Literature DB >> 24052610

Poor glycaemic control in Brazilian patients with type 2 diabetes attending the public healthcare system: a cross-sectional study.

Luciana V Viana1, Cristiane B Leitão, Caroline K Kramer, Alessandra T N Zucatti, Deborah L Jezini, João Felício, Ana B Valverde, Antonio R Chacra, Mirela J Azevedo, Jorge L Gross.   

Abstract

OBJECTIVES: To describe the clinical profile of Brazilian patients with type 2 diabetes attending the public healthcare system and identify factors associated with poor glycaemic control.
DESIGN: Cross-sectional study.
SETTING: 14 centres in five regions of Brazil, including primary care units and outpatient clinics of University Hospitals. PARTICIPANTS: Patients with type 2 diabetes attending outpatient clinics of public healthcare system. MAIN OUTCOME MEASURED: Glycated haemoglobin (HbA1c), centrally measured by high-performance liquid chromatography (National Glycohemoglobin Standardization Program certified).
RESULTS: A total of 5750 patients aged 61±10 years, with 11±8 years of diabetes duration (66% women, 56% non-white, body mass index: 28.0±5.3 kg/m(2)) were analysed. Mean HbA1c was 8.6±2.2%, and median HbA1c was 8.1% (6.9% to 9.9%). HbA1c <7% was observed in only 26% of patients. Mean HbA1c was higher (p < 0.01) in the North (9.0±2.6%) and Northeast (8.9±2.4%) than in the Midwest (8.1±2%), Southeast (8.4±2.1%) and South regions (8.3±1.9%). Using the cut-off value of HbA1c above the median, age (0.986 (0.983 to 0.989)), white ethnicity (0.931 (0.883 to 0.981)) and being from Midwest region (0.858 (0.745 to 0.989)) were protective factors, while diabetes duration (1.015 (1.012 to 1.018)), use of insulin (1.710 (1.624 to 1.802)) and living in the Northeast region (1.197 (1.085 to 1.321)) were associated with HbA1c >8%.
CONCLUSIONS: The majority of Brazilian patients with type 2 diabetes attending the public healthcare system had HbA1c levels above recommended targets. The recognition of Northeast residents and non-white patients as vulnerable populations should guide future policies and actions to prevent and control diabetes.

Entities:  

Keywords:  Diabetes & Endocrinology; Epidemiology

Year:  2013        PMID: 24052610      PMCID: PMC3780317          DOI: 10.1136/bmjopen-2013-003336

Source DB:  PubMed          Journal:  BMJ Open        ISSN: 2044-6055            Impact factor:   2.692


To the best of our knowledge, this is the largest surveillance study to assess glycaemic control in Brazil. We used a certified method to analyse glycated haemoglobin. However, (1) surveillance was based on self-reported answers, although medical records were consulted when available. (2) Only patients attended by the public health system were included and (3) lastly, due to its cross-sectional design, our study was able to identify associations between several factors and glycaemic control, but was unable to pinpoint risk factors.

Introduction

Brazil is among the 10 countries with the highest prevalence of diabetes mellitus (DM) in the world—about 7.6%.1 2 Diabetes is the fifth underlying cause of death in Brazil, affecting 2.5% of the population.3 Preliminary results obtained by our group4 show that only 24% of Brazilian patients with diabetes had an HbA1c level below the recommended target (HbA1c <7%5), despite the availability of free medical care through the public healthcare system (Sistema Único de Saúde-SUS).6 Medical assistance and specific drugs, including metformin, sulfonylureas and insulin, are provided free of charge across the country through primary care units and specific drugstores. Considering that poor diabetic control is associated with increased mortality in diabetic populations,7 it is important to analyse the possible factors associated with the high levels of HbA1c in the population. Therefore, the aim of this study was to describe the clinical profile of patients with type 2 diabetes receiving public healthcare in the five regions of Brazil and identify factors associated with poor glycaemic control.

