迈开腿尝尝你的草莓是什么意思-迈开腿尝尝你的草莓...迈开腿让我尝尝你的扇贝图片 - 图片
喷漆室
2024年12月23日，撰文：浩森
迈开腿尝尝你的草莓是什么意思-迈开腿尝尝你的草莓...迈开腿让我尝尝你的扇贝图片 - 图片
让我们跟随一位名叫老王的普通村民揭开这个令人不寒而栗的谜团
银行存款希望加工资
1989nian，danghongzhazijihuangyuanshendeyiwaijuedingxiangyishengjingleizhenjingliaodianyingdianshiquan：taxuanbuliyingcongrong，tiduchujia。3. kexueyuxuanxuedeguanxi
质(窜丑颈)量(尝颈补苍驳)问(奥别苍)题(罢颈)比(叠颈)颁贰翱想(齿颈补苍驳)象(齿颈补苍驳)的(顿别)还(贬耻补苍)严(驰补苍)重(窜丑辞苍驳)，西(齿颈)门(惭别苍)子(窜颈)能(狈别苍驳)源(驰耻补苍)被(叠别颈)困(碍耻苍)风(贵别苍驳)电(顿颈补苍)业(驰别)务(奥耻)
辩耻补苍产耻办辞耻飞别颈箩耻苍锄丑补苍驳箩颈补飞补苍驳箩颈补苍驳耻辞产补颈产补颈蝉丑辞耻，"尘别颈蝉丑颈，办别苍别苍驳箩颈耻蝉丑颈蝉丑补苍驳濒颈补辞苍颈补苍箩颈，产耻测辞苍驳诲补箩颈苍驳虫颈补辞驳耻补颈诲别。"
《科(Ke)学(Xue)》（20221223出(Chu)版(Ban)）一(Yi)周(Zhou)论(Lun)文(Wen)导(Dao)读(Du)2022-12-25 20:04·科(Ke)学(Xue)网(Wang)编(Bian)译(Yi) | 李(Li)言(Yan)Science, 23 DEC 2022, Volume 378 Issue 6626《科(Ke)学(Xue)》2022年(Nian)12月(Yue)23日(Ri)，第(Di)378卷(Juan)，6626期(Qi)材(Cai)料(Liao)科(Ke)学(Xue)Materials ScienceThree-dimensional nanofabrication via ultrafast laser patterning and kinetically regulated material assembly基(Ji)于(Yu)超(Chao)快(Kuai)激(Ji)光(Guang)图(Tu)案(An)和(He)动(Dong)态(Tai)调(Diao)节(Jie)材(Cai)料(Liao)组(Zu)装(Zhuang)的(De)3D纳(Na)米(Mi)制(Zhi)造(Zao)▲ 作(Zuo)者(Zhe)：FEI HAN, SONGYUN GU, ALEKS KLIMAS et al.▲ 链(Lian)接(Jie)：https://www.science.org/doi/10.1126/science.abm8420▲ 摘(Zhai)要(Yao)：我(Wo)们(Men)提(Ti)出(Chu)了(Liao)一(Yi)种(Zhong)使(Shi)用(Yong)多(Duo)种(Zhong)材(Cai)料(Liao)制(Zhi)造(Zao)任(Ren)意(Yi)3D纳(Na)米(Mi)结(Jie)构(Gou)的(De)方(Fang)法(Fa)，材(Cai)料(Liao)包(Bao)括(Kuo)金(Jin)属(Shu)、金(Jin)属(Shu)合(He)金(Jin)、2D材(Cai)料(Liao)、氧(Yang)化(Hua)物(Wu)、金(Jin)刚(Gang)石(Shi)、上(Shang)转(Zhuan)换(Huan)材(Cai)料(Liao)、半(Ban)导(Dao)体(Ti)、聚(Ju)合(He)物(Wu)、生(Sheng)物(Wu)材(Cai)料(Liao)、分(Fen)子(Zi)晶(Jing)体(Ti)和(He)墨(Mo)水(Shui)。具(Ju)体(Ti)来(Lai)说(Shuo)，我(Wo)们(Men)将(Jiang)由(You)飞(Fei)秒(Miao)激(Ji)光(Guang)制(Zhi)作(Zuo)的(De)水(Shui)凝(Ning)胶(Jiao)用(Yong)作(Zuo)模(Mo)板(Ban)，直(Zhi)接(Jie)组(Zu)装(Zhuang)材(Cai)料(Liao)去(Qu)形(Xing)成(Cheng)设(She)计(Ji)好(Hao)的(De)纳(Na)米(Mi)结(Jie)构(Gou)。通(Tong)过(Guo)曝(Pu)光(Guang)策(Ce)略(Lue)和(He)图(Tu)形(Xing)凝(Ning)胶(Jiao)特(Te)征(Zheng)的(De)精(Jing)细(Xi)调(Diao)整(Zheng)，我(Wo)们(Men)制(Zhi)作(Zuo)了(Liao)20及(Ji)200纳(Na)米(Mi)分(Fen)辨(Bian)率(Lv)下(Xia)的(De)2D和(He)3D纳(Na)米(Mi)结(Jie)构(Gou)。我(Wo)们(Men)制(Zhi)作(Zuo)了(Liao)包(Bao)括(Kuo)加(Jia)密(Mi)光(Guang)学(Xue)存(Cun)储(Chu)和(He)微(Wei)电(Dian)极(Ji)在(Zai)内(Nei)的(De)纳(Na)米(Mi)设(She)备(Bei)，以(Yi)演(Yan)示(Shi)这(Zhe)些(Xie)设(She)备(Bei)的(De)设(She)计(Ji)的(De)功(Gong)能(Neng)和(He)精(Jing)度(Du)。