Results 41 to 50 of about 3,886 (176)

Clinical and research applications of synthetic bone substitutes in equine veterinary medicine: A systematic review

open access: yesEquine Veterinary Journal, Volume 58, Issue 5, Page 1150-1168, September 2026.
Abstract Background Bone grafting in equine medicine offers a promising contribution to treating orthopaedic developmental diseases and chondral, osteochondral and segmental bone defects. Among grafts, synthetic bone substitutes—alloplastics—show favourable biological properties addressing numerous limitations presented by autografts, xenografts and ...
Katarzyna Skierbiszewska   +6 more
wiley   +1 more source

Injectable Bone Cements: A Generational Framework for Bioactivity, Porosity, and Mechanobiological Design at the Nanoscale

open access: yesAdvanced NanoBiomed Research, Volume 6, Issue 8, August 2026.
Key demographic, biological, and material considerations that drive the need for advanced injectable bone cement technologies. Injectable bone cements (IBCs) are widely used in orthopaedic and craniofacial applications due to their minimally invasive delivery and ability to provide early mechanical stabilisation.
Frank Fei   +2 more
wiley   +1 more source

Comparação das propriedades da osteocondução e osteointegração de uma hidroxiapatita reabsorvivel comercial sintetizada Comparación de las propiedades de osteoconducción y osteointegración de una hidroxiapatita reabsorbible comercial con una hidroxiapatita reabsorbible sintetizada</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Revista Colombiana de Ciencias Pecuarias</i>, 2009 </span><br><span class="r_content">En el presente artículo se evalúan las propiedades de osteoconducción y osteointegración de una hidroxiapatita reabsorbible (OseoU), procesada a dos temperaturas diferentes de calcinación (Tipo A y Tipo B), con el propósito de compararlas con un ...</span><br><span class="r_sub"><i>Carlos D Jaramillo<span id="ma_3" style="display:none">, Jairo A Rivera, Alejandro Echavarría, Johan O'byrne, Diego Congote, Luis F Restrepo B</span>   <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_3')">+5 more</a></small></i></span><br><small><a href="https://doaj.org/article/803c2665c1c94e3b9b2f92e12ae5bb2f" target="_blank" rel="nofollow" title="doaj.org/article/803c2665c1c94e3b9b2f92e12ae5bb2f">doaj</a> </small>   <br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.18019/1028-4427-2018-24-2-252-257" target="_blank" rel="nofollow">Management of posttraumatic long bone defects in the national orthopedic practice (literature review)</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Гений oртопедии</i>, 2018 </span><br><span class="r_content">We present present-day trends in the compensation of post-traumatic defects of long bones according to the Russian literature sources. The relevance of the problem due to the growth in the number of injuries in general and in the severity of trauma is ...</span><br><span class="r_sub"><i>Alexander L. Shastov<span id="ma_4" style="display:none">, Natalia A. Kononovich, Elena N. Gorbach</span>   <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_4')">+2 more</a></small></i></span><br><small><a href="https://doaj.org/article/0d159611c2c245da8c0fe1f04d6e730f" target="_blank" rel="nofollow" title="doaj.org/article/0d159611c2c245da8c0fe1f04d6e730f">doaj</a> </small>   <div id="more_4" style="display:none"><a href="/sci_redir.php?doi=10.18019%2F1028-4427-2018-24-2-252-257" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.18019/1028-4427-2018-24-2-252-257'); alert('Copied the doi');">copy doi</a> <small>(10.18019/1028-4427-2018-24-2-252-257)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_4')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.1002/adhm.71335" target="_blank" rel="nofollow">Immunoinflammatory Mechanisms and Biocompatibility of Bioactive Dental Biomaterials: From Fundamental Insights to Clinical Translation</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Advanced Healthcare Materials, Volume 15, Issue 27, 17 July 2026.