Literature DB >> 35059290

Traditional Chinese medicine attenuates hospitalization and mortality risks in diabetic patients with carcinoma in situ in Taiwan.

Li-Jen Tsai1, Chi-Hsiang Chung2,3, Chien-Jung Lin4, Sheng-Chiang Su5, Feng-Chih Kuo5, Jhih-Syuan Liu5, Kuan-Chan Chen5, Li-Ju Ho5, Chih-Chun Kuo5, Chun-Yung Chang5, Ming-Hsun Lin5, Nain-Feng Chu5, Chien-Hsing Lee5,6, Chang-Hsun Hsieh5, Yi-Jen Hung5,7, Po-Shiuan Hsieh6,8, Fu-Huang Lin2, Chieh-Hua Lu5,6, Wu-Chien Chien2,6.   

Abstract

BACKGROUND: Diabetic patients are at high risk of developing cancer. Traditional Chinese medicine (TCM) has become increasingly popular as an adjuvant treatment for patients with chronic diseases, and some studies have identified its beneficial effect in diabetic patients with cancer. The purpoes of this study was to outline the potential of TCM to attenuate hospitalization and mortality rates in diabetic patients with carcinoma in situ (CIS).
METHODS: A total of 6,987 diabetic subjects with CIS under TCM therapy were selected from the National Health Insurance Research Database of Taiwan, along with 38,800 of 1:1 sex-, age-, and index year-matched controls without TCM therapy. Cox proportional hazard analysis was conducted to compare hospitalization and mortality rates during an average of 15 years of follow-up.
RESULTS: A total of 3,999/1,393 enrolled-subjects (28.62%/9.97%) had hospitalization/mortality, including 1,777/661 in the TCM group (25.43%/9.46%) and 2,222/732 in the control group (31.80%/10.48%). Cox proportional hazard regression analysis showed a lower rate of hospitalization and mortality for subjects in the TCM group (adjusted HR=0.536; 95% CI=0.367-0.780, P<0.001; adjusted HR=0.783; 95% CI=0.574-0.974, P = 0.022). Kaplan-Meier analysis showed that the cumulative risk of hospitalization and mortality in the case and control groups was significantly different (log rank, P<0.001 and P = 0.011, respectively).
CONCLUSIONS: Diabetic patients with CIS under TCM therapy were associated with lower hospitalization and mortality rates compared to those without TCM therapy. Thus, TCM application may reduce the burden of national medical resources.
© 2022 Korea Institute of Oriental Medicine. Published by Elsevier B.V.

Entities:  

Keywords:  National Health Insurance Research Database; Traditional Chinese medicine; carcinoma in situ; diabetes; mortality

Year:  2021        PMID: 35059290      PMCID: PMC8760454          DOI: 10.1016/j.imr.2021.100831

Source DB:  PubMed          Journal:  Integr Med Res        ISSN: 2213-4220


Introduction

The International Diabetes Federation Diabetes Atlas estimated that the prevalence of diabetes among individuals aged 18–99 years would increase from 451 million in 2017 to 693 million by 2045. Adults with type 2 diabetes mellitus (T2DM) also have an increased risk of cancer development and cancer-related death compared to those without. T2DM and cancer share many risk factors, such as aging, obesity, diet, and physical inactivity., Increased risk of death in patients with T2DM is specifically associated with cancers of the lung, breast, liver, and colorectum., Although diabetes treatment has improved recently, patients with T2DM still have a high risk of cancer. In traditional Chinese medicine (TCM), herbs have played a significant role as an alternative and complementary medicine for centuries throughout Asian countries. In Taiwan, TCM is popular as an adjuvant therapy for cancer, even in patients under standard therapy; particularly, it has been reported that various TCMs can control glucose metabolism by regulating the insulin signal transduction pathway in cancer patients with T2DM comorbidity., Auxiliary TCM therapy has shown obvious benefit for cancer, diabetes, and comorbid patients in previous studies; in fact, it has been reported to reduce the risk or incidence of colorectal cancer and hepatocellular carcinoma. Recently, TCM has become increasingly popular as an adjuvant treatment for patients with chronic diseases, ; however, the relationship between TCM and the risk of carcinoma in situ (CIS) in patients with T2DM remains unknown. The aim of this study was to determine the potential of TCM therapy to attenuate the rate of hospitalization or mortality in T2DM patients with CIS, by using data from the Taiwan National Health Insurance Research Database (NHIRD) as a nationwide health insurance database.