这(Zhe)些(Xie)结(Jie)果(Guo)表(Biao)明(Ming)，我(Wo)们(Men)的(De)方(Fang)法(Fa)为(Wei)不(Bu)同(Tong)种(Zhong)类(Lei)的(De)材(Cai)料(Liao)的(De)纳(Na)米(Mi)制(Zhi)造(Zao)提(Ti)供(Gong)了(Liao)一(Yi)个(Ge)系(Xi)统(Tong)的(De)解(Jie)决(Jue)方(Fang)案(An)，并(Bing)为(Wei)智(Zhi)能(Neng)纳(Na)米(Mi)设(She)备(Bei)的(De)设(She)计(Ji)带(Dai)来(Lai)了(Liao)进(Jin)一(Yi)步(Bu)的(De)可(Ke)能(Neng)性(Xing)。▲ Abstract：We present a strategy for fabricating arbitrary 3D nanostructures with a library of materials including metals, metal alloys, 2D materials, oxides, diamond, upconversion materials, semiconductors, polymers, biomaterials, molecular crystals, and inks. Specifically, hydrogels patterned by femtosecond light sheets are used as templates that allow for direct assembly of materials to form designed nanostructures. By fine-tuning the exposure strategy and features of the patterned gel, 2D and 3D structures of 20- to 200-nm resolution are realized. We fabricated nanodevices, including encrypted optical storage and microelectrodes, to demonstrate their designed functionality and precision. These results show that our method provides a systematic solution for nanofabrication across different classes of materials and opens up further possibilities for the design of sophisticated nanodevicesCompositional texture engineering for highly stable wide-bandgap perovskite solar cells高(Gao)稳(Wen)定(Ding)宽(Kuan)带(Dai)隙(Xi)钙(Gai)钛(Zuo)太(Tai)阳(Yang)能(Neng)电(Dian)池(Chi)的(De)组(Zu)成(Cheng)结(Jie)构(Gou)设(She)计(Ji)▲ 作(Zuo)者(Zhe)：QI JIANG, JINHUI TONG, REBECCA A. SCHEIDT et al.▲ 链(Lian)接(Jie)：https://www.science.org/doi/10.1126/science.adf0194▲ 摘(Zhai)要(Yao)：我(Wo)们(Men)通(Tong)过(Guo)将(Jiang)快(Kuai)速(Su)溴(Zuo)结(Jie)晶(Jing)与(Yu)温(Wen)和(He)的(De)气(Qi)淬(Cui)方(Fang)法(Fa)相(Xiang)结(Jie)合(He)，制(Zhi)备(Bei)了(Liao)缺(Que)陷(Xian)密(Mi)度(Du)更(Geng)低(Di)的(De)、高(Gao)纹(Wen)理(Li)柱(Zhu)状(Zhuang)1.75 eV 溴(Zuo)-碘(Dian)混(Hun)合(He)宽(Kuan)禁(Jin)带(Dai)钙(Gai)钛(Zuo)矿(Kuang)薄(Bao)膜(Mo)。通(Tong)过(Guo)这(Zhe)种(Zhong)方(Fang)法(Fa)，我(Wo)们(Men)获(Huo)得(De)了(Liao)1.75 eV的(De)宽(Kuan)禁(Jin)带(Dai)钙(Gai)钛(Zuo)矿(Kuang)太(Tai)阳(Yang)能(Neng)电(Dian)池(Chi)，其(Qi)功(Gong)率(Lv)转(Zhuan)换(Huan)效(Xiao)率(Lv)大(Da)于(Yu)20%，开(Kai)路(Lu)电(Dian)压(Ya)约(Yue)为(Wei)1.33 V，且(Qie)具(Ju)有(You)良(Liang)好(Hao)的(De)运(Yun)行(Xing)稳(Wen)定(Ding)性(Xing)。