Articles tagged with Bone Diseases
Activation of hypoxia signaling improved metabolism and limited fat accumulation in obese mice, while preserving vascular networks and bone health. The intervention also enhanced fracture healing and glucose tolerance, suggesting a dual beneficial effect on metabolism and bone integrity.
A study from Tulane University found that consuming more ultra-processed foods is linked to lower bone mineral density and a higher risk of hip fractures. The study involved over 160,000 participants and found that even small increases in ultra-processed food intake can increase the risk of hip fractures.
Copper metabolism plays a crucial role in inflammatory bone diseases, with copper overload suppressing glycogen synthesis and increasing inflammatory activity. Researchers found that cuproptosis, a form of programmed cell death, can lead to bone weakening and osteoclast formation, providing a potential new therapeutic target.
Research reveals that salivary bacteria from gum disease alter gut metabolism, driving osteoclast activity and systemic bone loss. Microbial metabolites like indole-3-lactic acid inhibit osteoclast differentiation and activity.
Researchers at the University of Basel have developed a new laser profile that enables deeper and faster cuts in hard tissues like bone. The top hat profile distributes energy more evenly, overcoming limitations of traditional laser systems and enabling joint implants and custom-made 3D-printed implants.
The ESE and ESPE have launched a landmark Joint Clinical Practice Guidance to support structured and effective transition of young people with endocrine conditions. The Guidance provides practical, evidence-based recommendations to ensure continuity, safety and quality of care during this critical phase in a patient's life.
Researchers identified ApoE as a systemic inhibitor of bone repair during aging, and showed that blocking its activity can restore bone regeneration and improve fracture healing. The study provides hope for therapies that actively restore regenerative capacity in older patients, reducing nonunion risk and improving recovery.
Researchers discovered that Apex1 plays a crucial role in initiating and progressing bone healing after injury. The protein is required for activating the master regulatory gene Bmp2, which initiates healing by stimulating periosteal expansion and callus formation.
Researchers at Lund University developed a universal method for creating cell-free cartilage structures that guide bone repair without triggering strong immune responses. The successful test in animal models paves the way for human trials and the potential to transform the future of bone transplantation.
A new consensus statement provides evidence-based guidance for screening, diagnosis, treatment, and return-to-play protocols for female athletes. The updated report includes a first-of-its-kind adolescent model of the Female Athlete Triad, addressing energy deficiency in growing adolescents.
A comprehensive genetic investigation by Dr. Feng Liu and collaborators identifies shared genetic loci between schizophrenia and osteoporosis, suggesting overlapping biological pathways. The study found that psychiatric patients face elevated fracture risks due to these molecular connections.
The Asia Pacific Regional Audit highlights key trends, gaps, and opportunities in 22 countries and regions. The audit reveals a steep rise in fracture rates due to poor bone health and an ageing population, with China, Malaysia, and Australia experiencing significant increases.
The 9th IOF Asia-Pacific Bone Health Conference will bring together healthcare professionals, researchers, and policymakers to exchange knowledge and shape the future of bone health across the region. The conference will feature keynote lectures, sponsored sessions, and a launch of the IOF Asia-Pacific Regional Audit 2025.
Scientists have created a complex tissue model of human bone marrow using only human cells, replicating the cellular complexity of the body's 'blood factory'. This breakthrough reduces the need for animal experiments in blood cancer research and potentially enables personalized therapies.
Researchers found that PAI-1 levels increase with age in both sexes, but only female mice lacking the gene experienced significant protection against age-related muscle and bone loss. Female mice maintained stronger grip strength and greater muscle mass, while showing less cortical bone loss.
Researchers investigated the role of PLAGL1 in postnatal condyle development and found that it regulates osteogenesis through the IGF2 pathway. The study reveals a critical driver of jaw bone formation, offering opportunities for therapeutic exploration and a deeper understanding of craniofacial biology.
The European Society of Endocrinology has released the EndoCompass Research Roadmap, a major new initiative to align research efforts and improve funding strategies for hormone-related health challenges. The roadmap identifies specific research needs across eight endocrine specialties and five cross-cutting areas.
A recent study published in Leukemia found that age-based classifications in acute myeloid leukemia (AML) treatment may be outdated. The research analyzed data from 2,823 adult AML patients, revealing nuanced age-related trends in genetic mutations and survival outcomes.
A large-scale study uncovered a strong connection between osteoporosis and rotator cuff tears, finding that individuals with osteoporosis are 1.56 times more likely to suffer an RCT. The study also identified common genetic variants influencing both conditions, suggesting a possible biological explanation for the link.
Researchers identify three primary UPR pathways and their downstream cascades, which play a crucial role in the differentiation of osteoblasts and osteoclasts. Targeting these pathways with emerging drugs may alleviate bone-related events and kill tumors localized in bones.
