates of admission and discharge, drug prescriptions, surgical procedures, and diagnostic codes for approximately 99% of Taiwan’s population of 23 million. The 2000 Longitudinal Health Insurance Database, which is a data subset of the NHIRD, includes all the original claims data and registration files for 1 million individuals randomly sampled from among the beneficiaries of the NHI program in 2000 in Taiwan. The diseases are defined according to the International Classification of Diseases, Ninth Revision, Clinical Modification (ICD-9-CM).

Sample participants

Cases of CFS were identified using two outpatient records or one admission record with a diagnosis of ICD-9-CM code 780.71. The date of the first diagnosis of CFS was the index date. For each CFS case, we used a frequency matching method to select a participant without CFS with the same sex, age, and index date as a control. Participants aged below 18 years or with missing information on sex were excluded.

Exposure assessment and comorbidities

For this study, we examined exposure to pharmaceutical and nonpharmaceutical treatments. In terms of exposure to pharmaceutical treatments, we included the following: selective serotonin receptor inhibitors (SSRIs) (Anatomical Therapeutic Chemical (ATC) code N06AB10, N06AB06, N06AB03, N06AB08 and N06AB05), serotonin norepinephrine reuptake inhibitors (SNRIs) (ATC code N06AX21 and N06AX16), Serotonin antagonist and reuptake inhibitors (SARIs) (ATC code N06AX05), Tricyclic antidepressants (TCAs) (ATC code N06AA09 and N06CA01), benzodiazepine (BZD) (ATC code N03AE01, N05BA06, N05BA12, N05BA01, N05BA17, N05BA22, N05CD04, N05CD05, N05CD03, N05CD09, N05CD01 and N05CD08), Norepinephrine-dopamine reuptake inhibitors (NDRIs) (ATC code N06AX12), Noradrenergic and specific serotonergic antidepressants (NaSSAs) (ATC code N06AX11), muscle relaxants (ATC code M03BX08), and analgesic drugs (including acetaminophen, nonsteroidal anti-inflammatory drugs [NSAIDs], pregabalin, and gabapentin) (ATC code M02AA, D11AX18, M01A, M01B, N03AX16, and N03AX12). With regard to nonpharmaceutical treatments, we included supportive individual psychotherapy, supportive group psychotherapy, intensive individual psychotherapy, intensive group psychotherapy, reeducative individual psychotherapy, reeducative group psychotherapy, behavior modification assessments, behavior modification planning, stretching exercise, therapeutic exercise, breathing exercises, reconditioning exercise, multiple physical examinations of sleep, brainwave examination, sleep or wakefulness and a brainwave examination for sleep disorders. We made adjustments for the potentially confounding effects of other comorbidities, including depression(ICD-9-CM code 296.2, 296.3, 926.82, 300.4, 309.0, 309.1, and 311), anxiety disorder (ICD-9-CM code 300.0–300.3, 300.5–300.9, 309.2–309.4, 309.81, and 313.0), Insomnia (ICD-9-CM code 307.41, 307.42, 780.50, and 780.52), suicide (ICD-9-CM code E950-E959), crohn's disease (ICD-9-CM code 555), ulcerative colitis (ICD-9-CM code 555–556), renal disease (ICD-9-CM code 580–589), diabetes mellitus (ICD-9-CM code 250 and A181), obesity (ICD-9-CM code 278), gout (ICD-9-CM code 274), dyslipidemia (ICD-9-CM code 272), malignancy (ICD-9-CM code 140–208), HIV (ICD-9-CM code 042–044), rheumatoid arthritis (ICD-9-CM code 714), psoriasis (ICD-9-CM code 696.x), ankylosing spondylitis (ICD-9-CM code 720.0), lymphadenopathy (ICD-9-CM code 289.1–289.3, 686, and 785.6), Hashimoto’s thyroiditis (ICD-9-CM code 245.2), Sjogren’s syndrome (ICD-9-CM code 710.2), irritable bowel syndrome (ICD-9-CM code 564.1), SLE (ICD-9-CM code 710.0), celiac disease (ICD-9-CM code 579.00, fibromyalgia (ICD-9-CM 729.1), and herpes zoster (ICD-9-CM code 053) anxiety disorders, insomnia, suicide, Crohn disease, ulcerative colitis, and renal disease, prior to the index date. These were evaluated as part of the analysis.

Statistical analysis

The descriptive statistics of CFS and the controls were reported, including demographic characteristics, comorbid diseases, and treatments received after the index date. The chi-square test was used to compare categorical variables, and Student’s t-test was used to compare continuous variables between the CFS cohort and the control cohort, as necessary. We used a logistic regression model to assess the CFS treatments the patients had received. The odds ratio (OR) and 95% confidence intervals (CIs) were calculated and then subsequently adjusted using covariates, which included age, sex, and comorbidities. Analyses were performed using SAS software (version 9.4 for Windows; SAS Institute, Cary, NC, USA). Values were considered statistically significant at p < 0.05.

Results

Of the 1,000,000 patients in the LHID2000 database, 6850 patients were diagnosed with CFS. Among these patients, 6306 patients were newly diagnosed with CFS during the study period. In total, 12,612 participants were enrolled, including 6306 CFS patients and 6306 non-CFS patients (Fig. 1). The demographic and clinical characteristics of the study participants are presented in Table 1. The participants were predominantly female and aged 35–64 years. The mean (standard deviation) age was 50.6 years in both groups. Patients in the CFS group most presented with the comorbidities of depression, anxiety disorder, insomnia, Crohn’s disease, ulcerative colitis, renal disease, type 2 diabetes, gout, dyslipidemia, rheumatoid arthritis, Sjogren syndrome, and herpes zoster.
Table 1
Demographic characteristics and comorbidities of patients newly diagnosed with chronic fatigue syndrome in Taiwan between 2000 and 2012 and of those in the control group
Variable
CFS cohort
Non-CFS cohort
P-value
(n = 6306)
(n = 6306)
Gender
  
> 0.99
 Female
3339 (52.9)
3339 (52.9)
 
 Male
2967 (47.1)
2967 (47.1)
 
Age at diagnosis of CFS
  
> 0.99
 ≤ 34
1350 (21.4)
1350 (21.4)
 
 35–64
3485 (55.3)
3485 (55.3)
 
 ≥ 65
1471 (23.3)
1471 (23.3)
 
