Review Article

Gel-Based and Gel-Free Quantitative Proteomics Approaches at a Glance

Table 2

An overview of the latest MS-based quantitative proteomic studies on plant systems. The table shows the implemented quantitative approaches, plant species, biological questions, and reference of the corresponding paper.

Quantitative approachPlantBiological studyAuthors

18O labellingArabidopsis thaliana Quantification of the degree of plasma membrane protein enrichment[56]
ICATArabidopsis thaliana Localization of integral membrane proteins by using the localization of organelle proteins by isotope tagging (LOPIT)[60]
ICATHordeum vulgare Identification of specific disulfide targets of barley thioredoxin in proteins released from barley aleurone layers[63]
ICATArabidopsis thaliana Understanding of AtMPK6 role in transducing ozone-derived signals[64]
ICATArabidopsis thaliana Functional information about S-nitrosylation sites in plants[65]
ICATTriticum aestivum Identification of wheat seed proteins and their related expression to chromosome deletion[66]
ICAT, 2-DE, label-freeZea mays Quantitative comparative proteome analysis of purified mesophyll and bundle sheath chloroplast stroma in maize[67]
ICATOryza sativa Protein profiling of uninucleate stage rice anther and identification of the CMS-HL-related proteins[90]
ICATArabidopsis thaliana ProCoDeS (proteomic complex detection using sedimentation) for profiling the sedimentation of a large number of proteins[91]
ICPL, iTRAQRicinus communis Quantitative proteomic comparison of ICPL versus iTRAQ on ricinus communis seeds[71]
iTRAQSolanum tuberosum Comparative proteomic approach of potato tubers after 0 and 5 months of storage at 5°C[45]
iTRAQArabidopsis thaliana Quantitative study of the secreted proteins from Arabidopsis cells in response to Pseudomonas syringae [76]
iTRAQVitis vinifera Comparative proteomic study of dynamic changes in control and infected Vitis vinifera [77]
iTRAQVitis vinifera Comparative analysis of differentially expressed proteins in Erysiphe necator infected grape[78]
iTRAQCitrus sinensis Comparative proteomic approach of the pathogenic process of HLB in affected sweet orange leaves[79]
iTRAQZea mays Proteomic approach of two maize inbreds in the early infection by Fusarium graminearum [80]
iTRAQArabidopsis thaliana Changes tack of the Arabidopsis phosphoproteome during the defence response to Pseudomonas syringae [81]
iTRAQArabidopsis thaliana Investigation of the proteomic changes in the chloroplasts of clpr2-1[82]
iTRAQHordeum vulgare Comparative proteomic study of boron-tolerant and -intolerant barley [83]
iTRAQHordeum vulgare Quantitative proteomic approach to unravel the contribution of vacuolar transporters to Cd2+ detoxification[84]
iTRAQ, 2D-DIGEBrassica juncea Quantitative proteomic approaches to understand the effect of cadmium on Brassica juncea roots[85]
iTRAQ, label-freeOryza sativa Quantitative proteomic response of rice seedling to 48, 72, and 96 h of cold stress[86]
iTRAQ, BN-PAGE, label-freeZea mays Comparative analysis of protein abundance in chloroplast thylakoid and envelope membrane proteomes in maize[87]
Cys-TMTSolanum lycopersicum Study of the redox proteomic analysis of the Pseudomonas syringae tomato DC3000 treated tomato leaves[89]
SILACChlamydomonas reinhardtii Dynamic changes of proteome turnover under salt stress[92]
SILACOstreococcus tauri Quantitative proteomics on synthesis and degradation rate constants of individual proteins in autotrophic organisms[93]
SILACChlamydomonas reinhardtii Comparative proteomics on the iron deficiency impact in Chlamydomonas reinhardtii [94]
14N/15N labellingSolanum tuberosum Effectiveness of fully label a plant with 15N isotopes[95]
14N/15N labellingArabidopsis thaliana Demonstration of plant 15N labelling as a powerful comparative quantitative proteomic approach[96]
14N/15N labellingArabidopsis thaliana Comparative analysis of Arabidopsis cells following a cadmium exposure[97]
14N/15N labellingNicotiana tabacum Quantitative proteomic approach of the detergent-resistant membranes of tobacco cells in response to cryptogenin[98]
14N/15N labellingArabidopsis thaliana Quantitative approach of phosphorylated sites in signaling and protein response in flg22 or xylanase Arabidopsis-treated cells [99]
HILEPArabidopsis thaliana Demonstration of HILEP suitability for relative plant quantitative proteomic subjected to oxidative stress[100]
SILIPSolanum lycopersicum SILIP development for homogeneously 15N incorporation within the whole plant proteome[101]
14N/15N labellingArabidopsis thaliana Investigation of both partial and full 15N labelling effect on quantitative analysis in a complex mixture[102]
Spectral countingArabidopsis thaliana Proteome map of Arabidopsis thaliana [103]
Spectral countingArabidopsis thaliana Comprehensive Arabidopsis chloroplast proteome analysis [104]
Spectral countingGlycine max Evaluation of the suitability of spectral counting to quantitative soybean proteome study[105]
Spectral countingOryza sativa Differential proteomic response of rice leaves exposed to high- and low-temperature stress[106]
Peak ion intensityArabidopsis thaliana Sucrose-induced phosphorylation changes of plasma membrane proteins in Arabidopsis [107]
Peak ion intensitySolanum lycopersicum Quantitative proteomics of phosphoproteins in tomato hypersensitive response[108]
Peak ion intensity, 2-DEGlycine max Investigation of the soybean plasma membrane function in response to flooding stress [109]
Spectral counting + peak ion intensityMedicago truncatula Comparison of two label-free quantitative approaches on nodule protein extracts from Medicago truncatula [110]
Spectral counting + peak ion intensityArachis hypogaea Investigation of major allergens in transgenic peanut lines[111]
MSEApium graveolens Analysis of the Apium graveolens protein response to salicylic acid [112]
MSEZea mays Proteomic approach assessment of the transition from dark to light in maize seedlings[113]
MSEArabidopsis thaliana Proteomic changes in the cell wall proteome in response to salicylic acid [114]
MSEHordeum vulgare Study of the UV-B irradiation effect on the barley proteome[115]