How can bone turnover modify bone strength independent of bone mass?
about
Postmenopausal osteoporosis treatment with antiresorptives: effects of discontinuation or long-term continuation on bone turnover and fracture risk--a perspectiveTheoretical consideration of the effect of drug holidays on BMD and tissue age.Estrogen deficiency increases variability of tissue mineral density of alveolar bone surrounding teeth.Intracortical remodeling parameters are associated with measures of bone robustness.From histology to micro-CT: Measuring and modeling resorption cavities and their relation to bone competenceHigher doses of bisphosphonates further improve bone mass, architecture, and strength but not the tissue material properties in aged ratsPrediction of local ultimate strain and toughness of trabecular bone tissue by Raman material composition analysis.MRI of trabecular bone using a decay due to diffusion in the internal field contrast imaging sequence.Issues in modern bone histomorphometry.Three-dimensional dynamic bone histomorphometry.Fatigue-induced microdamage in cancellous bone occurs distant from resorption cavities and trabecular surfacesMechanical failure begins preferentially near resorption cavities in human vertebral cancellous bone under compression.Healing of cancellous fracture in a novel mouse modelMaterial heterogeneity in cancellous bone promotes deformation recovery after mechanical failureAnti-resorptive agents reduce the size of resorption cavities: a three-dimensional dynamic bone histomorphometry studyVoxel size and measures of individual resorption cavities in three-dimensional images of cancellous bone.Fracture after bisphosphonate treatment in children with cerebral palsy: the role of stress risers.Towards patient-specific material modeling of trabecular bone post-yield behavior.Genetic and acquired factors influencing the effectiveness and toxicity of drug therapy in osteoporosis.A semi-mechanistic model of bone mineral density and bone turnover based on a circular model of bone remodeling.Short-term effect of zoledronic acid upon fracture resistance of the mandibular condyle and femoral head in an animal model.Role of subchondral bone remodelling in collapse of the articular surface of Thoroughbred racehorses with palmar osteochondral disease.The response of pediatric ribs to quasi-static loading: mechanical properties and microstructure.The correlation between mineralization degree and bone tissue stiffness in the porcine mandibular condyle.Variations in bone density across the body of the immature human mandible.Bone Mechanical Function and the Gut Microbiota.Complex interplay among adiposity, insulin resistance and bone health.Subchondral osteopenia and accelerated bone remodelling post-ovariectomy - a possible mechanism for subchondral microfractures in the aetiology of spontaneous osteonecrosis of the knee?
P2860
Q26864207-EAA092F9-0A80-440D-A2FA-F88128FA59D1Q33667379-8CAAC77E-4CF8-429B-BB83-CC43B9F61171Q33987350-4B8FA672-CC34-4837-A73C-736AFD356888Q34203425-37D3E826-5B20-4B3F-805C-CD3577306786Q34251789-9D4AE23F-A3B2-4EE9-A098-265E1153B6FAQ34411999-6E71EC9C-5576-4814-9192-9B0AAE5A7685Q35071764-07DD59A8-0112-45A3-91DA-EFB721B0FFD6Q35130468-86CCF51B-58A7-4844-A022-D7207B42DE81Q35743571-F9373220-AE6A-495B-8F05-7DFE93FC4EE7Q35784404-03B4C469-27F6-44B3-80E9-78B23E2C87AFQ35850476-D341A9E9-854C-4E09-AB59-F2C21BB0238DQ35962480-D26DE054-5EA2-4F66-BB5C-21D856765FECQ36420251-1817B090-1623-4A00-BC76-4968A4BA73F0Q36710698-D23F3D49-47BE-4C20-9DA3-D8133744E53BQ37283049-24E2BE28-65E0-48C5-BEA2-569363002740Q37308879-10904375-1CA5-4B9C-968B-1D07857FFE4DQ37923834-C5C7D8D8-B751-4CB7-A697-13F7F1653CF1Q38079559-ADF0C929-B5AA-4E70-963C-AF3AC30A32CDQ38739527-79612C00-810D-4FAB-B3C1-19628664BC77Q40783785-D011FA7A-98AC-442D-B57B-A09D1F304C9BQ41289455-66FF4956-4FCE-4FC5-87DF-0B37BFC9CCFAQ41591647-97BB11A2-BA10-49E3-82D0-C55C58D32FA1Q44173864-8EA93FAE-0790-4132-BA9A-CF29D3272AAEQ45733641-F4EEDDCC-E5D1-4DB8-ADFE-63B570D54E12Q46738041-833C12BD-9E50-4583-BE0F-6D979ACE9EA0Q47382342-6B0F7C6E-8FC4-4EE4-8A8A-B7B22D01AF63Q50044972-76993E38-8E76-4553-A4DB-6974B029D37DQ57879570-67ABD1ED-39BB-409D-862A-6932758F5195
P2860
How can bone turnover modify bone strength independent of bone mass?
description
2008 nî lūn-bûn
@nan
2008年の論文
@ja
2008年論文
@yue
2008年論文
@zh-hant
2008年論文
@zh-hk
2008年論文
@zh-mo
2008年論文
@zh-tw
2008年论文
@wuu
2008年论文
@zh
2008年论文
@zh-cn
name
How can bone turnover modify bone strength independent of bone mass?
@ast
How can bone turnover modify bone strength independent of bone mass?
@en
type
label
How can bone turnover modify bone strength independent of bone mass?
@ast
How can bone turnover modify bone strength independent of bone mass?
@en
prefLabel
How can bone turnover modify bone strength independent of bone mass?
@ast
How can bone turnover modify bone strength independent of bone mass?
@en
P2860
P1433
P1476
How can bone turnover modify bone strength independent of bone mass?
@en
P2093
C J Hernandez
P2860
P304
P356
10.1016/J.BONE.2008.02.001
P577
2008-02-20T00:00:00Z