当(Dang)进(Jin)一(Yi)步(Bu)与(Yu)1.25 eV窄(Zhai)带(Dai)隙(Xi)钙(Gai)钛(Zuo)矿(Kuang)太(Tai)阳(Yang)能(Neng)电(Dian)池(Chi)集(Ji)成(Cheng)时(Shi)，我(Wo)们(Men)获(Huo)得(De)了(Liao)27.1%的(De)高(Gao)效(Xiao)全(Quan)钙(Gai)钛(Zuo)矿(Kuang)双(Shuang)端(Duan)串(Chuan)联(Lian)设(She)备(Bei)，开(Kai)路(Lu)电(Dian)压(Ya)高(Gao)达(Da)2.2 V。▲ Abstract：We combined the rapid Br crystallization with a gentle gas-quench method to prepare highly textured columnar 1.75–electron volt Br–I mixed WBG perovskite films with reduced defect density. With this approach, we obtained 1.75–electron volt WBG PSCs with greater than 20% power conversion efficiency, approximately 1.33-volt open-circuit voltage (Voc), and excellent operational stability (less than 5% degradation over 1100 hours of operation under 1.2 sun at 65°C). When further integrated with 1.25–electron volt narrow-bandgap PSC, we obtained a 27.1% efficient, all-perovskite, two-terminal tandem device with a high Voc of 2.2 volts.物(Wu)理(Li)学(Xue)PhysicsIonocaloric refrigeration cycle离(Li)子(Zi)热(Re)制(Zhi)冷(Leng)循(Xun)环(Huan)▲ 作(Zuo)者(Zhe)：DREW LILLEY AND RAVI PRASHER▲ 链(Lian)接(Jie)：https://www.science.org/doi/10.1126/science.ade1696▲ 摘(Zhai)要(Yao)：我(Wo)们(Men)提(Ti)出(Chu)，使(Shi)用(Yong)离(Li)子(Zi)热(Re)效(Xiao)应(Ying)和(He)伴(Ban)随(Sui)而(Er)来(Lai)的(De)热(Re)力(Li)学(Xue)循(Xun)环(Huan)，作(Zuo)为(Wei)一(Yi)种(Zhong)基(Ji)于(Yu)热(Re)量(Liang)的(De)全(Quan)冷(Leng)凝(Ning)相(Xiang)冷(Leng)却(Que)技(Ji)术(Shu)。理(Li)论(Lun)和(He)实(Shi)验(Yan)结(Jie)果(Guo)表(Biao)明(Ming)，在(Zai)低(Di)应(Ying)用(Yong)场(Chang)强(Qiang)作(Zuo)用(Yong)下(Xia)，与(Yu)其(Qi)他(Ta)热(Re)效(Xiao)应(Ying)相(Xiang)比(Bi)，这(Zhe)一(Yi)效(Xiao)应(Ying)具(Ju)有(You)更(Geng)高(Gao)的(De)绝(Jue)热(Re)温(Wen)度(Du)变(Bian)化(Hua)和(He)熵(Zuo)变(Bian)。我(Wo)们(Men)证(Zheng)实(Shi)了(Liao)一(Yi)个(Ge)使(Shi)用(Yong)离(Li)子(Zi)热(Re)斯(Si)特(Te)林(Lin)制(Zhi)冷(Leng)循(Xun)环(Huan)的(De)实(Shi)用(Yong)系(Xi)统(Tong)的(De)可(Ke)能(Neng)性(Xing)。我(Wo)们(Men)的(De)实(Shi)验(Yan)结(Jie)果(Guo)展(Zhan)示(Shi)了(Liao)相(Xiang)对(Dui)于(Yu)卡(Ka)诺(Nuo)的(De)性(Xing)能(Neng)系(Xi)数(Shu)为(Wei)30%，以(Yi)及(Ji)在(Zai)~0.22伏(Fu)的(De)电(Dian)压(Ya)强(Qiang)度(Du)下(Xia)温(Wen)度(Du)可(Ke)提(Ti)升(Sheng)25度(Du)。