Age at diagnosis of CFS(mean, SD)†
50.6 (17.9)
50.6 (18.0)
0.80
Comorbidity
   
 Depression
807 (12.8)
407 (6.45)
< 0.0001
 Anxiety disorder
2038 (32.3)
1033 (16.4)
< 0.0001
 Insomnia
2303 (36.5)
1106 (17.5)
< 0.0001
 Suicide
19 (0.30)
12 (0.19)
0.20
 Crohn's disease
255 (4.04)
121 (1.92)
< 0.0001
 Ulcerative colitis
279 (4.42)
138 (2.19)
< 0.0001
 Renal disease
585 (9.28)
427 (6.77)
< 0.0001
 T1DM
78 (1.24)
68 (1.08)
0.40
 T2DM
1473 (23.3)
1068 (16.9)
< 0.0001
 Obesity
93 (1.47)
64 (1.01)
0.01
 Gout
1196 (18.9)
702 (11.1)
< 0.0001
 Dyslipidemia
2252 (35.7)
1356 (21.5)
< 0.0001
 Malignancy
407 (6.45)
487 (7.72)
0.01
 HIV
3 (0.05)
3 (0.05)
> 0.99
 Rheumatoid arthritis
254 (4.03)
155 (2.46)
< 0.0001
 Psoriasis
94 (1.49)
83 (1.32)
0.40
 Ankylosing spondylitis
53 (0.84)
39 (0.62)
0.14
 Lymphadenopathy
132 (2.09)
104 (1.65)
0.06
 Hashimoto's thyroiditis
13 (0.21)
10 (0.16)
0.53
 Sjogren's syndrome
110 (1.74)
71 (1.13)
0.003
 Irritable bowel syndrome
886 (14.1)
423 (6.71)
< 0.0001
 Fibromyalgia
4905 (77.8)
4914 (77.9)
0.85
 SLE
4 (0.06)
9 (0.14)
0.16
 Herpes zoster
341 (5.41)
234 (3.71)
< 0.0001
Table 2 lists the treatments received by both the patients with CFS and those without. With adjustments for sex, age, and comorbidities, patients with CFS had higher odds of receiving SSRIs (adjusted OR [aOR] = 1.70; 95% CI 1.48, 1.95), SNRIs (adjusted OR [aOR] = 1.52; 95% CI 1.20, 1.93), SARIs (aOR = 1.56; 95% CI 1.35, 1.78), TCAs (aOR = 1.37; 95% CI 1.07, 1.76), BZD (aOR = 1.70; 95% CI 1.57, 1.84), NDRI (aOR = 1.59; 95% CI 1.08, 2.36), Muscle relaxant (aOR = 1.52; 95% CI 1.24, 1.86) and Analgesic drug (aOR = 9.55; 95% CI 7.72, 11.81) than patients without CFS. Moreover, psychotherapy, including supportive individual psychotherapy (aOR = 1.28; 95% CI 1.09, 1.51), intensive individual psychotherapy (aOR = 2.73; 95% CI 1.47, 5.04), reeducative individual psychotherapy (aOR = 1.31; 95% CI 1.11, 1.56), stretching exercises (aOR = 1.26; 95% CI 1.10, 1.45), therapeutic exercise (aOR = 1.33; 95% CI 1.19, 1.47), and a brainwave examination for sleep disorders (20001C, 20002C; aOR = 1.40; 95% CI 1.25, 1.55) were frequently prescribed to patients with CFS. Figure 2 demonstrated the cumulative incidence calculated as the number of new patients who received nonpharmaceutical treatment divided by the total number of CFS patients who were at risk and multiple by 100. In 6850 CFS patients, the highest cumulative incidences of treatment were therapeutic exercise (14.95%), followed by brainwave examination for sleep disorders (11.58%) and stretching exercise (9.49%).
Table 2
 Odds ratios for various treatments for patients with and without chronic fatigue syndrome
Variable
N
Control
CFS
Odds ratio
n
%
n
%
Crude (95% CI)
p-value
Adjusted (95% CI)
p-value
SSRI
     
2.33 (2.05,2.66)***
< 0.001
1.70 (1.48,1.95)***
< 0.001
 No
11,471
5946
52
5525
48
    
 Yes
1141
360
32
781
68
    
SNRI
     
2.22 (1.77,2.78)***
< 0.001
1.52 (1.20,1.93)***
< 0.001
 No
12,260
6195
51
6065
49
    
 Yes
352
111
32
241
68
    
SARI
     
2.21 (1.95,2.52)***
< 0.001
1.56 (1.35,1.78)***
< 0.001
 No
11,451
5927
52
5524
48
    
 Yes
1161
379
33
782
67
    
TCAs
     
1.79 (1.42,2.28)***
< 0.001
1.37 (1.07,1.76)*
0.01
 No
12,310
6197
50
6113
50
    
 Yes
302
109
36
193
64
    
BZD
     
2.13 (1.98,2.29)***
< 0.001
1.70 (1.57,1.84)***
< 0.001
 No
5368
3260
61
2108
39
    
 Yes
7244
3046
42
4198
58
    
NDRI
     
2.42 (1.67,3.51)***
< 0.001
1.59 (1.08,2.36)*
0.02
 No
12,476
6266
50
6210
50
    
 Yes
136
40
29
96
71
    
NaSSA
     
2.02 (1.57,2.59)***
< 0.001
1.28 (0.98,1.67)
0.08
 No
12,331
6212
50
6119
50
    
 Yes
281
94
33
187
67
    
Muscle relaxant
     
1.80 (1.49,2.19)***
< 0.001
1.52 (1.24,1.86)***
< 0.001
 No
12,150
6139
51
6011
49
    
 Yes
462
167
36
295
64
    
Analgesic drug
     
12.44 (10.12,15.3)***
< 0.001
9.55 (7.72,11.81)***
< 0.001
 No
1173
1071
91
102
9
    
 Yes
11,439
5235
46
6204
54
    
Supportive individual psychotherapy
     
1.90 (1.63,2.21)***
< 0.001
1.28 (1.09,1.51)**
0.003
 No
11,837
6032
51
5805
49
    
 Yes
775
274
35
501
65
    
Supportive group psychotherapy
     
2.29 (1.52,3.45)***
< 0.001
1.52 (0.99,2.35)
0.057
 No
12,504
6273
50
6231
50
    
 Yes
108
33
31
75
69
    
Intensive individual psychotherapy
     
3.95 (2.20,7.12)***
< 0.001
2.73 (1.47,5.04)**
0.001
 No
12,543
6292
50
6251
50
    
 Yes
69
14
20
55
80
    
Intensive group psychotherapy
     
2.13 (0.92,4.93)
0.078
1.57 (0.65,3.78)
0.318
 No
12,587
6298
50
6289
50
    
 Yes
25
8
32
17
68
    
Re-educative individual psychotherapy
    
2.01 (1.72,2.36)***
< 0.001
1.31 (1.11,1.56)**
0.002
 No
11,881
6057
51
5824
49
    
 Yes
731
249
34
482
66
    
Re-educative group psychotherapy
     
2.30 (1.37,3.84)**
0.002
1.49 (0.87,2.56)
0.149
 No
12,543
6285
50
6258
50
    
 Yes
69
21
30
48
70
    
Behavior modification assessment
         
 No
12,612
6306
50
6306
50
    
 Yes
0
0
0
0
0
    
Behavior modification planning
     
1.60 (1.02,2.54)*
0.043
1.15 (0.71,1.86)
0.582
 No
12,534
6276
50
6258
50
    
 Yes
78
30
38
48
62
    
Stretching exercise
     
1.44 (1.26,1.64)***
< 0.001
1.26 (1.10,1.45)***
< 0.001
 No
11,600
5884
51
5716
49
    
