PubMed Health⌕ Search

SEARCH · PubMed Health

Results for “continuous glucose monitoring”

Explore indexed PubMed citations for clinical trials, systematic reviews and public health research. Read source abstracts and follow each citation to its original PubMed record.

Quote a phrase for an exact phrase match. Source license links do not imply unrestricted reuse.

At least 379 records · Page 21Linked to original sources

Islet cell transplantation and other new technologies for treating type 1 diabetes: a paediatric view.

Recent advances in diabetes care have facilitated the achievement and maintenance of excellent metabolic control. New insulin pumps and continuous glucose monitoring systems provide cause for optimism that an artificial pancreas may soon be developed. In addition, transplantation biology has advanced to the point where pancreas and islet transplants are being performed with increasing frequency. Recent reports suggest that improved techniques for isolation of islets and immune suppression may allow these procedures to become more commonplace. However, serious questions regarding long-term safety and efficacy need to be answered in older individuals before consideration is given to their more routine use in children and adolescents with diabetes.

Blood Glucose↗

Persistent poststroke hyperglycemia is independently associated with infarct expansion and worse clinical outcome.

BACKGROUND AND PURPOSE: Hyperglycemia at the time of ischemic stroke is associated with increased mortality and morbidity. Animal studies suggest that infarct expansion may be responsible. The influence of persisting hyperglycemia after stroke has not previously been examined. We measured the blood glucose profile after acute ischemic stroke and correlated it with infarct volume changes using T2- and diffusion-weighted MRI. METHODS: We recruited 25 subjects within 24 hours of ischemic stroke symptoms. Continuous glucose monitoring was performed with a glucose monitoring device (CGMS), and 4-hour capillary glucose levels (BGL) were measured for 72 hours after admission. MRI and clinical assessments were performed at acute (median, 15 hours), subacute (median, 5 days), and outcome (median, 85 days) time points. RESULTS: Mean CGMS glucose and mean BGL glucose correlated with infarct volume change between acute and subacute diffusion-weighted MRI (r>or=0.60, P<0.01), acute and outcome MRI (r=0.56, P=0.01), outcome National Institutes of Health Stroke Scale (NIHSS; r>or=0.53, P<0.02), and outcome modified Rankin Scale (mRS; r>or=0.53, P=0.02). Acute and final infarct volume change and outcome NIHSS and mRS were significantly higher in patients with mean CGMS or mean BGL glucose >or=7 mmol/L. Multiple regression analysis indicated that both mean CGMS and BGL glucose levels >or=7 mmol/L were independently associated with increased final infarct volume change. CONCLUSIONS: Persistent hyperglycemia on serial glucose monitoring is an independent determinant of infarct expansion and is associated with worse functional outcome. There is an urgent need to study normalization of blood glucose after stroke.

Acute Disease↗

Accuracy and feasibility of point-of-care and continuous blood glucose analysis in critically ill ICU patients.