Patients

A cross-sectional study was conducted between February 2006 and April 2011 at SUS outpatient clinics with 7201 patients with types 1 and 2 diabetes from the North (n=500; 7%), Northeast (n=2184; 30%), Midwest (n=461; 6%), Southeast (n=3382; 47%) and South (n=674; 9%) regions of Brazil. The number of patients in each region reflects the regional population density as reported in the 2000 national census.8 A preliminary report describing the characteristics of this patient population, for all regions except the North, has been published.4 Briefly, the current study was designed to obtain a representative sample of adult patients with type 2 diabetes living in urban areas of Brazil. A total of 14 centres, located in 12 cities belonging to the five regions of our country were included. The included cities were the largest in their respective region and nine of them ranked among the most populous municipalities in Brazil. We also considered that the data would be more reliable if they were collected from public healthcare centres that usually take care of at least 300 patients with diabetes/month. All patients provided written informed consent. In the present study, we reported the results for 5750 patients with type 2 diabetes for whom HbA1c values were available. Type 2 diabetes was defined as diabetes diagnosed after 30 years of age without insulin use in the first 5 years after the diagnosis. Patients were from the North (n=312; 5%), Northeast (n=1906, 33%), Midwest (n=348, 6%), Southeast (n=2642, 46%) and South (n=542, 9%) regions.

Assessment of clinical characteristics

Information on clinical variables (age, gender, ethnicity, DM duration, body weight, height, physical activity and medications in use,) was obtained by a standardised questionnaire. Ethnicity was self-reported as white or non-white (black, mixed or other—including Asian and Native Brazilians). Marital status was categorised as living with or without a partner, and employment status as working or not currently employed. Educational status was classified as at least 8 years or less than 8 years of formal education. DM treatment was classified as none, diet alone, oral agents, oral agents plus insulin and insulin alone. Frequency of self-blood glucose monitoring (SBGM) and hypoglycaemic episodes in the previous year were recorded. Body mass index (BMI) was calculated (weight/height2; kg/m2). Data were collected in 14 cities representing the five regions of Brazil: South (Porto Alegre, Curitiba), Southeast (São Paulo, Cotia, Campinas, Belo Horizonte, Rio de Janeiro), Midwest (Brasilia, Taguatinga), Northeast (Fortaleza, Recife, Salvador), North (Belém, Manaus).

HbA1c measurements

HbA1c was measured in a central laboratory by an ion-exchange high-performance liquid chromatography method (reference range 4.7–6%) certified by the National Glycohemoglobin Standardization Program and calibrated to the Diabetes Control and Complications Trial standard.

Statistical analyses

The five regions were compared in terms of clinical variables and HbA1c results by one-way analysis of variance (with Bonferroni post hoc test) and χ² tests. The characteristics of patients were evaluated according to glucose control (median HBA1c), region of origin and self-reported ethnic background. Prevalence ratio (PR) and 95% CI were obtained by Poisson regression analyses to determine the association of different factors with HbA1c >8% (dependent variable). Adjustment was made taking into account independent variables selected based on their significance on univariate analyses and/or biological relevance (age, diabetes duration, ethnicity, living with partner, working status, insulin use, SBGM and geographic region). Variables were expressed as mean±SD, number of cases (%) and median (25–75 IQ intervals). HbA1c was also described as median. Statistical analyses were carried out using SSPS V.18.0. p Values less than 0.05 (two tailed) were considered significant.

Results

A total of 5750 patients with type 2 diabetes were included and the main characteristics were: age of 61±10 years, diabetes duration of 11±8 years and BMI 28.0±5.3 kg/m2. Most patients were women (66%), non-white (56%) and lived with a partner (59%). One-third (33%) had completed 8 years of formal education, 20% were employed and 37% were not physically active. Regarding treatment, 1% did not follow any kind of treatment for diabetes, 6% were on diet alone, 57% were taking oral agents, 22% used oral agents and insulin and 13% insulin alone. Mean HbA1c was 8.6±2.2% and median was 8.1% (IQR 6.9–9.9%). HbA1c <7% was found in only 26% of the patients. Since the majority of the included patients had a poor glycaemic control we decided to compare the characteristic of patients grouped according to median HbA1c (8%). Table 1 describes clinical characteristics and PR (CI 95%) of patients with HbA1c ≥8% and <8%. In unadjusted model, patients with HbA1c ≥8% were younger, non-whites, with longer DM duration, more sedentary, mainly from North and Northeast regions and treated more frequently with insulin than patients with HbA1c <8%. After adjustment, DM duration (1.015 (1.012 to 1.018)), insulin use (1.710 (1.624 to 1.802)) and being from Northeast region (1.197 (1.085 to 1.321)) was associated with HbA1c ≥8%. On the other hand, age (0.986 (0.983 to 0.989)), white ethnicity (0.931 (0.883 to 0.981)) and living in the Midwest region (using the South region as reference; (0.858 (0.745 to 0.989))) were protective factors. In order to further explore the variables associated with HbA1c ≥8% we performed stratified analysis according to geographic region, ethnicity and insulin use. An online supplementary table shows unadjusted and adjusted analyses applying the same multivariate model using a cut-off of HbA1c <7%. The differences between the groups of patients with HbA1c <7% and ≥7% did not differ substantially from the results using the cut-off of HbA1c <8%.
Table 1