</i></span><br><span class="r_content">Surface‐host dialogue at the implant interface governs biological fate and osseointegration. Surface physicochemical properties of titanium (Ti) dental implants, including microgrooves, nanopatterns, nanotopography, roughness, and wettability, modulate the initial adsorption of proteins and the formation of a dynamic biointerface.</span><br><span class="r_sub"><i>Daniela Moreira Cunha<span id="ma_5" style="display:none">, Amanda Paino Santana, Marta Maria Alves Pereira, Mariana Martins Guerreiro, Jose Mauro Granjeiro, Jamil Awad Shibli, Jeroen J. J. P. van den Beucken, Anton Sculean, Rafael Scaf de Molon, Erica Dorigatti de Avila</span>   <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_5')">+9 more</a></small></i></span><br><small><a href="https://onlinelibrary.wiley.com/doi/10.1002/adhm.71335?mi=2or9o2m&af=R&AllField=osteoconduction&ConceptID=15941&content=articlesChapters&target=default" target="_blank" rel="nofollow" title="wiley.com/doi/10.1002/adhm.71335?mi=2or9o2m&af=R&AllField=osteoconduction&ConceptID=15941&content=articlesChapters&target=default">wiley</a> </small>   <div id="more_5" style="display:none"><a href="/sci_redir.php?doi=10.1002%2Fadhm.71335" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.1002/adhm.71335'); alert('Copied the doi');">copy doi</a> <small>(10.1002/adhm.71335)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_5')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.4103/0972-124X.115660" target="_blank" rel="nofollow">Evaluation of bioactive glass and demineralized freeze dried bone allograft in the treatment of periodontal intraosseous defects: A comparative clinico-radiographic study</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Journal of Indian Society of Periodontology</i>, 2013 </span><br><span class="r_content">Aim: The purpose of this study was to evaluate the efficacy of demineralized freeze dried bone allograft (DFDBA) and bioactive glass by clinically and radiographically in periodontal intrabony defects for a period of 12 months. Materials and Methods: Ten </span><br><span class="r_sub"><i>Kishore Kumar Katuri<span id="ma_6" style="display:none">, P Jaya Kumar, Chakrapani Swarna, D Narasimha Swamy, Kurumathur V Arun</span>   <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_6')">+4 more</a></small></i></span><br><small><a href="https://doaj.org/article/1aac5a8d94394016bc156e8c79cae61e" target="_blank" rel="nofollow" title="doaj.org/article/1aac5a8d94394016bc156e8c79cae61e">doaj</a> </small>   <div id="more_6" style="display:none"><a href="/sci_redir.php?doi=10.4103%2F0972-124X.115660" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.4103/0972-124X.115660'); alert('Copied the doi');">copy doi</a> <small>(10.4103/0972-124X.115660)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_6')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.3390/biomedicines9020143" target="_blank" rel="nofollow">Collagen-Based Matrices for Osteoconduction: A Preclinical In Vivo Study</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Biomedicines</i>, 2021 </span><br><span class="r_content">The aim of this study was to evaluate the influence of additional hydroxyapatite (HA) in collagen-based matrices (CM) and membrane placement on bone formation in calvarial defects.