Literature DB >> 33488685

Trends in diabetes mortality identified from death certificates in Colombia, 1979-2017.

Pablo Chaparro-Narváez1, Nelson J Alvis-Zakzuk1, Diana Díaz-Jiménez1, Carlos Castañeda-Orjuela1.   

Abstract

OBJECTIVE: To describe the mortality trends of diabetes mellitus (DM) in Colombia, by sex and age group, from 1979 to 2017.
METHODS: We carried out an ecological study using mortality data from the Colombian National Administrative Department of Statistics. Crude and age-standardized annual mortality rates per 100 000 people were estimated. Trends of standardized rates were described by sex and age groups. Joinpoint regression models were performed to study mortality trends.
RESULTS: Throughout the whole period, the total number of DM recorded deaths in Colombia was 200 650, 58% (116 316) in women (p<0.05). The age-standardized mortality rates (ASMR) by sex increased from 13.2 to 26.6 deaths per 100 000 in women and from 10.1 to 22.7 in men from 1979 to 1999. We observed a decrease from 26.6 to 15.4 per 100 000 in women, and from 22.7 to 15.9 in men for the period 1999-2017. The joinpoint regression analysis showed that the average annual percentage change of the period did not vary in both sexes (men: -0.2%, 95% CI -1.0 to 1.4%; women: 0.7%, 95% CI -0.1 to 1.6%).
CONCLUSIONS: The DM mortality showed a decreasing trend after 2000 in women and 2004 in men. Primary and secondary prevention programs must continue to be strengthened for an earlier diagnosis of diabetes.

Entities:  

Keywords:  Colombia; Diabetes mellitus; epidemiology; mortality

Year:  2021        PMID: 33488685      PMCID: PMC7815170          DOI: 10.26633/RPSP.2021.13

Source DB:  PubMed          Journal:  Rev Panam Salud Publica        ISSN: 1020-4989


Diabetes Mellitus (DM) is an important public health issue among chronic non-communicable diseases, presenting a high epidemiological and economic burden for individuals and society, especially in middle income settings (1). DM affects an estimated 463 million people, for a global prevalence of 9.3% in 2019 (1). A person with DM has higher risk of several complications that increase their mortality risk (2). DM and its complications cause economic losses in people with the disease, their families, health systems and national economies through the direct medical costs and productivity loss (3). Type 2 DM is the most common kind of DM. Low levels of physical activity and excessive calorie consumption increase its incidence (4). Estimates have indicated that worldwide mortality due to DM has been increasing (5). For 2017, four million people died from DM around the world, 209 718 individuals in South and Central America, and 17 038 in Colombia (6). Several studies have examined the epidemiological aspects of DM in Colombia; however, very few have showed trends in mortality (7). We aimed to describe the DM mortality trend in Colombia, by sex and age group, for the period 1979-2017.

METHODS

We conducted an ecological study to describe trends in mortality from DM in Colombia by sex and age groups, in the period 1979-2017. We obtained DM mortality data from individual death certificate records of the National Statistics Department (Departamento Administrativo Nacional de Estadística, DANE in Spanish), which collects vital statistics in Colombia (8). We analyzed anonymized mortality records coded as DM according to the International Classification of Diseases, 9th revision (250, 648.0, 778.1) (9) for 1979-1996 and the 10th revision (E10-E14, O24, P70.2) (10) for 1997-2017 considering only the underlying cause of death. The population data was extracted from projections based on the 2005 Colombian Census for 1985-2017 (11). During 1979-1984 period, we calculated the population data using simple linear regression, based on census projections. The variables considered were year of registration of death, number of deaths per year, sex, age, and underlying cause of death. We estimated crude, standardize, and age-standardized mortality rates (ASMR) per 100 000 people per year. We analyzed decennial age-groups (0-9, 10-19, 20-29, 30-39, 40-49, 50-59, 60-69, 70-79 and ≥80 years old), and standardized the mortality using the direct method, taking the 2001 World Health Organization (WHO) standard population as the reference population (12). We modeled the mortality rates trend by sex and age through Poisson joinpoint regression models, using ASMR. This type of models fits a series of combined straight lines to trend temporal data, which indicates whether mortality rate is best explicated by a single or several trend segments (13). The joinpoint regression calculates the annual percentage change (APC) and the average annual percentage change (AAPC). The statistical significance was assumed as 0.05. Using the Methodology for Characterizing Trends of the National Cancer Institute of the United States (14), we considered trends in this study as rates “changing less than or equal to 0.5% per year (–0.5 ≤ APC ≤ 0.5), and the APC was not statistically significant, we characterized it as stable; changing more than 0.5% per year (APC < –0.5 or APC > 0.5), and the APC was not statistically significant, we characterized it as non-significant change; changing with a statistically significant APC > 0, we characterized it as rising; and changing with a statistically significant APC < 0, we characterized it as falling” (14). Data processing were performed on Microsoft Excel®. Statistical analyses were performed in Stata 12™ (Stata Corporation, College Station, TX, USA) and Joinpoint Regression version 4.6.0.0 (15). The study met the ethical requirements established by the Colombian regulations, framed in Resolution 8430 of 1993 of the Ministry of Health, whose article 11 classifies this study as “no risk” research, because only secondary data is include and individual identification is not possible.