Prevalence of patients’ characteristics according to HbA1c ≥8%

HbA1c <8%HbA1c ≥8%PR (95% CI)p ValueAdjusted PR (95% CI)*p Value
N=2791N=2959
Age (years)62±1160±100.991 (0.989 to 0.993)0.0000.986 (0.983 to 0.989)0.000
Diabetes duration (years)9±812±81.018 (1.015 to 1.021)0.0001.015 (1.012 to 1.018)0.000
BMI (kg/m2)28.0±5.128. 0±5.40.999 (0.994 to 1.004)0.640
Females1824 (65)1972 (67)0.972 (0.922 to 1.026)0.304
White1339 (48)1199 (40)0.862 (0.818 to 0.907)0.0000.931 (0.883 to 0.981)0.007
Living with a partner1613 (58)1762 (59)1.035 (0.983 to 1.089)0.1891.006 (0.959 to 1.057)0.796
≥8 years of formal education933 (41)967 (48)0.987 (0.932 to 1.044)0.646
Active worker527 (19)609 (21)0.949 (0.893 to 1.009)0.0941.053 (0.989 to 1.212)0.109
Ever participate in a diabetes education program†318 (11)387 (13)0.929 (0.865 to 0.999)0.047
Diabetes treatment0.000
 None48 (2)23 (1)0.522 (0.346 to 0.786)
 Diet only285 (10)58 (2)1.302 (0.928 to 1.827)
 Oral agents1905 (69)1390 (47)2.300 (1.641 to 3.224)
 Oral agents and insulin318 (11)930 (32)2.176 (1.551 to 3.055)
 Insulin alone228 (8)545 (18)
Insulin use546 (20)1475 (50)1.834 (1.749 to 1.924)0.0001.710 (1.624 to 1.802)0.000
SBGM1838 (66)2158 (73)1.186 (1.118 to 1.1258)0.0001.061 (1.001 to 1.1.23)0.045
Geographic region0.0000.000
 North135 (5)177 (6)1.225 (1.073 to 1.399)1.137 (0.996 to 1.298)
 Northeast814 (29)1092 (50)1.212 (1.212 to 1.365)1.197 (1.085 to 1.321)
 Midwest194 (7)154 (5)0.956 (0.842 to 1.109)0.858 (0.745 to 0.989)
 Southeast1357 (49)1285 (43)1.050 (0.951 to 1.159)0.959 (0.871 to 1.056)
 South291 (10)251 (8)

*Poisson regression adjusted for: age, diabetes duration, ethnicity, living with partner, working status, insulin use, SBGM and geographic region.

†Data not available for North region (not included in the adjusted analysis).

BMI, body mass index; PR, prevalence ratio; SBGM, self-blood glucose monitoring.

