0000000001148356

AUTHOR

Ping Wang

showing 17 related works from this author

RNA interference in Lepidoptera: an overview of successful and unsuccessful studies and implications for experimental design.

2011

International audience; Gene silencing through RNA interference (RNAi) has revolutionized the study of gene function, particularly in non-model insects. However, in Lepidoptera (moths and butterflies) RNAi has many times proven to be difficult to achieve. Most of the negative results have been anecdotal and the positive experiments have not been collected in such a way that they are possible to analyze. In this review, we have collected detailed data from more than 150 experiments including all to date published and many unpublished experiments. Despite a large variation in the data, trends that are found are that RNAi is particularly successful in the family Saturniidae and in genes involv…

0106 biological sciencesPhysiology[SDV]Life Sciences [q-bio]Tissue uptakeBioinformatics01 natural sciencesRNA interferenceRNA interferenceDatabases GeneticDelivery methodsCaenorhabditis elegansRegulation of gene expression0303 health sciencesIMMUNE-RESPONSESMANDUCA-SEXTALepidopteraRNA silencingSILKWORM BOMBYX-MORIResearch DesignInsect ProteinsRNA InterferenceMESSENGER-RNAHELICOVERPA-ARMIGERADOUBLE-STRANDED-RNAComputational biologyBiologyLepidoptera genitaliadsRNA properties03 medical and health sciencesBACILLUS-THURINGIENSISSMALL SILENCING RNASGene silencingAnimalsGene SilencingGene030304 developmental biologyRNA Double-StrandedMechanism (biology)fungiBiology and Life SciencesARMYWORM SPODOPTERA-FRUGIPERDAbiology.organism_classificationImmunity Innate010602 entomologyGene Expression RegulationInsect ScienceEpidermisCAENORHABDITIS-ELEGANSGene functionJournal of insect physiology
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Characteristic Excitation Wavelength Dependence of Fluorescence Emissions in Carbon "quantum" Dots

2017

Carbon "quantum" dots (CDots), generally defined as small carbon nanoparticles with various surface passivation schemes, have emerged to represent a rapidly advancing and expanding research field. CDots are known for their bright and colorful fluorescence emissions, where the colorfulness is associated with the emissions being excitation wavelength dependent. In this work, CDots with 2,2′-(ethylenedioxy)bis(ethylamine) (EDA) for surface functionalization were studied systematically by using steady-state and time-resolved fluorescence methods. The observed fluorescence quantum yields are strongly excitation wavelength dependent, and the dependence apparently tracks closely the observed absor…

PassivationField (physics)Carbon Nanoparticleschemistry.chemical_element02 engineering and technology010402 general chemistry01 natural sciencesPhysical and Theoretical ChemistryQuantumExcitation wavelengthbusiness.industryElectronic Optical and Magnetic MaterialSettore FIS/01 - Fisica Sperimentale021001 nanoscience & nanotechnologyFluorescence0104 chemical sciencesElectronic Optical and Magnetic MaterialsSurfaces Coatings and FilmsGeneral EnergyEnergy (all)chemistryCarbon quantum dotsOptoelectronicsAtomic physics0210 nano-technologybusinessCarbon
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Analysis of cross-resistance to Vip3 proteins in eight insect colonies, from four insect species, selected for resistance to Bacillus thuringiensis i…

2018

Abstract Bacillus thuringiensis Vip3 proteins are synthesized and secreted during the vegetative growth phase. They are activated by gut proteases, recognize and bind to midgut receptors, form pores and lyse cells. We tested the susceptibility to Vip3Aa and Vip3Ca of Cry1A-, Cry2A-, Dipel- and Vip3-resistant insect colonies from different species to determine whether resistance to other insecticidal proteins confers cross-resistance to Vip3 proteins. As expected, the colonies resistant to Cry1A proteins, Dipel (Helicoverpa armigera, Trichoplusia ni, Ostrinia furnacalis and Plodia interpunctella) or Cry2Ab (H. armigera and T. ni) were not cross-resistant to Vip3 proteins. In contrast, H. arm…

