RSC发布的博客 网址://www.xcmww.com 周一,2016年12月5日14:24:14+0000 https://wordpress.org/?V= 4.9 可持续能源和燃料现已开放供提交。 //www.xcmww.com/se/2016/12/05/sustainable-energy-fuels-is-now-open-for-submissions/ //www.xcmww.com/se/2016/12/05/Sustainable Energy Fuels现已开放供提交/评论 周一,2016年12月5日14:24:14+0000 罗瑟琳塞尔 //www.xcmww.com/se/2016/12/05/sustainable-energy-fuels-is-now-open-for-submissions/ <a href=“http://www.rsc.org/journals books databases/about journals/sustainable energy fuels/”><em>sustainable energy&fuels<em>>a>will publish research that contributions to the development of sustainable energy technologies with a special emphasis on new and next-generation technologies所有提交的稿件将由我们的国际助理编辑团队处理,我们很高兴在下面介绍。<hr/><a href=“http://www.ehcc.kyo-u.ac.jp/eh41/home/abe/en/profile/”><strong>ryu abe,京都大学,日本用于太阳能转换和环境净化的半导体材料。他的专长包括光催化,半导体,无机材料,金属氧化物,电催化材料方面,光电分析,以及电池技术的一些方面。<strong><a href=“http://www.solhycat.com/”>vince=<a><strong><a href=“http://www.solhycat.com/”>nt artero,格勒诺布尔阿尔卑斯大学,CNRS,癌胚抗原法国阿泰罗教授致力于开发生物催化剂和光驱动系统,用于氢进化和人工光合作用。他在电催化的分子和生物方面有专长,光催化和相关的有机金属和无机化学。<strong><a href=“http://www.nrel.gov/ab新利手机客户端out/rumbles.html”>Garry Rumbles,国家能源研究实验室和铜博尔德,美国Rumbles目前的研究方向是太阳能,重点是聚合物纳米结构界面中的太阳能光转换过程和光诱导电子转移过程的基础科学。新利手机客户端他的主要研究专长是光化学和光物理。新利手机客户端有动力学方面的专长,以及有机物,光伏发电,太阳能燃料(也有氧化物)光化学和物新利手机客户端理化学。<strong><a href=“http://www.incar.csic.es/porosos/members”>marta sevilla,国家碳水化合物研究所西班牙电还原反应,阳极氢氧化,碳捕获和存储。<a href=“https://mc.manuscriptcentral.com/se”><a><hr/><a href=“https://mc.manuscriptcentral.com/se”>今日向我们发送您的高质量研究报告</a>for the chance to be included in our high-profile first issue,2017年春季在线发布,最早于今年12月提前发布文章。<a href=“http://www.rsc.org/journals books databases/about journals/sustainable energy fuels”>了解更多信息。 <a href=“http://www.rsc.org/journals books databases/about journals/sustainable energy fuels/”><em>sustainable energy&fuels<em>>a>will publish research that contributions to the development of sustainable energy technologies with a special emphasis on new and next-generation technologies所有提交的稿件将由我们的国际助理编辑团队处理,我们很高兴在下面介绍。<hr/><a href=“http://www.ehcc.kyo-u.ac.jp/eh41/home/abe/en/profile/”><strong>ryu abe,京都大学,日本用于太阳能转换和环境净化的半导体材料。他的专长包括光催化,半导体,无机材料,金属氧化物,电催化材料方面,光电分析,以及电池技术的一些方面。<strong><a href=“http://www.solhycat.com/”>vince=<a><strong><a href=“http://www.solhycat.com/”>nt artero,格勒诺布尔阿尔卑斯大学,CNRS,癌胚抗原法国阿泰罗教授致力于开发生物催化剂和光驱动系统,用于氢进化和人工光合作用。他在电催化的分子和生物方面有专长,光催化和相关的有机金属和无机化学。<strong><a href=“http://www.nrel.gov/ab新利手机客户端out/rumbles.html”>Garry Rumbles,国家能源研究实验室和铜博尔德,美国Rumbles目前的研究方向是太阳能,重点是聚合物纳米结构界面中的太阳能光转换过程和光诱导电子转移过程的基础科学。新利手机客户端他的主要研究专长是光化学和光物理。新利手机客户端有动力学方面的专长,以及有机物,光伏发电,太阳能燃料(也有氧化物)光化学和物新利手机客户端理化学。<strong><a href=“http://www.incar.csic.es/porosos/members”>marta sevilla,国家碳水化合物研究所西班牙电还原反应,阳极氢氧化,碳捕获和存储。<a href=“https://mc.manuscriptcentral.com/se”><a><hr/><a href=“https://mc.manuscriptcentral.com/se”>今日向我们发送您的高质量研究报告</a>for the chance to be included in our high-profile first issue,2017年春季在线发布,最早于今年12月提前发布文章。<a href=“http://www.rsc.org/journals books databases/about journals/sustainable energy fuels”>了解更多信息。 //www.xcmww.com/se/2016/12/05/sustainable-energy-fuels-is-now-open-for-submissions/feed/ 量化英国碳减排潜力 //www.xcmww.com/em/2016/12/05/quantifying-uk-carbon-reduction-potential/ //www.xcmww.com/em/2016/12/05/Quantifying UK Carbon Reduction Potential/评论 周一,2016年12月5日12:39:07+0000 //www.xcmww.com/em/2016/12/05/quantifying-uk-carbon-reduction-potential/ 2016年将成为有史以来最热的一年,全球变暖在新闻中从未如此突出。研究人员发现,科学可行的碳捕获和减排技术<a href=“http://pubs.rsc.org/en/content/articlelanding/2016/em/c6em00386a”>可以将英国的碳足迹减少8–32%.<a>。今年,英国签署了巴黎气候协议,其目的是将全球温度升高限制在低于工业前温度的2°C。开始满足本协议的一种方法是英国通过使用负排放技术(nets)实现净零二氧化碳排放,包括直接从空气中捕获二氧化碳的方法,或在从化石燃料排放物中释放二氧化碳之前,植树造林,加速自然地质风化,去除大气中的二氧化碳,改变农业做法和土地利用,以生物炭的形式结合二氧化碳。土地,针对不同负排放技术的海洋和地质水库。资料来源:©皇家化学学会”]<img src=“htt新利手机客户端ps://www.chemistryworld.com/pictures/480xmany/7/3/3/113733_c6em0036a-carbon-capture-in-the-uk.jpg”alt=“negative emission technologies”width=“480”height=“518”/>[/caption]<div><a href=“https://www.abdn.ac.uk/sbs/people/profiles/pete.smith”>pete smith<a>,来自阿伯丁大学,英国同事们评估了英国的网络对降低该国二氧化碳排放水平的影响。史密斯的团队发现,如果英国实施了所有可能的网络,无论其技术可行性如何,它将使当前的排放量减少8-32%。然而,可实现的这种潜力的实际比例可能小于此比例;成本等因素,能源需求,环境影响和公众接受都会影响这些技术的生存能力。<em>请阅读<a href=“https://www.chemistry world.com/news/quantifying uk carbon reduction potential/25000新利手机客户端70.article”>full article<a>in<strong>chemistry world.<em><em><hr/><div id=“\u mcepaste”><a href=“http://pubs.rsc.org/en/content/articlepdf/2016/em/c6em00386a“>初步评估,以及对英国的地面负排放技术R.Stuart Haszeldine和Stephen M.史密斯<<div id=“_mcepaste”><em><strong><a href=“http://pubs.rsc.org/en/journals/journalissues/em”!recentarticles&adv“>环境。SCI.:过程影响2016,181400-1405<div><div id=“_mcepaste”><strong>doi:<strong>10.1039/c6em00386a<div> 2016年将成为有史以来最热的一年,全球变暖在新闻中从未如此突出。研究人员发现,科学可行的碳捕获和减排技术<a href=“http://pubs.rsc.org/en/content/articlelanding/2016/em/c6em00386a”>可以将英国的碳足迹减少8–32%.<a>。今年,英国签署了巴黎气候协议,其目的是将全球温度升高限制在低于工业前温度的2°C。开始满足本协议的一种方法是英国通过使用负排放技术(nets)实现净零二氧化碳排放,包括直接从空气中捕获二氧化碳的方法,或在从化石燃料排放物中释放二氧化碳之前,植树造林,加速自然地质风化,去除大气中的二氧化碳,改变农业做法和土地利用,以生物炭的形式结合二氧化碳。土地,针对不同负排放技术的海洋和地质水库。资料来源:©皇家化学学会”]<img src=“htt新利手机客户端ps://www.chemistryworld.com/pictures/480xmany/7/3/3/113733_c6em0036a-carbon-capture-in-the-uk.jpg”alt=“negative emission technologies”width=“480”height=“518”/>[/caption]<div><a href=“https://www.abdn.ac.uk/sbs/people/profiles/pete.smith”>pete smith<a>,来自阿伯丁大学,英国同事们评估了英国的网络对降低该国二氧化碳排放水平的影响。史密斯的团队发现,如果英国实施了所有可能的网络,无论其技术可行性如何,它将使当前的排放量减少8-32%。然而,可实现的这种潜力的实际比例可能小于此比例;成本等因素,能源需求,环境影响和公众接受都会影响这些技术的生存能力。<em>请阅读<a href=“https://www.chemistry world.com/news/quantifying uk carbon reduction potential/25000新利手机客户端70.article”>full article<a>in<strong>chemistry world.<em><em><hr/><div id=“\u mcepaste”><a href=“http://pubs.rsc.org/en/content/articlepdf/2016/em/c6em00386a“>初步评估,以及对英国的地面负排放技术R.Stuart Haszeldine和Stephen M.史密斯<<div id=“_mcepaste”><em><strong><a href=“http://pubs.rsc.org/en/journals/journalissues/em”!recentarticles&adv“>环境。SCI.:过程影响2016,181400-1405<div><div id=“_mcepaste”><strong>doi:<strong>10.1039/c6em00386a<div> //www.xcmww.com/em/2016/12/05/quantifying-uk-carbon-reduction-potential/feed/ 生物学中的金属 //www.xcmww.com/mt/2016/12/05/metals-in-biology/ //www.xcmww.com/mt/2016/12/05/metals in biology/评论 周一,2016年12月5日12:22:41+0000 基尔·霍林斯沃斯 //www.xcmww.com/mt/2016/12/05/metals-in-biology/ <p style=“text-align:center”><strong>The 2017<a href=“https://www.grc.org/programs.aspx”?ID=11622“>生物金属会议将于1月22日至27日举行,在文图拉,California</strong><p><p style=“text-Align:Center”><strong><em>“The mib-grc comes together scientists from diversity backgrounds to foster new collaborations that take advantage of competitive skills.2017年MIB-GRC讲座涵盖了我们对金属蛋白和金属/核酸复合物在细胞信号传导中作用的最新理解,金属离子调节,及其对人类健康的影响;金属的生物化学从地球的过去发展到现在的环境,新利手机客户端以金属为中心的各种金属酶催化,包括那些在全球氢循环中至关重要的物质,氮,和氧气。“<em><strong><p><p style=“text-align:center”><strong>if you are coming to the conference,那么为什么不来和我们聊天呢?<em><a href=“http://www.rsc.org/journals books databases/about journals/metalmmics/”>metalmmics<a>>em>执行编辑Philippa Hughes</strong><p style=“text-align:center”><a href=“//www.xcmww.com/mt/files/2016/12/profilepic.jpg”><img class=“AlignCenter size full wp-image-3962”title=“profilepic”src=“//www.xcmww.com/mt/files/2016/12/profilepic.jpg“alt=”width=“200”height=“200”/>=<a><strong><p><p style=“text-Align:Center”><strong>Philippa Ross.<strong>,执行编辑,<em>metallimic<em>s<p><p style=“text-align:center”>You can find out more about the metallics in biology conference<a href=“https://www.grc.org/programs.aspx?id=11622“>此处 <p style=“text-align:center”><strong>The 2017<a href=“https://www.grc.org/programs.aspx”?ID=11622“>生物金属会议将于1月22日至27日举行,在文图拉,California</strong><p><p style=“text-Align:Center”><strong><em>“The mib-grc comes together scientists from diversity backgrounds to foster new collaborations that take advantage of competitive skills.2017年MIB-GRC讲座涵盖了我们对金属蛋白和金属/核酸复合物在细胞信号传导中作用的最新理解,金属离子调节,及其对人类健康的影响;金属的生物化学从地球的过去发展到现在的环境,新利手机客户端以金属为中心的各种金属酶催化,包括那些在全球氢循环中至关重要的物质,氮,和氧气。“<em><strong><p><p style=“text-align:center”><strong>if you are coming to the conference,那么为什么不来和我们聊天呢?<em><a href=“http://www.rsc.org/journals books databases/about journals/metalmmics/”>metalmmics<a>>em>执行编辑Philippa Hughes</strong><p style=“text-align:center”><a href=“//www.xcmww.com/mt/files/2016/12/profilepic.jpg”><img class=“AlignCenter size full wp-image-3962”title=“profilepic”src=“//www.xcmww.com/mt/files/2016/12/profilepic.jpg“alt=”width=“200”height=“200”/>=<a><strong><p><p style=“text-Align:Center”><strong>Philippa Ross.<strong>,执行编辑,<em>metallimic<em>s<p><p style=“text-align:center”>You can find out more about the metallics in biology conference<a href=“https://www.grc.org/programs.aspx?id=11622“>此处 //www.xcmww.com/mt/2016/12/05/metals-in-biology/feed/ CellMatrix海报奖得主 //www.xcmww.com/ib/2016/12/02/cellmatrix-paster-prize-winners/ //www.xcmww.com/ib/2016/12/02/cellmatrix海报奖得主/评论 FRI,2016年12月2日15:23:45+0000 米娜·罗塞诺娃,开发编辑 //www.xcmww.com/ib/2016/12/02/cellmatrix-paster-prize-winners/ [caption id=“attachment1835”align=“AlignLeft”width=“270”caption=“The CellMatrix海报奖得主:Lakshmi Kavitha Sthanam(左)和Asja Guzman(右)”<a href=“//www.xcmww.com/ib/files/2016/12/winners.png”><img class=“size medium wp-image-1835”title=“winners”src=“//www.xcmww.com/ib/files/2016/12/winners-300x156.png“alt=”width=“270”height=“140”/>=/a>[/caption]<span style=“font-family:Arial,海尔维提卡sans-serif“>非常祝贺<strong>Lakshmi Kavitha Sthanam(iit Bombay)and<strong>Asja Guzman(哥伦比亚大学)on winning the海报奖品at the<a href=“http://www.nanoge.org/cell matrix/index.php”>International Conference on New Advances in Probing Cell Extracell Matrix Interactions(CellMatrix).<a>。<em><a href=“http://www.rsc.org/journals books databases/about journals/integration biology/”>integration biology</a><em><em>was the pured sponsor of these poster graphies and the winners received book pounders and royal society of chemi新利手机客户端stry certificates.<span><span style=“font-family:Arial,海尔维提卡sans-serif“>海尔维提卡无衬线“>本次会议在柏林举行,德国从20海尔维提卡sans-serif“><sup>th<sup><span><span style=“font-family:Arial,海尔维提卡sans-serif“>到21海尔维提卡无衬线“>10月,并着重介绍了新的实验工具和技术在探测细胞外基质相互作用中的应用。课程涵盖了广泛的主题,包括机械力生物学和细胞外基质可视化方法。请访问会议网站海尔维提卡sans-serif“>有关主题和扬声器的详细信息。<span><span style=“font-family:Arial,海尔维提卡sans-serif“>海尔维提卡sans-serif“><strong>many恭喜您取得了这项成就,您可以从中获得<strong><span><span><p> [caption id=“attachment1835”align=“AlignLeft”width=“270”caption=“The CellMatrix海报奖得主:Lakshmi Kavitha Sthanam(左)和Asja Guzman(右)”<a href=“//www.xcmww.com/ib/files/2016/12/winners.png”><img class=“size medium wp-image-1835”title=“winners”src=“//www.xcmww.com/ib/files/2016/12/winners-300x156.png“alt=”width=“270”height=“140”/>=/a>[/caption]<span style=“font-family:Arial,海尔维提卡sans-serif“>非常祝贺<strong>Lakshmi Kavitha Sthanam(iit Bombay)and<strong>Asja Guzman(哥伦比亚大学)on winning the海报奖品at the<a href=“http://www.nanoge.org/cell matrix/index.php”>International Conference on New Advances in Probing Cell Extracell Matrix Interactions(CellMatrix).<a>。<em><a href=“http://www.rsc.org/journals books databases/about journals/integration biology/”>integration biology</a><em><em>was the pured sponsor of these poster graphies and the winners received book pounders and royal society of chemi新利手机客户端stry certificates.<span><span style=“font-family:Arial,海尔维提卡sans-serif“>海尔维提卡无衬线“>本次会议在柏林举行,德国从20海尔维提卡sans-serif“><sup>th<sup><span><span style=“font-family:Arial,海尔维提卡sans-serif“>到21海尔维提卡无衬线“>10月,并着重介绍了新的实验工具和技术在探测细胞外基质相互作用中的应用。课程涵盖了广泛的主题,包括机械力生物学和细胞外基质可视化方法。请访问会议网站海尔维提卡sans-serif“>有关主题和扬声器的详细信息。<span><span style=“font-family:Arial,海尔维提卡sans-serif“>海尔维提卡sans-serif“><strong>many恭喜您取得了这项成就,您可以从中获得<strong><span><span><p> //www.xcmww.com/ib/2016/12/02/cellmatrix-paster-prize-winners/feed/ 月刊:1便士铜币催化丙烯酸酯的set-lrp //www.xcmww.com/py/2016/12/02/paper-of-the-month-set-lrp-of-acrylates-catalysted-by-a-1-penny-copper-coin/ //www.xcmww.com/py/2016/12/02/paper-of-the-month-set-lrp-of-acrylates-catalysted-by-a-1-penny-copper-coin/评论 FRI,2016年12月2日13:20:20+0000 阿提娜·阿纳斯塔萨基,网络作家 //www.xcmww.com/py/2016/12/02/paper-of-the-month-set-lrp-of-acrylates-catalysted-by-a-1-penny-copper-coin/ <a href=“http://pubs.rsc.org/en/content/articlelanding/2016/py/c6py01295g!divabstract“target=”_blank“>aksakal<em>et al.<em>>a>report the cu(0)-mediated live radial polymation of acrylates using a british penny coin.<a href=“http://pubs.rsc.org/en/content/articlelanding/2016/py/c6py01295g!divAbstract“target=”\u blank“><img class=“AlignCenter”title=“paper of the month december 2016”src=“//www.xcmww.com/py/files/2016/12/paper-of-the-month-dec16.jpg”alt=“”width=“450”height=“auto”/></a>cu(0)-介导活性自由基聚合,通常称为单电子转移活性自由基聚合(set-lrp)。是合成先进材料的通用工具。<a href=“http://www.becergroup.sems.qmul.ac.uk/”target=“_blank”>becer<a>和<a href=“http://www.sbcs.qmul.ac.uk/staff/marinaresmini.html”target=“_blank”>resmini<a>通过报告Penny铜币催化的丙烯酸盐的set-lrp进一步强调了这种多功能性。令人印象深刻的是,广泛的疏水性和亲水性单体成功地聚合,得到了定义明确的低分散性聚合物。近定量转换和高端群体功能。该系统的范围随后扩大到包括通过核心第一方法合成星形聚合物。有趣的是,作者使用了两种硬币,第一个(1971-1992年发行)含铜97%,第二个(1992年发行)含铜6%。两种硬币的聚合结果几乎相同。还进行了一系列针对不同聚合度的聚合反应。对分子量分布都进行了很好的控制。与传统的铜(0)线系统相比,英国硬币还有一个额外的优点,就是禁止诱导期,这通常在许多set-lrp反应中观察到。最后,这些聚合的可扩展性高达50克规模也很成功,因此证明了一个经济的,高效易用的催化剂,用于各种丙烯酸单体的set-lrp。<code>><code>><code>><code>><strong>tips/comments directly from the authors:<strong>><strong>comments:<strong>in this study,我们提供了直接证据,证明传统使用的铜(0)线可以用铜币代替,不管发行年份如何。为了避免任何诱导期,此方法可用于合成具有线性和星形引发剂的定义明确的丙烯酸酯聚合物。<code><code><code><strong>tips:<strong><ol><li>因为硬币通常由于之前的循环而受到污染,为了重现性的目的,我们建议在聚合前用新制备的HCl快速冲洗。1992年前后发行的硬币的聚合结果几乎相同。然而,1992年后发行的硬币由94%的钢制成,具有磁性。因此,应考虑到磁力搅拌器偶尔会脱离轴。因此,我们建议使用窄而长的Schlenk管,以避免聚合混合物的任何飞溅。<li>由于聚合混合物的反应性,应立即稀释NMR和GPC的样品,以避免在动力学取样过程中出现错误。<li>单体抑制剂可通过穿过碱性氧化铝塞轻松去除。由于oega的高粘度<sub>480</sub>单体,较大的体积可以在挥发性溶剂中稀释以降低粘度。溶剂的蒸发将提供无抑制剂单体。<li><ol><strong>阅读此令人兴奋的研究for free strong>until 25/11/2016 through<a href=“http://pubs.rsc.org/en/account/register”target=“_blank”>a registered rsc account<a>:<a href=“http://pubs.rsc.org/en/content/articlelanding/2016/py/c6py01295g!divabstract“target=”ou blank“><strong>set-lrp of acrylates catalysted by a 1 penny copper coin.<strong><a>r.阿克萨卡尔,MResmini和C.R.Becer<strong><em>polym.化学。<em><strong><strong><em>,2016年7号,6564-6569doi:10.1039/c6py01295g-----<span style=“text-decoration:underline”>about the webwriter<span><a href=“//www.xcmww.com/py/files/2016/06/athina_0.png”><img class=“alignright”title=“athina anastasaki”src=“//www.xcmww.com/py/files/2016/06/athina_0.png”alt=“athina anastasaki”width=“90”height=“98”/>.<p style=“tex”T-Align:justify“>dr.<a href=“https://www.cnsi.ucsb.edu/resources/funding/elings prize/fellows/anastasaki”>athina anastasaki<a>is a web writer for<em>polymer che新利手机客户端mistry<em>。她目前是一名埃林斯研究员,与加州大学教授克雷格·霍克一起工作,圣巴巴拉(UCSB)。请访问<a href=“http://www.haddleton.org/users/athina anastasaki”>this website</a>for more information.<p> <a href=“http://pubs.rsc.org/en/content/articlelanding/2016/py/c6py01295g!divabstract“target=”_blank“>aksakal<em>et al.<em>>a>report the cu(0)-mediated live radial polymation of acrylates using a british penny coin.<a href=“http://pubs.rsc.org/en/content/articlelanding/2016/py/c6py01295g!divAbstract“target=”\u blank“><img class=“AlignCenter”title=“paper of the month december 2016”src=“//www.xcmww.com/py/files/2016/12/paper-of-the-month-dec16.jpg”alt=“”width=“450”height=“auto”/></a>cu(0)-介导活性自由基聚合,通常称为单电子转移活性自由基聚合(set-lrp)。