 Yes
1012
422
42
590
58
    
Therapeutic exercise
     
1.47 (1.33,1.63)***
< 0.001
1.33 (1.19,1.47)***
< 0.001
 No
10,768
5535
51
5233
49
    
 Yes
1844
771
42
1073
58
    
Breathing exercise
     
1.04 (0.82,1.32)
0.758
0.92 (0.71,1.18)
0.506
 No
12,343
6174
50
6169
50
    
 Yes
269
132
49
137
51
    
Reconditioning exercise
     
1.30 (0.94,1.79)
0.108
1.19 (0.85,1.67)
0.310
 No
12,456
6238
50
6218
50
    
 Yes
156
68
44
88
56
    
Multiple physical examinations of sleep
     
1.48 (1.10,2.00)*
0.011
1.07 (0.78,1.47)
0.676
 No
12,434
6234
50
6200
50
    
 Yes
178
72
40
106
60
    
Brainwave examination, sleep or wakefulness
     
1.60 (1.44,1.77)***
< 0.001
1.40 (1.25,1.55)***
< 0.001
 No
10,825
5590
52
5235
48
    
 Yes
1787
716
40
1071
60
    
Brainwave examination for sleep disorders
         
 No
12,612
6306
50
6306
50
    
 Yes
0
0
0
0
0
    
CFS: chronic fatigue syndrome; N: total number of subjects the subgroups; n: number of subjects; CI: confidence interval; SSRI: selective serotonin receptor inhibitors; SNRI: serotonin norepinephrine Reuptake Inhibitors; SARI: serotonin antagonist and reuptake inhibitors; TCAs: tricyclic antidepressant; MAOi: Monoamine oxidase inhibitors; BZD: benzodiazepine; *P < .05, **P < .01, ***P < .001
The stratification of treatments for patients with CFS in terms of depression, anxiety disorders, and insomnia is presented in Table 3. For patients with depression, those with CFS were more likely to receive SSRIs, SNRIs, SARIs, BZD, analgesic drugs, reeducative individual psychotherapy and therapeutic exercise. SSRIs, SNRIs, SARIs, BZD, NDRI, analgesic drugs, muscle relaxants, reeducative individual psychotherapy stretching exercise and therapeutic exercise were commonly prescribed for patients with CFS identified with an anxiety disorder. In the subgroup of patients with insomnia, SSRIs, SNRIs, SARIs, BZD, analgesic drugs, reeducative individual psychotherapy and therapeutic exercise were most prescribed to patients with CFS.
Table 3
The odd ratios of treatments for patients with and without chronic fatigue syndrome in difference subgroup of comorbidities
Variable
Control
(n = 6306)
CFS
(n = 6306)
Odds ratio
Crude (95% CI)
p-value
Adjusted (95% CI)
p-value
Depression
    
No
Yes
No
Yes
    
SSRI
    
1.69 (1.29,2.22)***
< 0.001
1.52 (1.14,2.03)**
0.004
 No
5633
313
4990
535
    
 Yes
266
94
509
272
    
SNRI
    
2.72 (1.67,4.42)***
< 0.001
2.56 (1.55,4.23)***
< 0.001
 No
5809
386
5362
703
    
 Yes
90
21
137
104
    
SARI
    
1.91 (1.43,2.54)***
< 0.001
1.73 (1.28,2.36)***
< 0.001
 No
5599
328
4971
553
    
 Yes
300
79
528
254
    
TCAs
    
1.30 (0.78,2.17)
0.305
1.21 (0.71,2.08)
0.480
 No
5812
385
5362
751
    
 Yes
87
22
137
56
    
BZD
    
1.96 (1.42,2.71)***
< 0.001
1.77 (1.24,2.52)**
0.002
 No
3178
82
2016
92
    
 Yes
2721
325
3483
715
    
NDRI
    
1.75 (0.93,3.28)
0.083
1.60 (0.82,3.09)
0.167
 No
5872
394
5447
763
    
 Yes
27
13
52
44
    
Muscle relaxant
    
1.58 (0.92,2.73)
0.100
1.27 (0.72,2.25)
0.411
 No
5750
389
5259
752
    
 Yes
149
18
240
55
    
Analgesic drug
    
13.7 (6.41,29.15)***
< 0.001
11.15 (5.00,24.87)***
< 0.001
 No
1022
49
94
8
    
 Yes
4877
358
5405
799
    
Supportive individual psychotherapy
    
1.52 (1.13,2.04)**
0.006
1.27 (0.92,1.74)
0.142
 No
5700
332
5204
601
    
 Yes
199
75
295
206
    
Intensive individual psychotherapy
    
1.94 (0.72,5.23)
0.191
1.79 (0.58,5.46)
0.310
 No
5890
402
5463
788
    
 Yes
9
5
36
19
    
Re-educative individual psychotherapy
    
1.72 (1.28,2.31)***
< 0.001
1.50 (1.10,2.05)*
0.011
 No
5724
333
5240
584
    
 Yes
175
74
259
223
    
Stretching exercise
    
1.12 (0.77,1.64)
0.538
1.12 (0.76,1.66)
0.563
 No
5522
362
5008
708
    
 Yes
377
45
491
99
    
Therapeutic exercise
    
1.80 (1.30,2.50)***
< 0.001
1.81 (1.29,2.55)***
< 0.001
 No
5184
351
4606
627
    
 Yes
715
56
893
180
    
Brainwave examination, sleep or wakefulness
    
1.01 (0.45,2.27)
0.983
0.98 (0.42,2.30)
0.959
 No
5776
398
5380
789
    
 Yes
123
9
119
18
    
Variable
Control
CFS
Odds ratio
Crude (95% CI)
p-value
Adjusted (95% CI)
p-value
Anxiety disorder
    