Prevalence of patients’ characteristics according to HbA1c ≥8% *Poisson regression adjusted for: age, diabetes duration, ethnicity, living with partner, working status, insulin use, SBGM and geographic region. †Data not available for North region (not included in the adjusted analysis). BMI, body mass index; PR, prevalence ratio; SBGM, self-blood glucose monitoring. The characteristics of the patients stratified by region are described in table 2. Mean HbA1c was higher (p<0.01) in the North (9.0±2.6%) and Northeast (8.9±2.4%) than in the Midwest (8.1±2%), Southeast (8.4±2.1%) and South (8.3±1.9%) regions. Moreover, the five regions differed in all other evaluated characteristics. Patients living in the Northeast had the highest prevalence of non-whites, the lowest BMI and the highest frequency of employed individuals.
Table 2

Characteristics of patients with type 2 diabetes according to the five geographic regions of Brazil

NorthNortheastMidwestSoutheastSouthp Value
N31219063482642542
HbA1c (%)9.0±2.68.9±2.48.1±2.08.4±2.18.3±1.9<0.01*
Age (years)58±1061±1160±1161±1062±10<0.01†,‡
Diabetes duration (years)10±810±811±811±911±90.029
BMI (kg/m2)29.0±5.527.2±5.027.7±5.228.2±5.329.1±5.3<0.01‡,§,¶
Females193 (62)1317 (69)245 (70)1726 (65)315 (58)<0.01**
White71 (23)560 (29)131 (38)1311 (50)465 (86)<0.01**
Living with a partner199 (64)1099 (58)185 (53)1537 (58)355 (66)<0.01††
≥8 years of formal education140 (45)521 (27)106 (30)1011 (38)122 (27)<0.01‡‡
Active worker112 (36)341 (18)65 (19)482 (18)136 (25)<0.01§§
Sedentary134 (43)670 (35)147 (43)1005 (38)168 (31)<0.01¶¶
Diabetes treatment
 None2 (1)18 (1)7 (2)38 (1)6 (1)<0.01**
 Diet only14 (5)145 (8)31 (9)138 (5)15 (3)
 Oral agents172 (59)1172 (62)180 (52)1426 (54)345 (64)
 Oral agents and insulin67 (23)332 (17)64 (18)660 (25)125 (23)
 Insulin alone37 (12)239 (12)66 (19)380 (15)51 (9)

Data are mean±SD or number of patients with the characteristic (%).

*North and Northeast versus Midwest, Southeast and South.

†North versus Northeast, Southeast and South.

‡Midwest and Southeast versus South.

§North versus Northeast and Center-West.

¶Northeast versus Southeast and South.

**Linear-by-linear association.

††Higher in North and South; lower in Midwest.

‡‡Higher in North; lower in Northeast and South.

§§Higher in North and South; lower in Northeast and Southeast.

¶¶Higher in North and Midwest; lower in Northeast and South.

BMI, body mass index.

Characteristics of patients with type 2 diabetes according to the five geographic regions of Brazil Data are mean±SD or number of patients with the characteristic (%). *North and Northeast versus Midwest, Southeast and South. †North versus Northeast, Southeast and South. ‡Midwest and Southeast versus South. §North versus Northeast and Center-West. ¶Northeast versus Southeast and South. **Linear-by-linear association. ††Higher in North and South; lower in Midwest. ‡‡Higher in North; lower in Northeast and South. §§Higher in North and South; lower in Northeast and Southeast. ¶¶Higher in North and Midwest; lower in Northeast and South. BMI, body mass index. Characteristics of patients according to self-reported ethnicity (white and non-white) are described in table 3. Non-white patients had higher HbA1c values, lower BMI and more years of formal education than white patients. They were also younger, more often female and single.
Table 3

Demographic and clinical characteristics of patients with type 2 diabetes according to ethnicity

WhiteNon-whitep Value
N=2538N=3208
HbA1c (%)8.3±2.18.8±2.3<0.01
Age (years)62±1060±10<0.01
Diabetes duration (years)11±911±80.06
BMI (kg/m2)28.2±5.227.8±5.30.003
Females—n (%)1615 (64)2178 (68)<0.01
Living with a partner—n (%)1568 (62)1805 (56)<0.01
At least 8 years of formal education—n (%)803 (38)1094 (41)0.011
Active worker—n (%)520 (21)616 (19)0.227
Sedentary—n (%)904 (36)1220 (38)0.072
Diabetes treatment—n (%)0.007
 None37 (2)34 (1)
 Diet only151 (6)192 (6)
 Oral agents1498 (59)1794 (56)
 Oral agents and insulin533 (21)714 (22)
 Insulin alone314 (12)459 (15)
Geographic region—n (%)<0.01
 North71 (23)241 (77)
 Northeast560 (29)1344 (71)
 Midwest131 (38)217 (62)
 Southeast1311 (50)1329 (50)
 South465 (86)77 (14)

Data are mean±SD, number of patients with the characteristic.