Methods

Data sources

Diabetic patients with CIS were recruited from the outpatient Longitudinal Health Insurance Database (LHID) in Taiwan. We used data from the NHIRD to investigate whether TCM treatment can reduce hospitalization or mortality rate in diabetic patients with CIS over a 15-year period (2000–2015). The National Health Insurance (NHI) program was launched in Taiwan in 1995. As of June 2009, it had signed contracts with 97% of medical providers in Taiwan, with approximately 23 million beneficiaries, accounting for 99% of the total population in Taiwan. The NHIRD uses codes from the International Classification of Diseases, 9th Revision, Clinical Modification (ICD-9-CM) to record diagnoses. All diagnoses of T2DM and CIS were made by a board-certified medical specialist. The Bureau of NHI randomly reviews the records of one in 100 ambulatory care visits and one in 20 hospitalization claims to verify the accuracy of the diagnoses. Multiple studies have proven the accuracy and effectiveness of NHIRD diagnosis.,

Study design and sampled participants

Our study had a retrospective, paired cohort design. Diagnoses of T2DM and CIS were selected according to codes ICD-9-CM 230.XX-234.XX (CIS) and ICD-9-CM 250.XX (T2DM), respectively, from January 1, 2000, to December 31, 2015. In addition, according to these ICD-9-CM codes, each enrolled patient had at least three outpatient visits for TCM therapy during the study period. Patients who received TCM therapy for less than thrice and those younger than 18 years were excluded. The covariates include the Chalson Comorbidity Index (CCI) minus T2DM, gender, age, geographic area of residence (northern, central, southern, and eastern Taiwan), and level of residential urbanization (levels 1 to 4). The level of urbanization was determined according to population size and development level. Level 1 urbanization is defined as having a population of > 1250,000 and a status of economic, cultural, metropolitan, and political development. Level 2 urbanization is defined as having a population of 500,000 to 1249,999 and an important role in the political system, culture, and economy. Urbanization levels 3 and 4 were defined as having populations of 149,999–499,999 and <149,999, respectively.

Outcome measures

All study participants were tracked from the index date until hospitalization or mortality under the NHI program before the end of 2015.

Statistical analysis

All statistical analyses were performed using the SPSS software version 22 for Windows (SPSS Inc., Chicago, IL, USA). Chi-square tests and t-tests were used to evaluate the distributions of categorical and continuous variables, respectively. Multivariate Cox proportional hazards regression analysis was used to determine the risk of mortality or hospitalization among diabetic patients with CIS who received TCM therapy. Statistical analysis results were presented as hazard ratios (HRs) with 95% confidence intervals (CIs). Differences in the risk of hospitalization or mortality between the groups with and without TCM therapy were estimated using the Kaplan-Meier method and log-rank test. Statistical significance was determined using a two-tailed test with a p value less than 0.05.

Ethics

Our research was conducted in accordance with the ethical code of the World Medical Association (Declaration of Helsinki). The Institutional Review Board of the Tri-Service General Hospital (TSGH) approved our study and waived the need for individual written informed consent (TSGH IRB No.2–105–05–082).

Results

A total of 61,307 patients were enrolled in this study. After the exclusion of 14,482 patients, 46,825 subjects with cancer and T2DM were screened. From these patients, 8025 patients were assigned to the TCM therapy case group. Furthermore, we excluded 1038 patients who visited less than 3 times. From 38,800 patients of 1:1 sex-, age-, and index year-matched subjects without TCM therapy, 6987 were allocated to the comparison cohort (control) group (Fig. 1).
Fig. 1.

Flowchart of subject selection from the National Health Insurance Research Database in Taiwan. DM, Diabetes mellitus: ICD-9-CM 250; Carcinoma in situ: ICD-9-CM 230–234; TCM therapy: ≧ 90 days.