是合成先进材料的通用工具。<a href=“http://www.becergroup.sems.qmul.ac.uk/”target=“_blank”>becer<a>和<a href=“http://www.sbcs.qmul.ac.uk/staff/marinaresmini.html”target=“_blank”>resmini<a>通过报告Penny铜币催化的丙烯酸盐的set-lrp进一步强调了这种多功能性。令人印象深刻的是,广泛的疏水性和亲水性单体成功地聚合,得到了定义明确的低分散性聚合物。近定量转换和高端群体功能。该系统的范围随后扩大到包括通过核心第一方法合成星形聚合物。有趣的是,作者使用了两种硬币,第一个(1971-1992年发行)含铜97%,第二个(1992年发行)含铜6%。两种硬币的聚合结果几乎相同。还进行了一系列针对不同聚合度的聚合反应。对分子量分布都进行了很好的控制。与传统的铜(0)线系统相比,英国硬币还有一个额外的优点,就是禁止诱导期,这通常在许多set-lrp反应中观察到。最后,这些聚合的可扩展性高达50克规模也很成功,因此证明了一个经济的,高效易用的催化剂,用于各种丙烯酸单体的set-lrp。<code>><code>><code>><code>><strong>tips/comments directly from the authors:<strong>><strong>comments:<strong>in this study,我们提供了直接证据,证明传统使用的铜(0)线可以用铜币代替,不管发行年份如何。为了避免任何诱导期,此方法可用于合成具有线性和星形引发剂的定义明确的丙烯酸酯聚合物。<code><code><code><strong>tips:<strong><ol><li>因为硬币通常由于之前的循环而受到污染,为了重现性的目的,我们建议在聚合前用新制备的HCl快速冲洗。1992年前后发行的硬币的聚合结果几乎相同。然而,1992年后发行的硬币由94%的钢制成,具有磁性。因此,应考虑到磁力搅拌器偶尔会脱离轴。因此,我们建议使用窄而长的Schlenk管,以避免聚合混合物的任何飞溅。<li>由于聚合混合物的反应性,应立即稀释NMR和GPC的样品,以避免在动力学取样过程中出现错误。<li>单体抑制剂可通过穿过碱性氧化铝塞轻松去除。由于oega的高粘度<sub>480</sub>单体,较大的体积可以在挥发性溶剂中稀释以降低粘度。溶剂的蒸发将提供无抑制剂单体。<li><ol><strong>阅读此令人兴奋的研究for free strong>until 25/11/2016 through<a href=“http://pubs.rsc.org/en/account/register”target=“_blank”>a registered rsc account<a>:<a href=“http://pubs.rsc.org/en/content/articlelanding/2016/py/c6py01295g!divabstract“target=”ou blank“><strong>set-lrp of acrylates catalysted by a 1 penny copper coin.<strong><a>r.阿克萨卡尔,MResmini和C.R.Becer<strong><em>polym.化学。<em><strong><strong><em>,2016年7号,6564-6569doi:10.1039/c6py01295g-----<span style=“text-decoration:underline”>about the webwriter<span><a href=“//www.xcmww.com/py/files/2016/06/athina_0.png”><img class=“alignright”title=“athina anastasaki”src=“//www.xcmww.com/py/files/2016/06/athina_0.png”alt=“athina anastasaki”width=“90”height=“98”/>.<p style=“tex”T-Align:justify“>dr.<a href=“https://www.cnsi.ucsb.edu/resources/funding/elings prize/fellows/anastasaki”>athina anastasaki<a>is a web writer for<em>polymer che新利手机客户端mistry<em>。她目前是一名埃林斯研究员,与加州大学教授克雷格·霍克一起工作,圣巴巴拉(UCSB)。请访问<a href=“http://www.haddleton.org/users/athina anastasaki”>this website</a>for more information.<p> //www.xcmww.com/py/2016/12/02/paper-of-the-month-set-lrp-of-acrylates-catalysted-by-a-1-penny-copper-coin/feed/ 欢迎来到第一期的材料化学前沿!新利手机客户端 //www.xcmww.com/qm/2016/12/02/welcome-to-the-initial-issue-of-materials-ch新利手机客户端emistry-frontiers/ //www.xcmww.com/qm/2016/12/02/Welcome to the initial issue of Materials Ch新利手机客户端emistry Frontiers/Comments FRI,2016年12月2日12:04:44+0000 刘文军副主编 //www.xcmww.com/qm/2016/12/02/welcome-to-the-initial-issue-of-materials-ch新利手机客户端emistry-frontiers/ <table style=“text-align:center;width:686px”border=“0”><tbody><tr><td style=“background color:006400”><span style=“font-size:medium”><span style=“color:ffffff”><strong>欢迎来到材料化学前沿的首次发行!<strong>><span>><span>><td>><tr>><td新利手机客户端 style=“background color:006400;text-align:center”><span style=“color:ffffff”><span style=“font-size:medium”>all content is now free to read.<span>><td>><tr>><tbody>><table>><p style=“text-align:center”><span style=“font-size:small”><span>><table style=“text-align:center;width:644px;hei右:222px“border=”0“><tbody><tr style=”text-align:left“><td><p style=”text-align:center“><span style=”font-size:small“><a href=”//www.xcmww.com/qm/files/2016/12/front cover.png“><img class=”size full wp-image-246 align center“title=”front cover“src=”//www.xcmww.com/qm/files/2016/12/front-cover.png“alt=”width=“150”height=“196”/><a><span style=“font-size:small”><span><p><td><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2017/qm/c6qm00158k”target=“_blank”><span style=“font-size:small”><span style=“color:808080”><strong><em>front cover:<em><strong><span><a><span style=“font-size:small”><span><span style=“font-size:small”><span style=“color:808080”><em>见小鹏和,托尼D杰姆斯等人,第61–64.经Tony D许可复制的图像。来自马特的詹姆斯。化学。前面。2017,1,61.<em><span><span><td><span style=“font-size:small”><span><td><p style=“text-align:center”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/inside cover.png”><img class=“size full wp-image-247 align center”title=“inside cover”src=“//www.xcmww.com/qm/files/2016/12/inside-cover.png”alt=“”width=“150”height=“196”/>=<a><span><span style=“font-size:small”><span><p><td><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2017/qm/c6qm00144k”><span style=“font-size:small”><span style=“color:808080”><strong><em>inside cover:<em><strong><span><a><span style=“font-size:small”><span><span style=“font-size:small”><span style=“color:808080”><em>参见h。G.赵a.呕吐疹,f.Rosii等人,第65–72.经F.许可复制的图像。来自Mater的Navarro Pardo。化学。前面。2017,1,65.<em><span><span><td><tr><tbody><table><p style=“text-align:center”><span style=“font-size:small”><span><p style=“text-align:left”><span style=“font-size:small”>“<span style=“color:003366”><em>The launch of materials chemistry frontiers新利手机客户端 is the result of a joint venture between the chinese chemical society and the royal society化学,由中国科学院化学研究所资助…新利手机客户端新利手机客户端……顾名思义,材料化学前沿的目标是新利手机客户端在材料研究前沿发表具有重大影响的高质量工作。该杂志以合作精神鼓励多学科研究。重点将放在概念性的新研究上,这些新研究可能改变我们的思维方式……<em><span>“said by editor in chief<strong>ben zhong tang<strong>in his edition”<strong><a href=“http://pubs.rsc.org/en/content/articlehtml/2017/qm/c6qm90001a?page=search“>推动材料研究的前沿<“a>”<strong>(<em>mater.化学。前</EM>2017,1,10-11)。<span><p style=“text-Align:Left”><span style=“font-size:small”><span><p style=“text-Align:Left”><span style=“font-size:small”>we enVision<em>materials chemistry fronti新利手机客户端ers</em>to be the to p level journal that bring the best materials research from china,亚洲和世界其他地区的观众。我们恳请您通过您在这一动态研究领域的高质量提交和贡献来支持期刊。<span><p style=“text-Align:Left”><span style=“font-size:small”><span><p style=“text-Align:Left”><span style=“font-size:small”>We're confidence the quality and diversity of the journal content speak fo他们自己,因此–<em>在第1卷和第2卷中发布的所有文章在注册时都可以自由访问––我们邀请您自己决定。享受阅读!<span><p><table style=“text-align:center;width:688px;height:29px”border=“0”><tbody><tr><td style=“text-align:center;background color:006400”><strong><span style=“font-size:medium”><span style=“color:ffffff”>higligjts from issue 1 of materials chemistry frontiers.<新利手机客户端span><strong><td><tr><tbody><table style=“text-align:中心;宽度:687px;高度:1105px“border=”0“cellspacing=”0“cellpadding=”0“><tbody><tr><td style=”height:29px“><td><td><td><tr><tr style=”text-align:left“><td width=”383“valign=”top“><span style=”font-size:small“><strong><a href=”http://pubs.rsc.org/en/content/articlelanding/2017/qm/c6qm90001a“>pushing the frontiers of materials research.<a><strong><span style=“color:诳888888”><span style=“font-size:small”>Ben Zhong Tang.<span><span style=“color:诳888888”><span style=“font-size:small”><span><span style=“color:诳8888”><span style=“font-size:small”><strong><em>mater.化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,10-11</span><span style=“font-size:small”><span style=“font-size:small”>Ben Zhong Tang,总编辑,介绍<em>Materials Chemistry Frontiers的首次发行<em><span>新利手机客户端<td><td width=“233”valign=“top”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/mcf1241x378px_at-res_381px_white-base-and-mark.jpg”><img class=“size full wp-image-258 AlignCenter”title=“mcf1241x378px_at res381px_white base andmark”src=“http://bloblog.rsc.org/qm/file/2016/12/mcf-1241x378pxat-res381pxU白色-base-and-mark.jpg”alt=“”wid=“241”he高=“74”/>>>>>span><span><td>><tr><<tr><td<<td宽度=“442”valign=“top“><p style=“文本校准:左“><span style=“font大小:小“><a a href http://pubs.rsc.org/en/内容/文章着陆/2017/2017/QM/C6QM90090090090090002j“><<<<<www www www www www www www www www www www www/qm/cQM90090090090090090090090090002j“STRONG>会见社论材料化学前沿委员会和咨询委员会化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,12-23</span><span style=“font-size:small”><span><p style=“text-align:left”><span style=“font-size:small”>a massive thank you to all our editional board and advisory board members!<span><p><td><td width=“174”valign=“top”><p style=“text-Align:Center”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/meet eab.gif”><img class=“AlignCenter size full wp-image-264”title=“meet eab”src=“//www.xcmww.com/qm/files/2016/12/meet-eab.gif”alt=“”width=“249”height=“132”/>=<a><span><p><td><trtr><td width=“442”valign=“top”><p style=“text-align:left”><span style=“font-size:small”><strong><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2017/qm/c6qm00158k”>低维材料促进氟源性硼酸和糖类之间的结合</a><strong><span><p style=“text-align:left”><span style=“coloR:888888“><span style=“font-size:small”>Shi Guo,杰晨毕颖彩陈文文,于飞丽孙小龙,陈国荣,何小鹏和东尼。James</span><span><p><span style=“color:诳888888”><span style=“font-size:small”><span><p style=“text-align:left”><span style=“color:诳888888”><span style=“font-size:small”><strong><em>mater.化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,61-64</span><span><p><span style=“font-size:small”><span><p style=“text-Align:left”><span style=“font-size:small”>The cover story shows that low dimensional materials enhance the concogation between fluorogenic phenylboronic acids and糖类。<span><p><td><td width=“174”valign=“top”><p style=“text-align:center“><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/front-cover-ga.gif”><img class=“AlignCenter size full wp-image-265”title=“front cover-ga”src=“//www.xcmww.com/qm/files/2016/12/front-cover-ga.gif”alt=“”width=“272”height=“170”/><a><span><td><tr><td width=“442”valign=“top”><p style=“tex”T-Align:Left“><strong><span style=“font-size:small”><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2017/qm/c6qm00144k”>nanoffiber-supported的CUS nanoplatelets as high efficiency counter electors for quantum dot-based光电化学氢production</a><span><strong><p style=“text-Align:Left”><span style=“color:888888“><span style=“font-size:small”>f.Navarro PardoL.靳R.阿迪卡里X。用钳子钳起,D.BenettiK巴苏S.VankaH.G.赵Z.T惯性矩,S.H.太阳v.诉MCastanoa.皮涅罗和F.Rosei<span><span><span style=“color:诳888888”><span><p style=“text-align:left”><span style=“color:诳888888”><span style=“font-size:small”><strong><em>mater.化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,65-72</span><p><p style=“text-align:left”><span style=“font-size:small”>in the inside cover story,开发了一种基于硫化铜/聚合物纳米纤维的混合反电极,用于高效和稳定的光电化学制氢。<span><p><td><td width=“174”valign=“top”><p style=“text-Align:Center”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/inside-cover-ga.gif”><img class=“Aligncenter size full wp-image-266“title=”inside cover ga“src=”//www.xcmww.com/qm/files/2016/12/inside-cover-ga.gif“alt=”width=“272”height=“135”/>.<a>>.<span><td><tr><td width=“442”valign=“top”><p style=“text-align:left”><strong><span style=“font-size:small”><a href=“http://pubs.rsc.org/en/content/articlelanding/2017/qm/c6qm00195e”>用于生物传感应用的二维过渡金属二氯化铝纳米材料应皇晁亮覃张笑齐鹏璐梅琳达·辛多罗,萧皇魏皇王连辉和张华辉</span><p><span style=“color:诳888888”><span><p style=“text-Align:left”><span style=“color:诳888888”><span style=“font-size:small”><strong><em>mater.化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,24-36</span><span><p style=“text-align:left”><span style=“font-size:small”>a review on the recent progress on the two-dimensional transition metal dicalcogenide nanommaterial based biosensors,包括光学传感器,电化学传感器,和生物电子传感器。<span><p><td><td width=“174”valign=“top”><p style=“text-align:center”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/review-zhanghua.gif”><img class=“AlignCenter size full wp-image-267”title=“review-zhanghua”src=“//www.xcmww.com/qm/files/2016/12/review-zhanghua.gif”alt=“”width=“132”height=“132”/>=<a><span><p><td><tr><td width=“442”valign=“top”><p style=“text-Align:left”><strong><span style=“font-size:small”><a href=“http://pubs.rsc.org/en/content/articlelanding/2017/qm/c6qm00145a”>graphene papers:smart architecture and specific functionalization for biometics,电催化感应和能量存储程一候Arnab Halder王洪志和齐锦驰</span><p><span style=“color:35827; 888888”><span><p style=“text-align:left”><span style=“color:诳888888”><span style=“font-size:small”><strong><em>mater.化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,37-60</span><p><p style=“text-Align:Left”><span style=“font-size:small”>a review of graphene papers about their smart assembly,功能化及其在仿生学中的应用,传感器和能源设备。<span><p><td><td style=“text-align:center”width=“174”valign=“top”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/review_graphene.gif”><img class=“AlignCenter size full wp-image-268”title=“review_graphene”src=“//www.xcmww.com/qm/files/2016/12/review_graphene.gif”alt=“”width=“160”height=“189”/><a><span><td><tr><td width=“442”valign=“top”><span style=“font-size:small”><span><td><td width=“174”valign=“top”><span style=“font-size:small”><span><td><tr><td style=“text-align:left”colspan=“2”><span style=“color:008000”><span style=“font-size:medium”><a href=“http://pubs.rsc.org/en/journals/journal问题/质量管理?_ga=1.224126747.1865998577.1471833478%21issueid=QM001001&type=current“target=”_blank“><strong>阅读完整版本!<strong><a><span><td><tr><tbody><table><p style=“text-Align:Left”><span style=“font-size:small”><a href=“http://rsc.li/alerts”><strong>sign up.<strong><a>to the free e e-alerts of materials chemistry frontiers,新利手机客户端接收有关最新出版物的信息,阅读最多的文章,主题收藏和所有日志新闻。.<strong><span><p><span>save<span><span>save<span> <table style=“text-align:center;width:686px”border=“0”><tbody><tr><td style=“background color:006400”><span style=“font-size:medium”><span style=“color:ffffff”><strong>欢迎来到材料化学前沿的首次发行!<strong>><span>><span>><td>><tr>><td新利手机客户端 style=“background color:006400;text-align:center”><span style=“color:ffffff”><span style=“font-size:medium”>all content is now free to read.<span>><td>><tr>><tbody>><table>><p style=“text-align:center”><span style=“font-size:small”><span>><table style=“text-align:center;width:644px;hei右:222px“border=”0“><tbody><tr style=”text-align:left“><td><p style=”text-align:center“><span style=”font-size:small“><a href=”//www.xcmww.com/qm/files/2016/12/front cover.png“><img class=”size full wp-image-246 align center“title=”front cover“src=”//www.xcmww.com/qm/files/2016/12/front-cover.png“alt=”width=“150”height=“196”/><a><span style=“font-size:small”><span><p><td><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2017/qm/c6qm00158k”target=“_blank”><span style=“font-size:small”><span style=“color:808080”><strong><em>front cover:<em><strong><span><a><span style=“font-size:small”><span><span style=“font-size:small”><span style=“color:808080”><em>见小鹏和,托尼D杰姆斯等人,第61–64.经Tony D许可复制的图像。来自马特的詹姆斯。化学。前面。2017,1,61.<em><span><span><td><span style=“font-size:small”><span><td><p style=“text-align:center”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/inside cover.png”><img class=“size full wp-image-247 align center”title=“inside cover”src=“//www.xcmww.com/qm/files/2016/12/inside-cover.png”alt=“”width=“150”height=“196”/>=<a><span><span style=“font-size:small”><span><p><td><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2017/qm/c6qm00144k”><span style=“font-size:small”><span style=“color:808080”><strong><em>inside cover:<em><strong><span><a><span style=“font-size:small”><span><span style=“font-size:small”><span style=“color:808080”><em>参见h。G.赵a.呕吐疹,f.Rosii等人,第65–72.经F.许可复制的图像。