There are about 188 clinical studies being (or have been) conducted in Kuwait. The country of the clinical trial is determined by the location of where the clinical research is being studied. Most studies are often held in multiple locations & countries.
phacoemulsification with insertion of EYHANCE IOL to improve near and intermediate vision
to evaluate the effect of intense pulsed light on resistant patients with Meibomian gland dysfunction
The standard of care for locally advanced nasopharyngeal carcinoma is radical chemoradiation(CRT).Recent advances in radiation techniques and supportive measures resulted in improvemnent of locoregional control and quality of life.However distant failure is still the main challenging reason of poor survival Addition of systemic therapy to concurrent CRT is widely used and accepted as an option to reduce these failures ,however selection of chemotherapy regimen and timing in relation to CRT is controversial. Doublet and triplet chemotherapy regimens using cisplatin and 5FU are throughly investigated in this setting.Inspite of significant improvement in disease free survival and overall survival they were poorly tolerated.Hence,minority of patients in the daily practice could tolerate those studied regimens as propsed. Recently, in multicenter randomized trial, Zhang and his group investigated gemcitabine and cisplatin as induction chemotherapy (ICT) added to CRT.It showed improvement in recurrence free survival and overall survival.More importantly 96.7% of the experimental arm completed the treatment protocol. This was further confirmed by an updated network of meta analysis by Bongiovanni et al.Again the question of "when" is still valid.Our proposal is to compare tolerable regimen in induction versus adjuvant settings.
A retrospective analysis of the adult COVID-19 patients admitted to the ICU. A chart review will be conducted and multiple baseline characteristics, demographics, and treatments given will be recorded. Variables collected will include Age, Gender, BMI, Smoking status, Past medical history, Vital signs on admission, symptoms on admission, duration of symptoms, laboratory results on admission, treatment given. Treatment options will include (Steroids, plasma exchange, IVIG, antibiotics, mode of respiratory support). Primary outcomes will include; Death, duration of ICU stay, duration of mechanical ventilation, in-hospital complications. A regression model will be used to predict poor prognostic factors. Inclusion criteria: patients with confirmed PCR results for COVID-19 AND require ICU admission. Exclusion criteria: those with negative results, pediatric patients and those not requiring ICU admission.
Approximately 10-15% of patients infected with COVID-19 develop severe illness characterized by respiratory distress, increased risk of clotting disease, myocardial damage, stroke and mortality. Subjects with Type 2 diabetes (T2DM) are at increased risk for severe COVID-19 disease. Exuberant inflammatory and immune responses were suggested as the etiology responsible for the development of severe COVID-19 disease. The increased chronic inflammatory state characteristic of T2DM could contribute to the increased risk of severe COVID-19 disease in T2DM patients. Therefore, its possible that anti-inflammatory therapy will reduce the risk of severe COVID-19 disease. Consistent with this assumption, a recent study has reported that steroid therapy improves the outcome in patients with severe COVID-19 disease. The medication pioglitazone is a strong insulin sensitizer that reduces plasma glucose concentrations in T2DM patients. In addition to improving insulin sensitivity, several studies have demonstrated that pioglitazone reduces chronic inflammation in T2DM patients, which is manifested in a decrease in TNF-alpha, interleukin, hs CRP, leptin and other inflammatory markers in T2DM treated with pioglitazone. Further, pioglitazone enhances the plasma level of anti-inflammatory agents. For example, the plasma level of 15-epi-lipoxin A, a lipid mediator with strong anti-inflammatory and inflammation-resolving effects that has been reported to neutralize RNA coated viruses, is significantly elevated by pioglitazone treatment in T2DM patients. Therefore, we hypothesize that administering pioglitazone to T2DM patients who have moderate-to-severe COVID-19 will improve the clinical outcome of their COVID-19 disease.
Due to the limitations of COVID-19 treatment and in the absence of licensed antiviral for COVID-19, the historical choice of therapeutic convalescent plasma (CP) is considered especially against RNA viruses .It was known that convalescent plasma does not only neutralize the pathogens but provide passive immunomodulatory properties that allows the recipient to control the exaggerated inflammatory cascade. However, still there is a lack of understanding of the mechanism of action of CCP therapeutic components. Reports from open label trials and case series show that CCP is safe and might be effective in severe cases with COVID-19 . Therefore, the World health organisation (WHO) and Food and Drug Administration (FDA) issued guidelines for the CCP usage and standardised the donor selection , which was further supported by Emergency use Authorisation (EUA) . Therefore, the aim in the current study is to assess the effect of CCP on time to clinical improvement, hospital mortality and to evaluate the changes on oxygen saturation and laboratory markers (lymphocyte counts and C-reactive protein) compared with standard treatment alone in patients with moderate or severe COVID-19 disease.