INTRODUCTION: To obtain strict glucose regulation, an accurate and feasible bedside glucometry method is essential. We evaluated three different types of point-of-care glucometry in seriously ill intensive care unit (ICU) patients. The study was performed as a single-centre, prospective, observational study in a 12-bed medical ICU of a university hospital. METHODS: Patients with an expected ICU stay of more than 48 hours were included. Because the reference laboratory delivers glucose values after approximately 30 to 60 minutes, which is too slow to use in a glucose regulation protocol and for calibration of the subcutaneous continuous glucose monitoring system (CGMS) (CGMS System Gold), we first validated the ICU-based blood gas/glucose analyser ABL715 (part 1 of the study). Subsequently, part 2 was performed: after inserting (and calibrating) the subcutaneous CGMS, heparinised arterial blood samples were drawn from an arterial line every 6 hours and analysed on both the Precision PCx point-of-care meter using test strips and on the blood gas/glucose analyser ABL715. CGMS glucose data were downloaded after 24 to 72 hours. The results of the paired measurements were analysed as a scatter plot by the method of Bland and Altman and were expressed as a correlation coefficient. RESULTS: Part 1: Four hundred and twenty-four blood samples were drawn from 45 critically ill ICU patients. The ICU-based blood gas/glucose analyser ABL715 provided a good estimate of conventional laboratory glucose assessment: the correlation coefficient was 0.95. In the Clarke error grid, 96.8% of the paired measurements were in the clinically acceptable zones A and B. Part 2: One hundred sixty-five paired samples were drawn from 19 ICU patients. The Precision PCx point-of-care meter showed a correlation coefficient of 0.89. Ninety-eight point seven percent of measurements were within zones A and B. The correlation coefficient for the subcutaneous CGMS System Gold was 0.89. One hundred percent of measurements were within zones A and B. CONCLUSION: The ICU-based blood glucose analyser ABL715 is a rapid and accurate alternative for laboratory glucose determination and can serve as a standard for ICU blood glucose measurements. The Precision PCx is a good alternative, but feasibility may be limited because of the blood sample handling. The subcutaneous CGMS System Gold is promising, but real-time glucose level reporting is necessary before it can be of clinical use in the ICU. When implementing a glucose-insulin algorithm in patient care or research, one should realise that the absolute glucose level may differ systematically among various measuring methods, influencing targeted glucose levels.

Adult↗

Glibenclamide treatment in permanent neonatal diabetes mellitus due to an activating mutation in Kir6.2.

Permanent neonatal diabetes mellitus (PNDM) is a rare form of diabetes characterized by insulin-requiring hyperglycemia that is diagnosed within the first months of life. Recently, activating mutations in the gene encoding the ATP-sensitive potassium-channel subunit Kir6.2 were identified in 10 PNDM patients. Tolbutamide-stimulated insulin secretion, demonstrated in 3 of these patients suggested that some PNDM patients may respond to oral sulfonylurea treatment. In this report, we describe an infant with PNDM due to an arginine-to-histidine substitution at position 201 (R201H) of the gene encoding Kir6.2. After insulin pump therapy for six months, he was shifted to oral glybenclamide therapy at a daily dose of 0.8 mg/kg. Basal c-peptide level increased by two fold during glybenclamide treatment, but no further elevation was observed following intravenous glucose administration. Outpatient, continuous glucose monitoring while on a normal infant diet demonstrated a marked improvement in glycemic control. This study demonstrates the feasibility of oral sulfonylurea treatment in PNDM patients with Kir6.2 mutations even during infancy, and the superiority of this approach over insulin administration.

Blood Glucose↗

Pharmacokinetic-pharmacodynamic modelling of insulin: comparison of indirect pharmacodynamic response with effect-compartment link models.

The pharmacokinetic and pharmacodynamic modelling of insulin has been reported using a combined pharmacokinetic/pharmacodynamic (PK/PD) model, in which a hypothetical effect compartment is linked to a pharmacokinetic compartment. Review of the literature, however, indicated that the recently developed PK/PD models have consisted of an indirect pharmacodynamic response component, but none of them has been applied to the modelling of insulin. To study the relative relevance of the indirect pharmacodynamic response model and the effect-compartment link model in modelling the pharmacokinetics and pharmacodynamics of insulin, regular human insulin was administered intravenously at a dose of 0.1 IU kg(-1) to healthy Yucatan minipigs (after an overnight fasting). The plasma concentrations of insulin were measured by radioimmunoassay at predetermined time intervals, while blood glucose levels were monitored continuously using a glucose monitor. Analysis of the plasma insulin and the blood glucose profiles was performed by fitting with various PK/PD models and the results indicated that all of the 12 sets of plasma insulin data (after normalizing by the basal levels) have been adequately fitted to the two-compartment open pharmacokinetic model (a mean+/-s.e. correlation coefficient of 0.996+/-0.001 was obtained). The mean+/-s.e. correlation coefficient, the weighted residuals sum of squares (WRSS), and the Akaike's information criterion (AIC) were found, respectively, to be 0.935+/-0.008, 624+/-67, and 522+/-9 for the inhibitory indirect pharmacodynamic response model and 0.941+/-0.010, 547+/-63 and 513+/-9 for the stimulatory indirect pharmacodynamic response model, as compared with 0.725+/-0.041, 2309+/-276 and 628+/-10 for the effect-compartment link model. Based on these results, one may conclude that the indirect pharmacodynamic response model is a more appropriate approach for modelling the PK/PD of insulin than the effect-compartment link model.