BMI, body mass index; HbA1c, glycated haemoglobin.

Demographic and clinical characteristics of patients with type 2 diabetes according to ethnicity Data are mean±SD, number of patients with the characteristic. BMI, body mass index; HbA1c, glycated haemoglobin. Of the 5750 patients in this study, 35% (2021 patients) used insulin. Of these, 33% (n=658) used insulin once daily, 58% (n=1154) twice daily and 9% (n=189) three times a day or more. Eighty-one per cent (n=1630) of the insulin users performed SBGM, but only 421 (26%) did it on a daily basis. Patients who performed more frequently SBGM had lower values of HbA1c (at least once daily: 9.3±2.1%) than those who did not measure capillary glucose (9.7±2.3%; p=0.008).

Conclusions

In this study, most patients with type 2 diabetes attending the public healthcare system in Brazil had HbA1c levels above the recommended target, that is, above 7%. Being non-white and from the northeast, as well as the longer diabetes duration, and insulin use were factors associated with poor metabolic control, whereas age and being from the Midwest were associated with HbA1c <8% (median HbA1c level for this population). To the best of our knowledge, this is the largest surveillance study to assess glycaemic control in Brazil using a certified method to measure HbA1c. We also may consider that the present study included a representative sample of patients with type 2 diabetes living in the urban areas and attending the public healthcare system in Brazil. In the current survey we chose to use the cut-off value of HbA1c 8% to compare patients with different glycaemic control. The recommended target for HbA1c is below 7%, but it has been recently recommended to individualise the goal of HbA1c.5 Since only 26% of our patients achieved this target, we adopted a more representative cut-off value (median HbA1c value of our study population). Nevertheless, we also performed an analysis using the cut-off of HbA1c <7% and the results did not change. Diabetes control varies in different countries. In the USA, mean HbA1c among middle-aged adults was approximately 7.3%.9 Patients with type 2 diabetes using oral agents to treat diabetes in seven European countries had similar glycaemic control (mean HbA1c 7.2%).10 However, in the EURIKA,11 a study performed in 12 European countries, only 36.7% of patients with type 2 diabetes achieved the goal of HbA1c <6.5%. In the present study, mean HbA1c (8.6±2.2%) was much higher than that observed in these countries, and only 26% of our patients had HbA1c below the 7% goal. In our study, a broad range of HbA1c levels were also observed across Brazilian regions. The poor glycaemic control observed in the Northeast than the other regions might be explained by a diverse ethnic and economic background. Numerous studies show ethnic disparities in HbA1c values; a meta-analysis has reported that African-Americans had absolute HbA1c values 0.65% higher than non-Hispanic whites.12 According to the Brazilian Geography and Statistics Institute, 23.6% of the population in the North and 28.9% in Northeast are white, versus 41.7% in the Midwest, 56.7% in the Southeast and 78.5% in the South.13 In our study, the difference in HbA1c between whites and non-whites was about 0.5%. Regarding the role of economic status, per capita income is almost twice as high in the South than in the Northeast.14 In this sense, a European surveillance of socioeconomic predictors of mortality has demonstrated an association between low income15 and higher mortality in men with type 2 diabetes. Free, universal healthcare has been available to all Brazilian citizens since 1988,6 including free access to many drugs. Metformin, sulfonylureas and insulin are distributed in primary care units and drugstores around the country. However, other medications used to treat diabetes are not covered. Also, SBGM devices are not freely supplied. Therefore, although our Public Health System may represent an advance in healthcare, it has not been enough to reach glycaemic control targets in diabetes care. Other measures are highly necessary, and should include a structured diabetes education programme,16 public policies to improve adherence to diet and exercise, and free access to SBGM, at least to all patients on insulin.5 The present study has limitations. First, surveillance was based on self-reported answers, although medical records were consulted when available. Second, only patients attending the public healthcare system were evaluated and it is known that almost one-fourth of the Brazilian population rely on private healthcare.17 Finally, due to its cross-sectional design, our study was able to identify associations between several factors and glycaemic control, but was unable to pinpoint risk factors. It is also important to remember that reverse causality is always possible in cross-sectional studies, and poor glycaemic control in patients using insulin cannot be attributed to insulin prescription per se. As insulin is generally prescribed to patients with more severe diabetes, the health status of these patients may also account for their poor glycaemic control. We may consider that only patients with diabetes living in urban areas could represent a potential limitation. However we can speculate that patients from the rural areas of our country, who attend primary care units less equipped and with less trained healthcare personnel, may have even poorer diabetes control. In conclusion, Brazilian patients with type 2 diabetes attending the public healthcare system have poor glycaemic control as demonstrated by HbA1c values far above the recommended target. New strategies are necessary to improve glycaemic control in this population. Furthermore, the increased vulnerability of Northeast residents and non-white patients to poor metabolic control should be taken into account when designing strategies to control diabetes.
  12 in total