RESULTS

Throughout the entire timeframe, the total number of DM recorded deaths in Colombia was 200 650, 58% (116 316) in women (p<0.05). The annual average of deaths was 5 145 deaths. The men:women ratio was 1:1.4. During the study period, the men/women proportion decreased (Figure 1).
FIGURE 1.

Percentage distribution of DM mortality by sex, Colombia, 1979–2017

Year Men Women n Crude rate[ Standardized rate[ n Crude rate[ Standardized rate[ 1979 694 5.4 10.1 1 042 8.0 13.2 1980 858 6.5 11.9 1 388 10.3 17.0 1981 938 6.9 12.9 1 440 10.4 17.5 1982 1 012 7.3 13.5 1 628 11.4 19.1 1983 992 6.9 12.9 1 611 10.9 18.7 1984 845 5.7 10.7 1 353 8.9 15.1 1985 1 024 6.7 12.5 1 583 10.1 17.1 1986 1 011 6.5 11.8 1 681 10.6 17.5 1987 1 093 6.9 12.1 1 729 10.6 17.4 1988 1 140 7.1 12.5 1 699 10.2 16.4 1989 1 200 7.3 12.9 1 940 11.4 18.5 1990 1 108 6.6 11.4 1 753 10.1 16.0 1991 1 185 6.9 11.9 1 939 11.0 16.9 1992 1 435 8.2 13.9 2 048 11.4 17.5 1993 1 508 8.4 14.1 2 207 12.0 17.9 1994 1 650 9.1 14.9 2 410 12.9 18.9 1995 1 780 9.6 15.4 2 641 13.9 20.3 1996 1 966 10.5 16.7 2 765 14.3 20.5 1997 2 180 11.4 17.9 3 038 15.5 21.8 1998 2 385 12.3 19.3 3 427 17.3 24.1 1999 2 889 14.7 22.7 3 911 19.4 26.6 2000 2 783 14.0 21.2 3 919 19.2 25.8 2001 2 962 14.7 21.8 4 062 19.6 25.8 2002 3 025 14.8 21.7 4 125 19.7 25.4 2003 3 215 15.6 22.4 4 363 20.6 26.0 2004 3 160 15.1 21.4 4 279 19.9 24.7 2005 3 140 14.8 20.6 4 129 19.0 23.0 2006 3 091 14.4 20.0 4 101 18.7 22.3 2007 3 068 14.1 19.3 4 059 18.2 21.4 2008 3 179 14.5 19.4 4 172 18.5 21.2 2009 2 743 12.4 16.2 3 733 16.4 18.3 2010 2 880 12.8 16.5 3 980 17.3 18.8 2011 2 900 12.8 16.2 3 837 16.5 17.5 2012 3 097 13.5 16.8 4 059 17.2 17.9 2013 3 065 13.2 16.1 3 957 16.6 16.9 2014 3 082 13.1 15.8 4 053 16.8 16.7 2015 3 379 14.2 16.9 4 173 17.1 16.6 2016 3 289 13.7 15.9 3 964 16.1 15.3 2017 3383 13.9 15.9 4118 16.5 15.4 prepared by the authors from the results of the study. Rates per 100 000 individuals The ASMR by sex increased from 13.2 to 26.6 deaths per 100 000 in women and from 10.1 to 22.7 per 100 000 in men from 1979 to 1999. We observed a decrease from 26.6 to 15.4 per 100 000 in women, and from 22.7 to 15.9 per 100 000 in men for the period 1999-2017 (Table 1 and Figure 2).
TABLE 1.

