Services
- Genetic Marker Assisted Breeding
- Plant Molecular Biology Research
- Research on DNA Level of Plant
- Research on Microspore Embryogenesis
- Plant Genetic Engineering
- Plant Genome Editing with CRISPR / Cas9
- Plant Genome Editing with TALEN
- Plant Genome Editing with ZFN
- RNAi Mediated Plant Gene Silencing
- Overexpression of Plant Genes
- Arabidopsis thaliana Transformation
- Oryza sativa Transformation
- Zea mays Transformation
- Triticum aestivum Transformation
- Medicago truncatula Transformation
- Glycine max Transformation
- Gossypium hirsutum Transformation
- Nicotiana tabacum Transformation
- Solanum lycopersicum Transformation
- Brassica napus Transformation
- Solanum tuberosum Transformation
- Virus-Induced Gene Silencing (VIGS) of Plant Genes
- Research on Protein Level of Plant
- Plant Epigenetic Modification Testing Services
- Sequencing-based Plant Breeding
- Plant DNA-level Sequencing Services
- Plant Genome De Novo Service
- Plant Whole Genome Resequencing Service
- Plant Reduced-Representation Genome Sequencing (RRGS)
- Plant Genetic Map Service
- BSA Trait Positioning of Plant
- Genome-Wide Association Study (GWAS) of Plant
- eQTL Analysis of Plant
- Plant Genetic Evolution Service
- Plant Pan-genome Sequencing
- Plant Whole Exome Sequencing Service
- Individual Selection Pressure Analysis of Plant
- Mixing-tank Selection Pressure Analysis of Plant
- Plant Whole Genome Survey
- Plant RNA Level Sequencing Services
- Eukaryotic Transcriptome Sequencing without Reference Genome
- Eukaryotic Transcriptome Sequencing with Reference Genome
- Prokaryotic Transcriptome Sequencing Analysis
- LncRNA Sequencing of Plant
- Plant Small RNA Sequencing
- Plant Circular RNA Sequencing
- Plant Comparative Transcriptome Service
- Plant Isoform-sequencing with Reference Genome
- Plant Isoform-sequencing without Reference Genome
- Ribo-seq of Plant
- Metatranscriptome Sequencing of Plant
- Plant Single Cell Level Sequencing Services
- Plant Epigenetics Level Sequencing Services
- Plant Proteomics Service
- Proteomics Qualitative Analysis in Plant
- Plant Protein Quantitative Analysis Service Based on Isotope Labeling (iTRAQ / TMT)
- Non-labeled Plant Protein Quantitative Analysis (Label-free / DIA)
- Plant Protein Targeted Quantitative Service (PRM / MRM / AQUA)
- Post-translational Modification Proteomics (PTMs) Service for Plant
- Plant Metabolomics Services
- Plant DNA-level Sequencing Services
- Other Services
- Plant CNV Analysis Service
- Plant Mutation Detection Service
- Plant Strain / Cell Level Services
- Plant Tissue and Cell Culture Services
- Plant Polyploidization Services
- Plant Haploidization Services
- Plant Phenotypic Analysis
- Plant Stress Response Indicators Analysis
- Plant Biochemical Analysis
- Plant Tissue and Cell Imaging Services
- Plant Disease Identification Services
- Plant Organelle Isolation Services
- Genetically Modified Plant Testing Services
- Seed Testing Services
Plant Protein Subcellular Localization Services
INQUIRYIntroductions
Subcellular localization refers to the specific location of a certain protein or expression product in a cell, for example, in the nucleus, in the cytoplasm, or on the cell membrane. The study of protein subcellular localization is essential for the systematic understanding of plant morphogenesis, growth and development, and resistance to adversity. It is also an important content of genomics research. At present, the most commonly used method is to perform co- localization observation through fusion of reporter genes. Among them, green fluorescent protein (GFP) is the most widely used reporter gene. This method must construct a fusion protein vector, label the target protein with GFP that functions as a reporter protein, and express it effectively after transfection. If a GFP signal is seen in a certain position in the cell under a fluorescence microscope, it means that the target protein fused with GFP is also expressed at that position, thereby determining the subcellular location of a certain substance.
Services
The subcellular localization analysis of plant protein is mainly through the construction of an overexpression plasmid fused with fluorescent protein, and then transient expression of tobacco or protoplasts to determine its localization and co-localization. Lifeasible provides scientists with convenient subcellular localization technology services, through the method of Agrobacterium-mediated infiltration tobacco or the method of PEG-mediated plasmid transfer into protoplasts, with no-load as a positive control, using a laser scanning confocal microscope for observation and take pictures.
Plant protein subcellular localization services
- Agrobacterium-mediated infiltration tobacco
- PEG-mediated plasmid transfer into protoplasts
Sample requirements
- Constructed expression vector plasmid (or provide sequence constructed by Lifeasible)
- Agrobacterium solution of constructed expression vector
Basic workflow of plant protein subcellular localization services
- Expression vector construction
- Laser scanning confocal microscope observation and photography
- Organize experiment report
Transform Agrobacterium and infect tobacco
PEG-mediated plasmid transformation into protoplasts
Delivery standard
- Project report
- Images
Electronic word document
Electronic version of pictures in JPG or TIF format
Service process
- Service inquiry and technical consultation
- Design experiment
- Sign contracts and confidentiality agreements with customers
- Update project status
- Organize experimental data and pictures, analyze the results and make a report
Project cycle
- It takes about 1~2 months.
Advantages
- Discuss with you the details of the expected interaction study, and develop experimental strategies / methods according to your requirements.
- The method of GFP as a reporter gene is highly sensitive, easy to detect and is a live test, which is not destructive to cells or tissues; Its expression in vivo is not restricted by biological types, genotypes, cell and tissue types; it does not require any substrates and exogenous cofactors to participate; it is convenient for early screening of genetically modified materials.
- The results of using Arabidopsis protoplasts as recipient cells are more reliable and convincing.
- The method of using tobacco mesophyll epidermal cells as recipient cells is cost-effective and has a short experimental period.
- Standardization system, scientific management.
- Leading technology platform conditions, first-class R&D and production equipment.
- Flexible quotation to meet your needs.
※ For research or industrial use.
Online Inquiry