Hearing Disorder

Background: Researchers want to learn more about head and neck disorders. Understanding these disorders could help them find better treatments. To do this, they are collecting tissue samples for research. Objective: To create a repository of tissue samples and data to better study conditions of the head and neck. Eligibility: People who had or will have tissue samples taken because of a head or neck disorder. They must be ages 3 and older and not pregnant to join Part 2. Design: Participants will be screened with a questionnaire, medical history, and physical exam. Part 1. Participants will give permission for any of their tissue samples leftover from private care or other research protocols to be used. If participants tissue did not contain normal tissue or if they have a condition that suggests a genetic issue, they will be invited to join Part 2. Part 2: Participants will have additional samples collected. These could be: * Blood: Blood is drawn through a needle in the arm. * Cheek swab or brushing: A cotton swab or small brush is rubbed inside the cheek. * Saliva: They rinse their mouth with water and spit into a tube or cup. * Skin biopsy: They are injected with a numbing drug. A biopsy tool removes a small piece of skin. * Mucosal biopsy: They are injected in the mouth with a numbing medication. A small piece of tissue from the inside of the cheek is removed. Participants samples will be used for future research, including genetic testing.

The goal of this clinical trial is to determine the efficacy of Clemastine Fumarate in the presence of engineered sound to treat age-related central auditory processing disorder (CAPD). This disorder impacts 800M patients worldwide, including \~1/3 people over 40 years of age and \~1/2 people over 65, resulting in an inability to hear in noisy environments. The primary hypothesis this study aims to test is: engineered sound, driving localized neural circuit activity, will enable Clemastine Fumarate to mature Oligodendrocyte cells and thus remyelinate these activated neural circuits. This Localized Oligodendrocyte Optimization Therapy (LOOT) was highly effective in preclinical animal studies so this clinical trial aims to answer if this therapy will translate to humans. The study is an adaptive design intended to compare the efficacy of the drug in the presence or absence of the engineered sound for improving hearing in noise ability. Trial participants will be tested for hearing thresholds and ability to isolate a sound signal from background noise. If they meet the inclusion criteria, they will be enrolled into one of the four arms of the study and undergo the proposed one-month treatment (drug and sound or respective placebos). After the treatment period, trial participants will be tested again for hearing thresholds and their ability to isolate s sound source of interest from background noise. The hypothesis to be tested in this clinical trial is that the one-month treatment will significantly improve the participant's ability to isolate a sound source of interest from background noise. The design has four arms, drug+sound, placebo+sound, drug+white noise, and placebo+white noise. Based on our preclinical data, control arms are all expected to show identical results, thus our adaptive design includes interim analyses to allow for dropping of two of the three placebo arms should the preclinical results be replicated as anticipated. We will also monitor each participant's general health during the duration of the clinical trial, which will be done by performing a number of blood tests, an EKG and a general physical before and after the one-month treatment period. We expect no significant changes since participants will take the drug for the one-month period at dosages already demonstrated safe in several Phase II studies of multiple sclerosis. Similarly, the engineered sound will be listened to for one hour per day during this month at sound intensities well below threshold that might cause noise-induced hearing damage.

The goal of this clinical trial is to learn if short electrical signals can be heard in adult subjects who are otherwise having surgery on their ear. The main question it aims to answer is: Can an individual accurately hear different frequencies resulting from the short electrical signals?

Noise in hospital environments, particularly in operating rooms, poses challenges to both patient comfort and healthcare professionals' performance. Among the sources of noise, anesthesia monitoring alarms are essential for patient safety, yet no clear guidelines exist regarding their optimal sound level. Excessive alarm volume may increase distraction and cognitive load, especially for surgical trainees, potentially impairing their focus and performance during procedures. This randomized pilot interventional study aims to evaluate the impact of anesthesia alarm sound intensity on the mental workload of surgical trainees performing simulated surgeries. Participants will be randomly assigned to conditions with either an optimized alarm volume or a higher standard volume during simulated tasks. Cognitive load will be assessed using objective physiological measures such as heart rate variability and pupillometry, as well as subjective evaluations with tools like the NASA-TLX and SURG-TLX scales. The primary goal is to determine whether an optimized alarm sound level can reduce cognitive strain without compromising vigilance required for patient safety. Findings from this study are expected to provide evidence-based recommendations for auditory ergonomics in operating rooms, ultimately improving working conditions for surgical teams and enhancing both training and patient safety.

Background: Taiwan is experiencing rapid population aging, with a growing prevalence of chronic diseases and functional impairments among older adults. Existing Integrated Care for Older People (ICOPE) programs focus primarily on screening but lack sufficient follow-up and intervention. In response, the HI-HOPE Project was developed to establish a community-based, multidisciplinary intervention model to enhance intrinsic capacity and promote healthy aging in rural elderly populations. Survey and Screening: The study will be conducted in 30 community centers across Yunlin County, targeting older adults aged ≥55 years. Participants will undergo biannual screenings over two years, assessing cognitive function, depression, mobility, vitality (nutrition), hearing, vision, osteoporosis, polypharmacy, urological health, and social participation \& welfare. Intervention: Participants will be randomly assigned to either: HI-HOPE Integrated Care Group: On-Site Community Interventions: Exercise training, mindfulness, social activities, oral and swallowing rehabilitation, hearing and vision training. Telehealth \& Remote Education: Digital health monitoring, remote consultations, and health education. Referral Services: Access to specialized medical care, transportation assistance, and follow-up support. Control Group: Standard community care services without additional structured interventions. Outcome Measures: Primary outcomes include changes in intrinsic capacity of functional health metrics, including abnormalities of I-COPE components (mobility, cognitive status, depression, hearing, vision, vitality) . Secondary outcomes assess quality of life, activities of daily living, hospitalization, emergency visits, falls, and mortality rates over two years. Significance: This project integrates digital health technologies, interdisciplinary care, and community-based interventions to improve elderly health outcomes. The findings will guide the future scalability of integrated aging care models in Taiwan and beyond.