Crude and age-standardized mortality rates due to diabetes mellitus, Colombia, 1979-2017

Year

Men

Women

n

Crude rate[*]

Standardized rate[*]

n

Crude rate[*]

Standardized rate[*]

1979

694

5.4

10.1

1 042

8.0

13.2

1980

858

6.5

11.9

1 388

10.3

17.0

1981

938

6.9

12.9

1 440

10.4

17.5

1982

1 012

7.3

13.5

1 628

11.4

19.1

1983

992

6.9

12.9

1 611

10.9

18.7

1984

845

5.7

10.7

1 353

8.9

15.1

1985

1 024

6.7

12.5

1 583

10.1

17.1

1986

1 011

6.5

11.8

1 681

10.6

17.5

1987

1 093

6.9

12.1

1 729

10.6

17.4

1988

1 140

7.1

12.5

1 699

10.2

16.4

1989

1 200

7.3

12.9

1 940

11.4

18.5

1990

1 108

6.6

11.4

1 753

10.1

16.0

1991

1 185

6.9

11.9

1 939

11.0

16.9

1992

1 435

8.2

13.9

2 048

11.4

17.5

1993

1 508

8.4

14.1

2 207

12.0

17.9

1994

1 650

9.1

14.9

2 410

12.9

18.9

1995

1 780

9.6

15.4

2 641

13.9

20.3

1996

1 966

10.5

16.7

2 765

14.3

20.5

1997

2 180

11.4

17.9

3 038

15.5

21.8

1998

2 385

12.3

19.3

3 427

17.3

24.1

1999

2 889

14.7

22.7

3 911

19.4

26.6

2000

2 783

14.0

21.2

3 919

19.2

25.8

2001

2 962

14.7

21.8

4 062

19.6

25.8

2002

3 025

14.8

21.7

4 125

19.7

25.4

2003

3 215

15.6

22.4

4 363

20.6

26.0

2004

3 160

15.1

21.4

4 279

19.9

24.7

2005

3 140

14.8

20.6

4 129

19.0

23.0

2006

3 091

14.4

20.0

4 101

18.7

22.3

2007

3 068

14.1

19.3

4 059

18.2

21.4

2008

3 179

14.5

19.4

4 172

18.5

21.2

2009

2 743

12.4

16.2

3 733

16.4

18.3

2010

2 880

12.8

16.5

3 980

17.3

18.8

2011

2 900

12.8

16.2

3 837

16.5

17.5

2012

3 097

13.5

16.8

4 059

17.2

17.9

2013

3 065

13.2

16.1

3 957

16.6

16.9

2014

3 082

13.1

15.8

4 053

16.8

16.7

2015

3 379

14.2

16.9

4 173

17.1

16.6

2016

3 289

13.7

15.9

3 964

16.1

15.3

2017

3383

13.9

15.9

4118

16.5

15.4

prepared by the authors from the results of the study.

Rates per 100 000 individuals

FIGURE 2.

Crude and age-standardized mortality rates with diabetes as underlying cause, by sex and year, Colombia, 1979-2017

Figure 3 shows the DM ASMR by sex and age groups. ASMRs were greater in women. ASMR shows an increase from >50 years old, for both sexes (Figure 3). The trend of ASMRs indicated that as age increases, rates become higher; in men ≥80 years ASMRs evidenced a constant rise, while in women for the same age group the trend slightly decreased (Figure 4).
FIGURE 3.

Age-specific mortality rates from diabetes as underlying cause by sex, Colombia, 1979-2017

FIGURE 4.

Age-specific mortality rates from diabetes as underlying cause, by year and sex, Colombia 1979-2017

The joinpoint regression analysis showed that the AAPC of the period did not vary in both sexes (men: –0.2%, 95% CI –1.0 to 1.4%; women: 0.7%, 95% CI: –0.1 to 1.6%). In men, a significant increase in ASMRs was identified for the period 1991-1999 (APC 7.3%, 95% CI 5.3 to 9.4%), and a significant decrease was found for 2004-2010 (APC –4.7%, 95% CI –7.0 to –2.3%) per year. A joinpoint trend was detected for women for the period 1992-2000, where ASMRs rose by 6.3% (95% CI 4.5 to 8.1%); however, ASMRs fell by 3.5% (APC –3.5%, 95% CI –3.8 to –3.1%) per year between 2001-2017 (Figure 5).
FIGURE 5.