Flowchart of subject selection from the National Health Insurance Research Database in Taiwan. DM, Diabetes mellitus: ICD-9-CM 250; Carcinoma in situ: ICD-9-CM 230–234; TCM therapy: ≧ 90 days. Overall, subjects with T2DM and CIS under TCM therapy were associated with lower rates of hospitalization and mortality compared to those without TCM therapy (adjusted HR=0.536, 95% CI=0.367–0.780, P<0.001; adjusted HR=0.783, 95% CI=0.574–0.974, P = 0.022). Fig. 2., Fig. 3. show the results of Kaplan-Meier analysis for the cumulative risk of hospitalization and mortality in the case and control groups, respectively, revealing significant differences (log-rank test, P<0.001 and P = 0.011).
Fig. 2.

Kaplan-Meier analysis for cumulative risk of hospitalization in patients with DM and CIS, as stratified by TCM with log-rank test.

Fig. 3.

Kaplan-Meier survival analysis of all-cause mortality in patients with DM and CIS, as stratified by TCM with log-rank test.

Kaplan-Meier analysis for cumulative risk of hospitalization in patients with DM and CIS, as stratified by TCM with log-rank test. Kaplan-Meier survival analysis of all-cause mortality in patients with DM and CIS, as stratified by TCM with log-rank test. The baseline characteristics of the study included sex, age, comorbidities, geographical location, urbanization, level of care, and income (Supplementary Table 1). Of the 13,974 adult diabetic patients with CIS, 6978 (49.94%) were male, and 5257 (37.62%) were aged ge60 years. The mean age was 62.11 ± 18.47 years. There were no significant differences in sex, comorbidities, and covariates between the TCM and control groups after propensity score matching. As shown in Table 1 and 2, at the end of follow-up, 3999 enrolled subjects (28.62%) were inpatients, including 1777 from the TCM group (25.43%) and 2222 from the control group (31.80%). Moreover, 1393 enrolled subjects (9.97%) had mortality, including 661 from the TCM group (9.46%) and 732 from the control group (10.48%). The TCM group was associated with a lower rate of hospitalization at the end of follow-up (P<0.001). There were no significant differences in sex, comorbidities, and covariates between the TCM and control groups at the end of follow-up.
Table 1

Characteristics of enrolled participants.

VariablesTotal (n=16,050)
TCM group (n=8,025)
Control group (n=8,025)
P
n%n%n%
Inpatient<0.001
 No1144571.31598174.53546468.09
 Yes460528.69204425.47256131.91
All-cause mortality0.032
 Absent1442689.88725490.39717289.37
 Present162410.127719.6185310.63
Gender0.999
 Male800449.87400249.87400249.87
 Female804650.13402350.13402350.13
Age (yrs)61.71 ± 19.0361.23 ± 18.8062.19 ± 19.240.001
Age groups (yrs)0.047
 18–49692743.16352643.94340142.38
 50–59308219.20155319.35152919.05
 ≥60604137.64294636.71309538.57
Low-income0.017
 No1580698.48792298.72788498.24
 Yes2441.521031.281411.76
Catastrophic Illness0.666
 Absent1315381.95656681.82658782.08
 Present289718.05145918.18143817.92
CCI_R0.73 ± 1.860.74 ± 1.880.71 ± 1.830.306
Season0.911
 Spring430526.82216827.02213726.63
 Summer416425.94207625.87208826.02
 Autumn393924.54197524.61196424.47
 Winter364222.69180622.50183622.88
Location<0.001
 Northern Taiwan609737.99308538.44301237.53
 Middle Taiwan406525.33206725.76199824.90
 Southern Taiwan446827.84223327.83223527.85
 Eastern Taiwan11807.355977.445837.26
 Outlets islands2401.50430.541972.45
Urbanization level0.372
 1 (the highest)602537.54302537.69300037.38
 2616438.40311238.78305238.03
 3184211.4888911.0895311.88
 4 (the lowest)201912.5899912.45102012.71
Level of care<0.001
 Hospital center647840.36386548.16261332.56
 Regional hospital539533.61251131.29288435.94
 Local hospital417726.02164920.55252831.50

P indicates Chi-square test or Fisher exact test for categorical variables, and t-test for continuous variables.

Table 2

Factors of prognosis according to Cox regression analysis.