Animals↗

Acarbose treatment of infant dumping syndrome: extensive study of glucose dynamics and long-term follow-up.

Dumping syndrome is a sequel of gastric surgery in adults and Nissen fundoplication in children. The syndrome is characterized by various gastrointestinal symptoms as well as irritability, diaphoresis and lethargy. Shortly after a meal, symptoms are associated with hyperglycemia (early dumping), followed by late dumping symptoms associated with reactive hypoglycemia. Several therapeutic and dietary manipulations failed to control these symptoms in previous reports as well as in an infant we have followed after Nissen fundoplication. Acarbose, an alpha-glucosidase inhibitor, has been used sporadically in adults after gastric surgery, but only once in children. In most of these studies, the effect of acarbose (on reactive hypoglycemia) was evaluated over several hours postprandially or after oral glucose load. In our study, we recorded glucose dynamics by a continuous glucose monitor system over 2 to 3 days before and during acarbose treatment, while the patient was on a well-controlled diet. These measurements (720 before and 832 on therapy) suggested that both early and late dumping symptoms are causally related to the rate of glucose elevation and decline, rather than to glucose peak and nadir, respectively. Acarbose attenuated both postprandial glucose hyperglycemia and reactive hypoglycemia, which subsequently led to a significant reduction in dumping symptoms. In a follow-up of 14 months, acarbose was well tolerated and the frequency of dumping symptoms was remarkably reduced.

Acarbose↗

Overcoming obstacles: new management options.

The outlook for patients with type 2 diabetes looks set to improve with the availability of new diabetes management options that provide more comprehensive control of blood glucose levels and/or encourage better patient compliance than previous alternatives. New insulin analogues, such as insulin lispro, aspart and glargine, allow more physiological insulin replacement and greater freedom in the timing and content of meals, compared with regular insulin preparations. The development of novel non-invasive routes of insulin administration promises to further improve diabetes management. Many barriers to initiating insulin relate to the need for frequent insulin injections, fears that insulin injections will be painful and difficult to administer, and concerns about hypoglycaemia and weight gain. Thus, each measure that reduces these barriers will help to prevent inappropriate delays in starting insulin therapy as well as to promote better compliance with therapy. The output from continuous glucose monitoring devices will assist accurate insulin replacement, which is difficult using point-estimates of blood glucose. Such devices will hopefully also circumvent the need for finger stick tests. There are several novel therapies in development that will further expand the portfolio of treatment options for patients with type 2 diabetes. Improved quality and choice of diabetes management options will provide doctors with the tools they require to develop tailored treatment plans, increase the probability that treatment goals are achieved and thereby reduce the risk of patients developing late-stage diabetes-related complications.

Blood Glucose Self-Monitoring↗

Effect of eucaloric high- and low-sucrose diets with identical macronutrient profile on insulin resistance and vascular risk: a randomized controlled trial.