Age-standardized mortality rates from diabetes as underlying cause, by year and sex, with annual percentage change estimated from joinpoint regression models, Colombia, 1979-2017

By sex and age groups, the AAPC indicated a significant reduction for men and women in the age groups from 10 to 19 years and from 20 to 29 years throughout the whole study period. A significant increase was observed in the group of 80 and over, for both sexes. Regression models showed significant trend adjustments in different joinpoints, both by sex and for each one of the age groups (Figure 5 and Table 2).
TABLE 2.

Joinpoint regression analysis of age-standardized DM mortality rates by sex, Colombia 1979-2017

Age-groups

Men

Women

Period

APC[a]

Trend

AAPC[b]

Period

APC

Trend

AAPC

0-9

1979-2017

 

 

 

1979-2017

–3.2[^] (–4.4 to –2.0)

Falling

–3.2[^] (–4.4 to –2.0)

10-19

1979-2017

–4.3[^] (–5.3 to –3.4)

Falling

–4.3[^] (–5.3 to –3.4)

1979-2017

–3.1[^] (–3.9 to –3.9)

Falling

–3.1[^] (–3.9 to –3.9)

20-29

1979-1997

1.8[^] (0.0 to 3.7)

Rising

–1.6[^] (–2.7 to –0.5)

1979-2017

–1.6[^] (–2.2 to –1.0)

Falling

–1.6[^] (–2.2 to –1.0)

 

1997-2017

–4.3[^] (–6.1 to –3.1)

Falling

 

 

 

 

 

30-39

1979-2001

–0.7 (–0.3 to 1.7)

No change

–1.2[^] (–2.0 to –0.4)

1979-1993

1.8 (–0.1 to 3.8)

No change

–0.7 (–1.5 to 0.1)

 

2001-2017

–3.7[^] (–5.1 to –2.3)

Falling

 

1993-2017

–2.1[^] (–2.8 to –1.4)

Falling

 

40-49

1979-1990

–0.4 (–2.6 to 1.9)

Stable

 

1979-1981

29.6 (–6.6 to 79.7)

No change

 

 

1990-1999

5.5[^] (2.6 to 8.6)

Rising

 

1981-1991

–3.8[^] (–6.0 to –1.4)

Falling

 

 

1999-2007

–7.2[^] (–9.8 to –4.4)

Falling

–0.3 (–1.4 to 0.9)

1991-1998

5.6 (1.6 to 9.8)

No change

–0.2 (–2.2 to 1.8)

 

2007-2017

0.4 (–1.3 to 2.2)

Stable

 

1998-2013

–5.0 (–5.9 to –4.1)

No change

 

 

 

 

 

 

2013-2017

4.3 (–2.8 to 11.8)

No change

 

50-59

1979-1993

0.8 (–0.6 to 2.2)

No change

 

1979-2001

1.7[^] (1.1 to 2.3)

Rising

 

 

1993-2000

8.6[^] (4.7 to 12.7)

Rising

 

2001-2017

–4.7[^] (–5.4 to –3.9)

Falling

–1.1[^] (–1.5 to –0.6)

 

2000-2011

–5.6[^] (–6.9 to –4.2)

Falling

–0.0 (–1.0 to 1.0)

 

 

 

 

 

2011-2017

–1.1 (–4.2 to 2.1)

No change

 

 

 

 

 

60-69

1979-1990

0.6 (–1.1 to 2.3)

No change

 

1979-1992

0.1 (–0.9 to 1.0)

Stable

 

 

1990-1999

8.9[^] (6.8 to 11.1)

Rising

 

1992-1999

7.5[^] (4.9 to 10.1)

Rising

 

 

1999-2004

0.2 (–4.4 to 4.3)

Stable

 

1999-2003

–1.2 (–6.9 to 4.9)

No change

 

 

2004-2011

–6.8[^] (–9.0 to –4.5)

Falling

0.7 (–0.3 to 1.8)

2003-2011

–6.9[^] (–8.5 to –5.3)