1.  [Preliminary comments on the results of the demographic census of 1980].

Authors: 
Journal:  Bol Demogr       Date:  1980-07

2.  Standards of medical care in diabetes--2013.

Authors: 
Journal:  Diabetes Care       Date:  2013-01       Impact factor: 19.112

Review 3.  Disparities in HbA1c levels between African-American and non-Hispanic white adults with diabetes: a meta-analysis.

Authors:  Julienne K Kirk; Ralph B D'Agostino; Ronny A Bell; Leah V Passmore; Denise E Bonds; Andrew J Karter; K M Venkat Narayan
Journal:  Diabetes Care       Date:  2006-09       Impact factor: 19.112

4.  Global prevalence of diabetes: estimates for the year 2000 and projections for 2030.

Authors:  Sarah Wild; Gojka Roglic; Anders Green; Richard Sicree; Hilary King
Journal:  Diabetes Care       Date:  2004-05       Impact factor: 19.112

5.  A structured educational program improves metabolic control in patients with type 2 diabetes: a randomized controlled trial.

Authors:  Suzana Fiore Scain; Rogério Friedman; Jorge Luiz Gross
Journal:  Diabetes Educ       Date:  2009-05-18       Impact factor: 2.140

6.  Multicenter study of the prevalence of diabetes mellitus and impaired glucose tolerance in the urban Brazilian population aged 30-69 yr. The Brazilian Cooperative Group on the Study of Diabetes Prevalence.

Authors:  D A Malerbi; L J Franco
Journal:  Diabetes Care       Date:  1992-11       Impact factor: 19.112

7.  Glycaemic control among patients with type 2 diabetes mellitus in seven European countries: findings from the Real-Life Effectiveness and Care Patterns of Diabetes Management (RECAP-DM) study.

Authors:  F Alvarez Guisasola; P Mavros; G Nocea; E Alemao; C M Alexander; D Yin
Journal:  Diabetes Obes Metab       Date:  2008-06       Impact factor: 6.577

8.  Intensive blood-glucose control with sulphonylureas or insulin compared with conventional treatment and risk of complications in patients with type 2 diabetes (UKPDS 33). UK Prospective Diabetes Study (UKPDS) Group.

Authors: 
Journal:  Lancet       Date:  1998-09-12       Impact factor: 79.321

9.  Prevalence and correlates of inadequate glycaemic control: results from a nationwide survey in 6,671 adults with diabetes in Brazil.

Authors:  Ana Beatriz Valverde Mendes; João Antônio Saraiva Fittipaldi; Raimundo Celestino Silva Neves; Antônio Roberto Chacra; Edson Duarte Moreira
Journal:  Acta Diabetol       Date:  2009-08-05       Impact factor: 4.280

10.  Factors predicting glycemic control in middle-aged and older adults with type 2 diabetes.

Authors:  Ching-Ju Chiu; Linda A Wray
Journal:  Prev Chronic Dis       Date:  2009-12-15       Impact factor: 2.830

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  18 in total

1.  A Cross-Sectional Study of Quality of Life Among Brazilian Adults With Type 1 Diabetes Treated With Insulin Glargine: Findings and Implications.