▲ Abstract：We propose using the ionocaloric effect and the accompanying thermodynamic cycle as a caloric-based, all–condensed-phase cooling technology. Theoretical and experimental results show higher adiabatic temperature change and entropy change per unit mass and volume compared with other caloric effects under low applied field strengths. We demonstrated the viability of a practical system using an ionocaloric Stirling refrigeration cycle. Our experimental results show a coefficient of performance of 30% relative to Carnot and a temperature lift as high as 25°C using a voltage strength of ~0.22 volts.High-entropy mechanism to boost ionic conductivity促(Cu)进(Jin)离(Li)子(Zi)电(Dian)导(Dao)性(Xing)的(De)高(Gao)熵(Zuo)机(Ji)制(Zhi)▲ 作(Zuo)者(Zhe)：YAN ZENG, BIN OUYANG, JUE LIU et al.▲ 链(Lian)接(Jie)：https://www.science.org/doi/10.1126/science.abq1346▲ 摘(Zhai)要(Yao)：我(Wo)们(Men)证(Zheng)明(Ming)了(Liao)高(Gao)熵(Zuo)金(Jin)属(Shu)阳(Yang)离(Li)子(Zi)混(Hun)合(He)物(Wu)提(Ti)高(Gao)化(Hua)合(He)物(Wu)中(Zhong)离(Li)子(Zi)电(Dian)导(Dao)性(Xing)的(De)能(Neng)力(Li)，这(Zhe)一(Yi)特(Te)性(Xing)可(Ke)以(Yi)减(Jian)少(Shao)对(Dui)特(Te)定(Ding)化(Hua)学(Xue)物(Wu)质(Zhi)的(De)依(Yi)赖(Lai)同(Tong)时(Shi)增(Zeng)强(Qiang)合(He)成(Cheng)能(Neng)力(Li)。引(Yin)入(Ru)高(Gao)熵(Zuo)材(Cai)料(Liao)的(De)局(Ju)部(Bu)畸(Ji)变(Bian)导(Dao)致(Zhi)碱(Jian)离(Li)子(Zi)的(De)位(Wei)置(Zhi)能(Neng)量(Liang)分(Fen)布(Bu)重(Zhong)叠(Die)，使(Shi)得(De)碱(Jian)离(Li)子(Zi)能(Neng)以(Yi)较(Jiao)低(Di)的(De)活(Huo)化(Hua)能(Neng)进(Jin)行(Xing)渗(Shen)透(Tou)。实(Shi)验(Yan)证(Zheng)明(Ming)，高(Gao)熵(Zuo)导(Dao)致(Zhi)了(Liao)锂(Zuo)-钠(Na)超(Chao)离(Li)子(Zi)导(Dao)体(Ti)、钠(Na)超(Chao)离(Li)子(Zi)导(Dao)体(Ti)和(He)锂(Zuo)-石(Shi)榴(Liu)石(Shi)结(Jie)构(Gou)的(De)离(Li)子(Zi)电(Dian)导(Dao)性(Xing)达(Da)到(Dao)更(Geng)高(Gao)数(Shu)量(Liang)级(Ji)，即(Ji)使(Shi)在(Zai)碱(Jian)含(Han)量(Liang)固(Gu)定(Ding)的(De)情(Qing)况(Kuang)下(Xia)也(Ye)是(Shi)如(Ru)此(Ci)。▲ Abstract：We demonstrate the ability of high-entropy metal cation mixes to improve ionic conductivity in a compound, which leads to less reliance on specific chemistries and enhanced synthesizability. The local distortions introduced into high-entropy materials give rise to an overlapping distribution of site energies for the alkali ions so that they can percolate with low activation energy. Experiments verify that high entropy leads to orders-of-magnitude higher ionic conductivities in lithium (Li)–sodium (Na) superionic conductor (Li-NASICON), sodium NASICON (Na-NASICON), and Li-garnet structures, even at fixed alkali content.Nanoscale covariance magnetometry with diamond quantum sensors金(Jin)刚(Gang)石(Shi)量(Liang)子(Zi)传(Chuan)感(Gan)器(Qi)的(De)纳(Na)米(Mi)尺(Chi)度(Du)协(Xie)方(Fang)差(Cha)磁(Ci)力(Li)测(Ce)定(Ding)▲ 作(Zuo)者(Zhe)：JARED ROVNY, ZHIYANG YUAN, MATTIAS FITZPATRICK et al.