Adeno CMV Null Adenovirus
Cat. No.
000047A
Unit
1.0 ml
Price
$375.00
| Cat. No. | 000047A |
| Name | Adeno CMV Null Adenovirus |
| Category | Control Vectors & Viruses |
| Description |
The CMV null adenovirus is part of abm’s Adenoviral Expression System, and is used as a negative control for adenovirus applications. This packaged adenovirus contains a CMV promoter but without any gene insert. It will not express any recombinant protein. This adenovirus can be used to amplify more adenovirus by transducing HEK293 cells. For enhanced transduction efficiency, the use of ViralEntry™ Transduction Enhancer (G515) at 1:100 is recommended at the time of transduction. |
| Vector Map | pAdeno (click blue link to view) |
| Titer | 106 pfu/mL |
| Storage Condition |
DMEM with 10% glycerol |
| What is the difference between Retro-, Lenti-, and Adeno- viruses? | |
|
Retrovirus: Classic, can integrate into the genome but with low transduction efficiency. They are useful for gene transfer and protein expression in cells that have low transfection efficiency with other transfection reagents. Lentivirus: Can integrate into the genome with relatively high transduction efficiency and they are very useful for cells that have low transfection efficiency with other transfection reagents. No special competent cells required, as they are stable plasmids. Lentiviruses are a powerful tool for stable gene transfer to both dividing and non-dividing cells in vitro and in vivo. Adenovirus: Only work transiently (about 7 days) but have almost 100% transduction efficiency. Adenoviruses can infect a broad range of cell types with the highest efficiency and infection is not dependent on active host cell division. A second key feature is that high virus titers and high-level gene expression can be obtained in most mammalian cells.
|
| What are the correct concentration units for each recombinant viral particle? | |
|
For lentiviruses and retroviruses, they are measured in CFU/ml (colony-forming units per millilitre). Transduction with lentiviruses and retroviruses can cause the formation of colonies, which can be quantified for concentration. For AAV the titer is measured as genome copies per mL (GC/mL). Adenoviruses are measured as PFU/ml (plaque-forming units per millilitre). Transduction with adenoviruses will kill packaging cells, forming plaques in the process for quantification. The concentration for all three types of viruses can also be classified as IU/ml (Infectious Units/ml). Ultimately, the units refers to the viral particles and different units reflect the different assays involved.
|
| What do I use to check if my cells were successfully immortalized by the SV40 agent? | |
|
We have an SV40 T antibody that can be used for the western blot analysis. The catalog number is G202.
Otherwise, a qPCR primer can be designed on the SV40 gene for qPCR analysis. The sequence can be found in the link below:
http://www.abmgood.com/pLenti%20SV40-Vector-Location-Map.html
|
| What are the primers to use for SV40 identification? | |
|
SV40 Forward Primer Sequence
5’ ACTGAGGGGCCTGAAATGA
SV40 Reverse Primer Sequence
5’ GACTCAGGGCATGAAACAGG
These are qPCR primers and the band size is 61 bp.
|
| In protocol of pre-made adenovirus amplication, there is a strange sentence,"by infectiing cells with 10ul for 60mm dish, or 200ul for 100mm dish". I think one of two volume is a mistake. Can you tell me the right volume for 60mm dish and 100mm dish? | |
|
100mm is in fact about 5 X 60mm in area. 30ul to 200ul all should be fine and should not make much difference in the amplification of adenovirus.
|
| What advantages / disadvantages exist between the Lenti-SV40, -SV40T, and SV40T+t vectors? | |
|
There are simply differences in the content of all vectors due to customer demand for variety. Lenti-SV40 will contain the whole SV40 gene, -SV40T, the large T Antigen only, and -SV40T&t the large and small T antigens only.
It is up to the end user to decide which vectors will best suit their project, however we have successfully used Lenti-SV40 (whole gene) in a wide range of immortalization projects.
|
| Are your pPB protein expression vectors high or low copy number plasmids? | |
|
Our protein expression vectors are medium copy number plasmids and can be amplified using any standard miniprep or midi/maxi prep kits.