Falling

–0.7 (–1.7 to 0.2)

 

2011-2017

–0.9 (–3.2 to 1.5)

No change

 

2011-2017

–2.8[^] (–5.0 to –0.6)

Falling

 

70-79

1979-1993

0.1 (–1.4 to 1.7)

Stable

 

1979-1982

10.1 (–3.3 to 25.3)

No change

 

 

1993-2002

8.1[^] (5.6 to 10.6)

Falling

 

1982-1991

–2.1(–4.3 to 0.3)

No change

 

 

2002-2017

–3.0[^] (–3.7 to –2.3)

Falling

0.7 (–0.1 to 1.5)

1991-2002

–5.7[^] (4.4 to 7.0)

Falling

–0.0 (–1.2 to –1.2)

 

 

 

 

 

 

2002-2017

–4.7[^] (–5.2 to –4.1)

Falling

 

≥80

1979-1990

–0.4 (–2.6 to 2.0)

Stable

 

1979-1993

1.1 (–0.2 to 2.5)

No change

 

 

1990-1999

5.8[^] (3.2 to 8.6)

Falling

1.5[^] (0.6 to 2.4)

1993-2000

6.6[^] (3.4 to10.0)

Rising

1.1[^] (1.8 to 2.8)

 

1999-2017

0.6[^] (0.1 to 1.0)

Falling

 

2000-2017

–1.2[^] (–1.6 to –0.7)

Falling

 

prepared by the authors from the results of the study.

APC: annual percent change;

AAPC: average annual percent change

The APC is significantly different from zero (p<0,05).

Table 2 shows the breakdown of mortality rates changes by age and periods. By age groups, the APC suggested a significant DM mortality decrease in men for ages 10-19, 20-29, 30-39, and 70-79 during periods 1979-2017, 1997-2017, 2001-2017, and 2002-2017, respectively. In women, a significant DM mortality decrease was observed in ages 0-9, 10-19 and 20-29 during period 1979-2017. In men, a significant increase in DM mortality was presented between 1999-2017 for deaths of 80 and over (Table 2).