VariablesInpatient
All-cause mortality
Adjusted HR95% CIPAdjusted HR95% CIP
TCM
 NoReferenceReference
 Yes0.5430.372, 0.79<0.0010.7930.581, 0.9860.025
Gender
 Male1.5631.089, 1.7880.0011.2461.033, 1.4520.017
 FemaleReferenceReference
Age groups (yrs)
 18–49ReferenceReference
 50–591.3511.124, 1.587<0.0011.4821.203, 1.675<0.001
 ≥601.8641.489, 2.161<0.0012.0111.593, 2.764<0.001
Low-income
 NoReferenceReference
 Yes1.2060.878, 1.7860.1971.3311.006, 1.5760.043
Catastrophic Illness
 AbsentReferenceReference
 Present1.8961.435, 2.298<0.0012.1351.379, 3.010<0.001
CCI_R1.1561.101, 1.218<0.0011.1671.124, 1.229<0.001
Season
 SpringReferenceReference
 Summer1.0260.524, 1.5640.4891.1650.735, 1.6720.329
 Autumn1.1860.598, 1.6010.4211.2710.777, 1.7860.301
 Winter1.2790.672, 1.6750.3841.3890.892, 1.8340.283
Urbanization level
 1 (the highest)2.2641.615, 2.863<0.0011.9941.480, 2.397<0.001
 22.0061.589, 2.811<0.0011.8731.376, 2.285<0.001
 31.7231.206, 2.240<0.0011.5641.189, 1.906<0.001
 4 (the lowest)ReferenceReference
Level of care
 Hospital center2.9891.382, 4.487<0.0012.2511.713, 3.065<0.001
 Regional hospital1.8431.246, 2.183<0.0011.9721.334, 2.843<0.001
 Local hospitalReferenceReference

Location had multi-collinearity with urbanization level.

Adjusted variables are listed in the table.

CI, confidence interval; HR, hazard ratio.

Characteristics of enrolled participants. P indicates Chi-square test or Fisher exact test for categorical variables, and t-test for continuous variables. Factors of prognosis according to Cox regression analysis. Location had multi-collinearity with urbanization level. Adjusted variables are listed in the table. CI, confidence interval; HR, hazard ratio. The factors associated with hospitalization and mortality according to Cox regression analysis are shown in Table 2. Cox proportional hazard regression analysis revealed a lower rate of hospitalization and mortality for the TCM group (P<0.001 and P = 0.022, respectively). Cox regression analysis also revealed (Table 3) that TCM treatment reduced hospitalization risk regardless of gender (male or female), age group (18–49, 50–59, ≥ 60), income (high or low), catastrophic illness (with or without), season (spring, summer, autumn, winter), urbanization level (level 1, 2, 3, or 4), or hospital level (hospital center, regional hospital, local hospital). The results of the Cox regression analysis in Table 4 are most of the above variables, and the results of the sub-stratified analysis also indicate that the use of TCM therapy will reduce the risk of mortality.
Table 3

Factors of hospitalization stratified according to variables by Cox regression.

TCM group
Control group (Reference)
TCM vs. Control (Reference)
Stratified variablesEventsPYsRate (per 105 PYs)EventsPYsRate (per 105 PYs)Adjusted HR95% CIP
Total204466789.683060.35256167858.943774.010.5430.372, 0.790<0.001
Gender
 Male106533304.253197.79133133879.623928.620.5450.374, 0.796<0.001
 Female97933485.432923.66123033979.323619.850.5410.370, 0.783<0.001
Age groups (yrs)
 18–4950229378.251708.7560328757.332096.860.540.368, 0.782<0.001
 50–5932112925.442483.473891,927.083009.190.5530.379, 0.803<0.001
≥60122124485.994986.52156926174.535994.380.5570.384, 0.811<0.001
Low-income
No191865932.452909.04238666666.503579.010.5230.368, 0.780<0.001
 Yes126857.2314698.511751192.4414675.790.6770.459, 0.925<0.001
Catastrophic Illness
 Absent113554650.232076.84156755668.972814.850.4940.338, 0.714<0.001
 Present90912139.457487.9899412189.978154.240.6110.428, 0.899<0.001
Season
 Spring52918042.332931.9963018067.943486.840.5730.391, 0.826<0.001
 Summer52617278.963044.1664217658.223635.700.5670.387, 0.818<0.001
 Autumn50616438.253078.1962316605.283751.820.5410.369, 0.785<0.001
 Winter48315030.143213.5466615527.504289.160.5020.344, 0.727<0.001
Urbanization level
 1 (the highest)59825175.662375.3163325157.342516.160.6370.435, 0.9280.001
 267125798.232600.9573525804.282848.360.6180.422, 0.899<0.001
 32027397.222730.762468038.903060.120.5940.410, 0.870<0.001
 4 (the lowest)5738418.576806.389478858.4210690.390.4250.303, 0.627<0.001
Level of care
 Hospital center102532143.253188.8584322131.173809.110.5670.400, 0.822<0.001
 Regional hospital64020898.223062.4690724389.913718.750.550.384, 0.806<0.001
 Local hospital37913748.212756.7281121337.863800.760.4830.328, 0.709<0.001

