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电视剧《大山里的女校》首曝预告,宋佳饰演张桂梅原创2023-12-29 13:36·新京报新京报讯 12月29日,电视剧《大山里的女校》宣布杀青并发布首支预告,由宋佳饰演的张桂梅校长首次亮相,呈现了张桂梅一路克服办校困难,并最终成为大山女孩们希望之光的故事。该剧由费振翔执导,袁子弹、丁涵、黄诗洋、李玺威编剧,宋佳领衔主演,兰西雅、都兰、合诗雨、杨颜嘉主演,聂远特别出演,张月、翟子路、黄米依、曹曦文、张天阳特邀主演,姜超特邀出演。据腾讯视频页面介绍,该剧介绍如下:张桂梅是中国西部山区的一名普通中学女教师,多年间她不断目睹自己的女学生因家庭贫穷而辍学,在十五六岁的年纪或嫁人生子、或外出打工,这让张桂梅无比痛心和惋惜。她立志要办一所全免费的女子高中,让这些大山里的女孩获得受教育的机会、能够考上大学、走出大山,彻底改变命运。2008年,全中国唯一一所全免费的女子高中成立,在没老师、没学生、没经费、没经验的重重困境下,张桂梅带领女高师生们完成了不可能的任务:让学习基础极度落后的女高学生们,全部考上了大学。这所女子高中让一批批女孩走出了大山,改变了命运。然而随着学校的发展,越来越多大山里贫困女生前来报考,新的问题和困难也随之而来……编辑 徐美琳校对 陈荻雁

2024年12月17日,粉丝“势力化”和“利益化”现象显现 需有更多规范2021-08-16 09:02·中国经济网来源:北京日报演艺等行业中形成的粉丝“势力化”和“利益化”现象,已经有了相当的负面效应——粉丝文化需有更多规范张颐武最近爆出了一些演艺界的明星或网红人物不符合公序良俗的问题,这引起了社会和网络上的高度关切。这其中粉丝文化的影响不应忽视。在一些明星或网红人物出现问题的时候,一些粉丝往往不能接受自己的偶像出现问题,出现了不顾事实、继续狂热地追捧的现象,或是在网上形成舆论声势,“网暴”相关人,或是曲意回护,百般开脱。为了明星或网红人物就不顾黑白是非,放弃了对于明星的要求,对于这种粉丝文化状况,我们要尤为关注。对于特定演艺明星或网红人物的追捧和迷恋,是粉丝文化的重要方面。如果这种对于明星的“迷”适度恰当,那它是对于明星的积极方面的认可和肯定。通过这样的方式让自身得到正向激励,对于青少年的自我发展和认同有一定的帮助,这种状况就有一定的积极意义。但现在粉丝和明星所形成的关系常常超越了这样的状况。一方面,粉丝深度介入了迷恋对象的生活之中,多方面支撑明星的运作,形成了一些相对具有组织性的活动方式,构成了一种一荣俱荣、一损俱损的关系,往往对明星在演艺界中的位置、明星的经济方面的利益等方面形成很大影响。粉丝文化在某种程度上已经构成演艺等行业某种“利益化”的现象。另一方面,粉丝无条件地对于自己迷恋的对象做极端的肯定,不能有任何对于自己偶像的批评或质疑,利用各种方式掩盖负面的消息,甚至采用“网暴”等方式对于相关人进行攻击,形成了对于自己偶像的某种“护城河”,以维持偶像的“完美”形象,形成了某种“势力化”的现象。演艺等文化中形成某种粉丝的“势力化”和“利益化”的现象,实际上已经有了相当的负面效应。因此,让粉丝文化回归正常,这就需要在四个方面做出努力。一是这些活动必须建立在公序良俗的基础上,尤其在价值观等方面不能有偏差,不能变成畸形的、无条件的追星。二是这些活动不能影响青少年的正常生活,对其各方面的身心发展不能有损害,不能让其偏离正常的社会轨道。三是明星及其相关方有更大的社会责任,一方面必须促进粉丝理性追星,另一方面对于自身言行有更多要求,在传播社会正能量和维护自身形象上做出更多表率。四是社会对于追星等活动有更多监督,对于青少年的发展有更多关切,严格约束明星及其背后利益相关方的行为。这样才可能有健康正常的演艺或网络环境,这种环境也会反过来对演艺明星或网络红人等形成更多的约束,减少粉丝文化中的不良现象。(作者为北京大学教授)

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《科学》(20220722出版)一周论文导读2022-07-24 21:40·科学网编译 | 冯维维Science, 22 July 2022, Volume 377 Issue 6604《科学》2022年7月22日,第377 卷,6604期物理化学Physical chemistryQuantum effects in thermal reaction rates at metal surfaces金属表面热反应速率的量子效应▲ 作者:DMITRIY BORODIN, NILS HERTLG. BARRATT PARK, MICHAEL SCHWARZERJAN, ALEC M. WODTKE, etc.▲ 链接:https://www.science.org/doi/10.1126/science.abq1414▲ 摘要:准确描述表面化学反应的基本步骤是一个长期的挑战,因为缺乏可靠的实验测量相应的速率常数,这使它不可能严格验证理论估计。即使是像氢原子在铂表面的热复合这样简单的反应,以前的实验速率常数也只是在很大的不确定性下得到的。使用速度分辨动力学和基于离子成像的绝对分子束通量校准,作者克服了实验困难,报告了该反应在宽温度范围内的空前准确的速率常数。他们还展示了一个定量再现实验的无参数模型,为日益增长的计算多相催化领域开辟了新的前景。▲ Abstract:Accurate description of elementary steps of chemical reactions at surfaces is a long-standing challenge because of the lack of reliable experimental measurements of the corresponding rate constants, which also makes it impossible to rigorously validate theoretical estimates. Even for reactions as simple as thermal recombination of hydrogen atoms on platinum surfaces, previous experimental rate constants have only been obtained with large uncertainties. Using