A structured therapeutic education program for children and adolescents with type 1 diabetes: an analysis of the efficacy of the "Pediatric Education for Diabetes" project.

BACKGROUND: Therapeutic education for Type 1 Diabetes involves the process of transmitting knowledge and developing the skills and behavior required to treat the disease. guidelines agree on stressing the importance of therapeutic educational intervention in teaching self-management skills to children and adolescents with Type 1 Diabetes (T1D). This study presents the results of the "Pediatric Education for Type 1 Diabetes (T1D)" (PED) project, specifically designed for children and adolescents aged 6 to 16, and structured on guidelines indications, as part of a broader clinical-educational intervention for Type 1 diabetes. METHODS: Twenty-four patients with Type 1 diabetes (mean age: 12,13 y; SD=1.48 y; range 9-14) were studied in a 12-month PED structured project followed by an educational summer camp. All the activities were designed and organized by a multidisciplinary team (dietitian, pediatric diabetologist, nurse, psychologist and adult diabetologist). Glycated hemoglobin (HbA1C), knowledge about Type 1 Diabetes (T1D) (self-monitoring and nutrition), self-management (self-monitoring, nutrition and flexibility of medical treatment), and wellbeing were used as outcome measures. RESULTS: Data suggest that the PED had a positive impact on all the targeted levels indicated for recommended care. CONCLUSIONS: The results of this study seem to confirm the effectiveness in altering the three levels of "knowing," "know-how" and "wellbeing" required to optimize the quality of life of young patients with Type 1 diabetes. In addition, the proposed model, where a pediatric diabetologist always cooperates with an adult diabetologist, seems to be a permanent solution to the transitional gap widely discussed in the literature.

Can Nurse-Based Management Screening Ensure Adequate Outcomes in Patients With Gestational Diabetes? A Comparison of 2 Organizational Models.

BACKGROUND: Gestational diabetes mellitus (GDM) is an impaired glucose tolerance with onset or first recognition during pregnancy. The purpose of this study is to evaluate the clinical outcomes of a blood glucose monitoring protocol implemented by nurses and dietitians in a diabetes team to the previously established protocol of direct monitoring of GDM patients by a diabetologist. METHODS: Two groups of patients were formed: The first group was based on a traditional protocol (P1: 230 patients) with patients' blood glucose constantly checked by a diabetologist. In the second structured group (P2: 220 patients) patients were referred to a diabetologist only if they required insulin therapy. RESULTS: The number of medical visits (P2: 1.28 ± 0.70 vs P1: 3.27 ± 1.44; P < .001) and the percentage of patients with hypoglycemia (P2: 6.8% vs P1: 15.2%; P < .006) were found to be lower in group P2 than in group P1. In both groups, a direct relationship was found between a parental history of diabetes and the risk of GDM (odds ratio [OR]: P1 = 2.2 [1.17-4.12]; P2 = 2.5 [1.26-5.12]). In group P1, it was observed that hyperweight gain in patients who were already overweight before becoming pregnant significantly increased the risk of macrosomia (OR: 3.11 [1.39-25.7]), whereas this was not detected in patients in group P2. In group P2, a correlation was found between macrosomia and insulin therapy (OR: 0.066 vs 0.34). In group P1 and group P2, a correlation was observed between insulin therapy and a family history of diabetes (OR: 2.20 vs 2.27), and a body mass index of greater than 30 kg/m in group P2 (OR: 3.0 vs 1.47). CONCLUSIONS: The data we collected show that creating a structured protocol for GDM management reduces the number of medical visits required by patients without increasing the risk of hypoglycemia, macrosomia, or hyperweight gain during pregnancy.

The Drosophila TNF Eiger Is an Adipokine that Acts on Insulin-Producing Cells to Mediate Nutrient Response.

Adaptation of organisms to ever-changing nutritional environments relies on sensor tissues and systemic signals. Identification of these signals would help understand the physiological crosstalk between organs contributing to growth and metabolic homeostasis. Here we show that Eiger, the Drosophila TNF-α, is a metabolic hormone that mediates nutrient response by remotely acting on insulin-producing cells (IPCs). In the condition of nutrient shortage, a metalloprotease of the TNF-α converting enzyme (TACE) family is active in fat body (adipose-like) cells, allowing the cleavage and release of adipose Eiger in the hemolymph. In the brain IPCs, Eiger activates its receptor Grindelwald, leading to JNK-dependent inhibition of insulin production. Therefore, we have identified a humoral connexion between the fat body and the brain insulin-producing cells relying on TNF-α that mediates adaptive response to nutrient deprivation.