There are about 21062 clinical studies being (or have been) conducted in Italy. 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.
Handwriting is a complex cognitive prowess that deteriorates in patients affected by neurodegenerative diseases, including movement disorders. More in detail, patients with Parkinson's disease (PD) may manifest prominent handwriting abnormalities which have been collectively identified as parkinsonian micrographia. MIcrographia may manifest at the onset of the disease and then worsens progressively with time. Previous techniques released to investigate micrographia in PD relied on perceptual analysis of simple tasks or were based on expensive technological tools, including tablets. However, handwriting can be promptly collected in an ecological scenario, through safe, cheap, and largely available tools. Also, the objective handwriting analysis through artificial intelligence would represent an innovative strategy even superior to previous techniques, since it allows for the analysis of large amounts of data. In this experimental project, the investigators apply a specific machine learning algorithm to analyze handwriting samples recorded in healthy controls and PD patients. The study aims to verify whether the technique proposed by the investigators would be able to detect parkinsonian micrographia objectively, monitor the evolution of handwriting abnormalities and assess the symptomatic improvement of handwriting following L-Dopa administration in PD patients.
The use of Enamel Matrix Derivative (EMD) associated to microsurgical flaps was demonstrated to be effective for the treatment of intrabony defects, in particular in presence of a self-contained anatomy. The main aim of this study will be to evaluate the difference in Clinical Attachment Level (CAL) between baseline and 1-year follow-up, comparing flapless periodontal regeneration using EMD versus the use of EMD after microsurgical flap elevation (Modified-Minimally Invasive Surgical Technique (M-MIST) / Single-flap approach).
The pathophysiological mechanisms underlying Movement Disorders, including Parkinson's disease, have been related to altered synaptic plasticity affecting several structures of the central nervous system. Although several previous neurophysiologic investigations have shown abnormal long-term potentiation and depression-like plasticity in M1, other regions crucially involved in motor planning and execution, including the spinal cord, have been studied less. Parkinson's disease arises from the progressive loss of dendritic spines followed by atrophy of specific cortical (i.e. M1) and subcortical structures (i.e. putamen). These structural changes are responsible for the main clinical features of PD such as bradykinesia and rigidity. The present research project aims to probe non-invasively the main pathophysiologic mechanisms underlying altered synaptic plasticity in M1 and spinal cord and their relationship in a cohort of patients with movement disorders, including Parkinson's disease. More in detail, the investigators will use specific methodologies able to induce plasticity, including the repetitive transcranial magnetic stimulation (TMS), concerning the M1 and the focal muscle vibration, regarding the spinal cord. The neuromodulation protocol will imply 2 separate sessions, randomly scheduled to take into account the effect of the symptomatic pharmacologic treatment. Furthermore, patients will be randomly assigned to sham or real non-invasive stimulation groups. Before and after the stimulation protocol, the investigators will collect specific clinical as well as neurophysiologic measures (i.e., thresholds) according to standardized procedures. In conclusion, the goal of the study is to investigate the abnormal plasticity in the M1 and spinal cord in patients affected by specific movement disorders, through non-invasive techniques.