Insulin resistance and beta cell dysfunction are the major core defects responsible for the development of type 2 diabetes (T2DM). Although insulin resistance is the early metabolic defect detected in subjects destined to develop T2DM, it is the beta cell failure which is responsible for the development of hyperglycemia. Longitudinal and cross-sectional studies have demonstrated that, initially, the compensatory hyperinsulinemia is sufficient to offset the insulin resistance and maintain normal glucose tolerance. However, when the beta cell fails to adequately compensate for the insulin resistance, glucose homeostasis deteriorates. Initially, this is manifest as impaired glucose tolerance (IGT) and later as overt diabetes. It follows that the level of beta cell failure at which hyperglycemia becomes evident depends upon the prevailing level of insulin resistance. A more severe insulin resistance results in development of overt hyperglycemia at lower level of beta cell failure. The investigators previously have shown that the severity of insulin resistance varies amongst different ethnic groups (Arabs versus Indians). Thus, the level of beta cell failure at which overt hyperglycemia becomes evident amongst each ethnic group also varies. Thus, individuals/ethnic groups with more severe insulin resistance, overt hyperglycemia becomes evident at lower level of beta cell dysfunction. Conversely, severe beta cell dysfunction is required for evert hyperglycemia to develop in individuals/ethnicities with less severe insulin resistance. In the present study, the investigators aim to quantitate beta cell function with the gold standard technique (i.e. hyperglycemic clamp) in Arab and Indian non-diabetic individuals and relate the level of beta cell function to the prevailing level of insulin resistance measured as the glucose infusion rate divided by the mean plasma insulin concentration during the clamp.
GLP-1 receptor agonists (GLP-1 RA) is group of antidiabetic agents very effective in lowering the plasma glucose concentration in T2DM patients . Currently there are several agents approved for the treatment of T2DM which are classified into two groups: (1) short acting GLP-1 RA and include exenatide BID and lexisenatide, and (2) long acting agents which are given once daily or weekly injection and include liraglutide, semaglutide, dulaglutide and budyreon . Clinical studies have demonstrated that long acting GLP-1 RA (e.g. liraglutide, bydureon and dulaglutide) produce ~1.5% reduction in the HbA1c , which was significantly greater than that caused by other classes of antidiabetic agents (e.g. DPP4 inhibitors, and SGLT2 inhibitors). Members of this class of drugs exert multiple metabolic actions in T2DM. They potentiate insulin-stimulated insulin secretion from the beta cell , inhibit glucagon secretion from the alpha cells and inhibit appetite and promote weight loss. Together, these metabolic actions of GLP-1 RA contribute to the improvement in glucose metabolism and decrease in HbA1c. Although GLP-1 RA produce a robust mean decrease in HbA1c (~1.5%), the magnitude of decrease in HbA1c in the individual patient vary considerably. Clinical studies showed that approximately one third of T2DM patients receiving GLP-1 RA experience very modest to no decrease in the HbA1c while another third of patients experience a robust decrease in the HbA1c. the reason for this large variability in the individual response to GLP-1 RA is unknown. Studies which attempted to identify possible clinical predictors that distinguish between "good responders" and "poor responders" have failed to identify clinical parameter that can predict the magnitude of decrease in HbA1c by GLP-1 RA in T2DM patients. Because of the central role of beta cell function in the regulation of plasma glucose concentration, the study investigators hypothesis that varying degree of beta cell response to GLP-1 RA action is the principal factor responsible for the large variability in the decrease in HbA1c by GLP-1 RA. The aim of the present study is to test this hypothesis.
Background: Time-restricted feeding can improve insulin sensitivity, and increase fat oxidation in people with prediabetes independent of weight loss. It may also help people to lose weight. However, it has not been tested in people with type 2 diabetes. Plan of investigation: Participants meeting the eligibility criteria will be randomized to the TRF arm or the continuous eating arm. Both arms with be given a prescribed dietary plan to help them lose 5% of body weight. In the TRF they will permitted to eat between midday and 6pm. In the continuous eating arm they will be allowed to eat between 8am and 11pm. Participants will attend the nutrition clinic every two weeks to be weighed and be given personalized support to help them follow their assigned diet. Prior to starting the diets outcome measures will be taken: Glycaemia will be measured by a glucose tolerance test, and 7-day continuous glucose monitoring. HbA1c will be taken from fasting blood sample. In addition, the fasting sample will be taken for measurement of insulin, lipid profile and inflammatory markers. We will also use questionnaires to assess quality of life, a 3-day food diary to assess compliance to diet especially meal timings. Capillary ketones will also be used to assess whether compliance to the assigned fasting period. Outcome measures will also be taken during 7 days of the second month, and then the final seven days of the last month on the diet. The primary outcome is HbA1c.
This study will evaluate the safety, tolerability, and descriptive efficacy of BIIB017 in pediatric participants with relapsing-remitting multiple sclerosis (RRMS) and to assess the pharmacokinetics (PK) of BIIB017 in pediatric participants with RRMS in Part 1. In Part 2, the study will evaluate the long-term safety of BIIB017 and further describe safety and the long-term multiple sclerosis (MS) outcomes after BIIB017 treatment in participants who completed the study treatment at Week 96 in Part 1 of the study.