No
Yes
No
Yes
    
SSRI
    
1.70 (1.38,2.09)***
< 0.001
1.54 (1.24,1.92)***
< 0.001
 No
5054
892
3918
1607
    
 Yes
219
141
350
431
    
SNRI
    
2.41 (1.63,3.57)***
< 0.001
2.02 (1.35,3.03)***
< 0.001
 No
5194
1001
4173
1892
    
 Yes
79
32
95
146
    
SARI
    
1.60 (1.31,1.96)***
< 0.001
1.37 (1.11,1.7)**
0.004
 No
5045
882
3925
1599
    
 Yes
228
151
343
439
    
TCAs
    
1.25 (0.86,1.83)
0.238
1.14 (0.77,1.68)
0.508
 No
5204
993
4173
1940
    
 Yes
69
40
95
98
    
BZD
    
1.89 (1.56,2.29)***
< 0.001
1.68 (1.37,2.06)***
< 0.001
 No
3022
238
1829
279
    
 Yes
2251
795
2439
1759
    
NDRI
    
2.09 (1.21,3.64)**
0.009
1.84 (1.04,3.25)*
0.037
 No
5249
1017
4237
1973
    
 Yes
24
16
31
65
    
Muscle relaxant
    
1.57 (1.09,2.25)*
0.015
1.46 (1.01,2.11)*
0.046
 No
5147
992
4097
1914
    
 Yes
126
41
171
124
    
Analgesic drug
    
7.84 (4.7,13.09)***
< 0.001
7.80 (4.55,13.38)***
< 0.001
 No
1000
71
83
19
    
 Yes
4273
962
4185
2019
    
Supportive individual psychotherapy
    
1.37 (1.09,1.72)**
0.007
1.15 (0.9,1.47)
0.267
 No
5113
919
4063
1742
    
 Yes
160
114
205
296
    
Intensive individual psychotherapy
    
2.34 (1.03,5.31)*
0.043
1.87 (0.79,4.46)
0.155
 No
5266
1026
4245
2006
    
 Yes
7
7
23
32
    
Re-educative individual psychotherapy
    
1.58 (1.25,2.00)***
< 0.001
1.34 (1.04,1.73)*
0.025
 No
5128
929
4092
1732
    
 Yes
145
104
176
306
    
Stretching exercise
    
1.49 (1.15,1.93)**
0.003
1.44 (1.1,1.88)**
0.008
 No
4936
948
3918
1798
    
 Yes
337
85
350
240
    
Therapeutic exercise
    
1.32 (1.08,1.61)**
0.006
1.29 (1.05,1.58)*
0.016
 No
4669
866
3609
1624
    
 Yes
604
167
659
414
    
Brainwave examination, sleep or wakefulness
    
0.69 (0.44,1.09)
0.109
0.67 (0.42,1.07)
0.095
 No
5175
999
4178
1991
    
 Yes
98
34
90
47
    
Variable
Control
CFS
Odds ratio
Crude (95% CI)
p-value
Adjusted (95% CI)
p-value
Insomnia
    
No
Yes
No
Yes
    
SSRI
    
1.81 (1.47,2.24)***
< 0.001
1.65 (1.32,2.06)***
< 0.001
 No
4969
977
3667
1858
    
 Yes
231
129
336
445
    
SNRI
    
1.74 (1.23,2.47)**
0.002
1.54 (1.07,2.21)*
0.019
 No
5131
1064
3910
2155
    
 Yes
69
42
93
148
    
SARI
    
1.45 (1.2,1.76)***
< 0.001
1.30 (1.06,1.59)*
0.011
 No
4991
936
3701
1823
    
 Yes
209
170
302
480
    
TCAs
    
1.62 (1.09,2.4)*
0.018
1.58 (1.05,2.38)*
0.027
 No
5124
1073
3919
2194
    
 Yes
76
33
84
109
    
BZD
    
1.43 (1.2,1.71)***
< 0.001
1.37 (1.14,1.66)**
0.001
 No
3008
252
1714
394
    
 Yes
2192
854
2289
1909
    
NDRI
    
2.01 (1.14,3.55)*
0.016
1.75 (0.97,3.16)
0.062
 No
5175
1091
3969
2241
    
 Yes
25
15
34
62
    
Muscle relaxant
    
1.19 (0.86,1.65)
0.285
1.11 (0.80,1.55)
0.530
 No
5087
1052
3841
2170
    
 Yes
113
54
162
133
    
Analgesic drug
    
8.75 (5.77,13.25)***
< 0.001
8.00 (5.16,12.4)***
< 0.001
 No
960
111
73
29
    
 Yes
4240
995
3930
2274
    
Supportive individual psychotherapy
    
1.26 (1.01,1.59)*
0.044
1.03 (0.81,1.32)
0.784
 No
5042
990
3799
2006
    
 Yes
158
116
204
297
    
Intensive individual psychotherapy
    
1.63 (0.74,3.6)
0.228
1.31 (0.57,3.02)
0.519
 No
5194
1098
3975
2276
    
 Yes
6
8
28
27
    
Re-educative individual psychotherapy
    
1.57 (1.24,2)***
< 0.001
1.35 (1.04,1.74)*
0.024
 No
5049
1008
3826
1998
    
 Yes
151
98
177
305
    
Stretching exercise
    
1.30 (1.02,1.66)*
0.033
1.26 (0.99,1.62)
0.064
 No
4878
1006
3677
2039
    
 Yes
322
100
326
264
    
Therapeutic exercise
    
1.52 (1.25,1.84)***
< 0.001
1.52 (1.25,1.86)***
< 0.001
 No
4591
944
3406
1827
    
 Yes
609
162
597
476
    
Brainwave examination, sleep or wakefulness
    
0.84 (0.56,1.26)
0.405
0.88 (0.58,1.33)
0.539
 No
5106
1068
3933
2236
    
 Yes
94
38
70
67
    
CFS: chronic fatigue syndrome; CI: confidence interval; *P < .05, **P < .01, ***P < .001
As presented in Table 4, patients with CFS were more likely to receive SSRIs, BZD and analgesic drugs in each age group. The odds of patients with CFS aged 35–64 and ≥ 65 receiving SARIs and muscle relaxant treatments were higher than the odds of those without CFS. For participants aged 35–64 years, reeducative individual psychotherapy was also frequently received by patients with CFS. Female and male patients with CFS were equally likely to be treated with SSRIs, SNRIs, SARIs, BZD, muscle relaxants, analgesic drugs, reeducative individual psychotherapy, intensive individual psychotherapy and therapeutic exercise, TCAs was higher prescribed to female and NDRI was higher used in male, as presented in Table 5.
Table 4
The odd ratios of treatments for patients with and without chronic fatigue syndrome in difference subgroup of age
Variable
Control
(n = 6306)
CFS
(n = 6306)
Odds ratio
Age ≤ 34 y/o
Crude (95% CI)
p-value
Adjusted (95% CI)
p-value
No
Yes
No
Yes
SSRI
    