来自Mater的Navarro Pardo。化学。前面。2017,1,65.<em><span><span><td><tr><tbody><table><p style=“text-align:center”><span style=“font-size:small”><span><p style=“text-align:left”><span style=“font-size:small”>“<span style=“color:003366”><em>The launch of materials chemistry frontiers新利手机客户端 is the result of a joint venture between the chinese chemical society and the royal society化学,由中国科学院化学研究所资助…新利手机客户端新利手机客户端……顾名思义,材料化学前沿的目标是新利手机客户端在材料研究前沿发表具有重大影响的高质量工作。该杂志以合作精神鼓励多学科研究。重点将放在概念性的新研究上,这些新研究可能改变我们的思维方式……<em><span>“said by editor in chief<strong>ben zhong tang<strong>in his edition”<strong><a href=“http://pubs.rsc.org/en/content/articlehtml/2017/qm/c6qm90001a?page=search“>推动材料研究的前沿<“a>”<strong>(<em>mater.化学。前</EM>2017,1,10-11)。<span><p style=“text-Align:Left”><span style=“font-size:small”><span><p style=“text-Align:Left”><span style=“font-size:small”>we enVision<em>materials chemistry fronti新利手机客户端ers</em>to be the to p level journal that bring the best materials research from china,亚洲和世界其他地区的观众。我们恳请您通过您在这一动态研究领域的高质量提交和贡献来支持期刊。<span><p style=“text-Align:Left”><span style=“font-size:small”><span><p style=“text-Align:Left”><span style=“font-size:small”>We're confidence the quality and diversity of the journal content speak fo他们自己,因此–<em>在第1卷和第2卷中发布的所有文章在注册时都可以自由访问––我们邀请您自己决定。享受阅读!<span><p><table style=“text-align:center;width:688px;height:29px”border=“0”><tbody><tr><td style=“text-align:center;background color:006400”><strong><span style=“font-size:medium”><span style=“color:ffffff”>higligjts from issue 1 of materials chemistry frontiers.<新利手机客户端span><strong><td><tr><tbody><table style=“text-align:中心;宽度:687px;高度:1105px“border=”0“cellspacing=”0“cellpadding=”0“><tbody><tr><td style=”height:29px“><td><td><td><tr><tr style=”text-align:left“><td width=”383“valign=”top“><span style=”font-size:small“><strong><a href=”http://pubs.rsc.org/en/content/articlelanding/2017/qm/c6qm90001a“>pushing the frontiers of materials research.<a><strong><span style=“color:诳888888”><span style=“font-size:small”>Ben Zhong Tang.<span><span style=“color:诳888888”><span style=“font-size:small”><span><span style=“color:诳8888”><span style=“font-size:small”><strong><em>mater.化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,10-11</span><span style=“font-size:small”><span style=“font-size:small”>Ben Zhong Tang,总编辑,介绍<em>Materials Chemistry Frontiers的首次发行<em><span>新利手机客户端<td><td width=“233”valign=“top”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/mcf1241x378px_at-res_381px_white-base-and-mark.jpg”><img class=“size full wp-image-258 AlignCenter”title=“mcf1241x378px_at res381px_white base andmark”src=“http://bloblog.rsc.org/qm/file/2016/12/mcf-1241x378pxat-res381pxU白色-base-and-mark.jpg”alt=“”wid=“241”he高=“74”/>>>>>span><span><td>><tr><<tr><td<<td宽度=“442”valign=“top“><p style=“文本校准:左“><span style=“font大小:小“><a a href http://pubs.rsc.org/en/内容/文章着陆/2017/2017/QM/C6QM90090090090090002j“><<<<<www www www www www www www www www www www www/qm/cQM90090090090090090090090090002j“STRONG>会见社论材料化学前沿委员会和咨询委员会化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,12-23</span><span style=“font-size:small”><span><p style=“text-align:left”><span style=“font-size:small”>a massive thank you to all our editional board and advisory board members!<span><p><td><td width=“174”valign=“top”><p style=“text-Align:Center”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/meet eab.gif”><img class=“AlignCenter size full wp-image-264”title=“meet eab”src=“//www.xcmww.com/qm/files/2016/12/meet-eab.gif”alt=“”width=“249”height=“132”/>=<a><span><p><td><trtr><td width=“442”valign=“top”><p style=“text-align:left”><span style=“font-size:small”><strong><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2017/qm/c6qm00158k”>低维材料促进氟源性硼酸和糖类之间的结合</a><strong><span><p style=“text-align:left”><span style=“coloR:888888“><span style=“font-size:small”>Shi Guo,杰晨毕颖彩陈文文,于飞丽孙小龙,陈国荣,何小鹏和东尼。James</span><span><p><span style=“color:诳888888”><span style=“font-size:small”><span><p style=“text-align:left”><span style=“color:诳888888”><span style=“font-size:small”><strong><em>mater.化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,61-64</span><span><p><span style=“font-size:small”><span><p style=“text-Align:left”><span style=“font-size:small”>The cover story shows that low dimensional materials enhance the concogation between fluorogenic phenylboronic acids and糖类。<span><p><td><td width=“174”valign=“top”><p style=“text-align:center“><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/front-cover-ga.gif”><img class=“AlignCenter size full wp-image-265”title=“front cover-ga”src=“//www.xcmww.com/qm/files/2016/12/front-cover-ga.gif”alt=“”width=“272”height=“170”/><a><span><td><tr><td width=“442”valign=“top”><p style=“tex”T-Align:Left“><strong><span style=“font-size:small”><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2017/qm/c6qm00144k”>nanoffiber-supported的CUS nanoplatelets as high efficiency counter electors for quantum dot-based光电化学氢production</a><span><strong><p style=“text-Align:Left”><span style=“color:888888“><span style=“font-size:small”>f.Navarro PardoL.靳R.阿迪卡里X。用钳子钳起,D.BenettiK巴苏S.VankaH.G.赵Z.T惯性矩,S.H.太阳v.诉MCastanoa.皮涅罗和F.Rosei<span><span><span style=“color:诳888888”><span><p style=“text-align:left”><span style=“color:诳888888”><span style=“font-size:small”><strong><em>mater.化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,65-72</span><p><p style=“text-align:left”><span style=“font-size:small”>in the inside cover story,开发了一种基于硫化铜/聚合物纳米纤维的混合反电极,用于高效和稳定的光电化学制氢。<span><p><td><td width=“174”valign=“top”><p style=“text-Align:Center”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/inside-cover-ga.gif”><img class=“Aligncenter size full wp-image-266“title=”inside cover ga“src=”//www.xcmww.com/qm/files/2016/12/inside-cover-ga.gif“alt=”width=“272”height=“135”/>.<a>>.<span><td><tr><td width=“442”valign=“top”><p style=“text-align:left”><strong><span style=“font-size:small”><a href=“http://pubs.rsc.org/en/content/articlelanding/2017/qm/c6qm00195e”>用于生物传感应用的二维过渡金属二氯化铝纳米材料应皇晁亮覃张笑齐鹏璐梅琳达·辛多罗,萧皇魏皇王连辉和张华辉</span><p><span style=“color:诳888888”><span><p style=“text-Align:left”><span style=“color:诳888888”><span style=“font-size:small”><strong><em>mater.化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,24-36</span><span><p style=“text-align:left”><span style=“font-size:small”>a review on the recent progress on the two-dimensional transition metal dicalcogenide nanommaterial based biosensors,包括光学传感器,电化学传感器,和生物电子传感器。<span><p><td><td width=“174”valign=“top”><p style=“text-align:center”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/review-zhanghua.gif”><img class=“AlignCenter size full wp-image-267”title=“review-zhanghua”src=“//www.xcmww.com/qm/files/2016/12/review-zhanghua.gif”alt=“”width=“132”height=“132”/>=<a><span><p><td><tr><td width=“442”valign=“top”><p style=“text-Align:left”><strong><span style=“font-size:small”><a href=“http://pubs.rsc.org/en/content/articlelanding/2017/qm/c6qm00145a”>graphene papers:smart architecture and specific functionalization for biometics,电催化感应和能量存储程一候Arnab Halder王洪志和齐锦驰</span><p><span style=“color:35827; 888888”><span><p style=“text-align:left”><span style=“color:诳888888”><span style=“font-size:small”><strong><em>mater.化学。正面。.<em>.<strong>,2017年,<strong>1</strong>,37-60</span><p><p style=“text-Align:Left”><span style=“font-size:small”>a review of graphene papers about their smart assembly,功能化及其在仿生学中的应用,传感器和能源设备。<span><p><td><td style=“text-align:center”width=“174”valign=“top”><span style=“font-size:small”><a href=“//www.xcmww.com/qm/files/2016/12/review_graphene.gif”><img class=“AlignCenter size full wp-image-268”title=“review_graphene”src=“//www.xcmww.com/qm/files/2016/12/review_graphene.gif”alt=“”width=“160”height=“189”/><a><span><td><tr><td width=“442”valign=“top”><span style=“font-size:small”><span><td><td width=“174”valign=“top”><span style=“font-size:small”><span><td><tr><td style=“text-align:left”colspan=“2”><span style=“color:008000”><span style=“font-size:medium”><a href=“http://pubs.rsc.org/en/journals/journal问题/质量管理?_ga=1.224126747.1865998577.1471833478%21issueid=QM001001&type=current“target=”_blank“><strong>阅读完整版本!<strong><a><span><td><tr><tbody><table><p style=“text-Align:Left”><span style=“font-size:small”><a href=“http://rsc.li/alerts”><strong>sign up.<strong><a>to the free e e-alerts of materials chemistry frontiers,新利手机客户端接收有关最新出版物的信息,阅读最多的文章,主题收藏和所有日志新闻。.<strong><span><p><span>save<span><span>save<span> //www.xcmww.com/qm/2016/12/02/welcome-to-the-initial-issue-of-materials-ch新利手机客户端emistry-frontiers/feed/ 重点:硼功能聚合物 //www.xcmww.com/py/2016/12/02/focus-on-borb-functional-polymers/ //www.xcmww.com/py/2016/12/02/focus on borb functional polymers/评论 FRI,2016年12月2日12:02:47+0000 菲奥娜哈顿 //www.xcmww.com/py/2016/12/02/focus-on-borb-functional-polymers/ 本月,我们来看看发表在《高分子化学》杂志上的三篇文章新利手机客户端作为<strong>硼功能性聚合物或<strong>聚合催化剂。硼是一种有趣的元素,对生活至关重要,主要研究了硼酸在高分子化学领域的应用。新利手机客户端有机硼酸盐和碳硼烷功能聚合物。由于硼酸对pH值的反应性,将硼酸加入到各种聚合物中是有意义的。以及结合1,2-和1,3-二醇的能力,从而形成阴离子硼酸酯复合物。这可能是最广泛研究的葡萄糖检测材料,具有广泛的生物医学意义。本文的前两篇文章重点介绍了硼酸与高分子材料的结合。最后一篇文章介绍了使用硼酸尿素作为开环聚合的共催化剂。<p style=“text-Align:Center”>img class=“AlignCenter”title=“新型硼酸修饰聚(2-恶唑啉)的合成显示三刺激反应行为”src=“http://pubs.rsc.org/service s/images/rsc pubs.eplatform.service.freeccontent.imageservice.svc/imageservice/image/ga?id=c6py01437b“alt=”toc figure“width=”261“height=”189“/><p><strong>1.<strong><a href=“http://xlink.rsc.org/?doi=10.1039/c6py01521b“target=”(空白)><strong>BioInspired synthesis of poly(苯基硼酸)microgels with high glucose selective at physical ph.<strong><a>qingshi wu,薛都,艾平昌萧美江萧云艳萧宇曺扎霍尔Farooqi魏太武<strong><em>polym.化学。<em><strong>,2016,<strong>7<strong>,6500—612;<strong>doi:<strong>10.1039/c6py01521bhere,通过4-乙烯基苯基硼酸和交联剂在表面活性剂存在下的自由基聚合制备了聚苯基硼酸微凝胶。在生理pH值(7.4)下,微凝胶在葡萄糖(0-30 mm)存在下膨胀,与其他单糖相比,膨胀率更高,以及高选择性葡萄糖依赖性荧光发射。这些材料显示了用作葡萄糖检测传感器的潜力。<a href=“http://xlink.rsc.org/?doi=10.1039/c6py01437b“target=”(空白“>synthesis of novel boronaic acid-decorated poly(2-oxazoline)s showing triple propicilite responsibility behavior</a>>strong>gertjan vancoillie,威廉La.布鲁克斯马顿A.米斯,布伦特S苏美林理查德·胡根博姆化学。<em><strong>,2016,<strong>7<strong>,1625-634;<strong>doi:<strong>10.1039/c6py01437b作者描述了硼酸功能性聚(2-烷基-2-恶唑啉)s through the阳离子开环共聚of 2-n-丙基-2-恶唑啉and a methyl ester oxazoline,随后进行后聚合改性,以使聚合物具有硼酸分子。随后的聚合物表现出LCST行为,随着温度的转变,酸碱度和葡萄糖浓度的依赖性,突出可能在药物输送方面的应用,例如。<strong>3.<a href=“http://xlink.rsc.org/?doi=10.1039/c6py01436d“target=”“blank”>Internal Lewis Pair Enhanced H-bond Supplier:boronate尿素and thirter amine co catalysis in ring opening polymation.</a>>strong>songquan xu,孙和瑞,景静柳贾希旭潘显福,何东,亚亚柳李镇江,郭开国化学。<em><strong>,2016,<strong>7<strong>,6843-6853;<strong>doi:<strong>10.1039/c6py01436din this article,已将硼酸尿素(bu)用作Lewis对增强型H键供体,以共同催化_-交酯的开环聚合。聚合反应转化率高,所得聚合物分子量可控,分散性低。bu被证明是温和的,可调谐并与几种叔胺相容,比普通尿素更有效。-------<span style=“text-decoration:underline”>about the webwriter.<span><a href=“//www.xcmww.com/py/files/2016/06/251d435.jpg”><img class=“alignright”title=“fiona hatton”src=“//www.xcmww.com/py/files/2016/06/251d435.jpg”alt=“fiona hatton”width=“78”height=“78”/><p style=“text-aligN:证明“>博士”Fiona Hatton是聚合物化学的网络作家。新利手机客户端她目前是谢菲尔德大学的一名博士后研究员。英国。在twitter上找到她:<a href=“https://twitter.com/fi-hat”> 本月,我们来看看发表在《高分子化学》杂志上的三篇文章新利手机客户端作为<strong>硼功能性聚合物或<strong>聚合催化剂。硼是一种有趣的元素,对生活至关重要,主要研究了硼酸在高分子化学领域的应用。新利手机客户端有机硼酸盐和碳硼烷功能聚合物。由于硼酸对pH值的反应性,将硼酸加入到各种聚合物中是有意义的。以及结合1,2-和1,3-二醇的能力,从而形成阴离子硼酸酯复合物。这可能是最广泛研究的葡萄糖检测材料,具有广泛的生物医学意义。本文的前两篇文章重点介绍了硼酸与高分子材料的结合。最后一篇文章介绍了使用硼酸尿素作为开环聚合的共催化剂。<p style=“text-Align:Center”>img class=“AlignCenter”title=“新型硼酸修饰聚(2-恶唑啉)的合成显示三刺激反应行为”src=“http://pubs.rsc.org/service s/images/rsc pubs.eplatform.service.freeccontent.imageservice.svc/imageservice/image/ga?id=c6py01437b“alt=”toc figure“width=”261“height=”189“/><p><strong>1.<strong><a href=“http://xlink.rsc.org/?doi=10.1039/c6py01521b“target=”(空白)><strong>BioInspired synthesis of poly(苯基硼酸)microgels with high glucose selective at physical ph.<strong><a>qingshi wu,薛都,艾平昌萧美江萧云艳萧宇曺扎霍尔Farooqi魏太武<strong><em>polym.化学。<em><strong>,2016,<strong>7<strong>,6500—612;<strong>doi:<strong>10.1039/c6py01521bhere,通过4-乙烯基苯基硼酸和交联剂在表面活性剂存在下的自由基聚合制备了聚苯基硼酸微凝胶。在生理pH值(7.4)下,微凝胶在葡萄糖(0-30 mm)存在下膨胀,与其他单糖相比,膨胀率更高,以及高选择性葡萄糖依赖性荧光发射。这些材料显示了用作葡萄糖检测传感器的潜力。<a href=“http://xlink.rsc.org/?doi=10.1039/c6py01437b“target=”(空白“>synthesis of novel boronaic acid-decorated poly(2-oxazoline)s showing triple propicilite responsibility behavior</a>>strong>gertjan vancoillie,威廉La.布鲁克斯马顿A.米斯,布伦特S苏美林理查德·胡根博姆化学。<em><strong>,2016,<strong>7<strong>,1625-634;<strong>doi:<strong>10.1039/c6py01437b作者描述了硼酸功能性聚(2-烷基-2-恶唑啉)s through the阳离子开环共聚of 2-n-丙基-2-恶唑啉and a methyl ester oxazoline,随后进行后聚合改性,以使聚合物具有硼酸分子。随后的聚合物表现出LCST行为,随着温度的转变,酸碱度和葡萄糖浓度的依赖性,突出可能在药物输送方面的应用,例如。<strong>3.<a href=“http://xlink.rsc.org/?doi=10.1039/c6py01436d“target=”“blank”>Internal Lewis Pair Enhanced H-bond Supplier:boronate尿素and thirter amine co catalysis in ring opening polymation.</a>>strong>songquan xu,孙和瑞,景静柳贾希旭潘显福,何东,亚亚柳李镇江,郭开国化学。<em><strong>,2016,<strong>7<strong>,6843-6853;<strong>doi:<strong>10.1039/c6py01436din this article,已将硼酸尿素(bu)用作Lewis对增强型H键供体,以共同催化_-交酯的开环聚合。聚合反应转化率高,所得聚合物分子量可控,分散性低。bu被证明是温和的,可调谐并与几种叔胺相容,比普通尿素更有效。-------<span style=“text-decoration:underline”>about the webwriter.<span><a href=“//www.xcmww.com/py/files/2016/06/251d435.jpg”><img class=“alignright”title=“fiona hatton”src=“//www.xcmww.com/py/files/2016/06/251d435.jpg”alt=“fiona hatton”width=“78”height=“78”/><p style=“text-aligN:证明“>博士”Fiona Hatton是聚合物化学的网络作家。新利手机客户端她目前是谢菲尔德大学的一名博士后研究员。英国。在twitter上找到她:<a href=“https://twitter.com/fi-hat”> //www.xcmww.com/py/2016/12/02/focus-on-borb-functional-polymers/feed/ 环境科学咨询委员会新成员:纳米新利手机客户端 //www.xcmww.com/en/2016/12/02/new-advisory-board-members-for-environmental-新利手机客户端science-nano/ //www.xcmww.com/en/2016/12/02/new advisory board members for environmental 新利手机客户端science nano/评论 FRI,2016年12月2日10:47:03+0000 //www.xcmww.com/en/2016/12/02/new-advisory-board-members-for-environmental-新利手机客户端science-nano/ <span style=“font-size:small”>我们很高兴向环境科学:nano<span>咨询委员会宣布以下人员的任命。<span style=“font-style:italic”><span style=“font-size:small”><span><table border=“0”ali新利手机客户端gn=“center”><tbody><tr><td style=“width:153px;height:188px”><a href=“http://www.ceint.duke.edu/profile/auffan“><img class=“size full wp-image-2082 AlignCenter”title=“melanie auffan”src=“//www.xcmww.com/en/files/2016/12/melanie-auffan.jpg”alt=“”width=“105”height=“132”/></a><td style=“width:2200px;height:188px”><span style=“font-size:small”><strong><span style=“font-size:x-small”>melanie auffan</span><span style=“font-size:x-small”><span style=“font-size:x-small”><span><span style=“font-size:x-small”>Melanie Auffan is a CNRS Research Scientist at the Cerege(European Geosciences Center)in Aix en Provence.她是ICEINT和CEINT指导委员会(纳米技术环境影响联盟)的成员。她的研究涉及与活生物体接触的纳米颗粒的物理化学性质和表面反应性。<span><td><td style=“width:153px;height:188px”><strong><span style=“font-size:x-small”><a href=“http://posti.postech.ac.kr/main/bbs/board.php?bo_table=contents_eng&wr_id=3“><img class=“AlignCenter size full wp-image-2087”title=“yoon seok chang”src=“//www.xcmww.com/en/files/2016/12/yoon-seok-chang.jpg”alt=“”width=“105”height=“132”/></a><span><strong><strong><strong><strong><strong><strong><strong><strong><strong><strong><strong><strong><strong><strong>。