CI, confidence interval; HR, hazard ratio (adjusted for variables listed in Table 2); PYs, Person-years.

Table 4

Factors of all-cause mortality stratified according to variables by Cox regression.

TCM group
Control group (Reference)
TCM vs. Control (Reference)
StratifiedEventsPYsRate (per 105 PYs)EventsPYsRate (per 105 PYs)Adjusted HR95% CIP
Total77185626.75900.4285386991.00980.560.7930.581, 0.9860.025
Gender
 Male39142701.31915.6643143381.62993.510.7960.584, 0.9920.042
 Female38042925.44885.2642243609.38967.680.7890.571, 0.9810.017
Age groups (yrs)
 18–4921137662.25560.2423936867.25648.270.7430.553, 0.9210.001
 50–5915916572.35959.4317316573.211043.850.7970.582, 0.9890.031
 ≥6040131392.151277.3944133550.541314.430.8390.612, 1.0480.074
Low-income
 No74884527.52884.9281985462.69958.310.7920.578, 0.9830.020
 Yes231099.232092.37341528.312224.680.8110.586, 0.9900.041
Catastrophic Illness
 Absent57770063.51823.5467071403.09938.330.7350.519, 0.903<0.001
 Present19415563.241246.5318315587.911173.990.9170.671, 1.1890.301
Season
 Spring16923131.26730.6119923161.25859.190.7340.538, 0.9110.003
 Summer19722150.98889.3522222633.74980.840.7830.572, 0.9720.027
 Autumn18121074.63858.8519121289.30897.160.8270.606, 1.0280.086
 Winter22419269.881162.4424119906.711210.650.8290.608, 1.0330.104
Urbanization level
 1 (the highest)29332276.25907.7930432251.14942.600.8320.609, 1.0350.117
 229933024.25905.4032433083.24979.350.7970.583, 0.9910.043
 3669483.11695.977910306.21766.530.7820.571, 0.9780.012
 4 (the lowest)11310843.141042.1314611350.411286.300.6990.501, 0.864<0.001
Level of care
 Hospital center36641209.84888.1427128373.25955.120.8030.587, 0.9930.044
 Regional hospital23426786.59873.5729531264.11943.570.8000.584, 0.9890.029
 Local hospital17117630.32969.9228727353.641049.220.7890.572, 0.9750.018

CI, confidence interval; HR, hazard ratio (adjusted for variables listed in Table 2); PYs, Person-years.

Factors of hospitalization stratified according to variables by Cox regression. CI, confidence interval; HR, hazard ratio (adjusted for variables listed in Table 2); PYs, Person-years. Factors of all-cause mortality stratified according to variables by Cox regression. CI, confidence interval; HR, hazard ratio (adjusted for variables listed in Table 2); PYs, Person-years. Table 5 shows prognosis factors in different TCM subgroups, which indicate TCM usage in the population, including the types of TCM treatment, such as herbal formulae, acupuncture, TCM traumatology, or combinations of herbal formulae. The TCM group showed reduced risks of hospitalization (adjusted HR=0.536, 95% CI=0.367–0.780, P<0.001) and mortality (adjusted HR=0.783, 95% CI=0.574–0.974, P = 0.022). The definitions and detailed information on the herbal formula are described in Supplementary Tables 2 and 3.