1.98 (1.43,2.74)***
< 0.001
1.53 (1.08,2.15)*
0.015
 No
4758
1188
4386
1139
    
 Yes
300
60
667
114
    
SNRI
    
2.13 (1.23,3.7)**
0.007
1.39 (0.77,2.52)
0.272
 No
4966
1229
4852
1213
    
 Yes
92
19
201
40
    
SARI
    
1.82 (1.25,2.65)**
0.002
1.20 (0.8,1.8)
0.375
 No
4724
1203
4351
1173
    
 Yes
334
45
702
80
    
TCAs
    
2.17 (1.12,4.21)*
0.022
1.59 (0.78,3.22)
0.2
 No
4962
1235
4888
1225
    
 Yes
96
13
165
28
    
BZD
    
1.91 (1.62,2.25)***
< 0.001
1.61 (1.36,1.92)***
< 0.001
 No
2380
880
1411
697
    
 Yes
2678
368
3642
556
    
NDRI
    
2.29 (0.94,5.59)
0.068
1.34 (0.5,3.56)
0.557
 No
5025
1241
4973
1237
    
 Yes
33
7
80
16
    
Muscle relaxant
    
1.88 (1.1,3.21)*
0.021
1.69 (0.97,2.96)
0.065
 No
4912
1227
4797
1214
    
 Yes
146
21
256
39
    
Analgesic drug
    
3.94 (2.57,6.02)***
< 0.001
3.89 (2.49,6.06)***
< 0.001
 No
968
103
74
28
    
 Yes
4090
1145
4979
1225
    
Supportive individual psychotherapy
    
1.74 (1.23,2.45)**
0.002
1.13 (0.77,1.64)
0.531
 No
4839
1193
4645
1160
    
 Yes
219
55
408
93
    
Intensive individual psychotherapy
    
5.37 (1.56,18.47)**
0.008
3.34 (0.92,12.17)
0.067
 No
5047
1245
5014
1237
    
 Yes
11
3
39
16
    
Re-educative individual psychotherapy
    
1.85 (1.29,2.65)***
< 0.001
1.20 (0.81,1.79)
0.362
 No
4858
1199
4659
1165
    
 Yes
200
49
394
88
    
Stretching exercise
    
1.21 (0.86,1.70)
0.274
1.15 (0.81,1.63)
0.425
 No
4701
1183
4541
1175
    
 Yes
357
65
512
78
    
Therapeutic exercise
    
1.08 (0.84,1.39)
0.544
0.98 (0.76,1.28)
0.89
 No
4418
1117
4121
1112
    
 Yes
640
131
932
141
    
Brainwave examination, sleep or wakefulness
   
0.63 (0.24,1.64)
0.344
0.60 (0.22,1.65)
0.321
 No
4937
1237
4923
1246
    
 Yes
121
11
130
7
    
Variable
Control
(n = 6306)
CFS
(n = 6306)
Odds ratio
Age 35–64 y/o
Crude (95% CI)
p-value
Adjusted (95% CI)
p-value
No
Yes
No
Yes
SSRI
    
2.15 (1.85,2.50)***
< 0.001
1.57 (1.34,1.85)***
< 0.001
 No
1389
4557
1251
4274
    
 Yes
82
278
220
561
    
SNRI
    
2.23 (1.71,2.90)***
< 0.001
1.56 (1.18,2.07)**
0.002
 No
1443
4752
1411
4654
    
 Yes
28
83
60
181
    
SARI
    
2.19 (1.88,2.55)***
< 0.001
1.53 (1.3,1.81)***
< 0.001
 No
1356
4571
1232
4292
    
 Yes
115
264
239
543
    
TCAs
    
2.09 (1.57,2.79)***
< 0.001
1.66 (1.22,2.24)**
0.001
 No
1432
4765
1422
4691
    
 Yes
39
70
49
144
    
BZD
    
2.15 (1.98,2.33)***
< 0.001
1.71 (1.56,1.87)***
< 0.001
 No
474
2786
236
1872
    
 Yes
997
2049
1235
2963
    
NDRI
    
2.19 (1.46,3.3)***
< 0.001
1.52 (0.99,2.35)
0.057
 No
1465
4801
1449
4761
    
 Yes
6
34
22
74
    
Muscle relaxant
    
1.73 (1.38,2.18)***
< 0.001
1.46 (1.14,1.85)**
0.002
 No
1424
4715
1380
4631
    
 Yes
47
120
91
204
    
Analgesic drug
    
9.18 (7.27,11.59)***
< 0.001
6.83 (5.38,8.66)***
< 0.001
 No
410
661
20
82
    
 Yes
1061
4174
1451
4753
    
Supportive individual psychotherapy
    
1.82 (1.53,2.16)***
< 0.001
1.20 (1,1.45)
0.054
 No
1415
4617
1352
4453
    
 Yes
56
218
119
382
    
Intensive individual psychotherapy
    
4.11 (2.19,7.75)***
< 0.001
2.95 (1.52,5.73)**
0.001
 No
1469
4823
1465
4786
    
 Yes
2
12
6
49
    
Re-educative individual psychotherapy
    
2.01 (1.68,2.39)***
< 0.001
1.33 (1.1,1.61)**
0.004
 No
1423
4634
1376
4448
    
 Yes
48
201
95
387
    
Stretching exercise
    
1.43 (1.23,1.67)***
< 0.001
1.27 (1.08,1.49)**
0.004
 No
1360
4524
1315
4401
    
 Yes
111
311
156
434
    
Therapeutic exercise
    
1.42 (1.26,1.59)***
< 0.001
1.28 (1.13,1.45)***
< 0.001
 No
1256
4279
1150
4083
    
 Yes
215
556
321
752
    
Brainwave examination, sleep or wakefulness
   
1.08 (0.79,1.50)
0.622
0.98 (0.69,1.37)
0.889
 No
1411
4763
1412
4757
    
 Yes
60
72
59
78
    
Variable
Control
(n = 6306)
CFS
(n = 6306)
Odds ratio
Age ≥ 65 y/o
Crude (95% CI)
p-value
Adjusted (95% CI)
p-value
No
Yes
No
Yes
SSRI
    