STRONG><STRONG><STRONG><STRONG><STRONG><STRONG><STRONG><STRONG><STRONG><STRONG><SPAN style=“FONT WEIGHT:Normal”><SPAN><STRONG><TD style=“width:2200px;height:188px”><SPAN style=“FONT SIZE:small”><STRONG><SPAN style=“FONT SIZE:X-small”>YOON SEOK Chang<SPAN>><SPAN style=“FONT SIZE:SMA”ll“><span style=”font-size:x-small“>Yoon Seok Chang教授在浦项科技大学(Postech)工作,新利手机客户端韩国。他的研究兴趣包括用于地下水修复的零价铁纳米技术以及有毒物质和纳米材料对环境的命运和人类健康的影响。</span><td><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><a href=“https://www.hsph.harvard.edu/phlip demokritou/“><img class=“AlignCenter size full wp-image-2105”title=“Phil demokritou”src=“//www.xcmww.com/en/files/2016/12/Phil-demokritou.jpg”alt=“”width=“106”height=“132”/>a><td><td style=“width:300px;height:188px”><span style=“font-size:small”><strong><span style=“font-size:x-small”>Philipdemokritou</span><div id=“cepaste”><span style=“font-size:x-small”>demokritou博士目前是哈佛公共卫生学院的副教授。他的研究兴趣主要集中在纳米气溶胶科学和技术领域,重点是阐明粒子健康效应。<span><td><td style=“width:300新利手机客户端px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/juliane-fi1.jpg”><a href=“http://www.uft.oekologie.uni-bremen.de/julianefilserengl.2.htm“><img class=“AlignCenter size full wp-image-2109”title=“juliane fi”src=“//www.xcmww.com/en/files/2016/12/juliane-fi1.jpg”alt=“”width=“109”height=“136”/>a><span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong>julianefilser</strong><span style=“font-size:x-smal”L“>Juliane Filser是不莱梅大学环境研究和可持续技术跨学科UFT中心的副主任,是一名普通生态学和理论生态学的全职教授。德国。朱利安的主要研究重点是前瞻性环境风险评估,特别关注土壤中的生态相互作用。她的团队是世界上第一个指出在陆地环境中评估纳米颗粒潜在风险的团队之一。<span><td><tr><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><a href=“https://engineering.wustl.edu/profiles/pages/john fortner.aspx”><img class=“AlignCentersize full wp-image-2111“title=”john fortner“src=”//www.xcmww.com/en/files/2016/12/john-fortner.jpg“alt=”width=“99”height=“123”/><<a><span style=“font-size:x-small”><span><td style=“width:300px;height:188px“><span style=”font-size:x-small“><strong>john fortner<<span style=“font-size:x-small”>fortne教授R的研究主要集中在环境影响和先进材料的应用上。他广泛研究了环境的命运,工程碳纳米材料的反应性和影响,包括富勒烯和碳纳米管,在含水系统中。<span><div><span style=“font-size:x-small”><span><td><td style=“width:300px;height:188px”><a href=“https://vivo.brown.edu/display/rhurt”><img class=“AlignCenter size full wp-image-2115”title=“罗伯特伤害”src=“//www.xcmww.com/en/files/2016/12/robert-hurt.jpg”alt=“”width=“105”height=“132”/><<span style=“font-size:x-small“><span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>robert hurt</span><strong><span style=“font-size:x-small”>robert h.赫特是布朗大学的工程学教授,美国。他目前的研究包括对石墨烯族纳米材料的生物反应,碳纳米管吸收和毒性机制,纳米银和纳米铜在自然环境中的转化,安全材料设计,以及石墨烯的组装和折叠,以形成屏障和封装技术的三维结构,以及作为电极和催化剂的支持。<span><td><tr><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“http://people.wright.edu/saber.hussain”><img class=“AlignCenter size full wp-image-2117”title=“saber hussain”src=“//www.xcmww.com/en/files/2016/12/sabEr Hussain.jpg“alt=”width=“105”height=“132”/>.<a><span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>saber Hussain</span><span style=“font-size:x-small”>saber Hussain is Senior Scientist and Nanooxicology Group Lead,分子生物效应司,赖特·帕特森空军基地,俄亥俄州。他的研究兴趣集中在工程纳米材料与生物系统的基本相互作用,特别关注纳米器件的开发和评估纳米尺度结构的物理化学性质产生的潜在毒性。<span><td><td style=“width:300px;height:188px”><a href=“http://www.eawag.ch/en/aboutus/pitalt/organization/staff/profile/ralf kaegi/show/”><img class=“AlignCenter size full wp-image-2119”title=“kaegi ralf”src=“//www.xcmww.com/en/files/2016/12/kaegi-ralf.jpg”alt=“”width=“105”height=“132”/>a><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>ralf kaegi<span><strong><span style=“font-size:x-small”>dr ralf kaegi is based at eawag,瑞士。他的研究兴趣集中在(城市)环境中工程纳米材料的命运和运输上。<span><td><tr><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“https://www.etis.ee/portal/persons/display/ade7cc43-7275-43d3-b509-ec84182c85f8”><img class=“size full wp-image-2118 aligncenter”style=“color:0000ee”title=“anne kahru”src=“//www.xcmww.com/en/files/2016/12/anne-kahru.jpg”alt=“”width=“105”height=“132”/>a><span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>anne kahru</span><span style=“font-size:x-small”>Anne Kahru是美国国家化学物理和生物物理研究所环境毒理学实验室主任,塔林,爱沙尼亚。她目前的研究集中在结合分子技术合成纳米颗粒的(生态)毒性和生物利用度的机制上,体外和生态毒理学试验和分析化学。新利手机客户端她还是爱沙尼亚毒理学协会的创始人和主席。<span>><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/anne kahru.jpg”><a href=“http://sourcedb.cas.cn/sourcedbou rceesou cas/yw/tp/200910/t2091010ou 2541857.html”><img class=“AlignCenter size full wp-image-2120“title=”sijin liu“src=”//www.xcmww.com/en/files/2016/12/sijin-liu.jpg“alt=”width=“105”height=“132”/>.<a><td><td style=“width:300px;height:188px“><span style=”font-size:x-small“><strong><span style=”font-size:x-small“>sijin liu</span><span style=“font-size:x-small”>dr.刘思金,现任生态环境科学研究中心教授。新利手机客户端中国科学院。新利手机客户端他的研究兴趣包括:(1)环境污染物介导致癌效应的机制;(2)NanoSafety and NanoImpact.</span><td><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/sijin liu.jpg”><a><a href=“http://www.universiteitleiden.nl/en/staffembers/wllem peijnenburg”><img class=“AlignCenter size full”wp-image-2122“title=”Peijnenburg,博士。红外光谱。w“src=”//www.xcmww.com/en/files/2016/12/peijnenburg-dr.-ir.-w.jpg“alt=”width=“105”height=“132”/>a><span><td><td style=“width:300px;height:188px“><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>willie peijnenburg</span><span style=“font-size:x-small”>willie peijnenburg is profer of envir莱顿大学的精神毒理学和生物多样性,荷兰。目前,他的主要研究兴趣包括评估水介质中人工制造纳米材料的命运和生态效应。<span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“http://www.cive.uh.edu/faculty/rodrigues”><img class=“AlignCenter size full wp-image-2123”title=“deborah rodrigues”src=“//www.xcmww.com/en/files/2016/12/deborah-rodrigues.jpg“alt=”width=“105”height=“132”/>=<a><span><td><td style=“width:300px;height:188px”><span style=“font-size:small”><strong><span style=“font-size:x-small”>debora rodrigues<span><strong><span style=“font-size:x-small”>debora rodrigues is currently an associate professor at the休斯顿大学土木与环境工程系。她的研究兴趣涉及对碳基纳米材料和聚合物纳米复合物对废水微生物群落的毒理学效应及其在水处理和防腐蚀方面的潜在应用的调查。<span><td>><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px“><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/deborah rodrigues.jpg”><a><a href=“http://egh.phhp.ufl.edu/personnel/faculty-2/primary faculty/tara sabo attwood phd/”><img class=“AlignCenter size full wp-image-2124”title=“tara sabo atwood”src=“//www.xcmww.com/en/files/2016/12/tara-sabo-atwood.jpg”alt=“”width=“105”height=“132”/>.<a>.<td><td style=“width:300px;height:188px”><span style=“font-size:small”><strong><span style=“font-size:x-small”>tara sabo attwood<span><strong><span style=“font-size:x-small”>tara sabo attwood,博士是环境和全球健康部的副教授和主席,佛罗里达大学公共卫生与健康专业学院和环境与人类毒理学中心。她在环境分子毒理学方面拥有广泛的专业知识,重点关注水和空气污染物。<span><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“http://www.caee.utexas.edu/faculty/directory/saleh”><img class=“AlignCenter size full wp-image-2125”title=“navid saleh”src=“//www.xcmww.com/en/files/2016/12/navid saleh.jpg“alt=”width=“105”height=“132”/>=<a><span><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>navid saleh</span><strong><span style=“font-size:x-small”>navid saleh is an assistant professor of civil,德克萨斯大学奥斯汀分校的建筑和环境工程。他的研究重点是设计和开发新颖的和以人为中心的水处理技术。主要目标是通过创新的纳米材料处理工艺提高经济困难社区获得饮用水的机会。<span><td><tr><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/navid-saleh.jpg“><a><a href=“https://translate.google.co.uk/translate”?hl=en&sl=de&u=https://www.uni-koblenz-landau.de/de/landau/fb7/umweldwissenschaften/uchmie/mitarbeiter/wissenschaftler/gabriele schaumann&prev=search“><img class=“AlignCenter size full wp-image-2130”title=“gabi schaumann”src=“//www.xcmww.com/en/files/2016/12/gabi-schaumann.jpg”alt=“”width=“105”height=“132”/>=<a><span><td style=“wiDTH:300px;height:188px“><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>Gabriele Schaumann<span><strong><span style=“font-size:x-small”>Gabriele Schaumann is professor of environmental and soil chemistry at the university of koblenz landau,新利手机客户端德国。她的主要研究兴趣是对命运有一个以过程为导向的理解,新的颗粒应力源(如工程纳米粒子和塑料粒子)在环境中的转化和影响,并适应和进一步发展分析技术,以便在环境样品中检测和表征它们。<span><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“http:///www.xcmww.com/en/files/2016/11/gabi schaumann.jpg“><a><a href=“https://www.unige.ch/forel/en/biogeochimie/equipegeocotox/vera slaveykova/”><img class=“AlignCenter size full wp-image-2127”title=“vera slavykova”src=“//www.xcmww.com/en/files/2016/12/vera-slavykova.jpg”alt=“”width=“105”height=“132”/>=<a>><td><td style=“width:300px;height:188px“><span style=“font-size:x-small”><strong>veraslaveykova<strong>><span><span style=“font-size:x-small”><strong>>dr.薇拉岛斯拉维科娃是日内瓦大学环境生物地球化学和生态毒理学教授,F.-A系主任。新利手机客户端日内瓦大学环境与水科学研究院。新利手机客户端她的主要研究兴趣是开发新的工具和概念,研究控制微量元素和纳米颗粒行为的基本过程,它们与水生系统的各种生物和非生物成分的相互作用,与水质和环境风险评估高度相关。<span><td><tr><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/vera slaveykova.jpg”><a><a href=“http://people.mcgill.ca/nathalie.tufenkji/”><imgclass=“AlignCenter size full wp-image-2129”title=“Nathaliee Tufenkji McGill by Eva蓝---0926415673363o o”src=“http://blog.rsc.org/en/文件/2016/12/Nathaliee-Tufe恩Kji-McGill-by-eva-蓝-0926415673363_O1.JPg”alt=宽度=“105”宽度=“105”heth=“105”高度=“132”/>,<span><span><td>><td style style=“宽度:300px;高度:300px;高度:188px“><span style style=“font style=“font size:x-size:X-小““o o-o-o-o-o-o o-o-o o圣yle=“font-size:x-small”>nathalie tufenkji</span><strong><span style=“font-size:x-small”>nathalie tufenkji is profer in the department of chemical engineering at mcgill university,加拿大。她的研究兴趣在于纳米材料的环境命运以及环境和生物医学应用的纳米增强产品的开发(照片来源:伊娃蓝)。<span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/nathalie-tufenkji-mcgill-by-eva-蓝色-0926415673363_o.JPg“><a><a a href=“http://blog.rsc.org/en/文件/2016/2016/12/Maria Elen vela.JPg“><img class=“Align中心大小全wp-图像21331”title=“Maria elen vela”src=“http://blog.rsc.org/en/2016/2016/12/Maria-elen-vela.JPg“><<a><<a a href http://blohttp http://blog.rsc.rsc.org/RSc.org/EN/en/N/en/en/2016/文件/2016/2016/2016/2016/2016/2016/2016/2016/2016/2016/12/12/Maria-Maria ele蓝色-Elen-蓝色-蓝色-一个small“><strong><span style=“font-size:x-small”>Maria Elena Vela</span><strong><span style=“font-size:x-small”><span><p class=“msoNormal”><span lang=“en-us”><span style=“font-size:x-small”>dr.Mar_a Elena Vela是拉普拉塔国立大学(阿根廷)教授和伊尼夫塔研究所研究员,拉普拉塔市理论与应用物理化学研究所。新利手机客户端她的研究小组致力于功能性纳米结构材料的合成和研究及其在改变表面特性和设计分子超灵敏检测平台方面的应用。她还对分子和纳米粒子与模型生物膜的相互作用的研究感兴趣。<span><span><p><td><tr><tr style=“height:80p x”align=“left”valign=“middle”><td style=“width:300p x;height:188p x”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/maria elen vela.jpg”><a href=“//www.xcmww.com/en/files/2016/11/maria elen vela.jpg”><a://www.engr.ucr.edu/faculty/chemenv/swaker.html“><img class=“AlignCenter size full wp-image-2132”title=“Sharon Walker Headshot 2013”src=“//www.xcmww.com/en/files/2016/12/sharon-walker-headshot-2013.jpg”alt=“”width=“105”height=“132”/>.<a>.<span><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>Sharonwalker</span><strong><span style=“font-size:x-small”>Sharon Walker is interim dean of UC Riverside's Bourns College of Engineering,她还担任约翰·巴贝奇环境工程系主任和化学与环境工程系教授。她是一位领先的水质专家,关注水中细菌和纳米颗粒的命运和运输。<span><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/sharon-walker-headshot-2013.jpg”><a><a href=“https://www.researchgate.net/profile/wendelou whlleben”><img class=“AlignCenter size full wp image-2133“title=”wendel wolleben“src=”//www.xcmww.com/en/files/2016/12/wendel-wolleben.jpg“alt=”width=“105”height=“132”/>=<a><span><td style=”width:300px;height:188px“><span style=”font-size:small“><strong><span style=”font-size:x-small“>wendelwolleben</span><span style=”font-size:x-small“><span><span style=”字体大小:x-small“>Wendel Wohlleben是巴斯夫研究纳米材料特性的资深科学家,部。材料物理学。他领导有关先进材料开发和纳米材料安全的研究项目,是哈佛公共卫生学院和魏茨曼研究所材料与接口系的客座科学家,以色列。<span><td><tr><tbody><table><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-size:small”>read some of the high impact research authorized by our new advisory board members in<span style=“font-style:italic”>environmental science:nano</span>using新利手机客户端 the links below.</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/articlelanding/2016/en/c5en00207a!DivAbstract“><span style=“FONT SIZE:small”>Modeling nanommaterial fate and uptake in the environment:current knowledge and future trends<span><a><span><span><p style=“Margin:0in”><span style=“FONT family:Arial”><span style=“FONT SIZE:small”>m.巴阿娄莎G.CornelisTa.J.Kuhlbusch一.LynchC.镍,WPeijnenburg和N.Wvan den brink</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2016,三,323-345</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00207a</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2016/EN/C5EN00209E!DivAbstract“><span style=“font-size:small”>Humic acid对银纳米粒子硫化动力学的影响</span><a><span><p><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>Basilius Thalmann,安德烈亚斯·沃格林,Eberhard Morgenroth and Ralf Kaegi</span><p><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environn.科学:纳米2016、3、203-212</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00209e<span><p><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2015/EN/C5EN00057B!DivAbstract“><span style=“font-size:small”>12种金属基纳米颗粒对藻类的毒性,细菌和原生动物Suman PokhrelMariliis Sihtm_e,莫妮卡·莫蒂默,lutz m_dler and anne kahru</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environn.科学:纳米2015、2、630-644</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00057b</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2016/EN/C5EN00222B!DivAbstract“><span style=“font-size:small”>DimerCaptop琥珀酸二甲酯涂层和非功能化磁性氧化铁纳米粒子对水生生物的毒性</span><a><span><p><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>ya qi zhang,拉尔夫·德林根,夏洛特·皮特,威贝克·拉斯特特,简·K·瑟,Juliane Filser and Stefan Stolte</span><p><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2016、3、754-767</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00222b</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/results?searchText=c5en00152h“><span style=“font-size:small”>Impact of chemical composition of ecoxitical test media on the stability and aggregation status of silver nandomes</span><span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>George Metreveli,比安卡·弗洛博尔德,Frank SeitzAlexandra Gr_n,艾伦·菲利普,里基河Rosenfeldt米尔科·本德舒,拉尔夫·舒尔茨,Werner Manz和Gabriele E.Schaumann</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environn.科学:纳米2016、3、418-433</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00152h</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2016/en/c5en00109a!DivAbstract“><span style=”font-size:small“>颗粒多孔介质中掺杂钯的零价铁纳米粒子与生物膜之间的相互作用:表征,运输和生存能力亚历山大格沙诺夫,凯文J。威尔金森,Subhasis Ghoshal and Nathalie Tufenkji<span><p style=“Margin:0in”><span style=“font-size:small”><em>environn.科学:纳米2016、3、127-137</span><p style=“margin:0in”><span style=“font-size:small”>doi:10.1039/c5en00109a<span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><a href=“http://pubs.rsc.org/en/content/articlelanding/2015/en/c5en00122f!DivAbstract“><span style=”font-size:small“>深海小鱼的口服生物利用度和性别特异性组织量子点划分,pimephales promelas</span><a><p style=“margin:0in”><span style=“font-size:small”>c.MLavelleJ.H.BisesiMa.哈恩KJ.