There is no standard protocol that fits all proteins, therefore recombinant protein expression will need to be optimized and determined experimentally.
|
| What is the accession number for the SV40? | |
|
The SV40 covers the entire genome and the accession number is J02400.1. You can use this information to design primers for conventional PCR as well.
|
| How long after transduction can the infection efficiency be observed? | |
|
You can observe transduction efficiency from 48 hours up to 5 days after infection.
|
| What are the primers to use for SV40T and SV40T tsA58 detection? | |
|
PCR primers:
SV40T Forward Primer Sequence
5’ AGCCTGTAGAACCAAACATT 3'
SV40T Reverse Primer Sequence
5’ CTGCTGACTCTCAACATTCT 3'
The two primers should amplify the region between 3677-4468bp, giving a 792bp fragment.
|
| What is the sequence of the SV40 large T antigen? | |
|
This information can be accessed on this page by clicking on "pLenti-SV40-T" under vector map. The Large T antigen is at position 5079-5927.
|
| When the protein is expressed from this vector, which enzyme do I need to use to remove my tag? | |
|
The enzyme required to remove the tag (if possible) will depend upon the vector backbone corresponding to your product:
1) pPB-C-His: the His tag is NOT cleavable.
2) pPB-His-GST: the His-GST tag can be cleaved using TEV protease.
3) pPB-His-MBP: the His-MBP tag can be cleaved using TEV protease.
4) pPB-N-His: the His tag can be cleaved with Thrombin.
5) pPM-C-HA: the HA tag is NOT cleavable.
6) pPM-C-His: the His tag is NOT cleavable.
7) pPM-N-D-C-HA: the N-terminal D-tag can be cleaved using TEV protease. The C-terminal HA tag is NOT cleavable.
8) pPM-N-D-C-His: the N-terminal D-tag can be cleaved using TEV protease. The C-terminal His tag is NOT cleavable.
Please see the following page for further details:
https://www.abmgood.com/Protein-Vector.html
|
| For G221 and LV620, what does the 'V12' in RasV12 mean? | |
|
The V12 means that amino acid # 12 is mutated from a Valine to a Glycine. Other than that, the sequence matches the coding region of HRAS perfectly (NM_005343).
|
| Where is the SV40T tsA58 gene sequence? | |
|
The SV40T tsA58 gene is located between 3138-5264bp, with the Alanine-to-Valine mutation at amino acid 438.
|
- Xiao, H. "Integration of cAMP and Ca2+ signaling pathways: Formation of a PDE1C and TrpC1 containing complex." Thesis : (2012). Application: Transduction.
- Wikstrom, JD et al. "AMPK regulates ER morphology and function in stressed pancreatic β-cells via phosphorylation of DRP1." Mol Endocrinol 27(10):1706-23 (2013). DOI: 10.1210/me.2013-1109. PubMed: 23979843 . Application: Transduction.
- Shultz, JC et al. "The Proto-oncogene PKCι regulates the alternative splicing of Bcl-x pre-mRNA." Mol Cancer Res. 10(5):660-9 (2012). DOI: 10.1158/1541-7786.MCR-11-0363. PubMed: 22522453 . Application: Transduction.
- McAllister, JM et al. "Overexpression of a DENND1A isoform produces a polycystic ovary syndrome theca phenotype." Proc Natl Acad Sci U S A 111(15):519-27 (2014). DOI: 10.1073/pnas.1400574111. PubMed: 24706793 . Application: Transduction.
- Imbert-Fernandez, Y et al. "Estradiol stimulates glucose metabolism via 6-phosphofructo-2-kinase (PFKFB3)." J Biol Chem. 289(13):9440-8 (2014). DOI: 10.1074/jbc.M113.539908. PubMed: 24515104 . Application: Transduction.
- Nakayama, H et al. "Regulation of mTOR Signaling by Semaphorin 3F-Neuropilin 2 InteractionsIn Vitro and In Vivo" Sci. Rep. 5:11789 (2015). DOI: 10.1038/srep11789. PubMed: 26156437 .
- Bernardo, NB et al. "The p21-activated kinase, PAK2, is important in the activation of numerous pancreatic acinar cell signaling cascades and in the onset of early pancreatitis events" BBA - Molecular Basis of Disease 1862.6:1122-1136 (2016). DOI: 10.1016/j.bbadis.2016.02.008. Application: Infection.
- Zhang, M., Wang, B., Urabe, G., Huang, Y., Plutzky, J., Kent, K. C., & Guo, L.-W. "The BD2 domain of BRD4 is a determinant in EndoMT and vein graft neointima formation" Cellular Signalling 61:20–29 (2019). DOI: 10.1016/j.cellsig.2019.05.005.
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