Researchers found miR-378 suppresses bone marrow stromal cell osteogenesis and hinders fracture healing in an OVX-induced osteoporosis model. MiR-378 overexpression increased osteoclastogenesis by activating NF-κB signaling pathways, impairing bone formation.
Brazilian researchers analyzed over 60 scientific articles on microplastics and their impact on bone health. They found that the materials can impair bone marrow stem cells, accelerate cell aging, and promote inflammation, leading to potential bone weakening and fractures.
Research focuses on lysosome, iron, and mitochondria connections in osteoclasts. Lysosomes regulate intracellular iron mobilization and mitochondria rely on iron for energy metabolism.
The International Osteoporosis Foundation identifies critical global barriers to osteoporosis care, including limited DXA scanning and outdated treatment criteria. The IOF advocates for a paradigm shift in bone health management worldwide, recognizing high fracture risk as a valid criterion for treatment and reimbursement.
Researchers from the University of Birmingham identified bioactive peptide sequences in PEPITEM that counteract key changes caused by osteoporosis. The study shows the full PEPITEM molecule reduces bone resorption, increases bone formation, and promotes angiogenesis in bone.
Researchers explore the benefits of nucleic acid aptamers in targeted therapies for bone tissue regeneration, revealing their potential in managing orthopedic conditions. Aptamers can modulate key molecular pathways involved in bone repair, advancing the standard of care for fractures and various types of bone diseases.
Dr. Greenblatt's discovery of distinct types of bone-building stem cells has opened new areas of research into targeted therapies for bone cancer, osteoporosis, and rare bone conditions. His work has identified potential therapeutic targets to block spine metastases in breast and prostate cancer.
Aging cells disrupt bone renewal and repair processes, leading to weak bones and joint degeneration. Cellular senescence and inflammation are major drivers of skeletal decline, while senolytics and emerging therapies offer promising new paths for treatment.
Researchers developed a genetically modified mouse model to study osteogenesis imperfecta (OI), a rare genetic bone disorder. The study found that the Sp7 R342C mutation affects bone mineral density, trabecular bone volume fraction, and cortical porosity, leading to impaired bone remodeling.
Research reveals a direct connection between diabetic peripheral neuropathy and skeletal health, linking nerve damage to reduced cell signaling. The study shows that diabetic mice with nerve damage had weakened bones due to impaired nerve-bone communication.
A recent study published by The Endocrine Society found that osteoporosis treatment after a fracture can decrease both hospitalization and mortality in people older than 80. Researchers analyzed data from 88,676 patients aged 80 and older who suffered a fracture due to bone deterioration or weakness caused by osteoporosis.
Researchers have developed an AI-assisted diagnostic system that can estimate bone mineral density in the lumbar spine and femur with high sensitivity and specificity. The system has the potential to transform routine clinical X-rays into a powerful tool for opportunistic screening, enabling earlier detection of osteoporosis.
A team of researchers from the University of São Paulo identified agrin as a crucial protein in maintaining bone mass and quality. The study found that osteocytes produce agrin, which plays an essential role in preserving bone health. Without agrin, bone tissue becomes less dense and more fragile, making bones susceptible to fractures.
A new survey conducted by Ohio State University Wexner Medical Center found that only 1% of men are concerned about bone density, with cancer and heart disease being top concerns. Men can build back bone density through exercise, nutrition, and lifestyle changes, and early intervention can prevent deadly fractures.
Researchers uncover how RUNX2 regulates cranial base growth by controlling chondrocyte differentiation, proliferation, and organization. The study provides fundamental insights into the complex interplay between RUNX2 and FGFR3, shedding light on novel therapeutic targets for craniofacial defects.
A landmark review highlights how diabetes alters bone microarchitecture and increases fracture risk in people with type 2 diabetes, despite normal or elevated bone mineral density. The authors advocate for updated diagnostic tools, including a revised TBS algorithm, to more accurately reflect bone quality in individuals with central ob...
Researchers used a premature aging mouse model to study the effects of age and sex on osteocyte networks and bone structure. Aged PolgA mice showed accelerated skeletal aging, reduced osteocyte connectivity, and increased frailty, with males exhibiting more pronounced changes.
A new review highlights the emerging applications of spatial transcriptomics in musculoskeletal research, enabling discoveries in arthritis mechanisms and limb development. Researchers can now explore how cellular environments influence development, disease, and healing with unprecedented resolution.
Researchers found that removing SIRT6 from disc cells led to early-onset degeneration, characterized by DNA damage, disorganized collagen fibers, and heightened inflammatory activity. Enhancing SIRT6 activity could offer a new path for non-invasive treatments to delay or prevent age-related spinal degeneration.
A recent study found that individuals with a specific type of gut bacteria (Firmicutes) had higher bone mineral density and better metabolic health. The researchers suggest that promoting the growth of butyrate-producing bacteria could be an effective strategy for maintaining bone mass and preventing osteoporosis.