The long-term impact of dietary carbohydrate type, in particular sucrose, on insulin resistance and the development of diabetes and atherosclerosis is not established. Current guidelines for the healthy population advise restriction of sucrose intake. We investigated the effect of high- versus low-sucrose diet (25 vs. 10%, respectively, of total energy intake) in 13 healthy subjects aged 33 +/- 3 years (mean +/- SE), BMI 26.6 +/- 0.9 kg/m(2), in a randomized crossover design with sequential 6-week dietary interventions separated by a 4-week washout. Weight maintenance, eucaloric diets with identical macronutrient profiles and fiber content were designed. All food was weighed and distributed. Insulin action was assessed using a two-step euglycemic clamp; glycemic profiles were assessed by the continuous glucose monitoring system and vascular compliance by pulse-wave analysis. There was no change in weight across the study. Peripheral glucose uptake and suppression of endogenous glucose production were similar after each diet. Glycemic profiles and measures of vascular compliance did not change. A rise in total and LDL cholesterol was observed. In this study, a high-sucrose intake as part of an eucaloric, weight-maintaining diet had no detrimental effect on insulin sensitivity, glycemic profiles, or measures of vascular compliance in healthy nondiabetic subjects.

Adult↗

Evidence for elevated glucose threshold in patients with impaired glucose tolerance and symptoms of hypoglycemia during OGTT.

We evaluated the relationship between hypoglycemic symptoms, glucose nadir levels, and hormone changes in patients with impaired glucose tolerance (IGT) after an oral glucose tolerance test (OGTT). The peak counterregulatory hormone response was determined at the glucose nadir identified by continuous glucose monitoring. Eight patients with IGT who had symptoms and signs typical of hypoglycemia at the glucose nadir were compared with completely asymptomatic subjects (5 IGT patients and 13 patients who had normal glucose tolerance [NGT]). The mean glucose nadir of symptomatic IGT patients was 3.50 +/- 0.46 mM, which was not statistically different from the mean of asymptomatic NGT patients (4.10 +/- 0.56 mM) but was significantly lower than that for asymptomatic IGT patients (5.10 +/- 0.81 mM, P less than 0.001). Seven of 8 symptomatic IGT patients had glucose levels that never fell below the range of glucose nadirs for asymptomatic NGT patients. However, the symptomatic IGT group had significantly higher levels of growth hormone, cortisol, epinephrine, and norepinephrine than the asymptomatic groups in response to the nadir. We conclude that patients with IGT are capable of experiencing signs and symptoms of hypoglycemia at physiological glucose levels during OGTT with reflex stimulation of counterregulatory hormone release. This may indicate that symptomatic IGT patients have a higher glucose threshold for eliciting characteristic hypoglycemic symptom episodes than individuals with NGT.

Adult↗

Do sensor glucose levels accurately predict plasma glucose concentrations during hypoglycemia and hyperinsulinemia?

OBJECTIVE: The MiniMed Continuous Glucose Monitoring System (CGMS) measures subcutaneous interstitial glucose levels that are calibrated against three or more fingerstick glucose levels daily. The objective of the present study was to examine whether the relationship between plasma and interstitial fluid glucose is altered by changes in plasma glucose and insulin levels and how such alterations might influence CGMS performance. RESEARCH DESIGN AND METHODS: Arterialized plasma glucose, sensor glucose, and interstitial fluid glucose were measured by microdialysis in 11 healthy subjects during a 1.0 mU. kg(-1). min(-1) stepped euglycemic-hypoglycemic-hyperglycemic (plasma glucose approximately 5, 3.1, and 8.6 mmol/l, respectively) insulin clamp that raised plasma insulin to approximately 360-390 pmol/l. RESULTS: When the CGMS was calibrated versus plasma glucose levels before insulin infusion, basal sensor and plasma glucose were similar (5.0 +/- 0.3 vs. 5.2 +/- 0.3 mmol/l, respectively); dialysate glucose was 3.3 +/- 0.9 mmol/l. During the hyperinsulinemic-euglycemia study (plasma glucose 4.9 +/- 0.3 mmol/l), dialysate glucose fell by 30-35%, accompanied by a significant reduction in sensor glucose (to 3.7 +/- 0.6 mmol/l; P < 0.001 vs. plasma). Subsequently, sensor levels remained lower than plasma values during mild hypoglycemia (2.5 +/- 0.6 vs. 3.1 +/- 0.3 mmol/l; P < 0.01) and during recovery from hypoglycemia (7.3 +/- 1.2 vs. 8.6 +/- 0.6; P < 0.01). However, when the CGMS was calibrated against plasma glucose levels before and during each step of the clamp, sensor glucose levels increased throughout the study and did not differ from plasma glucose values during hypoglycemia. CONCLUSIONS: Although hyperinsulinemia may contribute to modest discrepancies between plasma and sensor glucose levels, the CGMS is able to accurately track acute changes in plasma glucose when calibrated across a range of plasma glucose and insulin levels.

