View clinical trials related to Aging.
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This study evaluates the associations between biomarkers of ageing, comprehensive geriatric status, telomere length and progerin level, the composition of the gut microbiota, 16sRNA metagenome sequencing in Moscow centenarians.
Establishment of a BNA reference database for the Adult and Elderly Population. Hypothesis-generating study designed to collect data that will aid in future scientific and engineering exploration of correlations between clinical assessments and BNA scores. The results are primarily intended for scientific inquiry and engineering development purposes, and may be used in future regulatory submissions.
The ability to mount an effective immune response declines with age, leaving the elderly increasingly susceptible to infectious diseases and cancer. Rapamycin, an FDA approved drug to prevent transplant rejection, increases the lifespan and healthspan of mice and ameliorates age-related declines in immune responsiveness, cancer survival, and cognition in laboratory animals. Investigators are conducting a translational trial to test whether rapamycin also improves life functions in humans focusing on elderly persons (aged 70-95).
The study aims to randomize 320 (160 Caucasian, 160 African American) socially isolated adults 75+ years old (50:50 split between those with normal cognition and mild cognitive impairment (MCI)) recruited from the community to either the Video Chat Group or the Control Group. The participants in the Video Chat Group will receive a computer and internet service for the duration of the study, which they will use to video chat with study staff for 30 minutes/day 4x/week for 6 months (high dose), and then 2x/week for an additional 6 months (maintenance dose). The efficacy examination of the maintenance dose is limited to an exploratory aim. Both intervention and control groups will have a brief (about 10 minutes) telephone check-in with study staff once per week. In-home testing will occur at Baseline and 6 months. A sub-sample of participants** will be assessed at 12 months (exploratory) after additional 6 months of maintenance dose. All participants at OHSU will have their medication compliance tracked using an electronic medication monitoring device and participants at both OHSU and UM will have MRIs at Baseline and 6 months, if they are able to safely receive MRIs. Participants at both sites will contribute saliva for genetic testing (optional consent), and all video chat and neuropsychological assessment sessions will be recorded for speech and language analysis (consent required for participation).
This study addresses a "lifespan approach to healthy development and aging" with direct relevance to humans by testing the anti-aging effects of acarbose in humans. It is a pilot study to: i) better estimate power for a larger trial, ii) establish the safety and potential beneficial effects of acarbose in non-diabetic elderly humans, and iii) determine whether the effects of acarbose on the microbiome likely play a role in its enhancement of longevity and/or healthy aging. These are essential initial steps for translating acarbose into an anti-aging human therapy.
The KALICOU 3 study will evaluate the effect of emotional skills of patients and their partners on their individual disease subjective experience during care pathways, from chemotherapy to surveillance.
This will be a multicentre, randomised, controlled and prospective clinical trial. All participants provided their written informed consent to participate in a randomized trial that examined the effects of low-level MAP (60-70 mmHg) vs. high-level MAP (90-100 mmHg) in elderly patients (65 or more years of age) during noncardiothoracic surgery under general anesthesia. The investigators hypothesise high-level blood presure of the intervention for reducing the incidence of post-operative complications.
A two-phase adaptive randomized clinical trial will examine the individual and combined impact of pairing cognitive training with transcranial direct current stimulation (tDCS). tDCS is a method of non-invasive brain stimulation that directly stimulates brain regions involved in active cognitive function and could enhance neural plasticity when paired with a training task. We will compare changes in cognitive and brain function resulting from CT and ET combined with tDCS using a comprehensive neurocognitive, clinical, and multimodal neuroimaging assessment of brain structure, function, and metabolic state. Functional magnetic resonance imaging (FMRI) will be used to assess brain response during working memory, attention, and memory encoding; the active cognitive abilities trained by CT. Proton magnetic resonance spectroscopy (MRS) will assess cerebral metabolites, including GABA concentrations sensitive to neural plasticity. We hypothesize that: 1) tDCS will enhance neurocognitive function, brain function, and functional outcomes from CT, with combined CT and tDCS providing the most benefit; 2) Effects of tDCS on CT will be maintained up to 12 months following training, and 3) Neuroimaging biomarkers of cerebral metabolism, neural plasticity (GABA concentrations) and functional brain response (FMRI) during resting vs. active cognitive tasks will predict individual response to tDCS.
Baseline cerebral blood flow through the middle cerebral artery (MCA) and cerebral vasodilator response of the MCA to inhaled carbon dioxide (CO2) will be measured in young women, young men, older women, and older men using Magnetic Resonance (MR) imaging and transcranial Doppler ultrasound (TCD). Data collection techniques will be compared.