velocity-resolved kinetics and ion imaging–based calibration of absolute molecular beam fluxes, Borodin et al. managed to overcome established experimental difficulties and report unprecedentedly accurate rate constants for this reaction over a wide temperature range. They also demonstrate a parameter-free model that quantitatively reproduces the experiment, opening up new vistas for the growing field of computational heterogeneous catalysis.High ambipolar mobility in cubic boron arsenide revealed by transient reflectivity microscopy用瞬态反射率显微镜观察立方砷化硼的高双极性迁移率▲ 作者:SHUAI YUE, FEI TIAN, XXINYU SUIMOHAMMADJAVAD MOHEBINIA, XIANXIN WUTIAN TONGZHIMING WANG, BO WU, QING ZHANG, XINFENG LIU▲ 链接:https://www.science.org/doi/10.1126/science.abn4727▲ 摘要:在室温条件下,半导体立方砷化硼(c-BAs)对电子的载流子迁移率为1400平方厘米/伏特秒,对空穴的载流子迁移率为2100平方厘米/伏特秒。利用泵探针瞬态反射率显微镜观察光激发载流子在单晶c-BAs中的扩散,以获得其迁移率。通过对近带隙的600纳米泵浦脉冲,作者发现高的双极迁移率为1550±120平方厘米/伏特秒,与理论预测一致。在同一地点进行的400纳米泵的额外实验显示,迁移率为>3000平方厘米/伏特秒,作者将其归因于热电子在发挥作用。高载流子迁移率的观察,结合高热导率,使c-BAs在高性能电子和光电子领域的大量器件应用成为可能。▲ Abstract:Semiconducting cubic boron arsenide (c-BAs) has been predicted to have carrier mobility of 1400 square centimeters per volt-second for electrons and 2100 square centimeters per volt-second for holes at room temperature. Using pump-probe transient reflectivity microscopy, we monitored the diffusion of photoexcited carriers in single-crystal c-BAs to obtain their mobility. With near-bandgap 600-nanometer pump pulses, we found a high ambipolar mobility of 1550 ± 120 square centimeters per volt-second, in good agreement with theoretical prediction. Additional experiments with 400-nanometer pumps on the same spot revealed a mobility of >3000 square centimeters per volt-second, which we attribute to hot electrons. The observation of high carrier mobility, in conjunction with high thermal conductivity, enables an enormous number of device applications for c-BAs in high-performance electronics and optoelectronics.High ambipolar mobility in cubic boron arsenide立方砷化硼的高双极性迁移率▲ 作者:JUNGWOO SHI, GEETHAL AMILA GAMAGE, ZHIWEI DING, KE CHEN, FEI TIAN, HWIJONG LEE, GANG CHEN, etc.▲ 链接:https://www.science.org/doi/10.1126/science.abn4290▲ 摘要:具有高热导率和高电子-空穴迁移率的半导体对于电子器件和光子器件以及基础研究具有重要意义。在这些超高导热材料中,立方砷化硼(c-BAs)的电子和空穴迁移率将同时达到>1000厘米平方/伏特/秒。利用光学瞬变光栅技术,作者在室温下实验测量了c-BAs样品的相同位置,其热导率为每米每开尔文1200瓦,双极迁移率为每伏特每秒1600平方厘米。从头计算表明,降低电离杂质浓度和中性杂质浓度是获得高迁移率和高热导率的关键。由于具有高的双极性移动性和超高的热导率,c-BAs有望成为下一代电子产物的候选材料。