Adolescent↗

Impact of pramlintide on glucose fluctuations and postprandial glucose, glucagon, and triglyceride excursions among patients with type 1 diabetes intensively treated with insulin pumps.

OBJECTIVE: To assess the effects of adjunctive treatment with pramlintide, an analog of the beta-cell hormone amylin, on 24-h glucose fluctuations and postprandial glucose, glucagon, and triglyceride excursions in patients with type 1 diabetes intensively treated with continuous subcutaneous insulin infusion (CSII). RESEARCH DESIGN AND METHODS: In this study, 18 patients (16 of whom could be evaluated) with type 1 diabetes (age 44 +/- 11 years, HbA(1c) 8.2 +/- 1.3% [mean +/- SD]) were given mealtime injections of 30 micro g pramlintide t.i.d. for 4 weeks in addition to their preexisting CSII regimen (16 lispro, 2 regular insulin). Mealtime insulin boluses were reduced by a minimum of 10% during the first 3 days, and re-adjusted thereafter based on clinical judgment. At weeks 0 (baseline), 4 (on treatment), and 6 (2 weeks off treatment), 24-h interstitial glucose concentrations were measured using a continuous glucose monitoring system (CGMS), and postprandial plasma glucose, glucagon, and triglyceride concentrations were measured in response to a standardized test meal. RESULTS: At baseline, patients had excessive 24-h glucose fluctuations, with 59% of the CGMS measurements >140 mg/dl, 13% <80 mg/dl, and only 28% in the euglycemic range (80-140 mg/dl). After 4 weeks on pramlintide, measurements in the hyperglycemic range declined to 48% and measurements within the euglycemic range increased to 37%. This shift from the hyperglycemic to the euglycemic range occurred with a concomitant 17% reduction in mealtime insulin dosages and without relevant increases in measurements below the euglycemic range (15%) or any severe hypoglycemic events. After 4 weeks on pramlintide, postprandial glucose, glucagon, and triglyceride excursions were reduced by approximately 86, approximately 87, and approximately 72%, respectively (incremental areas under the curve, all P < 0.05 vs. baseline). At week 6 (off treatment), the 24-h glucose profile and postprandial glucose, glucagon, and triglyceride excursions approached pretreatment values. CONCLUSIONS: In this study, the addition of pramlintide to insulin therapy reduced excessive 24-h glucose fluctuations as well as postprandial glucose, glucagon, and triglyceride excursions in patients with type 1 diabetes intensively treated with insulin pumps.

Adult↗

Acute psychological stress affects glucose concentrations in patients with type 1 diabetes following food intake but not in the fasting state.

OBJECTIVE: To compare the effect of acute psychosocial stress on glucose concentrations in the fasting state and following food intake in patients with type 1 diabetes. RESEARCH DESIGN AND METHODS: In study 1, 20 patients were exposed to moderate psychosocial stress by means of the Trier Social Stress Test (TSST) in the fasting state. In study 2, the TSST was applied to 20 additional patients 75 min after intake of a standard meal. Glucose concentrations (by continuous glucose monitoring system), blood pressure, and heart rate were monitored on the control day and on the stress testing day. RESULTS: In both studies, blood pressure increased in response to TSST from 122/77 +/- 14/9 mmHg at baseline to a maximum of 152/93 +/- 21/13 mmHg (P < 0.001), and heart rate increased from 80 +/- 11 to 99 +/- 19 bpm (P < 0.001). In the fasting state (study 1), glucose concentrations remained unchanged during the control day as well as during the stress testing day. In study 2, glucose concentrations were similar on both days before and up to 75 min after the intake of the standard meal. However, a significant delay (of 45 min) in the decrease of glucose concentrations was induced by psychological stress. A two-factor repeated-measures ANOVA revealed a significant difference of glucose concentrations over time (F = 646.65/P < 0.001). CONCLUSIONS: In the postprandial period, acute psychological stress induced a significantly delayed decrease of glucose concentrations, whereas in the fasting state, no effect on poststress glucose concentrations was observed.