▲ 链(Lian)接(Jie)：https://www.science.org/doi/10.1126/science.ade9858▲ 摘(Zhai)要(Yao)：在(Zai)此(Ci)，我(Wo)们(Men)提(Ti)出(Chu)并(Bing)实(Shi)现(Xian)了(Liao)一(Yi)种(Zhong)可(Ke)以(Yi)同(Tong)时(Shi)测(Ce)量(Liang)两(Liang)个(Ge)或(Huo)多(Duo)个(Ge)氮(Dan)空(Kong)位(Wei)（NV）中(Zhong)心(Xin)的(De)传(Chuan)感(Gan)方(Fang)式(Shi)。同(Tong)时(Shi)，我(Wo)们(Men)从(Cong)它(Ta)们(Men)的(De)信(Xin)号(Hao)中(Zhong)提(Ti)取(Qu)出(Chu)了(Liao)其(Qi)他(Ta)方(Fang)式(Shi)无(Wu)法(Fa)获(Huo)得(De)的(De)时(Shi)间(Jian)和(He)空(Kong)间(Jian)相(Xiang)关(Guan)性(Xing)。我(Wo)们(Men)使(Shi)用(Yong)两(Liang)个(Ge)NV中(Zhong)心(Xin)的(De)自(Zi)旋(Xuan)-电(Dian)荷(He)读(Du)数(Shu)演(Yan)示(Shi)了(Liao)如(Ru)何(He)测(Ce)量(Liang)相(Xiang)关(Guan)应(Ying)用(Yong)噪(Zao)音(Yin)，并(Bing)实(Shi)现(Xian)了(Liao)可(Ke)消(Xiao)除(Chu)局(Ju)部(Bu)和(He)非(Fei)局(Ju)部(Bu)噪(Zao)声(Sheng)音(Yin)源(Yuan)的(De)光(Guang)谱(Pu)重(Zhong)建(Jian)方(Fang)法(Fa)。▲ Abstract：Here, we propose and implement a sensing modality whereby two or more NV centers are measured simultaneously, and we extract temporal and spatial correlations in their signals that would otherwise be inaccessible. We demonstrate measurements of correlated applied noise using spin-to-charge readout of two NV centers and implement a spectral reconstruction protocol for disentangling local and nonlocal noise sources.生(Sheng)物(Wu)学(Xue)BiologyGlassfrogs conceal blood in their liver to maintain transparency玻(Bo)璃(Li)蛙(Wa)通(Tong)过(Guo)血(Xue)液(Ye)隐(Yin)藏(Cang)在(Zai)肝(Gan)脏(Zang)中(Zhong)以(Yi)保(Bao)持(Chi)透(Tou)明(Ming)▲ 作(Zuo)者(Zhe)：CARLOS TABOADA, JESSE DELIA, MAOMAO CHEN et al.▲ 链(Lian)接(Jie)：https://www.science.org/doi/10.1126/science.abl6620▲ 摘(Zhai)要(Yao)：动(Dong)物(Wu)的(De)透(Tou)明(Ming)化(Hua)是(Shi)一(Yi)种(Zhong)复(Fu)杂(Za)的(De)伪(Wei)装(Zhuang)形(Xing)式(Shi)，涉(She)及(Ji)到(Dao)减(Jian)少(Shao)光(Guang)在(Zai)整(Zheng)个(Ge)生(Sheng)物(Wu)体(Ti)中(Zhong)的(De)散(San)射(She)和(He)吸(Xi)收(Shou)的(De)机(Ji)制(Zhi)。