克罗尔TSabo Attwood和N.D.denslow<span><p style=“margin:0in”><span style=“font-size:small”>Journal Article environ.SCI:纳米,2015、2、583-593</span><p style=“margin:0in”><span style=“font-size:small”>doi:10.1039/c5en00122f</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/articlelanding/2016/en/c6en00252h!DivAbstract“><span style=“font-size:small”>End of Life Thermal Deposition of Nano-Enabled Polymers:effect of Nanofiller Loading and Polymer Matrix on By-Products<span><a><span><span><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>Dilpreet Singh,乔治亚州Sotiriou方张Joey MeadDhimiter BelloWendel Wohlleben and Philip Demokritou</span><p><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2016,advance article<span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c6en00252h<span><p><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/articlelanding/2016/en/c6en00178e!DivAbstract“><span style=“font-size:small”>Spool synthesis of phase controlled iron–graphene nanophybrids through feooh nanoprod intermediates</span><a><span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>x.S.吕是的。秋Z.是的。王G.M江,是的。T陈X。H.徐和RH.hurt<span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2016、3、1215-1221</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c6en00178e</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/contENT/ArticleLanding/2016/EN/C5EN00089K!DivAbstract“><span style=“font-size:small”>Surface Engineering Super-Paramantic Naminos for Water Applications:Design and Characterization of Customized Organic Bilayers<span><a><span><span><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>Wenlu-li,卡尔HHintonSeung Soo Lee吴洁伟和D约翰。fortner<span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2016、3、85-93</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00089k<span><p><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/articlelanding/2015/en/c4en00104d!DivAbstract“><span style=“font-size:small”>Research Strategy to determine when novel nanophybrids pose unique environmental risks</span><span><span><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>navid b.萨利赫Nirupam Aich杰米·普拉扎斯·塔特尔,杰米河Lead和Gregory V.Lowry</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2015、2、11-18</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><span style=“font-size:small”>doi:10.1039/c4en00104</span><span style=“font-family:Arial”>d<span><span><p style=“margin:0in”><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.33333px“>.<span>.<span>.<p> <span style=“font-size:small”>我们很高兴向环境科学:nano<span>咨询委员会宣布以下人员的任命。<span style=“font-style:italic”><span style=“font-size:small”><span><table border=“0”ali新利手机客户端gn=“center”><tbody><tr><td style=“width:153px;height:188px”><a href=“http://www.ceint.duke.edu/profile/auffan“><img class=“size full wp-image-2082 AlignCenter”title=“melanie auffan”src=“//www.xcmww.com/en/files/2016/12/melanie-auffan.jpg”alt=“”width=“105”height=“132”/></a><td style=“width:2200px;height:188px”><span style=“font-size:small”><strong><span style=“font-size:x-small”>melanie auffan</span><span style=“font-size:x-small”><span style=“font-size:x-small”><span><span style=“font-size:x-small”>Melanie Auffan is a CNRS Research Scientist at the Cerege(European Geosciences Center)in Aix en Provence.她是ICEINT和CEINT指导委员会(纳米技术环境影响联盟)的成员。她的研究涉及与活生物体接触的纳米颗粒的物理化学性质和表面反应性。<span><td><td style=“width:153px;height:188px”><strong><span style=“font-size:x-small”><a href=“http://posti.postech.ac.kr/main/bbs/board.php?bo_table=contents_eng&wr_id=3“><img class=“AlignCenter size full wp-image-2087”title=“yoon seok chang”src=“//www.xcmww.com/en/files/2016/12/yoon-seok-chang.jpg”alt=“”width=“105”height=“132”/></a><span><strong><strong><strong><strong><strong><strong><strong><strong><strong><strong><strong><strong><strong><strong>。STRONG><STRONG><STRONG><STRONG><STRONG><STRONG><STRONG><STRONG><STRONG><STRONG><SPAN style=“FONT WEIGHT:Normal”><SPAN><STRONG><TD style=“width:2200px;height:188px”><SPAN style=“FONT SIZE:small”><STRONG><SPAN style=“FONT SIZE:X-small”>YOON SEOK Chang<SPAN>><SPAN style=“FONT SIZE:SMA”ll“><span style=”font-size:x-small“>Yoon Seok Chang教授在浦项科技大学(Postech)工作,新利手机客户端韩国。他的研究兴趣包括用于地下水修复的零价铁纳米技术以及有毒物质和纳米材料对环境的命运和人类健康的影响。</span><td><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><a href=“https://www.hsph.harvard.edu/phlip demokritou/“><img class=“AlignCenter size full wp-image-2105”title=“Phil demokritou”src=“//www.xcmww.com/en/files/2016/12/Phil-demokritou.jpg”alt=“”width=“106”height=“132”/>a><td><td style=“width:300px;height:188px”><span style=“font-size:small”><strong><span style=“font-size:x-small”>Philipdemokritou</span><div id=“cepaste”><span style=“font-size:x-small”>demokritou博士目前是哈佛公共卫生学院的副教授。他的研究兴趣主要集中在纳米气溶胶科学和技术领域,重点是阐明粒子健康效应。<span><td><td style=“width:300新利手机客户端px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/juliane-fi1.jpg”><a href=“http://www.uft.oekologie.uni-bremen.de/julianefilserengl.2.htm“><img class=“AlignCenter size full wp-image-2109”title=“juliane fi”src=“//www.xcmww.com/en/files/2016/12/juliane-fi1.jpg”alt=“”width=“109”height=“136”/>a><span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong>julianefilser</strong><span style=“font-size:x-smal”L“>Juliane Filser是不莱梅大学环境研究和可持续技术跨学科UFT中心的副主任,是一名普通生态学和理论生态学的全职教授。德国。朱利安的主要研究重点是前瞻性环境风险评估,特别关注土壤中的生态相互作用。她的团队是世界上第一个指出在陆地环境中评估纳米颗粒潜在风险的团队之一。<span><td><tr><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><a href=“https://engineering.wustl.edu/profiles/pages/john fortner.aspx”><img class=“AlignCentersize full wp-image-2111“title=”john fortner“src=”//www.xcmww.com/en/files/2016/12/john-fortner.jpg“alt=”width=“99”height=“123”/><<a><span style=“font-size:x-small”><span><td style=“width:300px;height:188px“><span style=”font-size:x-small“><strong>john fortner<<span style=“font-size:x-small”>fortne教授R的研究主要集中在环境影响和先进材料的应用上。他广泛研究了环境的命运,工程碳纳米材料的反应性和影响,包括富勒烯和碳纳米管,在含水系统中。<span><div><span style=“font-size:x-small”><span><td><td style=“width:300px;height:188px”><a href=“https://vivo.brown.edu/display/rhurt”><img class=“AlignCenter size full wp-image-2115”title=“罗伯特伤害”src=“//www.xcmww.com/en/files/2016/12/robert-hurt.jpg”alt=“”width=“105”height=“132”/><<span style=“font-size:x-small“><span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>robert hurt</span><strong><span style=“font-size:x-small”>robert h.赫特是布朗大学的工程学教授,美国。他目前的研究包括对石墨烯族纳米材料的生物反应,碳纳米管吸收和毒性机制,纳米银和纳米铜在自然环境中的转化,安全材料设计,以及石墨烯的组装和折叠,以形成屏障和封装技术的三维结构,以及作为电极和催化剂的支持。<span><td><tr><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“http://people.wright.edu/saber.hussain”><img class=“AlignCenter size full wp-image-2117”title=“saber hussain”src=“//www.xcmww.com/en/files/2016/12/sabEr Hussain.jpg“alt=”width=“105”height=“132”/>.<a><span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>saber Hussain</span><span style=“font-size:x-small”>saber Hussain is Senior Scientist and Nanooxicology Group Lead,分子生物效应司,赖特·帕特森空军基地,俄亥俄州。他的研究兴趣集中在工程纳米材料与生物系统的基本相互作用,特别关注纳米器件的开发和评估纳米尺度结构的物理化学性质产生的潜在毒性。<span><td><td style=“width:300px;height:188px”><a href=“http://www.eawag.ch/en/aboutus/pitalt/organization/staff/profile/ralf kaegi/show/”><img class=“AlignCenter size full wp-image-2119”title=“kaegi ralf”src=“//www.xcmww.com/en/files/2016/12/kaegi-ralf.jpg”alt=“”width=“105”height=“132”/>a><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>ralf kaegi<span><strong><span style=“font-size:x-small”>dr ralf kaegi is based at eawag,瑞士。他的研究兴趣集中在(城市)环境中工程纳米材料的命运和运输上。<span><td><tr><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“https://www.etis.ee/portal/persons/display/ade7cc43-7275-43d3-b509-ec84182c85f8”><img class=“size full wp-image-2118 aligncenter”style=“color:0000ee”title=“anne kahru”src=“//www.xcmww.com/en/files/2016/12/anne-kahru.jpg”alt=“”width=“105”height=“132”/>a><span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>anne kahru</span><span style=“font-size:x-small”>Anne Kahru是美国国家化学物理和生物物理研究所环境毒理学实验室主任,塔林,爱沙尼亚。她目前的研究集中在结合分子技术合成纳米颗粒的(生态)毒性和生物利用度的机制上,体外和生态毒理学试验和分析化学。新利手机客户端她还是爱沙尼亚毒理学协会的创始人和主席。<span>><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/anne kahru.jpg”><a href=“http://sourcedb.cas.cn/sourcedbou rceesou cas/yw/tp/200910/t2091010ou 2541857.html”><img class=“AlignCenter size full wp-image-2120“title=”sijin liu“src=”//www.xcmww.com/en/files/2016/12/sijin-liu.jpg“alt=”width=“105”height=“132”/>.<a><td><td style=“width:300px;height:188px“><span style=”font-size:x-small“><strong><span style=”font-size:x-small“>sijin liu</span><span style=“font-size:x-small”>dr.刘思金,现任生态环境科学研究中心教授。新利手机客户端中国科学院。新利手机客户端他的研究兴趣包括:(1)环境污染物介导致癌效应的机制;(2)NanoSafety and NanoImpact.</span><td><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/sijin liu.jpg”><a><a href=“http://www.universiteitleiden.nl/en/staffembers/wllem peijnenburg”><img class=“AlignCenter size full”wp-image-2122“title=”Peijnenburg,博士。红外光谱。w“src=”//www.xcmww.com/en/files/2016/12/peijnenburg-dr.-ir.-w.jpg“alt=”width=“105”height=“132”/>a><span><td><td style=“width:300px;height:188px“><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>willie peijnenburg</span><span style=“font-size:x-small”>willie peijnenburg is profer of envir莱顿大学的精神毒理学和生物多样性,荷兰。目前,他的主要研究兴趣包括评估水介质中人工制造纳米材料的命运和生态效应。<span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“http://www.cive.uh.edu/faculty/rodrigues”><img class=“AlignCenter size full wp-image-2123”title=“deborah rodrigues”src=“//www.xcmww.com/en/files/2016/12/deborah-rodrigues.jpg“alt=”width=“105”height=“132”/>=<a><span><td><td style=“width:300px;height:188px”><span style=“font-size:small”><strong><span style=“font-size:x-small”>debora rodrigues<span><strong><span style=“font-size:x-small”>debora rodrigues is currently an associate professor at the休斯顿大学土木与环境工程系。她的研究兴趣涉及对碳基纳米材料和聚合物纳米复合物对废水微生物群落的毒理学效应及其在水处理和防腐蚀方面的潜在应用的调查。<span><td>><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px“><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/deborah rodrigues.jpg”><a><a href=“http://egh.phhp.ufl.edu/personnel/faculty-2/primary faculty/tara sabo attwood phd/”><img class=“AlignCenter size full wp-image-2124”title=“tara sabo atwood”src=“//www.xcmww.com/en/files/2016/12/tara-sabo-atwood.jpg”alt=“”width=“105”height=“132”/>.<a>.<td><td style=“width:300px;height:188px”><span style=“font-size:small”><strong><span style=“font-size:x-small”>tara sabo attwood<span><strong><span style=“font-size:x-small”>tara sabo attwood,博士是环境和全球健康部的副教授和主席,佛罗里达大学公共卫生与健康专业学院和环境与人类毒理学中心。她在环境分子毒理学方面拥有广泛的专业知识,重点关注水和空气污染物。<span><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“http://www.caee.utexas.edu/faculty/directory/saleh”><img class=“AlignCenter size full wp-image-2125”title=“navid saleh”src=“//www.xcmww.com/en/files/2016/12/navid saleh.jpg“alt=”width=“105”height=“132”/>=<a><span><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>navid saleh</span><strong><span style=“font-size:x-small”>navid saleh is an assistant professor of civil,德克萨斯大学奥斯汀分校的建筑和环境工程。他的研究重点是设计和开发新颖的和以人为中心的水处理技术。主要目标是通过创新的纳米材料处理工艺提高经济困难社区获得饮用水的机会。<span><td><tr><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/navid-saleh.jpg“><a><a href=“https://translate.google.co.uk/translate”?hl=en&sl=de&u=https://www.uni-koblenz-landau.de/de/landau/fb7/umweldwissenschaften/uchmie/mitarbeiter/wissenschaftler/gabriele schaumann&prev=search“><img class=“AlignCenter size full wp-image-2130”title=“gabi schaumann”src=“//www.xcmww.com/en/files/2016/12/gabi-schaumann.jpg”alt=“”width=“105”height=“132”/>=<a><span><td style=“wiDTH:300px;height:188px“><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>Gabriele Schaumann<span><strong><span style=“font-size:x-small”>Gabriele Schaumann is professor of environmental and soil chemistry at the university of koblenz landau,新利手机客户端德国。她的主要研究兴趣是对命运有一个以过程为导向的理解,新的颗粒应力源(如工程纳米粒子和塑料粒子)在环境中的转化和影响,并适应和进一步发展分析技术,以便在环境样品中检测和表征它们。<span><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“http:///www.xcmww.com/en/files/2016/11/gabi schaumann.jpg“><a><a href=“https://www.unige.ch/forel/en/biogeochimie/equipegeocotox/vera slaveykova/”><img class=“AlignCenter size full wp-image-2127”title=“vera slavykova”src=“//www.xcmww.com/en/files/2016/12/vera-slavykova.jpg”alt=“”width=“105”height=“132”/>=<a>><td><td style=“width:300px;height:188px“><span style=“font-size:x-small”><strong>veraslaveykova<strong>><span><span style=“font-size:x-small”><strong>>dr.薇拉岛斯拉维科娃是日内瓦大学环境生物地球化学和生态毒理学教授,F.-A系主任。新利手机客户端日内瓦大学环境与水科学研究院。新利手机客户端她的主要研究兴趣是开发新的工具和概念,研究控制微量元素和纳米颗粒行为的基本过程,它们与水生系统的各种生物和非生物成分的相互作用,与水质和环境风险评估高度相关。<span><td><tr><tr style=“height:80px”align=“left”valign=“middle”><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/vera slaveykova.jpg”><a><a href=“http://people.mcgill.ca/nathalie.tufenkji/”><imgclass=“AlignCenter size full wp-image-2129”title=“Nathaliee Tufenkji McGill by Eva蓝---0926415673363o o”src=“http://blog.rsc.org/en/文件/2016/12/Nathaliee-Tufe恩Kji-McGill-by-eva-蓝-0926415673363_O1.JPg”alt=宽度=“105”宽度=“105”heth=“105”高度=“132”/>,<span><span><td>><td style style=“宽度:300px;高度:300px;高度:188px“><span style style=“font style=“font size:x-size:X-小““o o-o-o-o-o-o o-o-o o圣yle=“font-size:x-small”>nathalie tufenkji</span><strong><span style=“font-size:x-small”>nathalie tufenkji is profer in the department of chemical engineering at mcgill university,加拿大。她的研究兴趣在于纳米材料的环境命运以及环境和生物医学应用的纳米增强产品的开发(照片来源:伊娃蓝)。<span><td><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/nathalie-tufenkji-mcgill-by-eva-蓝色-0926415673363_o.JPg“><a><a a href=“http://blog.rsc.org/en/文件/2016/2016/12/Maria Elen vela.JPg“><img class=“Align中心大小全wp-图像21331”title=“Maria elen vela”src=“http://blog.rsc.org/en/2016/2016/12/Maria-elen-vela.JPg“><<a><<a a href http://blohttp http://blog.rsc.rsc.org/RSc.org/EN/en/N/en/en/2016/文件/2016/2016/2016/2016/2016/2016/2016/2016/2016/2016/12/12/Maria-Maria ele蓝色-Elen-蓝色-蓝色-一个small“><strong><span style=“font-size:x-small”>Maria Elena Vela</span><strong><span style=“font-size:x-small”><span><p class=“msoNormal”><span lang=“en-us”><span style=“font-size:x-small”>dr.Mar_a Elena Vela是拉普拉塔国立大学(阿根廷)教授和伊尼夫塔研究所研究员,拉普拉塔市理论与应用物理化学研究所。新利手机客户端她的研究小组致力于功能性纳米结构材料的合成和研究及其在改变表面特性和设计分子超灵敏检测平台方面的应用。她还对分子和纳米粒子与模型生物膜的相互作用的研究感兴趣。<span><span><p><td><tr><tr style=“height:80p x”align=“left”valign=“middle”><td style=“width:300p x;height:188p x”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/maria elen vela.jpg”><a href=“//www.xcmww.com/en/files/2016/11/maria elen vela.jpg”><a://www.engr.ucr.edu/faculty/chemenv/swaker.html“><img class=“AlignCenter size full wp-image-2132”title=“Sharon Walker Headshot 2013”src=“//www.xcmww.com/en/files/2016/12/sharon-walker-headshot-2013.jpg”alt=“”width=“105”height=“132”/>.<a>.<span><td style=“width:300px;height:188px”><span style=“font-size:x-small”><strong><span style=“font-size:x-small”>Sharonwalker</span><strong><span style=“font-size:x-small”>Sharon Walker is interim dean of UC Riverside's Bourns College of Engineering,她还担任约翰·巴贝奇环境工程系主任和化学与环境工程系教授。她是一位领先的水质专家,关注水中细菌和纳米颗粒的命运和运输。