Adult↗

[Present role of continuous subcutaneous insulin infusion (CSII) by insulin pump in the treatment of diabetes mellitus].

Since the publication of the DCCT results, intensive insulin treatment, including continuous subcutaneous insulin infusion (CSII), has been considered one of the best methods for near-normal insulin delivery. The development of new, robust and easily programmable insulin pumps has led to readier acceptance of this therapy by physicians and patients. In clinical trials, CSII was found to be superior to multiple daily injection regimens in many cases. Patients with unsatisfactory glucose control, frequent hypoglycaemic events, and otherwise uncontrollable morning rises of blood glucose may in particular benefit from insulin pump therapy. Glucose control can even be improved in CSII if insulin lispro is used instead of regular human insulin, as demonstrated in many clinical investigations. Possible side effects of CSII are increased risk of ketoacidosis (e.g. in the case of catheter occlusion) and side effects at the infusion site. Since the successful development of devices for continuous glucose monitoring, the development of closed-loop systems has become more and more the focus of current clinical and technological research.

Blood Glucose↗

[Asymptomatic glycemic instability: how to measure it and which clinical applications? ].

The glycemic variations observed in nondiabetic subjects are primarily related to the post-prandial metabolic responses generated by the food intake. This physiological glycemic variability is reproducible between two successive days under conditions of similar meals and activities. In insulin-treated diabetic patients, glycemic instability is directly related to loss of glucose homeostasis due to the failure then the deficiency of endogenous insulin secretion, but its physiopathological implication in term of diabetic angiopathy risk remains to be determined. Other exogenous glycemic instability factors are known and have to be corrected (not adapted repartition of the meals and/or the insulin doses during the day, inappropriate choices in insulin regimens, errors in insulin adjustments, inadequate insulin injection). Classical glycemic measurements used to appreciate the quality of the glycemic control do not provide or give partial and erroneous information on quality of glycemic stability. It's particularly the case for glycated hemoglobin and glycemic average. In order to exactly quantify glycemic variability, specific tools of measurement or calculation can evaluate the intra-day glycemic variations or excursions (MAGE), the day-to-day glycemic variations or excursions (MODD), the meal-related glycemic excursions (MIME) or the risk of severe hypoglycemia (LBGI). Some of these tools are easy to use, other much complex or difficult to apply in clinical practice, even by using new methods such as the continuous glucose monitoring system (CGMS). Thus, asymptomatic glycemic variability is related to loss of glucose homeostasis, but also to irrelevant or incompatibility of the treatments used to obtain glucose control in insulin-treated diabetic patients. The evaluation of glucose instability can be provided using new methods of glucose monitoring and could be useful to optimize the therapeutic regimens in some of these diabetic patients.

Blood Glucose↗

Rediscovery of insulin pump treatment of childhood type 1 diabetes.