Discussion

Our present study revealed that T2DM patients with CIS under TCM therapy were associated with lower hospitalization and mortality rates compared to those without TCM therapy. The overall adjusted HRs were 0.543 for hospitalization (P<0.001) and 0.793 for mortality (P = 0.025), even after adjusting for comorbidities and other covariates. Kaplan-Meier analysis revealed that the TCM case group had a significantly lower 15-year risk of hospitalization and mortality than the controls. This study is the first nationwide, population-based study to indicate that T2DM patients with CIS under TCM therapy were associated with lower hospitalization and mortality risks. In Taiwan, diabetics can freely choose between Western medicine and TCM to treat diabetes-related symptoms or to alleviate the side effects of anti-diabetic drugs. TCM has been used in Taiwan for hundreds of years, with a high number of patients who use anti-diabetic drugs and TCM concomitantly. Although TCM therapy is based on syndrome differentiation rather than blood sugar level, previous studies have shown that TCM has a blood sugar-lowering effect. However, whether TCM can help reduce the risk of cancer in diabetic patients remains unclear. Our present findings are approximately consistent with previous research results. Previous studies have shown that patients with T2DM have a relatively high risk of cancer., and one systematic review has established that cancer risk in patients with diabetes is three times that in the average person. One study showed that incorporating TCM into diabetes treatment helped reduce the risk of breast cancer. Moreover, a systematic review of individual patient data from 97 prospective studies showed that adults with diabetes have an increased risk of cancer death compared to adults without diabetes (HR=1.25; 95% CI=1.19–1.31). Further, based on the findings that TCM can reduce cancer risk, long-term population-based cohort studies on the effect of TCM on cancer risk in T2DM patients may be useful for allocating medical resources and establishing fact-based policies for the treatment of cancer in patients with T2DM. Our findings are similar to those previous studies. For example, a population-based cohort study revealed a reduced risk of colorectal cancer in patients with T2DM who were treated with TCM, and a case-control study of TCM products showed a decrease in breast cancer risk in women with T2DM. Although the mechanism by which T2DM increases the risk of cancer is still unclear, antidiabetic drugs, such as metformin, are believed to prevent cancer development, and their efficacies have been evaluated in clinical trials., In addition, the mechanism of TCM in reducing the risk of CIS in T2DM patients remains unclear. A recent systematic review and meta-analysis study has proposed a possible association between endothelial nitric oxide synthase gene polymorphism and susceptibility to prostate cancer. Several studies have shown that TCM may reduce the risk of cancer. One study has confirmed that TCM can reduce the risk of endometrial cancer in patients with estrogen receptor-positive breast cancer, indicating that its antiproliferative effect is achieved through inhibition of the MGMT protein., Moreover, diabetes increases the risk of various cancers via various mechanisms, such as the insulin/IGF-I signaling pathway and the effect of hyperinsulinemia on other hormones. Chronic intestinal inflammation is considered the most important mechanism leading to the pathogenesis of colorectal cancer., One possible mechanism of TCM in reducing cancer risk is its anti-inflammatory properties. In addition, our study showed that TCM therapy reduced the risk of hospitalization and mortality in diabetic patients with CIS regardless of sex, age, income, catastrophic illness, season, urbanization degree, and hospital level. We also described prognosis factors in various TCM subgroups. As presented in Table 5, herbal formulae resulted in more significant effects compared to that of acupuncture or TCM traumatology. The distribution of the herbal formulae is detailed in Supplementary Table 3. Jia-Wei-Xiao-Yao-San (Augmented Rambling Powder) and Shu-Jing-Huo-Xue-Tang (Channel-Coursing Blood-Quickening Decoction) are two of the most commonly used Chinese herbal products for female breast cancer patients in Taiwan. The present study had several limitations. First, our analyses did not consider disease duration, disease severity, and other patient parameters. Moreover, because the pathophysiological mechanism is not fully understood, other factors such as complications may explain the increase in hospitalization and mortality risks. Finally, a longer follow-up period may be necessary to clarify hospitalization and mortality risks in diabetic patients with CIS. In conclusion, diabetic patients with CIS under TCM therapy were associated with lower hospitalization and mortality rates compared to those without TCM therapy. Thus, TCM therapy may reduce the burden of national medical resources. This effect of TCM therapy may be attributed to its anti-inflammatory properties, endothelial nitric oxide, and antiproliferative effects.