<span><td style=“width:300px;height:188px”><span style=“font-size:x-small”><a href=“//www.xcmww.com/en/files/2016/11/sharon-walker-headshot-2013.jpg”><a><a href=“https://www.researchgate.net/profile/wendelou whlleben”><img class=“AlignCenter size full wp image-2133“title=”wendel wolleben“src=”//www.xcmww.com/en/files/2016/12/wendel-wolleben.jpg“alt=”width=“105”height=“132”/>=<a><span><td style=”width:300px;height:188px“><span style=”font-size:small“><strong><span style=”font-size:x-small“>wendelwolleben</span><span style=”font-size:x-small“><span><span style=”字体大小:x-small“>Wendel Wohlleben是巴斯夫研究纳米材料特性的资深科学家,部。材料物理学。他领导有关先进材料开发和纳米材料安全的研究项目,是哈佛公共卫生学院和魏茨曼研究所材料与接口系的客座科学家,以色列。<span><td><tr><tbody><table><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-size:small”>read some of the high impact research authorized by our new advisory board members in<span style=“font-style:italic”>environmental science:nano</span>using新利手机客户端 the links below.</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/articlelanding/2016/en/c5en00207a!DivAbstract“><span style=“FONT SIZE:small”>Modeling nanommaterial fate and uptake in the environment:current knowledge and future trends<span><a><span><span><p style=“Margin:0in”><span style=“FONT family:Arial”><span style=“FONT SIZE:small”>m.巴阿娄莎G.CornelisTa.J.Kuhlbusch一.LynchC.镍,WPeijnenburg和N.Wvan den brink</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2016,三,323-345</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00207a</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2016/EN/C5EN00209E!DivAbstract“><span style=“font-size:small”>Humic acid对银纳米粒子硫化动力学的影响</span><a><span><p><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>Basilius Thalmann,安德烈亚斯·沃格林,Eberhard Morgenroth and Ralf Kaegi</span><p><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environn.科学:纳米2016、3、203-212</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00209e<span><p><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2015/EN/C5EN00057B!DivAbstract“><span style=“font-size:small”>12种金属基纳米颗粒对藻类的毒性,细菌和原生动物Suman PokhrelMariliis Sihtm_e,莫妮卡·莫蒂默,lutz m_dler and anne kahru</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environn.科学:纳米2015、2、630-644</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00057b</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2016/EN/C5EN00222B!DivAbstract“><span style=“font-size:small”>DimerCaptop琥珀酸二甲酯涂层和非功能化磁性氧化铁纳米粒子对水生生物的毒性</span><a><span><p><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>ya qi zhang,拉尔夫·德林根,夏洛特·皮特,威贝克·拉斯特特,简·K·瑟,Juliane Filser and Stefan Stolte</span><p><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2016、3、754-767</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00222b</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/results?searchText=c5en00152h“><span style=“font-size:small”>Impact of chemical composition of ecoxitical test media on the stability and aggregation status of silver nandomes</span><span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>George Metreveli,比安卡·弗洛博尔德,Frank SeitzAlexandra Gr_n,艾伦·菲利普,里基河Rosenfeldt米尔科·本德舒,拉尔夫·舒尔茨,Werner Manz和Gabriele E.Schaumann</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environn.科学:纳米2016、3、418-433</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00152h</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><a href=“http://pubs.rsc.org/en/content/ArticleLanding/2016/en/c5en00109a!DivAbstract“><span style=”font-size:small“>颗粒多孔介质中掺杂钯的零价铁纳米粒子与生物膜之间的相互作用:表征,运输和生存能力亚历山大格沙诺夫,凯文J。威尔金森,Subhasis Ghoshal and Nathalie Tufenkji<span><p style=“Margin:0in”><span style=“font-size:small”><em>environn.科学:纳米2016、3、127-137</span><p style=“margin:0in”><span style=“font-size:small”>doi:10.1039/c5en00109a<span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><a href=“http://pubs.rsc.org/en/content/articlelanding/2015/en/c5en00122f!DivAbstract“><span style=”font-size:small“>深海小鱼的口服生物利用度和性别特异性组织量子点划分,pimephales promelas</span><a><p style=“margin:0in”><span style=“font-size:small”>c.MLavelleJ.H.BisesiMa.哈恩KJ.克罗尔TSabo Attwood和N.D.denslow<span><p style=“margin:0in”><span style=“font-size:small”>Journal Article environ.SCI:纳米,2015、2、583-593</span><p style=“margin:0in”><span style=“font-size:small”>doi:10.1039/c5en00122f</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/articlelanding/2016/en/c6en00252h!DivAbstract“><span style=“font-size:small”>End of Life Thermal Deposition of Nano-Enabled Polymers:effect of Nanofiller Loading and Polymer Matrix on By-Products<span><a><span><span><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>Dilpreet Singh,乔治亚州Sotiriou方张Joey MeadDhimiter BelloWendel Wohlleben and Philip Demokritou</span><p><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2016,advance article<span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c6en00252h<span><p><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/articlelanding/2016/en/c6en00178e!DivAbstract“><span style=“font-size:small”>Spool synthesis of phase controlled iron–graphene nanophybrids through feooh nanoprod intermediates</span><a><span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>x.S.吕是的。秋Z.是的。王G.M江,是的。T陈X。H.徐和RH.hurt<span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2016、3、1215-1221</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c6en00178e</span><p style=“margin:0in”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/contENT/ArticleLanding/2016/EN/C5EN00089K!DivAbstract“><span style=“font-size:small”>Surface Engineering Super-Paramantic Naminos for Water Applications:Design and Characterization of Customized Organic Bilayers<span><a><span><span><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>Wenlu-li,卡尔HHintonSeung Soo Lee吴洁伟和D约翰。fortner<span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2016、3、85-93</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>doi:10.1039/c5en00089k<span><p><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><a href=“http://pubs.rsc.org/en/content/articlelanding/2015/en/c4en00104d!DivAbstract“><span style=“font-size:small”>Research Strategy to determine when novel nanophybrids pose unique environmental risks</span><span><span><p style=“Margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”>navid b.萨利赫Nirupam Aich杰米·普拉扎斯·塔特尔,杰米河Lead和Gregory V.Lowry</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:small”><em>environ.科学:纳米2015、2、11-18</span><span><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.3333px”><span style=“font-size:small”>doi:10.1039/c4en00104</span><span style=“font-family:Arial”>d<span><span><p style=“margin:0in”><p style=“margin:0in”><span style=“font-family:Arial”><span style=“font-size:13.33333px“>.<span>.<span>.<p> //www.xcmww.com/en/2016/12/02/new-advisory-board-members-for-environmental-新利手机客户端science-nano/feed/ 第7届两年一次的浆果健康效益研讨会 //www.xcmww.com/fo/2016/12/02/7th-biennial-berry-health-benefits-conference/ //www.xcmww.com/fo/2016/12/02/7th Biennial Berry Health Benefits Symposium/评论 FRI,2016年12月2日10:19:18+0000 基尔·霍林斯沃斯 //www.xcmww.com/fo/2016/12/02/7th-biennial-berry-health-benefits-conference/ <p style=“text-align:center”>The<a href=“http://berry health.org/7th biennial berry health benefits sympaium/”>7th biennial berry health benefits sympaium<a>is due to be holding between<strong>28th-30th-march 2017<strong>in<strong>pismo beach,California</strong><p><p style=“text-Align:Center”><em><a href=“//www.xcmww.com/fo/files/2016/12/berry.png”><img class=“size full wp-image-3779 AlignCenter”title=“berry”src=“//www.xcmww.com/fo/files/2016/12/berry.png”alt=“”width=“200”height=“114”/></a><p style=“text-Align:Center”><em><a href=“//www.xcmww.com/fo/fiLES/2016/12/berry.png“><a>”来自全球各地的演讲者将分享有关浆果如何积极影响人类健康的前沿信息。在一天半的课程中,30名演讲者将展示他们最新的临床工作,基础研究和应用研究。“<em>><p style=“text-align:center”><em>>著名的浆果研究人员将在浆果和健康领域分享有价值的发现。<p style=“text-align:center”>topics of discussion:brain aginggut health and gut microfloracancerfood technology and chemistryheart and healthy agingmetabology.<p><p style=“text-align:center”>新利手机客户端2017年:摘要提交截止日期包括<strong>dr.芭芭拉·舒基特·黑尔美国)<强>博士Jess Reed</strong>(威斯康星大学麦迪逊分校,美国)和拉梅什·古普塔<(路易斯维尔大学,美国)。<p><p style=“text-align:center”><a href=“http://berry health.org/7th biennial berry health benefits symbosium/”>click here for the full programme.<a><p style=“text-align:center”>if you are planning to attend the conference,请考虑将您的工作提交到即将发布的在线收藏中,该收藏将在<em><a href=“http://berry health.org/7th biennial berry health benefits symbosition/”>food&function<a>>em>专门展示在berry health benefits symbosition上展示的高影响力研究。更多细节将在2017年跟进。<p><p style=“text-align:center”>以了解有关会议的更多信息,以及<a href=“https://apps.ideal-logic.com/cms?”key=f3t9-25vwy_k9kh-5ptf_908ef9e2“>寄存器</a>your interest,请访问他们的网站 <p style=“text-align:center”>The<a href=“http://berry health.org/7th biennial berry health benefits sympaium/”>7th biennial berry health benefits sympaium<a>is due to be holding between<strong>28th-30th-march 2017<strong>in<strong>pismo beach,California</strong><p><p style=“text-Align:Center”><em><a href=“//www.xcmww.com/fo/files/2016/12/berry.png”><img class=“size full wp-image-3779 AlignCenter”title=“berry”src=“//www.xcmww.com/fo/files/2016/12/berry.png”alt=“”width=“200”height=“114”/></a><p style=“text-Align:Center”><em><a href=“//www.xcmww.com/fo/fiLES/2016/12/berry.png“><a>”来自全球各地的演讲者将分享有关浆果如何积极影响人类健康的前沿信息。在一天半的课程中,30名演讲者将展示他们最新的临床工作,基础研究和应用研究。“<em>><p style=“text-align:center”><em>>著名的浆果研究人员将在浆果和健康领域分享有价值的发现。<p style=“text-align:center”>topics of discussion:brain aginggut health and gut microfloracancerfood technology and chemistryheart and healthy agingmetabology.<p><p style=“text-align:center”>新利手机客户端2017年:摘要提交截止日期包括<strong>dr.芭芭拉·舒基特·黑尔美国)<强>博士Jess Reed</strong>(威斯康星大学麦迪逊分校,美国)和拉梅什·古普塔<(路易斯维尔大学,美国)。<p><p style=“text-align:center”><a href=“http://berry health.org/7th biennial berry health benefits symbosium/”>click here for the full programme.<a><p style=“text-align:center”>if you are planning to attend the conference,请考虑将您的工作提交到即将发布的在线收藏中,该收藏将在<em><a href=“http://berry health.org/7th biennial berry health benefits symbosition/”>food&function<a>>em>专门展示在berry health benefits symbosition上展示的高影响力研究。更多细节将在2017年跟进。<p><p style=“text-align:center”>以了解有关会议的更多信息,以及<a href=“https://apps.ideal-logic.com/cms?”key=f3t9-25vwy_k9kh-5ptf_908ef9e2“>寄存器</a>your interest,请访问他们的网站 //www.xcmww.com/fo/2016/12/02/7th-biennial-berry-health-benefits-conference/feed/ ORGSYN 50大会2017年2月27日至28日 //www.xcmww.com/ob/2016/12/02/orgsyn-50-conference-27-28-2017年2月/ //www.xcmww.com/ob/2016/12/02/orgsyn-50-conference-27th-28th-february-2017/评论 FRI,2016年12月2日09:52:44+0000 凯莉波特 //www.xcmww.com/ob/2016/12/02/orgsyn-50-conference-27-28-2017年2月/ <p style=“text-align:center”><a href=“//www.xcmww.com/ob/file/2016/12/49E8A5C7-ffc2-4d47-ad2e-b108c1fe3e1.png“><img class=“AlignCenter size fulwp-image-7561”title=“49E8a5c7-ffc2-4d47-ad2e-b108c1fe3e1”src=“http://blog.rsc.org/ob/file/2016/12/49E88a5c7-ffc2-4d47-4d47-ad2e-b108c1fe333fe3fe2e-b108c1108c1fe3888c1fe3fe3e8dwidth=“548”height=“83”/>=<a>><p style=”text-align:center“><strong>orgsyn 50-developments i新利手机客户端n organic chemistry.<strong><p style=“text-align:left”>fluorochem invite you to join them from<strong>27-28 february 2017 in manchester,在帮助支持研究和为全球研发提供中间产品方面,英国将庆祝其50年的里程碑。<p>在这两天内,将有13场涵盖广泛主题的优秀讲座。Fluorochem很高兴能够吸引高水平的演讲者参加本次活动,并希望确保人们不会错过一个独特的机会来欣赏在英国进行的当前研究的卓越标准。和他们一起讲述意想不到的故事;从氟化到原料,级联到催化作用,纳米级到自然。了解癌症研究的最新进展,参与诸如罗他卡因之类的话题,尿素功能和数字化化学。<strong>Introducin新利手机客户端g an outstanding line up of speakers which includes:<strong><ul><li>lee cronin教授;<li><li>dr kate smith;<li><li>教授graham sandford,and</li><li><em><a href=“http://www.rsc.org/journals books databases/about journals/organic biomoleral ch新利手机客户端emistry/”>organic and biomoleral chemistry</a>>em>editional board member jonathan clayden.<li>>for more information<strong>>and to register please<a href=“http://orgsyn.co.uk/”>visit the website.<a>。 <p style=“text-align:center”><a href=“//www.xcmww.com/ob/file/2016/12/49E8A5C7-ffc2-4d47-ad2e-b108c1fe3e1.png“><img class=“AlignCenter size fulwp-image-7561”title=“49E8a5c7-ffc2-4d47-ad2e-b108c1fe3e1”src=“http://blog.rsc.org/ob/file/2016/12/49E88a5c7-ffc2-4d47-4d47-ad2e-b108c1fe333fe3fe2e-b108c1108c1fe3888c1fe3fe3e8dwidth=“548”height=“83”/>=<a>><p style=”text-align:center“><strong>orgsyn 50-developments i新利手机客户端n organic chemistry.<strong><p style=“text-align:left”>fluorochem invite you to join them from<strong>27-28 february 2017 in manchester,在帮助支持研究和为全球研发提供中间产品方面,英国将庆祝其50年的里程碑。<p>在这两天内,将有13场涵盖广泛主题的优秀讲座。Fluorochem很高兴能够吸引高水平的演讲者参加本次活动,并希望确保人们不会错过一个独特的机会来欣赏在英国进行的当前研究的卓越标准。和他们一起讲述意想不到的故事;从氟化到原料,级联到催化作用,纳米级到自然。了解癌症研究的最新进展,参与诸如罗他卡因之类的话题,尿素功能和数字化化学。<strong>Introducin新利手机客户端g an outstanding line up of speakers which includes:<strong><ul><li>lee cronin教授;<li><li>dr kate smith;<li><li>教授graham sandford,and</li><li><em><a href=“http://www.rsc.org/journals books databases/about journals/organic biomoleral ch新利手机客户端emistry/”>organic and biomoleral chemistry</a>>em>editional board member jonathan clayden.<li>>for more information<strong>>and to register please<a href=“http://orgsyn.co.uk/”>visit the website.<a>。 //www.xcmww.com/ob/2016/12/02/orgsyn-50-conference-27th-28th-feed/ 2016年会议海报奖得主 //www.xcmww.com/jm/2016/12/02/paster-prize-winners-at-the-phosm-2016-conference/ //www.xcmww.com/jm/2016/12/02/paster-prize-winners-at-the-phosm-2016-conference/评论 FRI,2016年12月2日09:13:34+0000 Kate Bandoo出版助理 //www.xcmww.com/jm/2016/12/02/paster-prize-winners-at-the-phosm-2016-conference/ [caption id=“attachment7306”align=“AlignRight”width=“315”caption=“先生Kyohei Hisano to the right and Profer Takahiro Seki of Nagoya University the Conference Chair to the left.”]<a href=“//www.xcmww.com/jm/files/2016/12/dsc0690.jpg”><img class=“size large wp-image-7306”title=“dsc0690”src=“//www.xcmww.com/jm/files/2016/12/dsc0690-1024x682.jpg”alt=“”width=“315”height=“209”/>./a>[/caption]many con向久海野(东京理工大学,日本)在名古屋举行的<a href=“http://www.apchem.nagoya-u.ac.jp/06-bs-2/phosm/index.html”><strong>phosm 2016<strong><a>conference which taked place on the 24-27 th november 2016 in nagoya,日本。巨海获得了<em>材料化学杂志C<em>海报奖,并将免费获得一年的电子版杂志,其海报标题为:<em>通新利手机客户端过无偏振光或校准层的掩模光聚合进行光校准控制</em>会议上讨论的主题包括合成和设计n个光响应分子,液晶材料和系统中的光对准,光诱导效应的物理和计算机模拟。来自15个不同国家的153名代表出席了会议。有55次口头陈述和42次海报陈述。有关会议的更多信息,请访问他们的网站<strong><a href=“http://www.apchem.nagoya-u.ac.jp/06-bs-2/phosm/index.html”> [caption id=“attachment7306”align=“AlignRight”width=“315”caption=“先生Kyohei Hisano to the right and Profer Takahiro Seki of Nagoya University the Conference Chair to the left.”]<a href=“//www.xcmww.com/jm/files/2016/12/dsc0690.jpg”><img class=“size large wp-image-7306”title=“dsc0690”src=“//www.xcmww.com/jm/files/2016/12/dsc0690-1024x682.jpg”alt=“”width=“315”height=“209”/>./a>[/caption]many con向久海野(东京理工大学,日本)在名古屋举行的<a href=“http://www.apchem.nagoya-u.ac.jp/06-bs-2/phosm/index.html”><strong>phosm 2016<strong><a>conference which taked place on the 24-27 th november 2016 in nagoya,日本。巨海获得了<em>材料化学杂志C<em>海报奖,并将免费获得一年的电子版杂志,其海报标题为:<em>通新利手机客户端过无偏振光或校准层的掩模光聚合进行光校准控制</em>会议上讨论的主题包括合成和设计n个光响应分子,液晶材料和系统中的光对准,光诱导效应的物理和计算机模拟。来自15个不同国家的153名代表出席了会议。有55次口头陈述和42次海报陈述。