</span><br><span class="r_sub"><i>Hiroki Katagiri<span id="ma_7" style="display:none">, Yacine El Tawil, Niklaus P. Lang, Jean-Claude Imber, Anton Sculean, Masako Fujioka-Kobayashi, Nikola Saulacic</span>   <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_7')">+6 more</a></small></i></span><br><small><a href="https://doaj.org/article/46f498dec3ac471085e1cad4d47431de" target="_blank" rel="nofollow" title="doaj.org/article/46f498dec3ac471085e1cad4d47431de">doaj</a> </small>   <div id="more_7" style="display:none"><a href="/sci_redir.php?doi=10.3390%2Fbiomedicines9020143" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.3390/biomedicines9020143'); alert('Copied the doi');">copy doi</a> <small>(10.3390/biomedicines9020143)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_7')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.1002/adhm.71344" target="_blank" rel="nofollow">Natural Biomaterials for Osteochondral Repair: From Source to Strategy</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Advanced Healthcare Materials, Volume 15, Issue 27, 17 July 2026.</i></span><br><span class="r_content">Biological origin‐guided overview of natural biomaterials and therapeutic strategies for osteochondral tissue engineering. The circular diagram categorizes representative materials and strategies into plant/algae‐derived, microbial‐derived, animal‐derived, and human‐derived sources, centered on an osteochondral defect repair model.</span><br><span class="r_sub"><i>Hengyu Liu<span id="ma_8" style="display:none">, Hanyang Zhang, Wenbo Yang, Hao Chen, Jincheng Wang, Fei Chang</span>   <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_8')">+5 more</a></small></i></span><br><small><a href="https://onlinelibrary.wiley.com/doi/10.1002/adhm.71344?mi=2or9o2m&af=R&AllField=osteoconduction&ConceptID=15941&content=articlesChapters&target=default" target="_blank" rel="nofollow" title="wiley.com/doi/10.1002/adhm.71344?mi=2or9o2m&af=R&AllField=osteoconduction&ConceptID=15941&content=articlesChapters&target=default">wiley</a> </small>   <div id="more_8" style="display:none"><a href="/sci_redir.php?doi=10.1002%2Fadhm.71344" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.1002/adhm.71344'); alert('Copied the doi');">copy doi</a> <small>(10.1002/adhm.71344)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_8')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.1002/admt.71014" target="_blank" rel="nofollow">Bamboo Medical Application: A State‐of‐the‐Art Review</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Advanced Materials Technologies, Volume 11, Issue 14, 22 July 2026.</i></span><br><span class="r_content">This review presents a structured classification of bamboo's current use in healthcare. It organizes applications into medical textiles and medical devices, with further divisions based on function and level of invasiveness. It also examines material utilization based on bamboo's structural role, highlighting how it supports both protective and ...</span><br><span class="r_sub"><i>Haymanot Beza Lamesgin<span id="ma_9" style="display:none">, Koosje van der Stoel, Vera Popovich, Paul Breedveld</span>   <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_9')">+3 more</a></small></i></span><br><small><a href="https://onlinelibrary.wiley.com/doi/10.1002/admt.71014?mi=2or9o2m&af=R&AllField=osteoconduction&ConceptID=15941&content=articlesChapters&target=default" target="_blank" rel="nofollow" title="wiley.com/doi/10.1002/admt.71014?mi=2or9o2m&af=R&AllField=osteoconduction&ConceptID=15941&content=articlesChapters&target=default">wiley</a> </small>   <div id="more_9" style="display:none"><a href="/sci_redir.php?doi=10.1002%2Fadmt.71014" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.1002/admt.71014'); alert('Copied the doi');">copy doi</a> <small>(10.1002/admt.71014)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_9')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.1002/lsm.70126" target="_blank" rel="nofollow">Effects of Dual Wavelength Photobiomodulation on Osseointegration in Grafted Areas</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Lasers in Surgery and Medicine, Volume 58, Issue 5, Page 429-436, July 2026.