About
Blood Disorders encompass a broad range of conditions that affect the components of blood, including red blood cells, white blood cells, platelets, and plasma. This interdisciplinary field of study explores the causes, mechanisms, and treatment of hematological disorders such as anemia, leukemia, hemophilia, and thrombocytopenia. Researchers in this domain focus on understanding the genetic, molecular, and environmental factors that contribute to the onset and progression of these disorders. The study of blood disorders integrates insights from molecular biology, genetics, immunology, and clinical medicine to develop innovative diagnostic tools and therapeutic strategies.
Advances in Blood Disorders research are crucial for improving patient outcomes, especially given the complexity and severity of conditions like sickle cell disease and blood cancers. By leveraging modern technologies such as genomics, stem cell therapies, and targeted drug delivery, researchers are uncovering novel approaches to treating hematological diseases. This field is pivotal in advancing our understanding of blood-related conditions, ultimately leading to more effective treatments, enhanced patient care, and the potential for cures.
Why publish with us?
Global Visibility – Indexed in major databases
Fast Peer Review – Decision within 14–21 days
Open Access – Maximize readership and citation
Multidisciplinary Scope – Biology, Medicine and Engineering
Editorial Board Excellence – Global experts involved
University Library Indexing – Via OCLC
Permanent Archiving – CrossRef DOI
APC – Affordable APCs with discounts
Citation – High Citation Potential
Which articles are now trending?
Research Articles
- Prevalence of Non-specific Low Back Pain Among Chinese Healthcare Workers (Surgeons and Surgical Nurses): A Multi-Center Survey Study
- Adaptation of the Physical Literacy Scale for Adults into Turkish and Examination of its Psychometric Properties
- Gaussian-Transform for the Dirac Wave Function and its Application to the Multicenter Molecular Integral Over Dirac Wave Functions for Solving the Molecular Matrix Dirac Equation
- Federated Learning- Hope and Scope
- Enhancing Missing Values Imputation through Transformer-Based Predictive Modeling
- Improved Energy Valley Optimizer with Levy Flight for Optimization Problems
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