Conflict of interest

The authors declare no conflict of interest.

Funding

This study was funded by the Tri-Service General Hospital Research Foundation (TSGH-C108-142; TSGH-B-110012; TSGH-D-110058) and the Teh-Tzer Study Group for Human Medical Research Foundation.

Ethical statement

The Institutional Review Board of the Tri-Service General Hospital (TSGH) approved our study and waived the need for individual written informed consent (TSGH IRB No.2-105-05-082).

Data availability

The data associated with this study cannot be made available due to legal or ethical reasons as it contains sensitive information.

CRediT authorship contribution statement

Li-Jen Tsai: Conceptualization, Writing – original draft. Chi-Hsiang Chung: Data curation, Formal analysis. Chien-Jung Lin: Conceptualization. Sheng-Chiang Su: Conceptualization. Feng-Chih Kuo: Conceptualization. Jhih-Syuan Liu: Conceptualization. Kuan-Chan Chen: Conceptualization. Li-Ju Ho: Conceptualization. Chih-Chun Kuo: Conceptualization. Chun-Yung Chang: Conceptualization. Ming-Hsun Lin: Conceptualization. Nain-Feng Chu: Conceptualization. Chien-Hsing Lee: Conceptualization. Chang-Hsun Hsieh: Conceptualization. Yi-Jen Hung: Conceptualization. Po-Shiuan Hsieh: Conceptualization. Fu-Huang Lin: Conceptualization. Chieh-Hua Lu: Writing – original draft, Writing – review & editing. Wu-Chien Chien: Writing – review & editing.
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Authors:  Alexander Thompson; Emanuele Di Angelantonio; Pei Gao; Nadeem Sarwar; Sreenivasa Rao Kondapally Seshasai; Stephen Kaptoge; Peter H Whincup; Kenneth J Mukamal; Richard F Gillum; Ingar Holme; Inger Njølstad; Astrid Fletcher; Peter Nilsson; Sarah Lewington; Rory Collins; Vilmundur Gudnason; Simon G Thompson; Naveed Sattar; Elizabeth Selvin; Frank B Hu; John Danesh
Journal:  N Engl J Med       Date:  2011-03-03       Impact factor: 91.245

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Journal:  Ann Intern Med       Date:  2017-03-14       Impact factor: 25.391

7.  Cancer risk associated with insulin glargine among adult type 2 diabetes patients--a nationwide cohort study.

Authors:  Chia-Hsuin Chang; Sengwee Toh; Jou-Wei Lin; Shu-Ting Chen; Chuei-Wen Kuo; Lee-Ming Chuang; Mei-Shu Lai
Journal:  PLoS One       Date:  2011-06-27       Impact factor: 3.240

8.  Increased risk for invasive breast cancer associated with hormonal therapy: a nation-wide random sample of 65,723 women followed from 1997 to 2008.

Authors:  Jung-Nien Lai; Chien-Tung Wu; Pau-Chung Chen; Chiun-Sheng Huang; Song-Nan Chow; Jung-Der Wang
Journal:  PLoS One       Date:  2011-10-06       Impact factor: 3.240

9.  A Network Pharmacology Approach to Uncover the Molecular Mechanisms of Herbal Formula Ban-Xia-Xie-Xin-Tang.

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Journal:  Evid Based Complement Alternat Med       Date:  2018-10-16       Impact factor: 2.629

10.  Decreased risk of colorectal cancer among patients with type 2 diabetes receiving Chinese herbal medicine: a population-based cohort study.

Authors:  Jing-Siang Jhang; Hanoch Livneh; Shu-Yi Yang; Hui-Ju Huang; Michael W Y Chan; Ming-Chi Lu; Chia-Chou Yeh; Tzung-Yi Tsai
Journal:  BMJ Open Diabetes Res Care       Date:  2020-03
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