</i></span><br><span class="r_content">ABSTRACT Objective This study evaluated the effects of dual‐wavelength photobiomodulation (PBMT) (infrared and red laser) on osseointegration and bone structure in areas grafted with deproteinized bovine bone (DBB). Methods Sixty‐four rats were randomly distributed into four groups. The groups were divided according to the irradiation protocol applied: </span><br><span class="r_sub"><i>Lucas de Sousa Goulart Pereira<span id="ma_10" style="display:none">, Julia Raulino Lima, Elcio Marcantonio Jr., Priscilla Barbosa Ferreira Soares, Suzane Cristina Pigossi, Guilherme José Pimentel Lopes de Oliveira</span>   <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_10')">+5 more</a></small></i></span><br><small><a href="https://onlinelibrary.wiley.com/doi/10.1002/lsm.70126?mi=2or9o2m&af=R&AllField=osteoconduction&ConceptID=15941&content=articlesChapters&target=default" target="_blank" rel="nofollow" title="wiley.com/doi/10.1002/lsm.70126?mi=2or9o2m&af=R&AllField=osteoconduction&ConceptID=15941&content=articlesChapters&target=default">wiley</a> </small>   <div id="more_10" style="display:none"><a href="/sci_redir.php?doi=10.1002%2Flsm.70126" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.1002/lsm.70126'); alert('Copied the doi');">copy doi</a> <small>(10.1002/lsm.70126)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_10')">+1 more source</a></small><br></div><div class="r"><div style="margin-bottom:2px;overflow:hidden"><div style="display: inline-block; float: left; font-size: small; padding-right: 16px; margin-top: -1px; padding-bottom: 1px;"><a href="/q-osteoinduction/" class="suggestion"onclick="show_loader();"><b>osteoinduction</b></a><br/><a href="/q-bone_regeneration/" class="suggestion"onclick="show_loader();"><b>bone regeneration</b></a><br/><a href="/q-biocompatibility/" class="suggestion"onclick="show_loader();"><b>biocompatibility</b></a><br/></div><div style="display: inline-block; float: left; font-size: small; padding-right: 16px; margin-top: -1px; padding-bottom: 1px;"><a href="/q-hydroxyapatite/" class="suggestion"onclick="show_loader();"><b>hydroxyapatite</b></a><br/><a href="/q-biomaterials/" class="suggestion"onclick="show_loader();"><b>biomaterials</b></a><br/><a href="/q-hidroxiapatita/" class="suggestion"onclick="show_loader();"><b>hidroxiapatita</b></a><br/></div><div style="display: inline-block; float: left; font-size: small; padding-right: 16px; margin-top: -1px; padding-bottom: 1px;"><a href="/q-osseointegration/" class="suggestion"onclick="show_loader();"><b>osseointegration</b></a><br/><a href="/q-osteogenesis/" class="suggestion"onclick="show_loader();"><b>osteogenesis</b></a><br/><a href="/q-tissue_engineering/" class="suggestion"onclick="show_loader();"><b>tissue engineering</b></a><br/></div></div></div><div class="pagenav"><a href="/q-osteoconduction/p-4/" rel="nofollow"><b>previous</b></a>   <a href="/q-osteoconduction/p-3/" rel="nofollow">3</a>  <a href="/q-osteoconduction/p-4/" rel="nofollow">4</a>  <b>5</b>  <a href="/q-osteoconduction/p-6/" rel="nofollow">6</a>  <a href="/q-osteoconduction/p-7/" rel="nofollow">7</a>   <a href="/q-osteoconduction/p-6/" id="next" rel="nofollow"><b>next</b></a> </div><br></div> </div> <script>document.getElementById('loadingGif').style.display='none';</script><div style="width: 100%; height: 40px; bottom: 0px; background-color: #f5f5f5;"><div style="padding-left: 15px; padding-top: 10px"> <a href="/" rel="nofollow">Home</a> - <a href="/page-about/" rel="nofollow">About</a> - <a href="/page-disclaimer/" rel="nofollow">Disclaimer</a> - <a href="/page-privacy/" rel="nofollow">Privacy</a> </div></div> <link rel="stylesheet" href="//ajax.googleapis.com/ajax/libs/jqueryui/1.11.4/themes/smoothness/jquery-ui.min.css"/> <script> (function(ss,ex){ window.ldfdr=window.ldfdr||function(){(ldfdr._q=ldfdr._q||[]).push([].slice.call(arguments));}; (function(d,s){ fs=d.getElementsByTagName(s)[0]; function ce(src){ var cs=d.createElement(s); cs.src=src; cs.async=1; fs.parentNode.insertBefore(cs,fs); }; ce('https://sc.lfeeder.com/lftracker_v1_'+ss+(ex?'_'+ex:'')+'.js'); })(document,'script'); })('JMvZ8gvrWA9a2pOd'); </script> </body> </html>