▲ Abstract:Semiconductors with high thermal conductivity and electron-hole mobility are of great importance for electronic and photonic devices as well as for fundamental studies. Among the ultrahigh–thermal conductivity materials, cubic boron arsenide (c-BAs) is predicted to exhibit simultaneously high electron and hole mobilities of >1000 centimeters squared per volt per second. Using the optical transient grating technique, we experimentally measured thermal conductivity of 1200 watts per meter per kelvin and ambipolar mobility of 1600 centimeters squared per volt per second at the same locations on c-BAs samples at room temperature despite spatial variations. Ab initio calculations show that lowering ionized and neutral impurity concentrations is key to achieving high mobility and high thermal conductivity, respectively. The high ambipolar mobilities combined with the ultrahigh thermal conductivity make c-BAs a promising candidate for next-generation electronics.化学ChemistryPhysical mixing of a catalyst and a hydrophobic polymer promotes CO hydrogenation through dehydration催化剂和疏水聚合物的物理混合通过脱水促进一氧化碳氢化▲ 作者:WEI FANG, CHENGTAO WANG, LIANG WANG, LU LIU, HANGJIE LI, FENG-SHOU XIAO, etc.▲ 链接:https://www.science.org/doi/10.1126/science.abo0356▲ 摘要:在许多受水限制的反应中,选择性地从反应系统中去除水至关重要,通常需要膜反应器。作者发现,疏水聚二乙烯苯与钴锰碳化物的简单物理混合物可以调节催化剂的局部环境,以快速运输合成气转化中的水产物。这能够改变催化剂表面的水吸附平衡,导致更大比例的自由表面,反过来将合成气转化率提高近2倍。在250℃条件下,一氧化碳转化率达到63.5%,71.4%的烃类产物为轻烯烃,优于同等条件下的无聚二乙烯苯催化剂。物理混合钴锰碳/聚二乙烯苯催化剂在120小时的连续测试中具有良好的耐久性。▲ Abstract:In many reactions restricted by water, selective removal of water from the reaction system is critical and usually requires a membrane reactor. We found that a simple physical mixture of hydrophobic poly(divinylbenzene) with cobalt-manganese carbide could modulate a local environment of catalysts for rapidly shipping water product in syngas conversion. We were able to shift the water-sorption equilibrium on the catalyst surface, leading to a greater proportion of free surface that in turn raised the rate of syngas conversion by nearly a factor of 2. The carbon monoxide conversion reached 63.5%, and 71.4% of the hydrocarbon products were light olefins at 250°C, outperforming poly(divinylbenzene)-free catalyst under equivalent reaction conditions. The physically mixed CoMn carbide/poly(divinylbenzene) catalyst was durable in the continuous test for 120 hours.物理学PhysicsAmplified emission and lasing in photonic time crystals光子时间晶体中的放大发射和激光▲ 作者:MARK LYUBAROV, YAAKOV LUMERALEX DIKOPOLTSEV, ERAN LUSTIG, YONATAN SHARABIAND MORDECHAI SEGEV▲ 链接:https://www.science.org/doi/10.1126/science.abo3324▲ 摘要:规则光子晶体是一种折射率具有空间周期性的结构,可以抑制结构中嵌入的发射器的自发光发射。在光子时间晶体中,折射率在超快时间尺度上周期性地调制。作者从理论上探索了当一个发射器被放置在这样一个时间晶体中会发生什么。与常规光子晶体相比,作者发现时间晶体应该放大发射,产生激光。▲ Abstract:Regular photonic crystals are structures in which the refractive index is spatially periodic and can suppress the spontaneous emission of light from an emitter embedded in the structure. In photonic time crystals, the refractive index is periodically modulated in time on ultrafast time scales. Lyubarov et al. explored theoretically what happens when an emitter is placed in such a time crystal. In contrast to the regular photonic crystals, the authors found that time crystals should amplify emission, leading to lasing.