0301 basic medicineProteasesInsectabiologymedia_common.quotation_subjectfungi030106 microbiologyBacillus thuringiensisMidgutInsectHelicoverpa armigerabiology.organism_classificationMicrobiologyInsecticide Resistance03 medical and health sciencesBacterial ProteinsBacillus thuringiensisTrichoplusiaAnimalsPest Control BiologicalEcology Evolution Behavior and SystematicsCross-resistancemedia_commonOstrinia furnacalisJournal of Invertebrate Pathology
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A new journal on the legume research horizon - Legume Perspectives; Legume Perspectives Editorial Board

2013

International audience; Through the decades of research on various legume species and crops worldwide, its results have been published in an endless number of national and international journals and magazines dealing with various topics. It is certain that the articles on genetics, propelled by Mendel’s pioneering work, are among the most numerous, but it is also true that those on agronomy, agro-ecology, or stress tolerance were produced rather abundantly. So far, there has not been a journal devoted specifically to legume science, except Legume Research published by the Agricultural Research Communication Centre, India. We have published our articles in several crop-specific journals, suc…

[SDV] Life Sciences [q-bio][SDE] Environmental Scienceslegume research[SDV]Life Sciences [q-bio][SDE]Environmental Sciencesjournal[SDV.BV]Life Sciences [q-bio]/Vegetal Biology[SDV.BV] Life Sciences [q-bio]/Vegetal Biologylegume perspectives
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Spin Crossover in a Series of Non-Hofmann-Type Fe(II) Coordination Polymers Based on [Hg(SeCN)3]− or [Hg(SeCN)4]2– Building Blocks

2021

Self-assembly of [Hg(SeCN)4]2- tetrahedral building blocks, iron(II) ions, and a series of bis-monodentate pyridyl-type bridging ligands has afforded the new heterobimetallic HgII-FeII coordination polymers {Fe[Hg(SeCN)3]2(4,4'-bipy)2}n (1), {Fe[Hg(SeCN)4](tvp)}n (2), {Fe[Hg(SeCN)3]2(4,4'-azpy)2}n (3), {Fe[Hg(SeCN)4](4,4'-azpy)(MeOH)}n (4), {Fe[Hg(SeCN)4](3,3'-bipy)}n (5) and {Fe[Hg(SeCN)4](3,3'-azpy)}n (6) (4,4-bipy = 4,4'-bipyridine, tvp = trans-1,2-bis(4-pyridyl)ethylene, 4,4'-azpy = 4,4'-azobispyridine, 3,3-bipy = 3,3'-bipyridine, 3,3'-azpy = 3,3'-azobispyridine). Single-crystal X-ray analyses show that compounds 1 and 3 display a two-dimensional robust sheet structure made up of infini…

Inorganic Chemistrychemistry.chemical_classificationBipyridinechemistry.chemical_compoundCrystallographyEthylenechemistrySpin crossoverLigandSheet structurePolymerPhysical and Theoretical ChemistryType (model theory)Inorganic Chemistry
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Mechanism of Resistance to Bacillus thuringiensis Toxin Cry1Ac in a Greenhouse Population of the Cabbage Looper, Trichoplusia ni

2007

ABSTRACT The cabbage looper, Trichoplusia ni , is one of only two insect species that have evolved resistance to Bacillus thuringiensis in agricultural situations. The trait of resistance to B. thuringiensis toxin Cry1Ac from a greenhouse-evolved resistant population of T. ni was introgressed into a highly inbred susceptible laboratory strain. The resulting introgression strain, GLEN-Cry1Ac-BCS, and its nearly isogenic susceptible strain were subjected to comparative genetic and biochemical studies to determine the mechanism of resistance. Results showed that midgut proteases, hemolymph melanization activity, and midgut esterase were not altered in the GLEN-Cry1Ac-BCS strain. The pattern of…