2.98 (2.29,3.88)***
< 0.001
2.17 (1.64,2.88)***
< 0.001
 No
4557
1389
4274
1251
    
 Yes
278
82
561
220
    
SNRI
    
2.19 (1.39,3.45)***
< 0.001
1.46 (0.9,2.37)
0.121
 No
4752
1443
4654
1411
    
 Yes
83
28
181
60
    
SARI
    
2.29 (1.81,2.89)***
< 0.001
1.69 (1.31,2.17)***
< 0.001
 No
4571
1356
4292
1232
    
 Yes
264
115
543
239
    
TCAs
    
1.27 (0.83,1.94)
0.28
0.89 (0.56,1.42)
0.633
 No
4765
1432
4691
1422
    
 Yes
70
39
144
49
    
BZD
    
2.49 (2.08,2.97)***
< 0.001
1.72 (1.42,2.09)***
< 0.001
 No
2786
474
1872
236
    
 Yes
2049
997
2963
1235
    
NDRI
    
3.71 (1.5,9.17)**
0.005
2.33 (0.9,6.03)
0.082
 No
4801
1465
4761
1449
    
 Yes
34
6
74
22
    
Muscle relaxant
    
2.00 (1.39,2.86)***
< 0.001
1.75 (1.2,2.56)**
0.004
 No
4715
1424
4631
1380
    
 Yes
120
47
204
91
    
Analgesic drug
    
28.0 (17.77,44.22)***
< 0.001
27.1 (16.65,44.03)***
< 0.001
 No
661
410
82
20
    
 Yes
4174
1061
4753
1451
    
Supportive individual psychotherapy
    
2.22 (1.6,3.08)***
< 0.001
1.58 (1.11,2.24)*
0.01
 No
4617
1415
4453
1352
    
 Yes
218
56
382
119
    
Intensive individual psychotherapy
    
3.01 (0.61,14.93)
0.178
1.47 (0.26,8.18)
0.662
 No
4823
1469
4786
1465
    
 Yes
12
2
49
6
    
Re-educative individual psychotherapy
    
2.05 (1.44,2.92)***
< 0.001
1.28 (0.87,1.88)
0.207
 No
4634
1423
4448
1376
    
 Yes
201
48
387
95
    
Stretching exercise
    
1.45 (1.13,1.88)**
0.004
1.29 (0.99,1.69)
0.063
 No
4524
1360
4401
1315
    
 Yes
311
111
434
156
    
Therapeutic exercise
    
1.63 (1.35,1.97)***
< 0.001
1.48 (1.21,1.82)***
< 0.001
 No
4279
1256
4083
1150
    
 Yes
556
215
752
321
    
Brainwave examination, sleep or wakefulness
   
0.98 (0.68,1.42)
0.925
0.86 (0.58,1.27)
0.447
 No
4763
1411
4757
1412
    
 Yes
72
60
78
59
    
CFS: chronic fatigue syndrome; CI: confidence interval; *:p-value; *P < .05, **P < .01, ***P < .001
Table 5
The odd ratios of treatments for patients with and without chronic fatigue syndrome in difference subgroup of sex
Variable
Control
(n = 6306)
CFS
(n = 6306)
Odds ratio
Female
Crude (95% CI)
p-value
Adjusted (95% CI)
p-value
No
Yes
No
Yes
SSRI
    
2.36 (1.99,2.81)***
< 0.001
1.71 (1.42,2.06)***
< 0.001
 No
2815
3131
2639
2886
    
 Yes
152
208
328
453
    
SNRI
    
2.04 (1.51,2.75)***
< 0.001
1.42 (1.04,1.95)*
0.029
 No
2922
3273
2858
3207
    
 Yes
45
66
109
132
    
SARI
    
2.10 (1.77,2.5)***
< 0.001
1.46 (1.21,1.76)***
< 0.001
 No
2805
3122
2611
2913
    
 Yes
162
217
356
426
    
TCAs
    
2.25 (1.62,3.13)***
< 0.001
1.69 (1.2,2.38)**
0.003
 No
2911
3286
2891
3222
    
 Yes
56
53
76
117
    
BZD
    
2.22 (2.01,2.46)***
< 0.001
1.71 (1.53,1.92)***
< 0.001
 No
1663
1597
1133
975
    
 Yes
1304
1742
1834
2364
    
NDRI
    
2.16 (1.28,3.63)**
0.004
1.39 (0.8,2.4)
0.241
 No
2948
3318
2916
3294
    
 Yes
19
21
51
45
    
Muscle relaxant
    
1.89 (1.45,2.45)***
< 0.001
1.52 (1.15,2.01)**
0.003
 No
2889
3250
2836
3175
    
 Yes
78
89
131
164
    
Analgesic drug
    
13.54 (9.80,18.7)***
< 0.001
10.11 (7.26,14.09)***
< 0.001
 No
590
481
61
41
    
 Yes
2377
2858
2906
3298
    
Supportive individual psychotherapy
    
1.74 (1.42,2.13)***
< 0.001
1.19 (0.96,1.48)
0.121
 No
2851
3181
2731
3074
    
 Yes
116
158
236
265
    
Intensive individual psychotherapy
    
4.03 (1.85,8.76)***
< 0.001
2.76 (1.21,6.3)*
0.016
 No
2961
3331
2944
3307
    
 Yes
6
8
23
32
    
Re-educative individual psychotherapy
   
1.98 (1.61,2.44)***
< 0.001
1.26 (1.01,1.59)*
0.045
 No
2860
3197
2755
3069
    
 Yes
107
142
212
270
    
Stretching exercise
    
1.49 (1.26,1.77)***
< 0.001
1.30 (1.09,1.56)**
0.004
 No
2787
3097
2726
2990
    
 Yes
180
242
241
349
    
Therapeutic exercise
    
1.39 (1.22,1.59)***
< 0.001
1.24 (1.07,1.43)**
0.003
 No
2637
2898
2477
2756
    
 Yes
330
441
490
583
    
Brainwave examination, sleep or wakefulness
   
1.42 (0.99,2.04)
0.057
1.18 (0.81,1.74)
0.393
 No
2886
3288
2902
3267
    
 Yes
81
51
65
72
    
Variable
Control
(n = 6306)
CFS
(n = 6306)
Odds ratio
Male
Crude (95% CI)
p-value
Adjusted (95% CI)
p-value
No
Yes
No
Yes
SSRI
    