生物多样性BiodiversityInterspecific competition limits bird species’ ranges in tropical mountains种间竞争限制了热带山区鸟类的活动范围▲ 作者:BENJAMIN G. FREEMAN, MATTHEW STRIMAS-MACKEY AND ELIOT T. MILLER▲ 链接:https://www.science.org/doi/10.1126/science.abl7242▲ 摘要:物种的地理范围受到气候和物种相互作用的限制。气候是解释为什么物种只能生活在极具生物多样性的热带山脉的狭窄海拔范围内的普遍原因,但竞争也会限制物种的海拔范围。作者通过在31个山地地区进行鸟类海拔范围大小的全球比较测试来检验这些假设的对比预测,使用来自全球公民项目eBird的440多万公民科学记录,来定义每个地区物种的海拔范围。他们找到了强有力的证据,证明竞争、而非气候,是狭窄海拔范围的主要驱动因素。这些结果强调了物种相互作用在塑造热带山区物种分布范围中的重要性,热带山区是地球上最热门的生物多样性热点地区。▲ Abstract:Species’ geographic ranges are limited by climate and species interactions. Climate is the prevailing explanation for why species live only within narrow elevational ranges in megadiverse biodiverse tropical mountains, but competition can also restrict species’ elevational ranges. We test contrasting predictions of these hypotheses by conducting a global comparative test of birds’ elevational range sizes within 31 montane regions, using more than 4.4 million citizen science records from eBird to define species’ elevational ranges in each region. We find strong support that competition, not climate, is the leading driver of narrow elevational ranges. These results highlight the importance of species interactions in shaping species’ ranges in tropical mountains, Earth’s hottest biodiversity hotspots.平常还好,可万一哪天人家没空或者有事,又或者也有约了,你招呼都不打一个,直接溜达过去,人家是招待还是不招待?人家是给你介绍认识朋友还是不理你呢?

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腹(贵耻)痛(罢辞苍驳)来(尝补颈)到(顿补辞)医(驰颈)院(驰耻补苍)就(闯颈耻)诊(窜丑别苍)。

quanqiuliugegaoduchaoqianmidechaojimotianlouxiangmu--shatezhanyiban,wowuyuanchuang2023-04-12 23:52·motianshijieqianyansuizhuorenkoudebuduanzengchang,jingjiguimodechixukuoda,chengshideloufangyeshiyuejianyuegao,quanqiumuqiandediyigaolou——dibaihalifata,gao828mi!chaoqianmidejianzhu,shatejidahealianqiudibaidufenbiedonggongliaoyizuo,kexishougezhongyinsuyingxiang,lianggexiangmuduyixianrutinggongdejingdi。zhengwenxiamianxiaobianweidajiajiandanjieshaoliuzuoyitichujianzaohuonijiandechaoqianmimotianjianzhu,xiangqingruxia:TOP1、shate——liyade——Unnamed Towerjianzhuzonggaodu:2000mixiangmusheji:SOMshatejianzaoshijiediyigaoloudeyuwanghuanshifeichangqiangliede,zhezuo2000midexiangmuruguonengjiancheng,najiangshilishixingde。gengduozuoranxiaoguotuTOP2、alianqiu——dibai——yunxita(Dubai Creek Tower)jianzhugaodu:1300mi+jianzhusheji:Calatrava(shengdiyage·kalatelawa)kaifashang:Emaar(aimaerjituan)xiangmushiquanqiuyidongdezuigaojianzhuwu,zaihexintongchudimianhoujiutinggongzhijin。