InsecticidesBacterial ToxinsPopulationBacillus thuringiensisDrug ResistanceBrassicaInsect ControlApplied Microbiology and BiotechnologyMicrobiologyHemolysin ProteinsBacterial ProteinsCabbage looperBacillus thuringiensisHemolymphBotanyInvertebrate MicrobiologyTrichoplusiaAnimalseducationeducation.field_of_studyBacillus thuringiensis ToxinsEcologybiologyStrain (chemistry)fungifood and beveragesMidgutbiology.organism_classificationEndotoxinsLepidopteraCry1AcFood ScienceBiotechnologyApplied and Environmental Microbiology
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Quest for precision in hadronic cross sections at low energy: Monte Carlo tools vs. experimental data

2010

We present the achievements of the last years of the experimental and theoretical groups working on hadronic cross section measurements at the low-energy e (+) e (-) colliders in Beijing, Frascati, Ithaca, Novosibirsk, Stanford and Tsukuba and on tau decays. We sketch the prospects in these fields for the years to come. We emphasise the status and the precision of the Monte Carlo generators used to analyse the hadronic cross section measurements obtained as well with energy scans as with radiative return, to determine luminosities and tau decays. The radiative corrections fully or approximately implemented in the various codes and the contribution of the vacuum polarisation are discussed.

Particle physicsPhysics and Astronomy (miscellaneous)Monte Carlo methodHadronFOS: Physical sciences01 natural sciencesHigh Energy Physics - ExperimentHigh Energy Physics - Experiment (hep-ex)Cross section (physics)High Energy Physics - Phenomenology (hep-ph)Low energy0103 physical sciencesRadiative transferddc:530010306 general physicsEngineering (miscellaneous)Particle Physics - PhenomenologyPhysics010308 nuclear & particles physicsFísicaExperimental dataHigh Energy Physics - Phenomenology[PHYS.HPHE]Physics [physics]/High Energy Physics - Phenomenology [hep-ph]Physics::Accelerator PhysicsHigh Energy Physics::ExperimentEnergy (signal processing)
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Guidelines for the use and interpretation of assays for monitoring autophagy (4th edition) 1

2021

Contains fulltext : 232759.pdf (Publisher’s version ) (Closed access) In 2008, we published the first set of guidelines for standardizing research in autophagy. Since then, this topic has received increasing attention, and many scientists have entered the field. Our knowledge base and relevant new technologies have also been expanding. Thus, it is important to formulate on a regular basis updated guidelines for monitoring autophagy in different organisms. Despite numerous reviews, there continues to be confusion regarding acceptable methods to evaluate autophagy, especially in multicellular eukaryotes. Here, we present a set of guidelines for investigators to select and interpret methods to…

0301 basic medicineProgrammed cell deathSettore BIO/06AutophagosomeAutolysosome[SDV]Life Sciences [q-bio]lnfectious Diseases and Global Health Radboud Institute for Molecular Life Sciences [Radboudumc 4]Autophagy-Related ProteinsReviewComputational biology[SDV.BC]Life Sciences [q-bio]/Cellular BiologyBiologySettore MED/0403 medical and health sciencesstressChaperone-mediated autophagyddc:570AutophagyLC3AnimalsHumanscancerSettore BIO/10Autophagosome; cancer; flux; LC3; lysosome; macroautophagy; neurodegeneration; phagophore; stress; vacuoleSet (psychology)Molecular Biologyvacuole.phagophore030102 biochemistry & molecular biologyvacuolebusiness.industryInterpretation (philosophy)AutophagyAutophagosomesneurodegenerationCell BiologyfluxMulticellular organismmacroautophagy030104 developmental biologyKnowledge baselysosomeAutophagosome; LC3; cancer; flux; lysosome; macroautophagy; neurodegeneration; phagophore; stress; vacuoleBiological AssayLysosomesbusinessBiomarkers[SDV.MHEP]Life Sciences [q-bio]/Human health and pathology
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Autophagy