2.3 (1.89,2.81)***
< 0.001
1.70 (1.37,2.10)***
< 0.001
 No
3131
2815
2886
2639
    
 Yes
208
152
453
328
    
SNRI
    
2.48 (1.74,3.52)***
< 0.001
1.64 (1.13,2.38)**
0.009
 No
3273
2922
3207
2858
    
 Yes
66
45
132
109
    
SARI
    
2.36 (1.95,2.86)***
< 0.001
1.71 (1.38,2.10)***
< 0.001
 No
3122
2805
2913
2611
    
 Yes
217
162
426
356
    
TCAs
    
1.37 (0.96,1.94)
0.079
1.06 (0.73,1.53)
0.771
 No
3286
2911
3222
2891
    
 Yes
53
56
117
76
    
BZD
    
2.06 (1.86,2.29)***
< 0.001
1.69 (1.50,1.90)***
< 0.001
 No
1597
1663
975
1133
    
 Yes
1742
1304
2364
1834
    
NDRI
    
2.71 (1.60,4.61)***
< 0.001
1.81 (1.03,3.17)*
0.039
 No
3318
2948
3294
2916
    
 Yes
21
19
45
51
    
Muscle relaxant
    
1.71 (1.29,2.28)***
< 0.001
1.53 (1.13,2.07)**
0.005
 No
3250
2889
3175
2836
    
 Yes
89
78
164
131
    
Analgesic drug
    
11.82 (9.03,15.47)***
< 0.001
9.40 (7.11,12.43)***
< 0.001
 No
481
590
41
61
    
 Yes
2858
2377
3298
2906
    
Supportive individual psychotherapy
    
2.12 (1.69,2.67)***
< 0.001
1.38 (1.08,1.77)*
0.012
 No
3181
2851
3074
2731
    
 Yes
158
116
265
236
    
Intensive individual psychotherapy
    
3.86 (1.57,9.48)**
0.003
2.56 (1.00,6.57)
0.051
 No
3331
2961
3307
2944
    
 Yes
8
6
32
23
    
Re-educative individual psychotherapy
   
2.06 (1.62,2.61)***
< 0.001
1.39 (1.07,1.80)*
0.014
 No
3197
2860
3069
2755
    
 Yes
142
107
270
212
    
Stretching exercise
    
1.37 (1.12,1.67)**
0.002
1.21 (0.98,1.49)
0.081
 No
3097
2787
2990
2726
    
 Yes
242
180
349
241
    
Therapeutic exercise
    
1.58 (1.36,1.84)***
< 0.001
1.44 (1.23,1.69)***
< 0.001
 No
2898
2637
2756
2477
    
 Yes
441
330
583
490
    
Brainwave examination, sleep or wakefulness
   
0.8 (0.57,1.11)
0.181
0.75 (0.53,1.07)
0.117
 No
3288
2886
3267
2902
    
 Yes
51
81
72
65
    
CFS: chronic fatigue syndrome; CI: confidence interval;*P < .05, **P < .01, ***P < .001