Currently, goals for the treatment of children and adolescents with type 1 diabetes mellitus are to achieve near normal glycemia; minimize the risks of severe hypoglycemia and excessive weight gain; optimize psychosocial functioning and quality of life (for children and their families); and prevent or delay long-term microvascular complications. Continuous subcutaneous insulin infusion (CSII), or insulin pump therapy, provides a treatment option that can assist in the attainment of all of these goals in all ages of children. Insulin pump therapy provides the opportunity for greater flexibility in meal timing and content due to the convenience of its bolus delivery of insulin. Insulin pump therapy can potentially reduce the risk of exercise-related and nocturnal hypoglycemia, through the use of programmable variable basal infusion rates. In pediatric patients, usage of CSII has been demonstrated to reduce both glycosylated hemoglobin levels and frequency of severe hypoglycemia, without sacrifices in safety, quality of life, or weight gain, particularly in conjunction with the use of new insulin analogs and improvements in pump technology. Clinical studies of safety and efficacy of CSII in children and the use of continuous glucose monitoring to optimize insulin pump therapy are reviewed.

Blood Glucose Self-Monitoring↗

Assessing 24-hour blood glucose patterns in diabetic paitents treated by peritoneal dialysis.

The minute-to-minute effect on blood glucose levels of high-dextrose peritoneal dialysate is not known. We arranged for 7 patients with diabetes, treated by peritoneal dialysis (PD), to wear a continuous glucose monitoring system (CGMS: Medtronic MiniMed, Northridge, CA, U.S.A.). A sensor was inserted subcutaneously into the skin of the patient's abdomen or back to measure glucose in the interstitial fluid. Readings were recorded every 5 minutes for up to 72 hours. The portion of the day during which the patient's blood glucose levels were greater than 180 mg/dL (calculated as a percentage of time) was recorded. Most of the patients participating in the study had elevated levels of glycohemoglobin and hemoglobin A1c, and, for a large percentage of the day, showed blood glucose tracings well above the recommended standards of control. Representative CGMS tracings from patients with type 1 and type 2 diabetes are shown.

Blood Glucose↗

The dual-wave bolus feature in continuous subcutaneous insulin infusion pumps controls prolonged post-prandial hyperglycaemia better than standard bolus in Type 1 diabetes.

The dual-wave bolus delivers a combination of an immediate normal pre-meal insulin bolus (approximately 3 min) followed by an extended (or square-wave) bolus that is evenly delivered over several hr as programmed by the patient. The purpose of this study was to compare post-prandial glycaemic excursions following a high-fat meal after administration of insulin by normal vs dual-wave bolus. During this prospective, cross-over, repeated measures study, subjects with diabetes and treated with insulin pump therapy were evaluated using the continuous glucose monitoring system (CGMS) following three combinations of meal and bolus type. A control meal or a high-fat meal was given in place of the evening meal on three separate occasions and comparisons were made between: a) the control meal with normal insulin bolus delivery, b) the high-fat meal with normal insulin bolus delivery, and c) the high-fat meal with dual-wave insulin bolus delivery. Although mean baseline CGMS values were similar in each of the three combinations of meal and bolus type (p=0.54) and in the three hr immediately following the meal (p=0.64, p=0.83, p=1.0), when compared to the control meal/normal bolus and high-fat meal/dual-wave bolus combinations, CGMS profiles disclosed significantly elevated post-prandial glucose in hr 5 through 14 (p<0.05) following the high-fat/normal bolus combination. Prolonged post-prandial glycaemic excursions are identified using the CGMS. Treating post-prandial hyperglycaemia with dual-wave insulin delivery may help manage chronic hyperglycaemia in patients with diabetes.

Area Under Curve↗

New trends in diabetes management: mobile telemedicine closed-loop system.

The rapid growth and development of information technologies over recent years, in the areas of mobile and wireless technologies is shaping a new technological scenario of telemedicine in diabetes. This telemedicine scenario can play an important role for further acceptance by diabetic patients of the existing continuous glucose monitoring systems and insulin pumps with the final goal of improving current therapeutic procedures. This paper describes a Personal Smart Assistant integrated in a multi-access telemedicine architecture for the implementation of a mobile telemedicine closed-loop system for diabetes management. The system is being evaluated within the European Union project named INCA ("Intelligent Control Assistant for Diabetes").

Blood Glucose Self-Monitoring↗