2021

In 2008, we published the first set of guidelines for standardizing research in autophagy. Since then, this topic has received increasing attention, and many scientists have entered the field. Our knowledge base and relevant new technologies have also been expanding. Thus, it is important to formulate on a regular basis updated guidelines for monitoring autophagy in different organisms. Despite numerous reviews, there continues to be confusion regarding acceptable methods to evaluate autophagy, especially in multicellular eukaryotes. Here, we present a set of guidelines for investigators to select and interpret methods to examine autophagy and related processes, and for reviewers to provide…

macroautophagy;autophagyAutophagosome[SDV]Life Sciences [q-bio]canceLC3 macroautophagyautophagosomeneurodegeneration;[SDV.BC]Life Sciences [q-bio]/Cellular BiologyAutophagy AutophagosomeNOstress vacuolestressautophagic processesstrerfluxLC3cancerguidelinesAutophagosome; cancer; flux; LC3; lysosome; macroautophagy; neurodegeneration; phagophore; stress; vacuoleSettore BIO/06 - Anatomia Comparata E Citologia[SDV.BC] Life Sciences [q-bio]/Cellular BiologyComputingMilieux_MISCELLANEOUSMedaka oryzias latipesphagophorevacuoleQHneurodegenerationAutophagosome cancer flux LC3 lysosome macroautophagy neurodegeneration phagophore stress vacuoleautophagy; autophagic processes; guidelines; autophagosome; cancer; flux; LC3; lysosome; macroautophagy; neurodegeneration; phagophore; stress; vacuolefluxmacroautophagystress.lysosomeAutophagosome; LC3; cancer; flux; lysosome; macroautophagy; neurodegeneration; phagophore; stress; vacuoleSettore BIO/17 - ISTOLOGIARC
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CCDC 2023440: Experimental Crystal Structure Determination

2021

Related Article: Tong Cao, Francisco Javier Valverde-Muñoz, Xiaoyi Duan, Mingjian Zhang, Ping Wang, Lingbao Xing, Fenggang Sun, Zhen Zhou, Hui Liu, Jianzhuang Jiang, M. Carmen Muñoz, José Antonio Real, Daopeng Zhang|2021|Inorg.Chem.|60|11048|doi:10.1021/acs.inorgchem.1c00802

Space GroupCrystallographyCrystal SystemCrystal StructureCell Parameterscatena-[bis(mu-44'-bipyridine)-tetrakis(mu-selenocyanato)-bis(selenocyanato)-iron(ii)-di-mercury(ii)]Experimental 3D Coordinates
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CCDC 2023441: Experimental Crystal Structure Determination

2021

Related Article: Tong Cao, Francisco Javier Valverde-Muñoz, Xiaoyi Duan, Mingjian Zhang, Ping Wang, Lingbao Xing, Fenggang Sun, Zhen Zhou, Hui Liu, Jianzhuang Jiang, M. Carmen Muñoz, José Antonio Real, Daopeng Zhang|2021|Inorg.Chem.|60|11048|doi:10.1021/acs.inorgchem.1c00802

Space GroupCrystallographyCrystal SystemCrystal StructureCell Parameterscatena-[bis(mu-44'-bipyridine)-tetrakis(mu-selenocyanato)-bis(selenocyanato)-iron(ii)-di-mercury(ii)]Experimental 3D Coordinates
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CCDC 2023442: Experimental Crystal Structure Determination

2021

Related Article: Tong Cao, Francisco Javier Valverde-Muñoz, Xiaoyi Duan, Mingjian Zhang, Ping Wang, Lingbao Xing, Fenggang Sun, Zhen Zhou, Hui Liu, Jianzhuang Jiang, M. Carmen Muñoz, José Antonio Real, Daopeng Zhang|2021|Inorg.Chem.|60|11048|doi:10.1021/acs.inorgchem.1c00802

catena-[(mu-44'-(ethene-12-diyl)dipyridine)-tetrakis(mu-selenocyanato)-iron(ii)-mercury(ii)]Space GroupCrystallographyCrystal SystemCrystal StructureCell ParametersExperimental 3D Coordinates
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CCDC 2023445: Experimental Crystal Structure Determination