Discussion

Our nationwide population-based study revealed that patients with CFS experienced more comorbidities, such as psychiatric problems (depression, anxiety disorders, and insomnia), autoimmune diseases (Crohn disease, ulcerative colitis, rheumatoid arthritis, and Sjogren syndrome), type 2 diabetes, renal diseases, and malignancy, than the participants without CFS. In addition, we found that the use of SSRIs, SARIs, SNRIs, TCAs, NDRI, BZD, muscle relaxants, analgesic drugs, psychotherapies and exercise therapies were higher in the CFS cohort. This finding is consistent with the general treatment for CFS [14]. Notably, brainwave examination is not a standard examination method for diagnosing CFS, but it was regularly used by clinicians in our study.
The etiology of CFS remains unknown. Emerging research suggests CFS is an autoimmune disease, with evidence of dysregulation of the immune and autonomic nervous systems as well as metabolic disturbances, triggered particularly by infection with stress [15]. Patients with CFS have been identified as having increased levels of autoantibodies against ß2-adrenergic receptors and M3 acetylcholine receptors [16]. The hypothalamic–pituitary–adrenal (HPA) axis maintains homeostasis through a self-regulating feedback system that helps to manage stress [17, 18], and abnormalities in the HPA axis are believed to be a feature of CFS [19]. In addition, we previously reported that psoriasis and inflammatory bowel disease significantly increased the risk of CFS [10, 11]. In future studies, the aspects of CFS linked to autoimmune diseases should be clarified.
In recent 2 years during COVID-19 pandemic, many studies indicated that some COVID-19 patients had persistent clinical signs and symptoms including fatigue, breathlessness, and cognitive dysfunction after recovering from initial illness. This condition named Post COVID-19 Syndrome or long COVID. Pathological inflammation with immune dysfunction was a one of the underlying multifactorial mechanism of long COVID, which was similar to CFS [2022]. Various autoantibodies were found in 10–50% of patients with COVID-19 [23]. These autoantibodies and increased levels of pro-inflammatory markers contributed to the disease severity and inflammation-related symptoms such as fatigue and joint pain [22, 24]. The treatments of CFS were believed to have a potential effect of relieving fatigue in long COVID cases [22, 25]. Future studies should be conducted to determine the underlying mechanism and treatments between CFS and long COVID.
Our comparison of patients with CFS with those without demonstrated that the use of SSRIs, SNRIs, SARIs and BZD was higher in the CFS cohort after adjustments for age, sex, and comorbidities (Table 2), especially in those with psychiatric problems (depression, anxiety disorders, and insomnia; Table 3). However, a subclassification analysis of age and sex established no significant differences between the two groups (Tables 4 and 5). Patients with CFS have been reported to have clinical depression and anxiety [26], and several pathophysiologies related to depression have been reported, such as inflammation with elevated cytokine levels (e.g., interleukin [IL]-1, tumor necrosis factor alpha [TNF-α]), increased oxidative stress, and decreased neurotrophic factors and brain neurotransmitters [27]. Serotonin (or 5-hydroxytryptamine 1A [5-HT1A]), a monoamine neurotransmitter, has been discovered to be linked to mood, behavior, sleep cycles, and appetite [28]. One study indicated that the number of brain 5-HT1A receptors was decreased in patients with CFS, with the decrease particularly marked in the bilateral hippocampus [29]. Furthermore, changes in the HPA axis in chronic stress were reported to be associated with the serotonin system and abnormal adrenocortical activity and were observed in patients with CFS [30]. One study indicated that patients with CFS prescribed SSRIs had a faster rate of recovery and experienced a greater reduction in fatigue levels than untreated patients [31]. However, few clinical trials have been conducted on CFS treatments, although the use of SSRIs for fibromyalgia, especially for patients with depression, may be advantageous for CFS [32]. Bupropion, a norepinephrine-dopamine reuptake inhibitor (NDRI), was reported to improve hypersomnia and fatigue significantly in the patients with major depressive disorder compared with the placebo-group [33]. Unrefreshing sleep is one feature of CFS, Cognitive-behavioral therapy for insomnia (CBT-I) and sleep hygiene education should be applied whenever possible [34]. Experienced clinicians believed that low-dose TCAs and BZD may also be useful for sleep. However, monitoring the adverse effects including drowsiness upon awakening must be considered.
Treatments for pain symptoms, including muscle relaxants and analgesic drugs, were more common among the CFS cohort (Table 2), but no significant difference in psychiatric comorbidities, age, or sex was identified in the subclassification analysis (Tables 3, 4, and 5). Chronic pain in the muscles, joints, and subcutaneous tissues was a common presenting symptom in patients with CFS. The potential contributing mechanisms may be oxidative and nitrosative stress, low-grade inflammation, and impaired heat shock protein production [35]. Another hypothesis concerning muscle fatigue is that it results from the overutilization of the lactate dehydrogenase pathway and slowed acid clearance after exercise [36]. The mainstream management of pain in CFS is similar to that for fibromyalgia. Pain can be treated with NSAIDs or acetaminophen. Pregabalin or gabapentin are helpful for neuropathic and fibromyalgia pain [37]; however, clinicians should be aware of the adverse effects of this treatment on cognitive dysfunction and weight gain. One systematic review indicated that cyclobenzaprine was more effective for back pain [38] but was associated with the side effects of drowsiness, dizziness, and dry mouth. Nonpharmacologic interventions for pain vary, and useful modalities include meditation, warm baths, massage, stretching, acupuncture, hydrotherapy, chiropractic, yoga, tai chi, and transcutaneous electrical nerve stimulation [14, 39].
According to the information released by NHIRD and clinical experiences, the supportive individual psychotherapy is performed by various professional members in psychiatric team under the psychiatrists’ guidance. The re-educative individual psychotherapy is mainly performed by psychotherapists and the intensive individual psychotherapy is administered by psychiatrists. Our results found the application of all psychotherapy was higher in the CFS cohort since those with psychiatric problems are mostly referred to psychotherapists for re-educative individual psychotherapy. However, the group psychotherapy is not a first choice for clinicians in Taiwan. In the age and sex subclassification analysis, psychotherapy was not prescribed significantly more frequently to young aged (below or equal to 34 y/o) patients. With regard to nonpharmaceutical options, cognitive behavioral therapy (CBT), a psychotherapy, has been prescribed to patients with CFS. CBT includes relaxation exercises, the development of coping mechanisms, and stress management, and it is an effective treatment for depression and anxiety and eating and panic disorders [40]. One randomized trial reported that CBT and graded exercise therapy (GET) were safe for CFS and effective at improving fatigue and functional impairment [41, 42]. A 16 week standard individual CBT has been shown to be beneficial in physical function and fatigue [43]. Furthermore, CBT is the most cost-effective treatment option for CFS [44]. Although CBT is often used with GET, the program should be discussed with patients to ensure their compliance.
Brainwave examination was also significantly more frequently prescribed in the CFS cohort (OR = 1.40; Table 2), regardless of whether the participant had depression, an anxiety disorder, or insomnia (Table 3). On the other hand, polysomnography (PSG), including brainwave examination (EEG), eye movements (EOG), muscle activity or skeletal muscle activation (EMG), and heart rhythm (ECG) records certain body functions during sleeping, Nonrestorative sleep is a key feature of CFS and is defined as the subjective experience that sleep has not been sufficiently refreshing or restorative [45, 46], resulting in increased daytime drowsiness, mental fatigue, and neurocognitive impairment [47]. Primary sleep disorders (PSDs), including primary insomnia, obstructive sleep apnea, periodic limb movement disorder, and narcolepsy, occur in approximately 18% of patients with CFS [48]. PSG is a key tool for detecting these disorders. Patients with more severe symptoms should be routinely screened for PSDs with appropriate questionnaires, a semistructured history interview, and PSG [49].
Some emerging management strategies for CFS have been proposed in recent years. The fact that drugs targeting immune responses or impaired autoregulation of blood flow was indicated to be effectual in CFS [50]. We previously discovered that the increased risk of CFS among patients with psoriasis was attenuated by immunomodulatory drugs [11]. In addition, a small placebo-controlled and open study mentioned that rituximab achieved sustained clinical responses in patients with CFS [51], and a clinical trial demonstrated that rintatolimod, a restricted toll-like receptor 3 agonist, achieved significant improvements in patients with CFS [52]. Furthermore, increased levels of several cytokines, including IL-1 and TNF-α, have been positively correlated with fatigue [53]. These findings provide insight into treating CFS through immune pathways. Another emerging treatment of CFS is dietary intervention, with one systemic review indicating that nicotinamide adenine dinucleotide hydride, coenzyme Q10, and probiotic supplements relieved CFS symptoms [54]. These potential mechanisms contribute by increasing adenosine triphosphate production and improving gut microbiota. Aripiprazole was reported to relieve the symptoms of CFS including fatigue and unrefreshing sleep effectively [55]. Biofeedback therapy has also demonstrated benefits in the treatment of CFS. Compared with GET, heart rate variability biofeedback therapy has improved quality of life in cases of mental health disorders, including depression, potentially through the enhancement of self-efficacy and self-control [56].
Our study has some limitations. First, the severity of CFS and efficacy of the treatment were not evaluated in the study because of limited information available in the NHIRD. Second, some nonpharmaceutical treatments, such as meditation and massage, were not included in our study because they were not included in the database. Third, patients’ personal information and family histories, such as symptoms, occupation, and laboratory data, were not available because of the anonymity of the NHIRD. Fourth, incorrect coding and diagnoses in the database may have resulted in bias in the data analysis; however, such errors may result in considerable penalties for physicians, and hence, they are unlikely. Moreover, data on 99.9% of Taiwan’s population are contained in the NHIRD, making the database a robust source of data, the reliability and validity of which have been reported previously [57]. Consequently, the diagnoses and codes should be reliable in our study.

Conclusion

In our nationwide population-based cohort study, the use of SSRIs, SARIs, SNRIs, TCAs, NDRI, BZD, muscle relaxants, analgesic drugs, psychotherapies and exercise therapies were prescribed significantly more frequently in the CFS cohort than in the control group. Previous studies have reported these treatments to be effective at relieving the symptoms of CFS and useful for managing related comorbidities.

Acknowledgements

We would like to extend acknowledgment to Dr. Jung-Nien Lai’s and Miss. Yu-Chi Yang's material support, and the listed institutes and Department of Medical Research at Mackay Memorial Hospital, and Mackay Medical College for funding support.

Declarations

The authors assert that all procedures contributing to this work comply with the ethical standards of the relevant national and institutional committees on human experimentation and with the Helsinki Declaration of 1975, as revised in 2008. This study was approved by the Research Ethics Committee of the China Medical University Hospital (CMUH-104-REC2-115) and the Institutional Review Board of Mackay Memorial Hospital (16MMHIS074).
The authors agree with the publication of this paper.

Competing interests

The authors declare that there is no conflict of interest regarding the publication of this paper.
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Metadaten
Titel
Treatments of chronic fatigue syndrome and its debilitating comorbidities: a 12-year population-based study
verfasst von
Kam-Hang Leong
Hei-Tung Yip
Chien-Feng Kuo
Shin-Yi Tsai
Publikationsdatum
01.12.2022
Verlag
BioMed Central
Erschienen in
Journal of Translational Medicine / Ausgabe 1/2022
Elektronische ISSN: 1479-5876
DOI
https://doi.org/10.1186/s12967-022-03461-0

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