DISCUSSION

Our trend analysis on crude and ASMR for DM in Colombian showed a gradual reduction in women between 2000 and 2017, while in men that reduction, less accentuated, was observed for 2004-2017. The crude and ASMR were higher among women except in the last three years of the study period. The crude rates in both women and men were lower than the standardized rates, indicating that age is a confounding factor in mortality from diabetes, and the increase in crude rates may indicate greater aging of the population (life expectancy for women in Colombia went from 66.4 years in 1979 to 76.9 in 2017, and for men from 63.8 years to 74.1 in the same period (16)). Similar findings were reported in diabetic women who died in Argentina (17). The higher mortality rates in women may be related to the differential prevalence of risk factors associated with DM. A study carried out in Colombia in 1999 showed that the prevalence of diabetes in the population between 18 and 69 years was higher in women (18). Several more recent studies reported that risk factors continued to be higher in women (19–21). The highest rates observed in women, during most of the analyzed period, may correspond to differences in the distribution of DM risk factors such as diet, physical activity and abdominal obesity (22). These risk factors, combined with the work they do at home (domestic work), and having or not a formal job (23), may not allow the properly care of their health status. Although it is difficult to compare mortality trends across countries owing to differences in access to health care, standards of clinical care, and diagnostic criteria for DM, our findings are consistent with previously reported trends in some Latin American countries such as Brazil (24), Argentina (17), Panama (25), Cuba (26), Mexico (27), and in other countries as Sweden (28), Serbia (29) and Taiwan (30). However, since 2016, rates for men started to be slightly higher than those for women. This increase may correspond to the differential distribution of risk factors related to the disease and health care, and to the access to healthcare services (17). The decreasing trend experienced by diabetes-related mortality rates most likely reflects the impact of medical advances in the prevention, access, monitoring and treatment of this chronic disease, recognizing that there is still a lack of efforts to enhance the diagnosis of DM, and to improve outpatient care in order to avoid complications (31). Complications can directly influence mortality and morbidity, especially when they occur in the older age whose have increased risk of suffering from pathologies related to aging (32). On the other hand, the trend of mortality rates reduction may be partially explained by having access to early diagnosis, and the strict control of glycemia and related risk factors (33). The management of diabetes in Colombia has improved with increasingly universal access to the health system (34). Surveys as the "National Health Survey 2007" (NHS) (35) and the "National Survey of Nutrition Status of Colombia 2015" (ENSIN, Spanish acronym) (36) support the decrease in mortality rates in Colombia. The NHS reported that people with DM received care by a general practitioner (96.5%) and a specialist physician (47.4%). Regarding to risk factors related to DM, people with the disease received recommendations to quit smoking (more than 76.5%), manage stress, reduce weight, perform physical activity, check for glycemia and lipid profiles, and reduce consumption of flour and sugar. In accordance with DM treatments, NHS reported that 61.4% were treated with insulin or another medication, and 81.6% received all the medications. 87.4% of people with DM received control of cholesterol and triglyceride levels and 88.7% of blood or urine glycemia; 78.9% did not use methods to measure glycemia at home (35). Furthermore, ENSIN reported that obesity was more frequent in women (22.4%) than in men (14.4%); only half of Colombian adults performed 150 minutes of moderate physical activity or 75 minutes of vigorous or strong activity per week, and that 4 out of 10 women and 6 out of 10 men followed this preventive measure (37). ENSIN also showed a reduction in smoking rate, an important risk factor for DM complications, to which a recent program was launched to help tobacco users quit smoking (38). Efforts have also been made in primary prevention, including public health actions focused on population-based disease prevention, such as food and agricultural policies to facilitate healthy choices, necessary to stop the increase in the incidence of diabetes. Regarding the policies and programs for the promotion and prevention of DM, in the 2000s were defined activities, procedures and conditions required to control the quality and timing of diagnosis, treatment and follow-up of cases. Similarly, implementing the detection of cases of type 2 DM provided timely treatment in order to reduce sequelae, complications and deaths (39,40). Recommendations for good practices, based on the best available clinical evidence and including cost perspectives, patient preferences and the relationship between the benefits and risks of the technologies of interest were also provided in 2015 (41). Moreover, Colombian healthcare insurers have implemented diabetes promotion and prevention programs in which they include patient education