2021

Related Article: Tong Cao, Francisco Javier Valverde-Muñoz, Xiaoyi Duan, Mingjian Zhang, Ping Wang, Lingbao Xing, Fenggang Sun, Zhen Zhou, Hui Liu, Jianzhuang Jiang, M. Carmen Muñoz, José Antonio Real, Daopeng Zhang|2021|Inorg.Chem.|60|11048|doi:10.1021/acs.inorgchem.1c00802

Space GroupCrystallographycatena-[bis(mu-44'-diazenediyldipyridine)-hexakis(mu-selenocyanato)-bis(selenocyanato)-bis(methanol)-di-iron(ii)-di-mercury(ii)]Crystal SystemCrystal StructureCell ParametersExperimental 3D Coordinates
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CCDC 2023443: Experimental Crystal Structure Determination

2021

Related Article: Tong Cao, Francisco Javier Valverde-Muñoz, Xiaoyi Duan, Mingjian Zhang, Ping Wang, Lingbao Xing, Fenggang Sun, Zhen Zhou, Hui Liu, Jianzhuang Jiang, M. Carmen Muñoz, José Antonio Real, Daopeng Zhang|2021|Inorg.Chem.|60|11048|doi:10.1021/acs.inorgchem.1c00802

catena-[(mu-44'-(ethene-12-diyl)dipyridine)-tetrakis(mu-selenocyanato)-iron(ii)-mercury(ii)]Space GroupCrystallographyCrystal SystemCrystal StructureCell ParametersExperimental 3D Coordinates
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CCDC 2023444: Experimental Crystal Structure Determination

2021

Related Article: Tong Cao, Francisco Javier Valverde-Muñoz, Xiaoyi Duan, Mingjian Zhang, Ping Wang, Lingbao Xing, Fenggang Sun, Zhen Zhou, Hui Liu, Jianzhuang Jiang, M. Carmen Muñoz, José Antonio Real, Daopeng Zhang|2021|Inorg.Chem.|60|11048|doi:10.1021/acs.inorgchem.1c00802

Space GroupCrystallographyCrystal SystemCrystal StructureCell Parameterscatena-[bis(mu-44'-diazenediyldipyridine)-tetrakis(mu-selenocyanato)-bis(selenocyanato)-iron(ii)-di-mercury(ii)]Experimental 3D Coordinates
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CCDC 2023446: Experimental Crystal Structure Determination

2021

Related Article: Tong Cao, Francisco Javier Valverde-Muñoz, Xiaoyi Duan, Mingjian Zhang, Ping Wang, Lingbao Xing, Fenggang Sun, Zhen Zhou, Hui Liu, Jianzhuang Jiang, M. Carmen Muñoz, José Antonio Real, Daopeng Zhang|2021|Inorg.Chem.|60|11048|doi:10.1021/acs.inorgchem.1c00802

Space GroupCrystallographyCrystal SystemCrystal StructureCell Parameterscatena-[(mu-33'-bipyridine)-tetrakis(mu-selenocyanato)-iron(ii)-mercury(ii)]Experimental 3D Coordinates
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CCDC 2023447: Experimental Crystal Structure Determination

2021

Related Article: Tong Cao, Francisco Javier Valverde-Muñoz, Xiaoyi Duan, Mingjian Zhang, Ping Wang, Lingbao Xing, Fenggang Sun, Zhen Zhou, Hui Liu, Jianzhuang Jiang, M. Carmen Muñoz, José Antonio Real, Daopeng Zhang|2021|Inorg.Chem.|60|11048|doi:10.1021/acs.inorgchem.1c00802

Space GroupCrystallographyCrystal SystemCrystal StructureCell Parameterscatena-[(mu-33'-diazenediyldipyridine)-tetrakis(mu-selenocyanato)-iron(ii)-mercury(ii)]Experimental 3D Coordinates
researchProduct