TY  - JOUR
A1  - Wei, Qing
A1  - Friedrich, Sabine
A1  - Wanderka, N.
A1  - Miekeley, M.
T1  - Kristalline Phasen in der amorphen Legierung Zr41Ti14Cu12,5Ni10Be22,5
Y1  - 1995
ER  - 
TY  - JOUR
A1  - Wei, Qing
A1  - Mühlhausen, D.
A1  - Schubert-Bischoff, P.
A1  - Macht, M.-P.
T1  - Kristallisation der massiven, amorphen Legierung Zr41Ti14Cu12,5Ni10Be22,5
Y1  - 1995
ER  - 
TY  - JOUR
A1  - Wei, Qing
A1  - Macht, M.-P.
A1  - Wanderka, N.
A1  - Wiedemann, A.
A1  - Wollenberger, H.
A1  - Fecht, H. J.
A1  - Klose, Stephan G.
T1  - Decomposition of the supercooled liquid of the bulk amorphous alloy Zr41Ti14Cu12,5Ni10Be22,5
Y1  - 1996
ER  - 
TY  - JOUR
A1  - Anderson, Craig A.
A1  - Suzuki, Kanae
A1  - Swing, Edward L.
A1  - Groves, Christopher L.
A1  - Gentile, Douglas A.
A1  - Prot, Sara
A1  - Lam, Chun Pan
A1  - Sakamoto, Akira
A1  - Horiuchi, Yukiko
A1  - Krahé, Barbara
A1  - Jelic, Margareta
A1  - Wei Liuqing, 
A1  - Toma, Roxana
A1  - Warburton, Wayne A.
A1  - Zhang, Xue-Min
A1  - Tajima, Sachi
A1  - Qing, Feng
A1  - Petrescu, Poesis
T1  - Media Violence and Other Aggression Risk Factors in Seven Nations
JF  - Personality and social psychology bulletin
N2  - Cultural generality versus specificity of media violence effects on aggression was examined in seven countries (Australia, China, Croatia, Germany, Japan, Romania, the United States). Participants reported aggressive behaviors, media use habits, and several other known risk and protective factors for aggression. Across nations, exposure to violent screen media was positively associated with aggression. This effect was partially mediated by aggressive cognitions and empathy. The media violence effect on aggression remained significant even after statistically controlling a number of relevant risk and protective factors (e.g., abusive parenting, peer delinquency), and was similar in magnitude to effects of other risk factors. In support of the cumulative risk model, joint effects of different risk factors on aggressive behavior in each culture were larger than effects of any individual risk factor.
KW  - mass media
KW  - aggression
KW  - culture
KW  - ethnicity
Y1  - 2017
U6  - https://doi.org/10.1177/0146167217703064
SN  - 0146-1672
SN  - 1552-7433
VL  - 43
SP  - 986
EP  - 998
PB  - Sage Publ.
CY  - Thousand Oaks
ER  - 
TY  - JOUR
A1  - Kelly, Mary Allison
A1  - Roland, Steffen
A1  - Zhang, Qianqian
A1  - Lee, Youngmin
A1  - Kabius, Bernd
A1  - Wang, Qing
A1  - Gomez, Enrique D.
A1  - Neher, Dieter
A1  - You, Wei
T1  - Incorporating Fluorine Substitution into Conjugated Polymers for Solar Cells
BT  - three Different Means, Same Results
JF  - The journal of physical chemistry : C, Nanomaterials and interfaces
N2  - Fluorinating conjugated polymers is a proven strategy for creating high performance materials in polymer solar cells, yet few studies have investigated the importance of the fluorination method. We compare the performance of three fluorinated systems: a poly(benzodithieno-dithienyltriazole) (PBnDT-XTAZ) random copolymer where 50% of the acceptor units are difluorinated, PBnDT-mFTAZ where every acceptor unit is monofluorinated, and a 1:1 physical blend of the difluorinated and nonfluorinated polymer. All systems have the same degree of fluorination (50%) yet via different methods (chemically vs physically, random vs regular). We show that these three systems have equivalent photovoltaic behavior:,similar to 5.2% efficiency with a short-circuit current (J(sc)) at,similar to 11 mA cm(-2), an open-circuit voltage (v(oc)) at 0.77 V, and a fill factor (FF) of similar to 60%. Further investigation of these three systems demonstrates that the charge generation, charge extraction, and charge transfer state are essentially identical for the three studied systems. Transmission electron microscopy shows no significant differences in the morphologies. All these data illustrate that it is possible to improve performance not only via regular or random fluorination but also by physical addition via a ternary blend. Thus, our results demonstrate the versatility of incorporating fluorine in the active layer of polymer solar cells to enhance device performance.
Y1  - 2017
U6  - https://doi.org/10.1021/acs.jpcc.6b10993
SN  - 1932-7447
VL  - 121
IS  - 4
SP  - 2059
EP  - 2068
PB  - American Chemical Society
CY  - Washington
ER  -