This study is researching an experimental drug called REGN3767, also known as fianlimab (R3767), when combined with another medication called REGN2810, also known as cemiplimab (each individually called a "study drug" or called "study drugs" when combined). The study is focused on patients with a type of skin cancer known as melanoma. The aims of the study are to see how effective the combination of fianlimab and cemiplimab are in treating the melanoma skin cancer, in comparison with a medication, pembrolizumab, approved for the treatment of melanoma skin cancer in adults, and to observe any similarities, or differences, in how the study drugs work in adolescent participants compared with adult participants. The study is looking at several other research questions, including: - What side effects may happen from receiving the study drugs - How much study drug is in the blood at different times - Whether the body makes antibodies against the study drugs (which could make the drugs less effective or could lead to side effects). Antibodies are proteins that are naturally found in the blood stream that fight infections. - How administering the study drugs might improve quality of life
Although SARS-CoV-2 infection and subsequent COVID-19 disease is regarded as a disease that primarily affects the lungs, it can also damage many other organs. This organ damage may increase the risk of long-term health problems, but much remains to be elucidated as to how COVID-19 infection will affect those who have contracted the infection over time. Since SARS-CoV-2 infection mainly affects elderly people, one of the aspects to be evaluated in the near future is its interaction with bone metabolism, which progressively worsens with advancing age. So far, data on bone metabolism in SARS-COV-2 infection are very scarce. Furthermore, it is not clear whether the incidence of osteoporosis and the risk of fracture may increase in patients after recovery from the infection, due to the interaction of their risk factors (old age, smoking, long-term bed rest). term, hypovitaminosis D and steroid treatment) with the COVID-19 inflammatory process. In patients after recovery from severe acute respiratory syndrome (SARS), osteonecrosis and bone abnormalities with reduced bone density were observed, which were partly but not entirely explained by short-term use of steroids. Infections, trauma and injuries induce the production of endogenous signaling mediators of the inflammatory response. Significantly higher serum concentrations of pro and anti-inflammatory cytokines, including IL-6, TNF-α, and IL-10, characterized by severe versus moderate cases, suggest that disease severity may be associated with a "cytokine storm. "[14]. The interaction between inflammatory molecules, such as cytokines, and the bone system is defined as "osteoimmunology" and osteoimmunological mediators, such as RANKL, OPG, RAGE, play a fundamental role in osteoclastogenesis in physiological and pathological conditions. Although the long-term effects of COVID-19 are still unknown, the alleged consequences of the disease would likely be similar to those of coronavirus-related diseases, including SARS (Severe acute respiratory syndrome). In the case of SARS, viral infection-mediated effects have been described that stimulate osteoclatogenesis. Similarly, the current SARS-Cov-2 could have a dual effect, both direct and indirect, on osteoclastogenesis and, consequently, on bone resorption: indirectly by inducing the cytokine storm that promotes bone resorption, direct by stimulating differentiation and osteoclastic activation through the activation of osteoimmunological mediators.
The present longitudinal study aims to investigate the impact of lurasidone treatment in recent-onset psychosis patients. The effects of lurasidone will be studied primarily in terms of structural and myelin modifications, in relation to clinical outcomes, before and after treatment and in healthy controls. Furthermore, neuropsychological tests will be used to evaluate changes in cognitive performance.
The aim of this study is to compare plasma S Protein levels to SARS-CoV-2 viral load in COVID positive patients.
The clinical management of Parkinson's disease (PD) is frequently challenged by the occurrence of motor disorders and complications, such as freezing of gait, fluctuations and the ON-OFF phenomenon, primarily manifesting at home. Therapeutic decisions are usually based on periodic neurological examinations and patients' anamnestic experience collected in an outpatient setting, thus limited by several issues, including "recall bias" and subjective, semi-quantitative and operator-dependent evaluations in non-ecological settings. In the last two decades, new wearable technologies, consisting of "wireless" sensors (e.g., inertial, electromyography), have been widely applied to quantitatively assess movements in physiological and pathological conditions, even for prolonged periods in free-living settings (i.e., long-term monitoring). The aim of this study is to evaluate motor symptoms in patients with PD, such as bradykinesia, tremor, gait disturbances and balance disorders, objectively and quantitatively through the application of wearable sensors in intra- and extra hospital settings, also during common activities of daily living, in order to obtain ecological data possibly useful in the therapeutic management of the disease.
A randomized, double-blind, placebo controlled, 3-arm multicenter phase 3 study to assess the efficacy and safety of ianalumab in patients with active Sjogren's syndrome (NEPTUNUS-2)
The study aims to evaluate whether the combination of a product based on D-chiro-inositol and the ketogenic diet can improve the metabolic/endocrine picture of overweight/obese women with PCOS, with insulin resistance, in a shorter time than the ketogenic diet alone