Researchers developed a tetravalent peptide that specifically inhibits the recruitment of MKK3 to TRAF6, preventing late-stage osteoclast activation and reducing side effects. In mice models, the peptide effectively prevented bone loss with minimal impact on osteoblast function.
The IOF Advanced Course on Osteoporosis is a comprehensive, 18-hour online training programme designed to equip healthcare professionals with the latest knowledge in osteoporosis prevention, diagnosis, and management. The course aims to promote timely diagnosis and treatment, reduce patient burden, and improve global outcomes.
A highly sensitive bone marrow test has shown to double survival rates for patients with AML mutations in NPM1 and FLT3 genes, allowing for early detection of potential relapse. This trial indicates that regular molecular testing can improve long-term survival rates by restarting treatment earlier.
A global research initiative analyzing data from nearly 2 million people in diverse populations worldwide has uncovered multiple new genes associated with osteoarthritis. The study also identified key genetic pathways and 69 genes whose protein products are targeted by approved drugs, paving the way for repurposed treatments.
A new imaging technique developed by IU scientists allows for the visualization of 25 cellular markers in intact bone marrow tissue without disruption. This advancement could support future drug development and therapies for conditions involving bone marrow.
Research discovers mitochondrial respiration impairment accelerates skeletal ageing by altering cell metabolism and reducing regenerative abilities. The study highlights the role of mitochondria in skeletal health and potential therapeutic avenues.
Dr Ambrish Mithal, an Indian endocrinologist, has been awarded the prestigious IOF CSA Medal of Achievement for his groundbreaking work in advancing the field of osteoporosis. His pioneering efforts have significantly increased understanding and awareness of osteoporosis globally.
AMMOM has been recognized by the IOF for its significant contributions to osteoporosis awareness and bone health in Mexico. The organization has collaborated extensively with the IOF on various initiatives, including joint scientific meetings and advocacy efforts.
Posterior fixation surgery suppresses infection by preventing bone destruction and weakening osteoclast activity. This treatment method increases bone stability, helping to control infection in pyogenic spondylodiscitis.
A new consensus paper emphasizes the role of bone turnover markers (BTMs) in diagnosing and managing osteoporosis. BTMs, such as procollagen type I N propeptide (PINP) and β-isomerized C-terminal telopeptide of type I collagen (β-CTX-I), are invaluable tools for predicting fracture risk and monitoring treatment adherence.
Researchers found that Shh significantly promotes BMP9-induced osteogenic differentiation of mesenchymal stem cells, leading to enhanced ectopic bone formation. The study suggests that Shh may augment BMP9-induced osteogenesis by activating essential transcription factors.
Researchers at Saarland University have developed smart implants that can monitor and promote healing in fractured bones. The miniaturized technology, part of the EU-funded SmILE project, enables the use of thin intramedullary nails to support bone stability during healing.
Researchers from Osaka University analyzed dental issues faced by Japanese patients with hypophosphatasia, finding two distinct groups: odonto-type disease (early tooth loss) and non-odonto-type disease (tooth misalignment and softening). The study aims to improve diagnosis and treatment for this often misunderstood disease.
A new study by Nemours Children's Health reveals that prenatal diagnosis of OI does not accurately predict mortality, and many babies can survive with medical interventions. The study found that 16 out of 18 infants with lethal OI diagnoses survived and achieved significant mobility milestones.
A new study reveals that heavy mechanical force can slow down orthodontic tooth movement by disrupting mitochondrial calcium levels. Blocking Piezo1 activity or enhancing STING signaling can restore osteoclast function and accelerate tooth movement under heavy force conditions.
This disorder has diverse etiologies, variable presentations, and different therapeutic responses. The proposed diagnostic algorithm can differentiate pediatric MF subtypes to improve patient outcomes.
Two comprehensive datasets from the Gabriella Miller Kids First Pediatric Research Program explore childhood cancers and congenital disorders. The new datasets aim to identify genetic causes and links between these diseases in children, ultimately supporting the development of improved treatments.
A new study adds weight to the safety and effectiveness of a gene therapy for hypophosphatasia, a rare inherited disorder that causes abnormal bone development. The treatment, AAV8-TNAP-D10, has shown promising results in mice models, with female mice achieving improvements in bone and teeth at lower doses.
The European Society for Paediatric Endocrinology and the European Society of Endocrinology will host the first-ever joint Congress on May 10-13, 2025. The event aims to bring together paediatric and adult endocrine specialists from across Europe and the world to collaborate and celebrate endocrinology.
Researchers found that pomalidomide enhances key immune cells, such as T cells and natural killer cells, which helps the body recognize and destroy cancer cells. This leads to improved immune profiles in patients with myeloma, resulting in longer progression-free survival periods.