Results 81 to 90 of about 82,281 (264)

Cardiac myocyte-specific knock-out of calcium-independent phospholipase A2γ (iPLA2γ) decreases oxidized fatty acids during ischemia/reperfusion and reduces infarct size [PDF]

, 2016
Calcium-independent phospholipase A(2)γ (iPLA(2)γ) is a mitochondrial enzyme that produces lipid second messengers that facilitate opening of the mitochondrial permeability transition pore (mPTP) and contribute to the production of oxidized fatty acids ...
Abendschein, Dana, Gibson Dilthey, Beverly, Gross, Richard W, Guan, Shaoping, Jenkins, Christopher M, Kovacs, Attila, Liu, Xinping, Mancuso, David J, Moon, Sung Ho, Nguyen, Annie L, Sims, Harold F, Weinheimer, Carla J, Yang, Kui   +12 more
core   +2 more sources

Speciation of Copper(II) Complexes in an Ionic Liquid Based on Choline Chloride and in Choline Chloride/Water Mixtures [PDF]

Inorganic Chemistry, 2012
A deep-eutectic solvent with the properties of an ionic liquid is formed when choline chloride is mixed with copper(II) chloride dihydrate in a 1:2 molar ratio. EXAFS and UV-vis-near-IR optical absorption spectroscopy have been used to compare the coordination sphere of the cupric ion in this ionic liquid with that of the cupric ion in solutions of 0.1
Peter, De Vreese, Neil R, Brooks, Kristof, Van Hecke, Luc, Van Meervelt, Edward, Matthijs, Koen, Binnemans, Rik, Van Deun   +6 more
openaire   +2 more sources

Reprogramming the Myocardial Infarction Conductive Microenvironment with Superconductive Ionic Patch for Cardiac Function Repair

Advanced Science, EarlyView.
A super‐conductive ionic patch reprograms the post‐infarction microenvironment by enabling stable ionic migration and electrical signal transmission within damaged myocardium. The patch rapidly adheres to cardiac tissue, enhances conduction velocity, suppresses excitation‐contraction decoupling, and promotes structural and functional cardiac repair in ...
Changyong Wang, Zhuang Zhang, Qi Yin, Changgeng Xu, Linlin Liang, Siwei Li, Yuwei Zhao, Chunlan Wang, Jin Zhou   +8 more
wiley   +1 more source

SUBSTITUIÇÃO DO CLORETO DE COLINA POR UMA FONTE DE COLINA VEGETAL EM DIETAS PARA FRANGOS DE CORTE

Ciência Animal Brasileira, 2015
The objective of this study was to evaluate the use of a vegetal source of choline as a replacement of choline chloride in the diet for broilers from one to 21 and 22 to 42 days of age.
Arele Arlindo Calderano, Ricardo Vianna Nunes, Ramalho José Barbosa Rodrigueiro, Ricardo Andrade César   +3 more
doaj   +1 more source

The Role of Ionic Liquids at the Biological Interfaces in Bioelectronics

Advanced Science, EarlyView.
Ionic liquids (ILs) are highlighted as key artificial ionic materials that bridge biological ion‐based signaling and electronic devices. By understanding their composition, structure, function relationships, and mechanisms, ILs can advance from high performance electrolyte to core materials enabling integrated, multifunctional bioelectronics for ...
Yeong‐sinn Ye, Young Jin Jo, Ji Yeon Oh, Ju Yeon Jeong, Lili Guo, Tae‐il Kim   +5 more
wiley   +1 more source

REPLACEMENT OF CHOLINE CHLORIDE BY A VEGETAL SOURCE OF CHOLINE IN DIETS FOR BROILERS

Ciência Animal Brasileira, 2015
The objective of this study was to evaluate the use of a vegetal source of choline as a replacement of choline chloride in the diet for broilers from one to 21 and 22 to 42 days of age. In the first experiment, we used 1500 Cobb male broilers at one day
Arele Arlindo Calderano, Ricardo Vianna Nunes, Ramalho José Barbosa Rodrigueiro, Ricardo Andrade César   +3 more
doaj   +1 more source

Extraction Methods and an Investigation of Drosophila Lipids [PDF]

, 1959
In earlier work (8) we extracted lipids from dried, macerated Drosophila melanogaster with ether, but later, working with larger quantities of undried flies, we found that most of the phospholipids were autolyzed.
Mitchell, Herschel K., Wren, J. J.
core  

Deep Eutectic Solvents (DESs) and their applications [forthcoming] [PDF]