有关会议的更多信息,请访问他们的网站<strong><a href=“http://www.apchem.nagoya-u.ac.jp/06-bs-2/phosm/index.html”> //www.xcmww.com/jm/2016/12/02/paster-prize-winners-at-the-phosm-2016-conference/feed/ 提供抗癌鸡尾酒:设计,混合抑制剂的合成与评价 //www.xcmww.com/ra/2016/12/02/serving-up-anti-cancer-cocktails-design-synthesis-and-evaluation-of-hybrid-inhibitors/ //www.xcmww.com/ra/2016/12/02/serving up anti cancer cocktails design synthesis and evaluation of hybrid inhibitors/评论 FRI,2016年12月2日08:34:44+0000 阿南德·德瓦斯塔南 //www.xcmww.com/ra/2016/12/02/serving-up-anti-cancer-cocktails-design-synthesis-and-evaluation-of-hybrid-inhibitors/ <p dir=“ltr”>癌症药物开发领域的科学家不断地寻找针对癌症阿基里斯之踵的方法。BCR-abl是一种蛋白质,在所有慢性髓细胞白血病(一种血癌)病例中有95%的病例中表达。它保持激活状态(即打开)并指示癌细胞无限期分裂。BCR ABL仍然是一个有吸引力的治疗目标。另一个有吸引力的治疗靶点是组蛋白脱乙酰基酶1(hdac1),它是一种通过影响某些基因的开启和关闭来控制细胞存活的蛋白质。<p dir=“ltr”>previous studies show that the drugs dasatinib and ms-275 effectively inhibited the cancer promoting activities of bcr abl and hdac1 respec相当地。临床试验也表明这些药物,单独用于单独研究时,可用于治疗各种固体癌和血源性癌。BCR ABL和HDAC1是不同蜂窝布线系统的组成部分,被称为信号通路,维持细胞存活和分裂。单剂药物,或者抑制单一致癌途径的药物,剔除大多数癌细胞,同时也为耐药细胞奠定了基础。报告表明,达沙替尼和MS-275都与癌症药物耐药性有关。<p><p dir=“ltr”>multi-target inhibitors是一类新的和不断发展的癌症药物,可以同时抑制至少两个信号通路。这些化合物已成为规避癌症药物耐药性的潜在解决方案。陈和他在有机化学系的同事们,新利手机客户端理学院,新利手机客户端中国药科大学,中国设计并生产了一系列混合药物分子,将HDAC抑制剂MS-275的属性与BCR ABL抑制剂达沙替尼结合起来。<p><p dir=“ltr”><img title=“c6ra21271a”class=“AlignLeft”src=“http://pubs.rsc.org/services/images/rsc pubs.eplatform.service.freecontent.image service.svc/image service/image/ga?id=c6ra21271a“alt=”width=“378”height=“114”/>以确定混合药物对癌细胞存活的影响,研究小组测试了该药物抑制三种表现出白血病特征的细胞生长的能力。分别是肾癌和前列腺癌。他们发现系列中的所有药物都对癌细胞有毒,白血病和肾癌细胞对混合药物表现出最大程度的敏感性。<p><p dir=“ltr”>to better understand how the hybrid drugs interaction with the bcr abl and hdac1 active sites(即打开开关)。该小组依靠计算机生成的混合药物的三维模型,bcr-abl和hdac1蛋白。使用类似于找到锁的正确钥匙的方法,一个计算机程序发现一种叫做6a的混合化合物,恰好是系列中最有效的化合物,最适合BCR ABL和HDAC1活动站点。理论上,6a将防止BCR ABL和HDAC1被激活(即它们保持关闭状态)。<p><p dir=“ltr”>on the basis of these observations,这项研究加强了化学融合两种抗癌药物形成一个新的单分子可能被证明是一个有效的抗癌治疗的临床策略的范例。在更广泛的范围内,这是许多提倡在癌症治疗中使用多靶点药物的研究之一,强调单分子组合疗法即将掀起的热潮。<p>请阅读全文:<div id=“_mcepaste”><a href=“http://pubs.rsc.org/en/content/articlelanding/2016/ra/c6ra21271a!DivAbstract“>设计,2-氨基-N-(2-氨基苯基)噻唑-5-甲酰胺衍生物作为新型BCR-ABL和组蛋白脱乙酰基酶双抑制剂的合成和生物评价摘要“>Xin Chen,赵爽,易超武亚东晨陶璐、朱勇 <p dir=“ltr”>癌症药物开发领域的科学家不断地寻找针对癌症阿基里斯之踵的方法。BCR-abl是一种蛋白质,在所有慢性髓细胞白血病(一种血癌)病例中有95%的病例中表达。它保持激活状态(即打开)并指示癌细胞无限期分裂。BCR ABL仍然是一个有吸引力的治疗目标。另一个有吸引力的治疗靶点是组蛋白脱乙酰基酶1(hdac1),它是一种通过影响某些基因的开启和关闭来控制细胞存活的蛋白质。<p dir=“ltr”>previous studies show that the drugs dasatinib and ms-275 effectively inhibited the cancer promoting activities of bcr abl and hdac1 respec相当地。临床试验也表明这些药物,单独用于单独研究时,可用于治疗各种固体癌和血源性癌。BCR ABL和HDAC1是不同蜂窝布线系统的组成部分,被称为信号通路,维持细胞存活和分裂。单剂药物,或者抑制单一致癌途径的药物,剔除大多数癌细胞,同时也为耐药细胞奠定了基础。报告表明,达沙替尼和MS-275都与癌症药物耐药性有关。<p><p dir=“ltr”>multi-target inhibitors是一类新的和不断发展的癌症药物,可以同时抑制至少两个信号通路。这些化合物已成为规避癌症药物耐药性的潜在解决方案。陈和他在有机化学系的同事们,新利手机客户端理学院,新利手机客户端中国药科大学,中国设计并生产了一系列混合药物分子,将HDAC抑制剂MS-275的属性与BCR ABL抑制剂达沙替尼结合起来。<p><p dir=“ltr”><img title=“c6ra21271a”class=“AlignLeft”src=“http://pubs.rsc.org/services/images/rsc pubs.eplatform.service.freecontent.image service.svc/image service/image/ga?id=c6ra21271a“alt=”width=“378”height=“114”/>以确定混合药物对癌细胞存活的影响,研究小组测试了该药物抑制三种表现出白血病特征的细胞生长的能力。分别是肾癌和前列腺癌。他们发现系列中的所有药物都对癌细胞有毒,白血病和肾癌细胞对混合药物表现出最大程度的敏感性。<p><p dir=“ltr”>to better understand how the hybrid drugs interaction with the bcr abl and hdac1 active sites(即打开开关)。该小组依靠计算机生成的混合药物的三维模型,bcr-abl和hdac1蛋白。使用类似于找到锁的正确钥匙的方法,一个计算机程序发现一种叫做6a的混合化合物,恰好是系列中最有效的化合物,最适合BCR ABL和HDAC1活动站点。理论上,6a将防止BCR ABL和HDAC1被激活(即它们保持关闭状态)。<p><p dir=“ltr”>on the basis of these observations,这项研究加强了化学融合两种抗癌药物形成一个新的单分子可能被证明是一个有效的抗癌治疗的临床策略的范例。在更广泛的范围内,这是许多提倡在癌症治疗中使用多靶点药物的研究之一,强调单分子组合疗法即将掀起的热潮。<p>请阅读全文:<div id=“_mcepaste”><a href=“http://pubs.rsc.org/en/content/articlelanding/2016/ra/c6ra21271a!DivAbstract“>设计,2-氨基-N-(2-氨基苯基)噻唑-5-甲酰胺衍生物作为新型BCR-ABL和组蛋白脱乙酰基酶双抑制剂的合成和生物评价摘要“>Xin Chen,赵爽,易超武亚东晨陶璐、朱勇 //www.xcmww.com/ra/2016/12/02/serving-up-anti-cancer-cocktails-design-synthesis-and-evaluation-of-hybrid-inhibitors/feed/ 英国皇家化学学会和美国化学学会出版新利手机客户端物致力于ORCID整合 //www.xcmww.com/cs/2016/12/01/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ //www.xcmww.com/cs/2016/12/01/Royal Society of 新利手机客户端Chemistry and ACS Publications Commit to Orcid Integration/评论 清华大学,2016年12月1日13:15:07+0000 劳伦特·马西,开发编辑 //www.xcmww.com/cs/2016/12/01/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>on 28 november 2016,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>on 28 november 2016,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 //www.xcmww.com/cs/2016/12/01/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/feed/ 英国皇家化学学会和美国化学学会出版新利手机客户端物致力于ORCID整合 //www.xcmww.com/sc/2016/12/01/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ //www.xcmww.com/sc/2016/12/01/Royal Society of 新利手机客户端Chemistry and ACS Publications Commit to Orcid Integration/评论 清华大学,2016年12月1日13:14:47+0000 劳伦特·马西,开发编辑 //www.xcmww.com/sc/2016/12/01/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>on 28 november 2016,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>on 28 november 2016,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 //www.xcmww.com/sc/2016/12/01/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/feed/ 英国皇家化学学会和美国化学学会出版新利手机客户端物致力于ORCID整合 //www.xcmww.com/cc/2016/12/01/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ //www.xcmww.com/cc/2016/12/01/Royal Society of 新利手机客户端Chemistry and ACS Publications Commit to Orcid Integration/评论 清华大学,2016年12月1日13:14:20+0000 劳伦特·马西,开发编辑 //www.xcmww.com/cc/2016/12/01/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>on 28 november 2016,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>on 28 november 2016,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 //www.xcmww.com/cc/2016/12/01/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/feed/ 介绍我们新的编辑委员会成员-玛丽安·格拉西 //www.xcmww.com/em/2016/12/01/introducing-our-new-editional-board-member-marianne-glasius/ //www.xcmww.com/em/2016/12/01/介绍我们新的编辑委员会成员Marianne Glasius/评论 清华大学,2016年12月1日10:21:22+0000 //www.xcmww.com/em/2016/12/01/introducing-our-new-editional-board-member-marianne-glasius/ 我们很高兴将<strong>Marianne引入<strong>Glasius,作为<em>环境科学:过程和影响的新编辑委员会成员。新利手机客户端玛丽安作为编委会成员加入了这个团队,从2017年1月开始担任副编辑,并将从2017年1月开始担任副编辑职务。<a href=“//www.xcmww.com/em/file/2016/11/web_Marianne_Glasius_glasiuu jr_0645.jpg“><img title<web_Marianne_Glasiuu Glasius_Glasiuu glasiuu ju 0645.jpg“><img title=“web_Mariannealile左侧尺寸较大的wp-image-3384”src=“//www.xcmww.com.org/em/web/file/2016/2016/11/web_Marianne_Glasius_Glasiuju-0645-819x102819x10224.jpg”alt一个/a>Marianne will be joining<strong>Liang Hong Guo<strong>,<strong>Helen Hsu Kim<strong>,<strong>Edward Kolodziej<strong>,<strong>Matthew Macleod<strong>and<strong>Paul Tratnyek<strong>as<a href=“http://www.rsc.org/journals books databases/about journals/environmental scienc新利手机客户端e processes impacts/boards staff”><strong>Associate editors.<strong>>a>handling submissions to the journal.<div id=“_mcepaste”>Marianne Glasius is associate professor at the depart奥尔胡斯大学化学系,新利手机客户端丹麦(2006年以来)她还隶属于跨学科纳米科学中心和北极研究中心。新利手机客户端她获得了博士学位。200新利手机客户端0年毕业于丹麦南部大学化学系。在学习期间,她留在欧洲委员会联合研究中心,伊斯普拉意大利一年。博士。格拉西斯是国家环境研究所的科学家和资深科学家,丹麦六年了。最近,她访问了加利福尼亚大学,伯克利一年,与教授合作A.H.戈尔茨坦在环境科学部,新利手机客户端政策与管理Glasius致力于开发和应用先进的化学分析方法,以鉴定和表征复杂基质中的有机化合物。其目的是了解这些过程是否涉及影响空气污染和气候的大气气溶胶,或开发未来的生物燃料。<div><code><code><code><code>--please join us in inwexing Marianne to<em>environmental science:processes&impacts</em>。interes新利手机客户端ted in the latest news,<a href=“http://rsc.li/envsci”><strong><em>environmental science<em><strong><a>journ新利手机客户端als的研究和事件?<strong>在twitter上查找我们:<strong><a href=“https://twitter.com/envscirsc”><strong>@envscirsc<strong>> 我们很高兴将<strong>Marianne引入<strong>Glasius,作为<em>环境科学:过程和影响的新编辑委员会成员。新利手机客户端玛丽安作为编委会成员加入了这个团队,从2017年1月开始担任副编辑,并将从2017年1月开始担任副编辑职务。<a href=“//www.xcmww.com/em/file/2016/11/web_Marianne_Glasius_glasiuu jr_0645.jpg“><img title<web_Marianne_Glasiuu Glasius_Glasiuu glasiuu ju 0645.jpg“><img title=“web_Mariannealile左侧尺寸较大的wp-image-3384”src=“//www.xcmww.com.org/em/web/file/2016/2016/11/web_Marianne_Glasius_Glasiuju-0645-819x102819x10224.jpg”alt一个/a>Marianne will be joining<strong>Liang Hong Guo<strong>,<strong>Helen Hsu Kim<strong>,<strong>Edward Kolodziej<strong>,<strong>Matthew Macleod<strong>and<strong>Paul Tratnyek<strong>as<a href=“http://www.rsc.org/journals books databases/about journals/environmental scienc新利手机客户端e processes impacts/boards staff”><strong>Associate editors.<strong>>a>handling submissions to the journal.<div id=“_mcepaste”>Marianne Glasius is associate professor at the depart奥尔胡斯大学化学系,新利手机客户端丹麦(2006年以来)她还隶属于跨学科纳米科学中心和北极研究中心。新利手机客户端她获得了博士学位。200新利手机客户端0年毕业于丹麦南部大学化学系。在学习期间,她留在欧洲委员会联合研究中心,伊斯普拉意大利一年。博士。格拉西斯是国家环境研究所的科学家和资深科学家,丹麦六年了。最近,她访问了加利福尼亚大学,伯克利一年,与教授合作A.H.戈尔茨坦在环境科学部,新利手机客户端政策与管理Glasius致力于开发和应用先进的化学分析方法,以鉴定和表征复杂基质中的有机化合物。其目的是了解这些过程是否涉及影响空气污染和气候的大气气溶胶,或开发未来的生物燃料。<div><code><code><code><code>--please join us in inwexing Marianne to<em>environmental science:processes&impacts</em>。interes新利手机客户端ted in the latest news,<a href=“http://rsc.li/envsci”><strong><em>environmental science<em><strong><a>journ新利手机客户端als的研究和事件?<strong>在twitter上查找我们:<strong><a href=“https://twitter.com/envscirsc”><strong>@envscirsc<strong>> //www.xcmww.com/em/2016/12/01/introducing-our-new-editional-board-member-marianne-glasius/feed/ 2016年Polymat Spotlight的亮点 //www.xcmww.com/jm/2016/12/01/hightlights-from-polymat-spotlight-2016/ //www.xcmww.com/jm/2016/12/01/hightlights-from-polymat-spotlight-2016/评论 清华大学,2016年12月1日10:05:51+0000 Kate Bandoo出版助理 //www.xcmww.com/jm/2016/12/01/hightlights-from-polymat-spotlight-2016/ <p style=“text-align:center”><a href=“//www.xcmww.com/jm/files/2016/12/polymat-pic1.png”><img class=“size medium wp-image-7296-align center”title=“polymat-pic”src=“//www.xcmww.com/jm/files/2016/12/polymat-pic1-300x82.png”alt=“”width=“300”height=“82”/><<p style=“text-align:center”><a href=“//www.xcmww.com/jm/files/2016/12/polymat-pic-2.jpg“><img class=“size large wp-image-7297 AlignCenter”title=“polymat pic 2”src=“//www.xcmww.com/jm/files/2016/12/polymat-pic-2-1024x682.jpg”alt=“”width=“450”height=“299”/></a><p>during the 21<sup>st.<sup>-24<sup>th<sup>of june 2016 the very first edition of polymat spotlight(<a href=“http://polymat spotlight.eu/”>http://polymat spotlight.eu>)在西班牙北部美丽的圣塞巴斯蒂安市举行。polymat spotlight是一个新成立的国际论坛,旨在汇集对新兴和技术相关高分子材料感兴趣的世界领先学者和关键行业。由教授组织奥雷里奥·马特奥·阿隆索,Polymat Spotlight第一版致力于研究二维和多孔聚合物的新方法,包括合成,属性和应用。本次会议由Polymat(<a href=“http://polymat.eu/”>http://polymat.eu<a>)巴斯克国家大学大分子材料研究中心组织,同时也是巴斯克卓越研究中心(BERC)网络的成员。这一倡议的触发因素是欧盟2020年研究和创新地平线框架计划通过项目2d-ink,未来和新兴技术行动(FET公开赛)。会议地点是米拉玛宫(Miramar Palace),可以看到城市最壮观的景色之一。该项目旨在促进研究人员之间的互动,并在会议期间有足够的时间进行讨论。鸡尾酒,咖啡休息和午餐,一切都发生在米拉玛宫。总的来说,会议为期四天,安排了来自全球公认专家的6次全体会议和13次主旨演讲,包括马库斯·安东尼蒂教授,Maurizio Prato董琳江纳扎里奥·马丁,格雷厄姆·博德韦尔和科林·纳克尔。完成了13次专题讲座,18个闪光演示和31个海报,吸引超过100名参与者。通过在两次受邀(全体会议或主旨演讲)讲座之间进行演讲,确保贡献讲师的知名度。在<em>Journal of Materials Chemistry A<em>和<em>Materials Horizons<em>的支持下,新利手机客户端三个奖项被授予最佳海报。受到Polymat Spotlight的热烈欢迎,今后每半年组织一次。的确,组织者已经开始制作2018版。更多照片可在以下网址找到:<a href=“https://www.flickr.com/photos/142817369@n04/colums/721576701238885276”>https://www.flickr.com/photos/142817369@n04/colums/721576701238885276 <p style=“text-align:center”><a href=“//www.xcmww.com/jm/files/2016/12/polymat-pic1.png”><img class=“size medium wp-image-7296-align center”title=“polymat-pic”src=“//www.xcmww.com/jm/files/2016/12/polymat-pic1-300x82.png”alt=“”width=“300”height=“82”/><<p style=“text-align:center”><a href=“//www.xcmww.com/jm/files/2016/12/polymat-pic-2.jpg“><img class=“size large wp-image-7297 AlignCenter”title=“polymat pic 2”src=“//www.xcmww.com/jm/files/2016/12/polymat-pic-2-1024x682.jpg”alt=“”width=“450”height=“299”/></a><p>during the 21<sup>st.<sup>-24<sup>th<sup>of june 2016 the very first edition of polymat spotlight(<a href=“http://polymat spotlight.eu/”>http://polymat spotlight.eu>)在西班牙北部美丽的圣塞巴斯蒂安市举行。polymat spotlight是一个新成立的国际论坛,旨在汇集对新兴和技术相关高分子材料感兴趣的世界领先学者和关键行业。由教授组织奥雷里奥·马特奥·阿隆索,Polymat Spotlight第一版致力于研究二维和多孔聚合物的新方法,包括合成,属性和应用。本次会议由Polymat(<a href=“http://polymat.eu/”>http://polymat.eu<a>)巴斯克国家大学大分子材料研究中心组织,同时也是巴斯克卓越研究中心(BERC)网络的成员。这一倡议的触发因素是欧盟2020年研究和创新地平线框架计划通过项目2d-ink,未来和新兴技术行动(FET公开赛)。会议地点是米拉玛宫(Miramar Palace),可以看到城市最壮观的景色之一。该项目旨在促进研究人员之间的互动,并在会议期间有足够的时间进行讨论。鸡尾酒,咖啡休息和午餐,一切都发生在米拉玛宫。总的来说,会议为期四天,安排了来自全球公认专家的6次全体会议和13次主旨演讲,包括马库斯·安东尼蒂教授,Maurizio Prato董琳江纳扎里奥·马丁,格雷厄姆·博德韦尔和科林·纳克尔。完成了13次专题讲座,18个闪光演示和31个海报,吸引超过100名参与者。通过在两次受邀(全体会议或主旨演讲)讲座之间进行演讲,确保贡献讲师的知名度。在<em>Journal of Materials Chemistry A<em>和<em>Materials Horizons<em>的支持下,新利手机客户端三个奖项被授予最佳海报。受到Polymat Spotlight的热烈欢迎,今后每半年组织一次。的确,组织者已经开始制作2018版。更多照片可在以下网址找到:<a href=“https://www.flickr.com/photos/142817369@n04/colums/721576701238885276”>https://www.flickr.com/photos/142817369@n04/colums/721576701238885276 //www.xcmww.com/jm/2016/12/01/hightlights-from-polymat-spotlight-2016/feed/ 新型磁流体“镊子”,能够操纵单个活细胞 //www.xcmww.com/nh/2016/12/01/new磁流体-%e2%80%9c除颤器%e2%80%9d-capable-of-operating-a-single-live-cell/ //www.xcmww.com/nh/2016/12/01/new magnetic-%e2%80%9ctweeers%e2%80%9d-capable-of-operating-a-single-live-cell/评论 清华大学,2016年12月1日09:13:52+0000 方杰晨发布管理员协调员 //www.xcmww.com/nh/2016/12/01/new磁流体-%e2%80%9c除颤器%e2%80%9d-capable-of-operating-a-single-live-cell/ [caption id=“attachment506”align=“AlignRight”width=“300”caption=“打开外部磁场前后磁微探头下单个细胞的共聚焦图像”]<a href=“//www.xcmww.com/nh/files/2016/12/c6nh00104a7.png”><img class=“size medium wp-image-506”title=“c6nh00104a”src=“//www.xcmww.com/nh/files/2016/12/c6nh00104A7-300x152.png“alt=”width=“300”height=“152”/>./a>[/caption]单细胞操作可以提供对细胞力学和粘附力的洞察,并且在体外具有关键作用-<em>受精(ivf)。韩国蔚山国家科学技术研究所的Bartusz Grzybowski及其团队的新技术不需要预先对细胞进行新利手机客户端磁性标记。它还避免了其他方法可能导致的热或应力诱导的细胞损伤的风险。通过微探头将电磁铁应用于磁性介质,产生磁场梯度,它引导细胞向某个方向移动。通过改变微探针“镊子”的位置,单元移动可以在2维和3维中进行操作,也可以控制单个单元,这种微型传感器可以将几个细胞聚集在一起,引导它们形成规则形状的簇状结构。虽然还很远,有朝一日,这可以用来提高体外受精过程的效率,减少需要丢弃的潜在胚胎的数量。它还可以扩展到操纵细菌和其他单细胞生物,对它们的行为进行详细的研究。这里:<a href=“http://pubs.rsc.org/en/content/articlelanding/2017/nh/c6nh00104a”!DivAbstract“target=”撘blank“><strong>补漏白,使用磁流体镊子对活细胞进行操作和结晶。v.诉一.TimonenC.RaimondoD.皮兰斯P.P.皮莱和B.a.grzybowski<em><strong>nanoscale horizon<strong><em>,2016,Susannah May是RSC期刊博客的客座Web作者。她目前在英国皇家化学学会出版部工作,新利手机客户端对生物学和生物医学有着浓厚的兴趣,以及它们与化学交叉点的前沿。新利手机客户端她可以在Twitter上使用@susannahcimay找到。@em> [caption id=“attachment506”align=“AlignRight”width=“300”caption=“打开外部磁场前后磁微探头下单个细胞的共聚焦图像”]<a href=“//www.xcmww.com/nh/files/2016/12/c6nh00104a7.png”><img class=“size medium wp-image-506”title=“c6nh00104a”src=“//www.xcmww.com/nh/files/2016/12/c6nh00104A7-300x152.png“alt=”width=“300”height=“152”/>./a>[/caption]单细胞操作可以提供对细胞力学和粘附力的洞察,并且在体外具有关键作用-<em>受精(ivf)。韩国蔚山国家科学技术研究所的Bartusz Grzybowski及其团队的新技术不需要预先对细胞进行新利手机客户端磁性标记。它还避免了其他方法可能导致的热或应力诱导的细胞损伤的风险。通过微探头将电磁铁应用于磁性介质,产生磁场梯度,它引导细胞向某个方向移动。通过改变微探针“镊子”的位置,单元移动可以在2维和3维中进行操作,也可以控制单个单元,这种微型传感器可以将几个细胞聚集在一起,引导它们形成规则形状的簇状结构。虽然还很远,有朝一日,这可以用来提高体外受精过程的效率,减少需要丢弃的潜在胚胎的数量。它还可以扩展到操纵细菌和其他单细胞生物,对它们的行为进行详细的研究。这里:<a href=“http://pubs.rsc.org/en/content/articlelanding/2017/nh/c6nh00104a”!DivAbstract“target=”撘blank“><strong>补漏白,使用磁流体镊子对活细胞进行操作和结晶。v.诉一.TimonenC.RaimondoD.皮兰斯P.P.皮莱和B.a.grzybowski<em><strong>nanoscale horizon<strong><em>,2016,Susannah May是RSC期刊博客的客座Web作者。她目前在英国皇家化学学会出版部工作,新利手机客户端对生物学和生物医学有着浓厚的兴趣,以及它们与化学交叉点的前沿。新利手机客户端她可以在Twitter上使用@susannahcimay找到。