gongdishijingturuguoxiangmunengjiancheng,namedibaidetianjixianjiubianchengzheyangliao(jianxiatu)TOP3、yilake——bashila——bride vertical cityjianzhugaodu:1152milouceng:241cengbashilazuoweiyilakedediyidagangkouchengshi,heqitazhongdongchengshiyiyang,duichaojijianzhuyeshiqingyouduzhongde,yilakeyongyoufengfudeshiyouziyuan,daijingjihuifuhou,weilaihuanshihenxiwangjianzaozhedongchaojijianzhude。gengduozuoranxiaoguotuTOP4、shate——jida——Jeddah Towerjianzhuzonggaodu:1007milouceng:167cengxiangmusheji:AS+GG xiangmuhexintongyijianzaodaojin300mi,jiuxianrudaotinggongzhuangtai。gongdishijingtugengduozuoranxiaoguotuTOP5、aiji——kailuo——Oblisco Capitale Towerjianzhuzonggaodu:1000milouceng:170cengaijixinshouduyijianchengliaogaoda386midebiaozhita,tashifeizhoudiyigaolou!raneraijibingbumanzuyuci,weilaihuanyaojianzaozhezuokeyizhengduoshijiediyigaolouchaojijianzhu。gengduozuoranxiaoguotuTOP6、shate——NEOM——neom wind Towerjianzhuzonggaodu:1000miNEOMshishatealabowangchumuhanmode·ben·salemantichujianzao,zhengzuochengshihaozi5000yimeiyuandazao。gengduozuoranxiaoguotujieshuyuzhongdongdiqu,pingjiefengfudeshiyouziyuan,huodeliaojuedecaifu!quanqiuchaoqianmidemotianlouxiangmujihuduzhegequyu,zhiyoutongguozhezhongfangshi,tamencainenggengjiaxiyinquanqiurenmendemuguang。duiliuzuochaoqianmidechaojijianzhu,wangyoumen,zenmekan?huanyingliuyanpinglun。xihuanbenwendepengyou,diangezan,jiageguanzhu,keyihuoqugengduodemotiandalouxinxi。xiexie!zhu:benwenshujuyutupianchuziCTBUHguanwanggaoloumiluntantupianruoqin,qinglianxishanchuyanjinyijianfuzhibenwen,zhuanzaixuzhumingchuzi——jinritoutiaochuangzuozhe:motianshijieweiquebaozhudunshigongshunliwancheng,shigongdanweizhongtiesijuchaoqianmouhua,jingxinzuzhi,kaizhanshoujianjiaodihui,xihuazerenfengong,shixianshigonggongyi、jixie、cailiaoquanchengbaozhang。tongshikaoqianxiediao,qianghuayaosubaozhang,youqishizaiguangdongdiqujinrulongzhoushuijijie,zhenduiyifashenghonglaozaihaideqingkuangxia,buduanjiadasanfangyingjiwuziherenyuantouru,duizhudunhangdaoshuiweiqingkuangjinxing24xiaoshibujianduanxunchadingkong,weizhudunshigongtigonganquanbaozhang。

当(顿补苍驳)然(搁补苍)了(尝颈补辞),瑞(搁耻颈)虎(贬耻)9颁-顿惭版(叠补苍)也(驰别)不(叠耻)是(厂丑颈)完(奥补苍)全(蚕耻补苍)没(惭别颈)有(驰辞耻)机(闯颈)会(贬耻颈),几(闯颈)天(罢颈补苍)前(蚕颈补苍),同(罢辞苍驳)门(惭别苍)兄(齿颈辞苍驳)弟(顿颈)瑶(驰补辞)光(骋耻补苍驳)颁-顿惭版(叠补苍)本(叠别苍)以(驰颈)15.98飞的(顿别)起(蚕颈)售(厂丑辞耻)价(闯颈补)杀(厂丑补)进(闯颈苍)了(尝颈补辞)市(厂丑颈)场(颁丑补苍驳),一(驰颈)时(厂丑颈)间(闯颈补苍)让(搁补苍驳)唐(罢补苍驳)和(贬别)领(尝颈苍驳)克(碍别)08顿(顿耻苍)感(骋补苍)压(驰补)力(尝颈)倍(叠别颈)增(窜别苍驳),市(厂丑颈)场(颁丑补苍驳)上(厂丑补苍驳)也(驰别)给(骋别颈)了(尝颈补辞)瑶(驰补辞)光(骋耻补苍驳)颁-顿惭不(叠耻)错(颁耻辞)的(顿别)响(齿颈补苍驳)应(驰颈苍驳)。瑞(搁耻颈)虎(贬耻)9颁-顿惭版(叠补苍)也(驰别)可(碍别)以(驰颈)采(颁补颈)用(驰辞苍驳)这(窜丑别)种(窜丑辞苍驳)策(颁别)略(尝耻别)上(厂丑补苍驳)市(厂丑颈),按(础苍)照(窜丑补辞)奇(蚕颈)瑞(搁耻颈)的(顿别)定(顿颈苍驳)位(奥别颈),瑞(搁耻颈)虎(贬耻)9定(顿颈苍驳)位(奥别颈)低(顿颈)瑶(驰补辞)光(骋耻补苍驳)一(驰颈)点(顿颈补苍),以(驰颈)15.68飞的(顿别)价(闯颈补)格(骋别)起(蚕颈)售(厂丑辞耻),可(碍别)能(狈别苍驳)性(齿颈苍驳)比(叠颈)较(闯颈补辞)大(顿补),届(闯颈别)时(厂丑颈),瑞(搁耻颈)虎(贬耻)9颁-顿惭版(叠补苍)完(奥补苍)全(蚕耻补苍)可(碍别)以(驰颈)在(窜补颈)唐(罢补苍驳)和(贬别)领(尝颈苍驳)克(碍别)08把(叠补)控(碍辞苍驳)的(顿别)红(贬辞苍驳)海(贬补颈)杀(厂丑补)出(颁丑耻)一(驰颈)条(罢颈补辞)血(齿耻别)路(尝耻)!

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