, 2014
Deep Eutectic Solvents (DESs) and Their ...
Abbott A., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abbott A. P., Abood H. M. A., Aidoudi F. H., Andrew P. Abbott, Avalos M., Azizi N., Azizi N., Azizi N., Azizi N., Azizi N., Bagh F. S. G., Ballantyne A., Biswas A., Bolkan S. A., Bonhote P., Bougouma M., Böck R., Carriazo D., Carvalho M. M., Chen F., Chen S., Chen S., Chen Z., Chen Z., Choi Y. H., Chu Q., Chung P. P., Clouthier C. M., Cojocaru P., Cooper E. R., Corma A., Corma A., Costa R., Cundy C. S., Davis M. E., De Vreese P., Deetlefs M., Diaz-Alvarez A. E., Dominguez de Maria P., Dong J.-Y., Drylie E. A., D’Agostino C., Emma L. Smith, Endres F., Endres F., Fannin A. A., Feng P., Ferreira E., Figueiedo M., Francisco M., Freyhardt C. C., Gambino M., Gambino M., Ge X., Gomez E., Gorke J., Gorke J. T., Graham A. K., Gu C., Gu C. D., Gu C. D., Gu C.-D., Guitierrez M. C., Gutierrez M., Gutierrez M. C., Gutierrez M. C., Gutierrez M. C., Haerens K., Haerens K., Haerens K., Hammons J. A., Handy S., Hao G. P., Hawkins I., Hayyan A., Hayyan M., Hayyan M., Hayyan M., Himeur F., Himeur F., Hsiu S. I., Hu S., Huang W., Huang Y., Hurley F. H., Jhang P.-C., Jhong H.-Ru., Kareem M. A., Karl S. Ryder, Konig U., Lanzinger G., Lawes S. D. A., Lee H., Lee Y. R., Leron R. B., Leron R. B., Leron R. B., Li C. P., Li L. M., Li S. Y., Li X., Li Y., Liao H.-G., Lin C. M., Lin I. J. B., Lin Y. F., Lin Y.-F., Lin Z., Lin Z., Lindberg D., Liu L., Liu L., Liu L., Liu L., Liu L., Liu W., Lloyd D., Lobo R. F., Lohmeier S. J., MacFarlane D. R., Malaquias J., Mamajanov I., Martins A. C., Maugeri Z., Meng Y., Michel A., Mondal D., Morales R. C., Morrison H. G., Mota-Morales J. D., Pandey A., Parnham E. R., Parnham E. R., Parnham E. R., Parnham E. R., Patil U. B., Patil U. B., Pawar P. M., Pednekar S., Phadtare S. B., Pollet B. G., Popescu A. M., Popescu A.-M. J., Ramesh S., Ramesh S., Rodrigues F., Ryder K. S., Salome S., Saravanan G., Sebastian P., Serrano M. C., Shahbaz K., Shahbaz K., Shahbaz K., Shahbaz K., Shahbaz K., Shahbaz K., Singh B., Singh B., Sitze M. S., Sitze M. S., Skopek M. A., Smith E. L., Smith E. L., Smith E. L., Smith E. L., Sonawane Y. A., Steichen M., Steichen M., Su W. C., Sun T., Taubert J., Taubert J., Taylor A. W., Vijayakumar J., Wang H., Wang H., Wang L., Wang L., Wang L., Wang S.-M., Wang S.-M., Wang S.-M., Wasserscheid P., Wei L., Wei L., Welton T., Wheatley P. S., Wilkes J. S., Wilkes J. S., Wilkes J. S., Xu W. G., Yang D. Z., Yang H., Yang H. Y., Yang J. Z., Yang J.-Z., Zdanowicz M., Zecchina A., Zein El Abedin S., Zhang F., Zhang J., Zhang Q. H., Zhao H., Zhao H., Zhao H., Zhao H., Zhao H., Zhu A., Zhu A. L.   +257 more
core   +1 more source

An All‐Soft Wearable Electrochemiluminescence Chip for Sweat Metabolite Detection

Advanced Science, EarlyView.
A wearable electrochemiluminescence chip for sweat metabolite monitoring is pioneered, integrating “all‐soft” components: a flexible closed bipolar electrode (c‐BPE) array based on laser‐induced graphene (LIG), a laser‐cut microfluidic layer for sweat collection, and deep eutectic solvents (DES)‐based conductive ionogels for ECL emission.
Wei Nie, Jie Jiang, Xi Wei, Linfeng Zhuo, Danyang Li, Mingyu Jia, Tianhua Zheng, Hua Cui   +7 more
wiley   +1 more source

A Microfiber‐Reinforced Janus Hydrogel E‐Skin With Recyclable Feature for Multimodal Sensing and Gender‐Specific Physiological Monitoring

Advanced Science, EarlyView.
Hydrogel‐based wearable electronics hold great promise for physiological monitoring in privacy‐sensitive regions. In this study, a polyurethane (PU) microfiber‐reinforced gelatin hydrogel e‐skin is developed, boasting multiple advantages such as ultra‐thinness, high toughness, and long‐term skin conformability.
Yarong Ding, Yufeng Li, Shaozhe Tan, Jiachun Sun, Xu Yang, Xuesi Zhang, Zhenhua Lin, Zhenyu Li, Yue Hao, Yannan Liu, Yingchun Li, Jingjing Chang   +11 more
wiley   +1 more source