@em> //www.xcmww.com/nh/2016/12/01/new磁流体-%e2%80%9c除颤器%e2%80%9d-capable-of-operating-a-single-live-cell/feed/ 2017年全球聚合物和复合材料会议(PCM 2017) //www.xcmww.com/py/2016/12/01/2017-global-conference-on-polymer-and-composite-materials-pcm-2017/ //www.xcmww.com/py/2016/12/01/2017-global-conference-on-polymer-and-composite-materials-pcm-2017/评论 清华大学,2016年12月1日09:08:45+0000 劳伦特·马西,开发编辑 //www.xcmww.com/py/2016/12/01/2017-global-conference-on-polymer-and-composite-materials-pcm-2017/ <span style=“font-size:large”>2017年全球聚合物与复合材料大会(PCM 2017)<a>将在美丽的广州举行,中国。<span><a href=“//www.xcmww.com/py/files/2016/11/banner05.jpg”><img src=“//www.xcmww.com/py/files/2016/11/banner05.jpg”alt=“”title=“banner05”width=“650”height=“auto”class=“AlignCenter size full wp-image-7911”/><a>this well-established conference series is committed to cover all theory and experimental aspections of polymerS和复合材料。建立在之前非常成功的会议基础上(<a href=“http://www.cpcmconf.org/2014/”>pcm 2014<a>in ningbo,<a href=“http://www.cpcmconf.org/2015/”>pcm 2015<a>在北京,在杭州,<a href=“http://www.cpcmconf.org/2016/”>pcm2016<a>2017年的PCM将为研究人员提供一个理想的学术平台来展示他们的最新发现,促进与亚洲同行的交流和深入讨论,欧洲和美国。<code><code>The scientific program will focus not only on current advances in the research,同时也在聚合物和复合材料的生产和使用中有着不同的领域。通过全体会议,会议设置有高度集中的技术方案,邀请,口头和海报演示。<h3><span style=“font-size:large”>keynote speakers.<span><h3><a href=“http://www.cpcmconf.org/speakers.html”><img src=“//www.xcmww.com/py/files/2016/11/keynote-speakers.jpg”alt=“”title=“keynote speakers”width=“650”height=“auto”class=“AlignCenter size full wp-image-7914”/><<h3><span style=“font-size:large“>摘要提交:<a href=“http://www.cpcmconf.org/callforabstracts.html”>Click here</a><span><h3> <span style=“font-size:large”>2017年全球聚合物与复合材料大会(PCM 2017)<a>将在美丽的广州举行,中国。<span><a href=“//www.xcmww.com/py/files/2016/11/banner05.jpg”><img src=“//www.xcmww.com/py/files/2016/11/banner05.jpg”alt=“”title=“banner05”width=“650”height=“auto”class=“AlignCenter size full wp-image-7911”/><a>this well-established conference series is committed to cover all theory and experimental aspections of polymerS和复合材料。建立在之前非常成功的会议基础上(<a href=“http://www.cpcmconf.org/2014/”>pcm 2014<a>in ningbo,<a href=“http://www.cpcmconf.org/2015/”>pcm 2015<a>在北京,在杭州,<a href=“http://www.cpcmconf.org/2016/”>pcm2016<a>2017年的PCM将为研究人员提供一个理想的学术平台来展示他们的最新发现,促进与亚洲同行的交流和深入讨论,欧洲和美国。<code><code>The scientific program will focus not only on current advances in the research,同时也在聚合物和复合材料的生产和使用中有着不同的领域。通过全体会议,会议设置有高度集中的技术方案,邀请,口头和海报演示。<h3><span style=“font-size:large”>keynote speakers.<span><h3><a href=“http://www.cpcmconf.org/speakers.html”><img src=“//www.xcmww.com/py/files/2016/11/keynote-speakers.jpg”alt=“”title=“keynote speakers”width=“650”height=“auto”class=“AlignCenter size full wp-image-7914”/><<h3><span style=“font-size:large“>摘要提交:<a href=“http://www.cpcmconf.org/callforabstracts.html”>Click here</a><span><h3> //www.xcmww.com/py/2016/12/01/2017-global-conference-on-polymer-and-composite-materials-pcm-2017/feed/ 欢迎来到2016年《无机化学前沿》第12期新利手机客户端 //www.xcmww.com/qo/2016/12/01/welcome-to-issue-12-of-无机-化学-前沿-i新利手机客户端n-2016/ //www.xcmww.com/qo/2016/12/01/welcome-to-issue-12-of-无机-化学-前沿-i新利手机客户端n-2016/评论 清华大学,2016年12月1日09:06:13+0000 刘伊 //www.xcmww.com/qo/2016/12/01/welcome-to-issue-12-of-无机-化学-前沿-i新利手机客户端n-2016/ <span style=“font-size:medium”><img class=“AlignLeft”src=“http://pubs.rsc.org/services/images/rsc pubs.eplatform.service.freecontent.image service.svc/image service/image/ga?id=c6qi90043g“alt=”width=“115”height=“143”/>最新版本<em>InorgChemfront<em>issue is published online.<a href=“http://pubs.rsc.org/en/journals/journalissues/qi”!issueid=qi003012&type=current“target=”(空白)><img class=“Alignnone”src=“//www.xcmww.com/qi/files/2015/11/read-the-latest-issue.png”alt=“”width=“120”height=“30”/><a><span style=“font-size:medium”>The front cover story,<strong><a href=“http://pubs.rsc.org/en/content/articlelanding/2016/qi/c6qi00355a”!divabstract“target=”_blank“>非层状三元硫尖晶石的二维纳米结构及其氧还原和演变的双功能电催化特性:cuco<sub>2<sub>s<sub>4<sub>nanosheets<a>>strong>is contributed by min han and co authors.<span> <span style=“font-size:medium”><img class=“AlignLeft”src=“http://pubs.rsc.org/services/images/rsc pubs.eplatform.service.freecontent.image service.svc/image service/image/ga?id=c6qi90043g“alt=”width=“115”height=“143”/>最新版本<em>InorgChemfront<em>issue is published online.<a href=“http://pubs.rsc.org/en/journals/journalissues/qi”!issueid=qi003012&type=current“target=”(空白)><img class=“Alignnone”src=“//www.xcmww.com/qi/files/2015/11/read-the-latest-issue.png”alt=“”width=“120”height=“30”/><a><span style=“font-size:medium”>The front cover story,<strong><a href=“http://pubs.rsc.org/en/content/articlelanding/2016/qi/c6qi00355a”!divabstract“target=”_blank“>非层状三元硫尖晶石的二维纳米结构及其氧还原和演变的双功能电催化特性:cuco<sub>2<sub>s<sub>4<sub>nanosheets<a>>strong>is contributed by min han and co authors.<span> //www.xcmww.com/qo/2016/12/01/welcome-to-issue-12-of-general-ch新利手机客户端emistry-frontiers-in-2016/feed/ 英国皇家化学学会和美国化学学会出版新利手机客户端物致力于ORCID整合 //www.xcmww.com/sm/2016/11/30/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ //www.xcmww.com/sm/2016/11/30/Royal Society of 新利手机客户端Chemistry and ACS Publications Commit to Orcid Integration/评论 结婚,2016年11月30日14:38:32+0000 劳伦特·马西,开发编辑 //www.xcmww.com/sm/2016/11/30/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>昨天,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>昨天,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 //www.xcmww.com/sm/2016/11/30/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/feed/ 英国皇家化学学会和美国化学学会出版新利手机客户端物致力于ORCID整合 //www.xcmww.com/py/2016/11/30/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ //www.xcmww.com/py/2016/11/30/Royal Society of 新利手机客户端Chemistry and ACS Publications Commit to Orcid Integration/评论 结婚,2016年11月30日14:37:51+0000 劳伦特·马西,开发编辑 //www.xcmww.com/py/2016/11/30/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>昨天,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>昨天,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 //www.xcmww.com/py/2016/11/30/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/feed/ 英国皇家化学学会和美国化学学会出版新利手机客户端物致力于ORCID整合 //www.xcmww.com/bm/2016/11/30/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ //www.xcmww.com/bm/2016/11/30/Royal Society of 新利手机客户端Chemistry and ACS Publications Commit to Orcid Integration/评论 结婚,2016年11月30日14:37:47+0000 劳伦特·马西,开发编辑 //www.xcmww.com/bm/2016/11/30/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/ <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>昨天,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 <p style=“text-align:center”><a href=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”><img class=“size full wp-image-863 AlignCenter”title=“orcid”src=“//www.xcmww.com/re/files/2016/11/orcid2.jpg”alt=“”width=“480”height=“184”/>.<a><p>昨天,The<a href=“http://www.rsc.org/”target=“_blank”><strong>Royal Society of Ch新利手机客户端emistry.<strong><a>and the American Chemical Society Publications Division,<a href=“http://pubs.acs.org/”target=“_blank”><strong>acs Publications.<strong><a>,两人都签署了<a href=“https://orcid.org/content/authoring-orcid-publication-workflows-open-letter”target=“_blank”><strong>orcid open letter.<strong>>a>committing to unambiguous identification of all authors that publish in our journals.<strong>The official press release can be found here:<a href=“http://rsc.li/orcid”target=“_blank”>http://rsc.li/orcid</a><strong>in brief,与ORCID的合作将解决因姓名变更而导致的研究人员身份不明的问题。名字表达的文化差异,名字缩写的使用不一致,从而确保其捐款得到适当的承认和贷记。 //www.xcmww.com/bm/2016/11/30/royal-society-of-新利手机客户端chemistry-and-acs-publications-commit-to-orcid-integration/feed/ 祝贺Annic 2016年获奖者! //www.xcmww.com/me/2016/11/29/恭喜-to-the-annic-2016-award-winners/ //www.xcmww.com/me/2016/11/29/恭喜-to-the-annic-2016-Award-Winners/评论 星期二,2016年11月29日16:53:11+0000 Hugh Cowley开发编辑 //www.xcmww.com/me/2016/11/29/恭喜-to-the-annic-2016-award-winners/ <p style=“Text-Align:Center”><img class=“size large wp-image-529 AlignCenter”src=“//www.xcmww.com/me/files/2016/11/annic216banner-1024x330.jpg”alt=“”width=“450”height=“145”/>我们很高兴宣布由<em>Molecular Systems Design&Engineering赞助的获奖者rg/annic216/“target=”_blank“>annic 2016<a><strong>会议,最近在巴塞罗那举行,西班牙。<ul><li><strong>The outstanding annic 2016 abstract<strong>was awarded to<strong>prof.Yonsei大学的Won Gun Koh</strong>韩国的摘要“水凝胶微电池,包含用于荧光生物传感的纳米结构”<li><ul><li><strong>The best annic 2016 student abstract.<strong>was awarded to<strong>mr armanda balcytis.<strong>from the swinburne university of technology,澳大利亚的摘要“通过亚波长修改在SOI微环谐振器中进行模式控制”<li><ul><li><strong>The best annic 2016 paster presentation<strong>was awarded to<strong>dr sergey dubkov</strong>from the national research university of electronic technology,俄罗斯为摘要“mwcnt阵列在Me-CT-N-(O)薄膜上的cvd增长”请加入我们祝贺教授。KohBalcytis先生和Dubkov医生!Winners'Abstracts可在<strong><a href=“http://www.premc.org/doc/annic216/annic216_book_ofau abstracts.pdf”target=“_blank”>annic 2016 Book of Abstracts<a>,<strong>可从会议网站获得。[caption id=“attachment530”align=“AlignCenter”width=“450”caption=“Annic 2016 General Chair Prof.加泰罗尼亚能源研究所(IREC)的琼·拉蒙·莫兰特(JoanRamonMorante)向(左)教授颁奖。赢枪KOH,(中心)Armanda Balcytis先生和(右)Sergey Dubkov博士”]<img class=“size large wp-image-530”src=“//www.xcmww.com/me/files/2016/11/awards-1024x475.jpg”alt=“”width=“450”height=“208”/>[/caption] <p style=“Text-Align:Center”><img class=“size large wp-image-529 AlignCenter”src=“//www.xcmww.com/me/files/2016/11/annic216banner-1024x330.jpg”alt=“”width=“450”height=“145”/>我们很高兴宣布由<em>Molecular Systems Design&Engineering赞助的获奖者rg/annic216/“target=”_blank“>annic 2016<a><strong>会议,最近在巴塞罗那举行,西班牙。<ul><li><strong>The outstanding annic 2016 abstract<strong>was awarded to<strong>prof.Yonsei大学的Won Gun Koh</strong>韩国的摘要“水凝胶微电池,包含用于荧光生物传感的纳米结构”<li><ul><li><strong>The best annic 2016 student abstract.<strong>was awarded to<strong>mr armanda balcytis.<strong>from the swinburne university of technology,澳大利亚的摘要“通过亚波长修改在SOI微环谐振器中进行模式控制”<li><ul><li><strong>The best annic 2016 paster presentation<strong>was awarded to<strong>dr sergey dubkov</strong>from the national research university of electronic technology,俄罗斯为摘要“mwcnt阵列在Me-CT-N-(O)薄膜上的cvd增长”请加入我们祝贺教授。KohBalcytis先生和Dubkov医生!Winners'Abstracts可在<strong><a href=“http://www.premc.org/doc/annic216/annic216_book_ofau abstracts.pdf”target=“_blank”>annic 2016 Book of Abstracts<a>,<strong>可从会议网站获得。[caption id=“attachment530”align=“AlignCenter”width=“450”caption=“Annic 2016 General Chair Prof.加泰罗尼亚能源研究所(IREC)的琼·拉蒙·莫兰特(JoanRamonMorante)向(左)教授颁奖。赢枪KOH,(中心)Armanda Balcytis先生和(右)Sergey Dubkov博士”]<img class=“size large wp-image-530”src=“//www.xcmww.com/me/files/2016/11/awards-1024x475.jpg”alt=“”width=“450”height=“208”/>[/caption] //www.xcmww.com/me/2016/11/29/恭喜-to-the-annic-2016-award-winners/feed/ Latsis EPFL 2016:微流体系统中的多细胞生物研讨会 //www.xcmww.com/ib/2016/11/29/symposium-latsis-epfl-2016-multically-organities-in-microfluidic-systems/ //www.xcmww.com/ib/2016/11/29/专题讨论会-latsis-epfl-2016-多细胞生物-in-microfluidic-systems/评论 星期二,2016年11月29日15:22:00+0000 //www.xcmww.com/ib/2016/11/29/symposium-latsis-epfl-2016-multically-organities-in-microfluidic-systems/ The<a href=“http://latsis2016.epfl.ch/index.php”><strong>Symposium latsis epfl 2016“<strong><strong>multically organisms in microfluidic systems”<strong><a><strong><strong>was hold from 14 november 2016 to 16 november 2016 at the epfl campus in lausanne(switzerland).该活动由<strong>教授联合组织。Johan Auwerx</strong>and<em>lab on a chip</em>advisory board member<strong>prof.Martin Gijs.<strong><div id=“attachment6294”>[caption id=“attachment1825”align=“alignright”width=“162”caption=“phd student li dong was presented the poster award”]<a href=“//www.xcmww.com/ib/files/2016/11/pic1.jpg”><img class=“size large wp-image-1825”title=“pic1”src=“//www.xcmww.com/ib/files/2016/11/pic1-682x1024.jpg”alt=“”width=“162”height=“243”/>=/a>[/caption]<div>研究生物体,如线虫和无脊椎动物胚胎,在受控的时空化学环境中,微流控芯片正在获得动力,因为这些动物具有遗传适应性,低成本,与大屏幕兼容的文化条件,而不是提出伦理问题。Latsis研讨会希望弥合微流体系统与生物模型生物研究之间的鸿沟,通过为医学和生物学中的多细胞生物研究提供一个关于微流体系统的技术和应用的跨学科论坛。每个课程中涉及的主题是:<strong><strong><div id=“mcepaste”><ul><li>表型<<li>Imaging Technologies.<li><li>High Throughput Technologies.<li><li>Neurobiology.<l我><li>生理学和发展研究</li><ul><div><strong><strong><strong><div>among the speakers presentering at the symposium was<strong>prof.杭禄(化学与生物分子工程学院,格鲁吉亚,美国),<em>lab on a chip</em>advisory board member,谁谈到了“由微流体和高通量定量显微术实现的深层显型”。<div><div><code><code><code><code>[caption id=“attachment1827”align=“AlignCenter”width=“519”caption=“li dong's winning paster on”on“on chip biocomunication through exchange of compounds secreted by male C.elegans nematodes“”]<a href=“//www.xcmww.com/ib/files/2016/11/pic2.jpg”><img class=“size full wp-image-1827”title=“pic2”src=“//www.xcmww.com/ib/files/2016/11/pic2.jpg”alt=“”width=“519”height=“385”/>./caption]<div><code><span style=“font-family:Arial,赫尔维提卡,无衬线;字体大小:12px;线条高度:normal“>研讨会最佳海报奖授予博士。学生李东,EPFL微系统实验室。他收到了RSC期刊的电子订阅赫尔维提卡,sans-serif;font-size:12px;line-height:normal“>and</span><em>integration biology<em><span style=“font-family:Arial,赫尔维提卡,sans-serif;字体大小:12px;line-height:normal“>。<span> The<a href=“http://latsis2016.epfl.ch/index.php”><strong>Symposium latsis epfl 2016“<strong><strong>multically organisms in microfluidic systems”<strong><a><strong><strong>was hold from 14 november 2016 to 16 november 2016 at the epfl campus in lausanne(switzerland).该活动由<strong>教授联合组织。Johan Auwerx</strong>and<em>lab on a chip</em>advisory board member<strong>prof.Martin Gijs.<strong><div id=“attachment6294”>[caption id=“attachment1825”align=“alignright”width=“162”caption=“phd student li dong was presented the poster award”]<a href=“//www.xcmww.com/ib/files/2016/11/pic1.jpg”><img class=“size large wp-image-1825”title=“pic1”src=“//www.xcmww.com/ib/files/2016/11/pic1-682x1024.jpg”alt=“”width=“162”height=“243”/>=/a>[/caption]<div>研究生物体,如线虫和无脊椎动物胚胎,在受控的时空化学环境中,微流控芯片正在获得动力,因为这些动物具有遗传适应性,低成本,与大屏幕兼容的文化条件,而不是提出伦理问题。Latsis研讨会希望弥合微流体系统与生物模型生物研究之间的鸿沟,通过为医学和生物学中的多细胞生物研究提供一个关于微流体系统的技术和应用的跨学科论坛。每个课程中涉及的主题是:<strong><strong><div id=“mcepaste”><ul><li>表型<<li>Imaging Technologies.<li><li>High Throughput Technologies.<li><li>Neurobiology.<l我><li>生理学和发展研究</li><ul><div><strong><strong><strong><div>among the speakers presentering at the symposium was<strong>prof.杭禄(化学与生物分子工程学院,格鲁吉亚,美国),<em>lab on a chip</em>advisory board member,谁谈到了“由微流体和高通量定量显微术实现的深层显型”。<div><div><code><code><code><code>[caption id=“attachment1827”align=“AlignCenter”width=“519”caption=“li dong's winning paster on”on“on chip biocomunication through exchange of compounds secreted by male C.elegans nematodes“”]<a href=“//www.xcmww.com/ib/files/2016/11/pic2.jpg”><img class=“size full wp-image-1827”title=“pic2”src=“//www.xcmww.com/ib/files/2016/11/pic2.jpg”alt=“”width=“519”height=“385”/>./caption]<div><code><span style=“font-family:Arial,赫尔维提卡,无衬线;字体大小:12px;线条高度:normal“>研讨会最佳海报奖授予博士。学生李东,EPFL微系统实验室。他收到了RSC期刊的电子订阅赫尔维提卡,sans-serif;font-size:12px;line-height:normal“>and</span><em>integration biology<em><span style=“font-family:Arial,赫尔维提卡,sans-serif;字体大小:12px;line-height:normal“>。<span> //www.xcmww.com/ib/2016/11/29/symposium-latsis-epfl-2016-multically-organities-in-microfluidic-systems/feed/