View clinical trials related to Hyperglycemia.
Filter by:This research is being done to better understand how insulin effects muscle, blood, and the body in people with Type 1 Diabetes.
Brief Summary: Ketones are a source of energy and signaling molecule that are produced by the body when not consuming any food or consistently eating a low-carbohydrate "keto" diet. Blood ketones can be used as a source of energy by the body, but they may also act as signals that impact how different cells in the body function. Recently, ketone supplements have been developed that can be consumed as a drink. These supplements can raise blood ketones without having to fast or eat a "keto" diet. Previous studies have shown that these supplement drinks can lower blood sugar without having to make any other dietary changes. Drinking these ketone supplements may therefore be an effective strategy to improve blood sugar control and influence how cells function. To find out if it is feasible for people with type 2 diabetes to drink these ketones supplements regularly over 90 days, we will compare between two groups in this study: one group that will be asked to drink ketone supplements, and one group that will be asked to drink a placebo supplement.
This project will determine whether a diet culturally adapted to adults in Puerto Rico can effectively decrease cardiometabolic risk factors. This will help define a culturally-appropriate, feasible, and sustainable diet intervention aimed at reducing cardiovascular, type 2 diabetes, and obesity outcomes.
To test these hypotheses, The Investigators will recruit 100 overweight and obese adolescents with HbA1c ranging across the ADA classification spectrum from normal to prediabetes,(nearly 40:normoglycemi, 30: IFG, 30:1GT) measure free-living glucose by continuous glucose monitoring (CGM), and assess the relationships among CGM outcomes, HbA1c, and OGTT results (FPG and 2-h glucose). Individual with overt diabetes will be excluded. This will be a 2 visit study. Subjects will be coming to Fortis CDOC after a minimum 8-hour overnight fast. Informed written consent and validated questionnaire in a language known to them (English/Hindi) will be obtained from all participants. Clinical details will be obtained from the case records of the patients. Note of visible markers of insulin resistance (acanthosis nigricans, buffalo hump, double chin, subcutaneous fat pads, skin) Anthropometry, skinfolds & blood pressure will be recorded. Overweight and, obesity will be defined according to predefined guidelines for Asian Indian. Abdominal obesity is defined as waist circumference of ≥ 90 centimetres (cms) in males and ≥ 80 cms in females. A blinded iPro Continuous Glucose Monitor (Medtronic MiniMed, Inc) will be inserted. After a calibration period of 1 hour, fasting laboratory result will be collected: FPG, HbA1c. HbA1c will be done by HPLC (NGSP approved, turbid inhibition immunoassay). Then subjects will consume 1.75 g/kg glucose, maximum 75 g (glucose beverage) and will have a second venepuncture 2 hours later for plasma glucose measurement. While awaiting the 2-hour venepuncture, participants will be provided instructions on CGM device care and calibration. Participants will be instructed to wear the CGM device for a minimum of 72 hours and to not change any of their current dietary or activity habits for the period of CGM wear. They will be trained to use a glucose monitor and collect capillary blood glucose values at least three times daily, prior to meals. Participants will also be asked to complete a simple log of their activity, as well as record dietary intake, and sleep and wake times. The iPro and log-sheet will be returned in person after a minimum of 72 hours of recording time. Investigators and patients will be kept blinded to CGM recordings throughout the study. Daily glycaemic variability will be assessed by the change in the mean amplitude of glucose excursions (MAGE) index, and through the standard deviation (SD) of the mean 24-hour blood glucose concentration. Day-to-day variability will be assessed through the mean of daily differences (MoDD in mg/dL). Daily glycaemic control will be assessed by the mean (M) daily CGM value, as well as by the times (in minutes/day) spent in optimal glycaemic range (70-140 mg/dL) and above predefined hyperglycaemic thresholds (140 ,180 and 200 mg/dL) together with the corresponding area under the curve (AUC) values. In addition, areas under 24-hour glycaemic traces (AUCs) will be analysed to estimate: overall hyperglycaemia (defined asAUC≥100 mg/dL over the full 24-hour period = AUCtotal);postprandial hyperglycaemia (AUC[0-4 h], i.e. for four-hour periods after each of the main meals and, if considered relevant by the core laboratory, after additional snacks = AUCpp); and basal hyperglycaemia, i.e. overall hyperglycaemia - postprandial hyperglycaemia (AUCb)
The study is being conducted to understand if the hemoglobin A1c, a measurement of control of blood sugars over a 3-month time, is valid in patients with Left Ventricular Assist Devices (LVADs) in place. To understand whether it is an adequate measurement, the investigators will compare the A1c to results from a continuous glucose monitor (CGM) measurement of blood sugars. By monitoring blood sugars continuously, the investigators will also assess whether they can get better control of blood sugars with a CGM, including avoiding low blood sugars.