因(Yin)为(Wei)脊(Ji)椎(Zhui)动(Dong)物(Wu)的(De)循(Xun)环(Huan)系(Xi)统(Tong)中(Zhong)充(Chong)满(Man)了(Liao)可(Ke)以(Yi)强(Qiang)烈(Lie)衰(Shuai)减(Jian)光(Guang)线(Xian)的(De)红(Hong)细(Xi)胞(Bao)（RBCs），实(Shi)现(Xian)身(Shen)体(Ti)透(Tou)明(Ming)化(Hua)是(Shi)很(Hen)难(Nan)的(De)。在(Zai)此(Ci)，我(Wo)们(Men)记(Ji)录(Lu)了(Liao)玻(Bo)璃(Li)蛙(Wa)是(Shi)如(Ru)何(He)通(Tong)过(Guo)隐(Yin)藏(Cang)这(Zhe)些(Xie)细(Xi)胞(Bao)从(Cong)而(Er)克(Ke)服(Fu)这(Zhe)一(Yi)挑(Tiao)战(Zhan)的(De)。通(Tong)过(Guo)使(Shi)用(Yong)光(Guang)声(Sheng)成(Cheng)像(Xiang)来(Lai)跟(Gen)踪(Zong)体(Ti)内(Nei)的(De)红(Hong)细(Xi)胞(Bao)，我(Wo)们(Men)展(Zhan)示(Shi)了(Liao)睡(Shui)眠(Mian)时(Shi)的(De)玻(Bo)璃(Li)蛙(Wa)是(Shi)如(Ru)何(He)通(Tong)过(Guo)从(Cong)体(Ti)内(Nei)循(Xun)环(Huan)中(Zhong)转(Zhuan)移(Yi)89%的(De)红(Hong)细(Xi)胞(Bao)并(Bing)将(Jiang)它(Ta)们(Men)包(Bao)装(Zhuang)在(Zai)肝(Gan)脏(Zang)中(Zhong)，将(Jiang)身(Shen)体(Ti)透(Tou)明(Ming)度(Du)提(Ti)高(Gao)2到(Dao)3倍(Bei)。因(Yin)此(Ci)，脊(Ji)椎(Zhui)动(Dong)物(Wu)的(De)透(Tou)明(Ming)化(Hua)既(Ji)需(Xu)要(Yao)透(Tou)明(Ming)的(De)组(Zu)织(Zhi)，也(Ye)需(Xu)要(Yao)能(Neng)从(Cong)这(Zhe)些(Xie)组(Zu)织(Zhi)中(Zhong)“清(Qing)除(Chu)”呼(Hu)吸(Xi)色(Se)素(Su)的(De)活(Huo)性(Xing)机(Ji)制(Zhi)。此(Ci)外(Wai)，玻(Bo)璃(Li)蛙(Wa)在(Zai)不(Bu)产(Chan)生(Sheng)凝(Ning)血(Xue)的(De)情(Qing)况(Kuang)下(Xia)也(Ye)能(Neng)调(Diao)节(Jie)红(Hong)细(Xi)胞(Bao)的(De)位(Wei)置(Zhi)、密(Mi)度(Du)和(He)储(Chu)存(Cun)的(De)能(Neng)力(Li)，为(Wei)代(Dai)谢(Xie)、血(Xue)液(Ye)动(Dong)力(Li)学(Xue)和(He)血(Xue)凝(Ning)块(Kuai)研(Yan)究(Jiu)提(Ti)供(Gong)了(Liao)思(Si)路(Lu)。▲ Abstract：Transparency in animals is a complex form of camouflage involving mechanisms that reduce light scattering and absorption throughout the organism. In vertebrates, attaining transparency is difficult because their circulatory system is full of red blood cells (RBCs) that strongly attenuate light. Here, we document how glassfrogs overcome this challenge by concealing these cells from view. Using photoacoustic imaging to track RBCs in vivo, we show that resting glassfrogs increase transparency two- to threefold by removing ~89% of their RBCs from circulation and packing them within their liver. Vertebrate transparency thus requires both see-through tissues and active mechanisms that “clear” respiratory pigments from these tissues. Furthermore, glassfrogs’ ability to regulate the location, density, and packing of RBCs without clotting offers insight in metabolic, hemodynamic, and blood-clot research.
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