in disease management (nutrition, physical activity, pharmacological and non-pharmacological treatment, and the complications of the disease). However, there is still no evidence about the epidemiological impact of these promotion and prevention programs. Likewise, the reduction of trends of DM mortality could be partially attributed to improvements in the standard of living and in the decrease of poverty levels (42). Our results should be interpreted with caution due to the limitations of the study. Because it is based on secondary data, its coverage and content must be considered. The quality of the information on the underlying cause of DM death taken from the death certificates was rated by the WHO as “average” (43), and it may have been underreported or misclassified. Additionally, it was not possible to discriminate between type 1 and type 2 DM due to the lack of exact information to determine the type of diabetes. Also, it was possible that one of the DM complications had been selected as the underlying cause of death, particularly in the cases of people who died from myocardial infarction, cerebrovascular accident and chronic kidney disease (44). Several studies suggest that mortality due to DM would be up to three times higher than that calculated when it is considered as a underlying cause, and is not taken into account when it appears as a contributing cause of death (45,46). Additionally, it should be mentioned that in Colombia the ICD coding rules for the underlying cause of death changed during the study period. It went from the 9th to the 10th revision of the ICD, although there were no changes in DM coding. It should also be noted that the diagnostic criteria used for the diagnosis of diabetes have been maintained over time, including fasting plasma glucose of 7 mmol/l (47) and in recent times HbA1c ≥ 6.5% (48), so no variations over the time have occurred. Age-groups Men Women Period APC[ Trend AAPC[ Period APC Trend AAPC 0-9 1979-2017 1979-2017 –3.2[^] (–4.4 to –2.0) Falling –3.2[^] (–4.4 to –2.0) 10-19 1979-2017 –4.3[^] (–5.3 to –3.4) Falling –4.3[^] (–5.3 to –3.4) 1979-2017 –3.1[^] (–3.9 to –3.9) Falling –3.1[^] (–3.9 to –3.9) 20-29 1979-1997 1.8[^] (0.0 to 3.7) Rising –1.6[^] (–2.7 to –0.5) 1979-2017 –1.6[^] (–2.2 to –1.0) Falling –1.6[^] (–2.2 to –1.0) 1997-2017 –4.3[^] (–6.1 to –3.1) Falling 30-39 1979-2001 –0.7 (–0.3 to 1.7) No change –1.2[^] (–2.0 to –0.4) 1979-1993 1.8 (–0.1 to 3.8) No change –0.7 (–1.5 to 0.1) 2001-2017 –3.7[^] (–5.1 to –2.3) Falling 1993-2017 –2.1[^] (–2.8 to –1.4) Falling 40-49 1979-1990 –0.4 (–2.6 to 1.9) Stable 1979-1981 29.6 (–6.6 to 79.7) No change 1990-1999 5.5[^] (2.6 to 8.6) Rising 1981-1991 –3.8[^] (–6.0 to –1.4) Falling 1999-2007 –7.2[^] (–9.8 to –4.4) Falling –0.3 (–1.4 to 0.9) 1991-1998 5.6 (1.6 to 9.8) No change –0.2 (–2.2 to 1.8) 2007-2017 0.4 (–1.3 to 2.2) Stable 1998-2013 –5.0 (–5.9 to –4.1) No change 2013-2017 4.3 (–2.8 to 11.8) No change 50-59 1979-1993 0.8 (–0.6 to 2.2) No change 1979-2001 1.7[^] (1.1 to 2.3) Rising 1993-2000 8.6[^] (4.7 to 12.7) Rising 2001-2017 –4.7[^] (–5.4 to –3.9) Falling –1.1[^] (–1.5 to –0.6) 2000-2011 –5.6[^] (–6.9 to –4.2) Falling –0.0 (–1.0 to 1.0) 2011-2017 –1.1 (–4.2 to 2.1) No change 60-69 1979-1990 0.6 (–1.1 to 2.3) No change 1979-1992 0.1 (–0.9 to 1.0) Stable 1990-1999 8.9[^] (6.8 to 11.1) Rising 1992-1999 7.5[^] (4.9 to 10.1) Rising 1999-2004 0.2 (–4.4 to 4.3) Stable 1999-2003 –1.2 (–6.9 to 4.9) No change 2004-2011 –6.8[^] (–9.0 to –4.5) Falling 0.7 (–0.3 to 1.8) 2003-2011 –6.9[^] (–8.5 to –5.3) Falling –0.7 (–1.7 to 0.2) 2011-2017 –0.9 (–3.2 to 1.5) No change 2011-2017 –2.8[^] (–5.0 to –0.6) Falling 70-79 1979-1993 0.1 (–1.4 to 1.7) Stable 1979-1982 10.1 (–3.3 to 25.3) No change 1993-2002 8.1[^] (5.6 to 10.6) Falling 1982-1991 –2.1(–4.3 to 0.3) No change 2002-2017 –3.0[^] (–3.7 to –2.3) Falling 0.7 (–0.1 to 1.5) 1991-2002 –5.7[^] (4.4 to 7.0) Falling –0.0 (–1.2 to –1.2) 2002-2017 –4.7[^] (–5.2 to –4.1) Falling ≥80 1979-1990 –0.4 (–2.6 to 2.0) Stable 1979-1993 1.1 (–0.2 to 2.5) No change 1990-1999 5.8[^] (3.2 to 8.6) Falling 1.5[^] (0.6 to 2.4) 1993-2000 6.6[^] (3.4 to10.0) Rising 1.1[^] (1.8 to 2.8) 1999-2017 0.6[^] (0.1 to 1.0) Falling 2000-2017 –1.2[^] (–1.6 to –0.7) Falling prepared by the authors from the results of the study. APC: annual percent change; AAPC: average annual percent change The APC is significantly different from zero (p<0,05). Finally, our study has provided information on the trend of national DM mortality rates in Colombia, for a period of 39 years and it was based on information gathered from death certificates. Promotion and prevention programs must continue to be strengthened for the early diagnosis of individuals with DM. The quality of mortality information should also be improved, regarding to the correct classification of the type of DM and its assignment as the underlying cause of death. The increase in mortality in the older age group and the differences between sexes could indicate an improvement in survival, better diagnosis, and improvement in registration methods.

Funding.

Regular budget of the Observatorio Nacional de Salud, Instituto Nacional de Salud of Colombia.

Disclaimer.

The views and opinions in the manuscript are the authors’ and do not necessarily reflect the opinion or policy of the RPSP/PAJPH and/or PAHO.
  15 in total

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