Authors:  Paulo H R F Almeida; Brian Godman; Vania Dos Santos Nunes-Nogueira; Lívia L P de Lemos; Francisco de Assis Acúrcio; Augusto A Guerra-Junior; Vânia E de Araújo; Alessandra M Almeida; Juliana Alvares-Teodoro
Journal:  Clin Diabetes       Date:  2022

Review 2.  Integrating primary care of chronic respiratory disease, cardiovascular disease and diabetes in Brazil: Practical Approach to Care Kit (PACK Brazil): study protocol for randomised controlled trials.

Authors:  Max O Bachmann; Eric D Bateman; Rafael Stelmach; Álvaro A Cruz; Matheus Pacheco de Andrade; Ronaldo Zonta; Jorge Zepeda; Sonia Natal; Ruth Cornick; Camilla Wattrus; Lauren Anderson; Carl Lombard; Lara R Fairall
Journal:  J Thorac Dis       Date:  2018-07       Impact factor: 2.895

3.  The cost of type 2 diabetes in Brazil: evaluation of a diabetes care center in the city of São Paulo, Brazil.

Authors:  Natalie Botelho Borges; Marcos Bosi Ferraz; Antonio Roberto Chacra
Journal:  Diabetol Metab Syndr       Date:  2014-11-08       Impact factor: 3.320

Review 4.  Type 2 diabetes in Brazil: epidemiology and management.

Authors:  Bianca de Almeida-Pititto; Monike Lourenço Dias; Ana Carolina Franco de Moraes; Sandra Rg Ferreira; Denise Reis Franco; Freddy Goldberg Eliaschewitz
Journal:  Diabetes Metab Syndr Obes       Date:  2015-01-05       Impact factor: 3.168

5.  Clinical and laboratory data of a large series of patients with congenital generalized lipodystrophy.

Authors:  Josivan G Lima; Lucia Helena C Nobrega; Natalia Nobrega de Lima; Maria Goretti do Nascimento Santos; Maria F P Baracho; Selma Maria Bezerra Jeronimo
Journal:  Diabetol Metab Syndr       Date:  2016-03-15       Impact factor: 3.320

6.  Quality of Care of Patients with Diabetes in Primary Health Services in Southeast Brazil.

Authors:  Christiane Chaves Augusto Leite Simão; Mônica Barros Costa; Fernando Antônio Basile Colugnati; Elaine Amaral de Paula; Chislene Pereira Vanelli; Rogério Baumgratz de Paula
Journal:  J Environ Public Health       Date:  2017-10-10

7.  Frequency and predictors of suboptimal glycemic control in an African diabetic population.

Authors:  Davis Kibirige; George Patrick Akabwai; Leaticia Kampiire; Daniel Ssekikubo Kiggundu; William Lumu
Journal:  Int J Gen Med       Date:  2017-02-20

8.  Transcultural Diabetes Nutrition Algorithm: Brazilian Application.

Authors:  Fabio Moura; João Salles; Osama Hamdy; Walmir Coutinho; Deise Regina Baptista; Alexander Benchimol; Albert Marchetti; Refaat A Hegazi; Jeffrey I Mechanick
Journal:  Nutrients       Date:  2015-09-01       Impact factor: 5.717

9.  Low Levels of Usual Physical Activity Are Associated with Higher 24 h Blood Pressure in Type 2 Diabetes Mellitus in a Cross-Sectional Study.

Authors:  Alessandra Teixeira Neto Zucatti; Tatiana Pedroso de Paula; Luciana Verçoza Viana; Rafael DallAgnol; Felipe Vogt Cureau; Mirela Jobim Azevedo; Jorge Luiz Gross; Beatriz D Schaan; Cristiane Bauermann Leitao
Journal:  J Diabetes Res       Date:  2017-09-06       Impact factor: 4.011

10.  Insulin lispro low mixture twice daily vs basal insulin glargine once daily and prandial insulin lispro once daily as insulin intensification strategies in patients with type 2 diabetes: Latin American subpopulation analysis of a randomized trial.

Authors:  Arturo Rojas; Georgina Sposetti; Jorge L Gross; Douglas Eugenio Barbieri; Ran Duan; Bruno Linetzky; Janaina Martins De Lana; Oded Stempa; Angel Rodriguez
Journal:  Diabetol Metab Syndr       Date:  2016-09-17       Impact factor: 3.320

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