This clinical trial aims to discover the relationship between hyperglycemia at night and early morning hours and the presence of fatty liver in patients with type 1 diabetes. The main question it aims to answer are: • if hyperglycemic patterns related to metabolic parameters in type 1 diabetes The data from the insulin pump and sensor will be processed. The patients will be divided into two groups. One group without night hyperglycemia and the other with night hyperglycemia. Investigators will perform liver elastography for these two groups. The presence or absence of hepatic steatosis will be evaluated in these groups according to the data.
This study will examine the effects of type II diabetes on cognitive functions and mood in middle-aged patients. In addition, the association between cognitive functions and glycemic controls is studied in patients. Sixty patients and sixty healthy controls will be recruited and assessed by a multiprofessional team (neuropsychologist, physician).
The goal of this clinical trial is to investigate the effect of lysine and phosphorous on the glycemic index (GI) of white bread and postprandial glycemia. The main questions it aims to answer are: - Can double fortification with lysine and phosphorous lower the glycemic index (GI) of bread? - Does double fortification with lysine and phosphorous improve postprandial glycemia? Participants in the study will be assigned to the control group, where they will consume regular white bread, then to the experimental group, where they will consume double fortified bread with lysine and phosphorous. The glycemic response of the bread samples will be measured by monitoring blood glucose levels in healthy participants after consuming the bread. The glycemic index will also be calculated based on the area under the curve (AUC) of the test food compared to a standard. The collected data will be analyzed using statistical methods such as paired sample t-tests and one-way ANOVA. The expected outcomes of the study are that lysine and phosphorous will reduce the glycemic index of white bread and also decrease the postprandial blood glucose spike. This research aims to provide valuable insights into fortifying bread to improve its health impact, particularly for individuals with diabetes or at risk of developing diabetes
The purpose of this study is to learn more about changes in glucose levels in hospitalized infants with intestinal failure receiving parenteral nutrition or PN (nutrients delivered intravenously), as they transition from continuous PN (given 24 hours a day) to cycled PN (given less than 24 hours a day). There is an increased risk of glucose abnormalities with cycled PN, which can be harmful to infant growth and brain health. Continuous glucose monitors (CGM) will be used to measure interstitial glucose levels (in the tissue under the skin), which are similar to blood glucose levels. CGM is a small, minimally-invasive sensor worn on the thigh, which gives a glucose measurement every 5 minutes, and can help us understand changes in blood sugar levels without having to do a blood draw or fingerstick. CGM will be used during PN cycling for up to 30 days or until hospital discharge. If target GIR cycled PN is not reached following 3 sensor periods (up to 10 days per sensor), the parent/guardian will be approached to accept or decline participation in an optional extension phase. In the extension phase, the primary study will be repeated and CGM monitoring will continue until target GIR cycled PN is reached, up to an additional 3 sensor placements. CGM data will be hidden from the clinical team, there will be no change to routine clinical care. This study may help us understand how cycled PN affects glucose levels in infants with intestinal failure, which may help other children treated with cycled PN in the future.
the goal of this Randomized controlled cross over trial is to compare the effects of meal sequences VPF meal vs. SMM on the incremental area under the curve of postprandial glucose response among healthy adults in the UAE. the main question it aims to answer is what is the effect of meal sequence of vegetable and protein first followed by carbohydrates (VPF) compared to a standard mixed meal (SMM) on the postprandial glucose level and insulin response among healthy adults in the UAE. Participants will consume two is caloric test meals in random order (SMM and VPF meal sequences) separated by a 7-10-day washout period then blood sample will be collected at fasting ,30min,60min and 120mon for glucose and insulin and hunger ration will be done as well .Researchers will compare the effect of the two meals on postprandial blood glucose, insuline and hunger rating.