The immunomodulatory and self-renewable features of human adipose mesenchymal stem cells (HAD-MSCs) mark their importance in regenerative medicine. Interleukin 23 (IL-23) as proinflammatory cytokines Hitting the regulatory T cells (Treg) and promote the response of T helper 17 (Th17) and helper 1 (Th1) cells T. This path begins inflammation and immunosuppression in several autoimmune diseases. The present study was to produce recombinant IL-23 decoy receptor (RIL- 23R) using own-MSCs as a good candidate for the former purpose vivo cell-based gene therapy reduces inflammation in autoimmune disease. have-MSCs isolated from lipoaspirate and then marked by differentiation.
RIL- 23R is designed and cloned into pCDH-813A- 1 lentiviral vectors. Transduction-MSCs have done in MOI (multiplicity of infection) = 50 with EFI pCDH- α- RIL- 23R- copGFP PGK. RIL- 23R expression and octamer-binding transcription factor 4 (OCT- 4) was determined by real-time polymerase chain reaction (real time-PCR). nature renews itself tested by OCT- 4. 23R designed RIL- bioactivity evaluated by IL-17 and IL-10 expression of splenocytes of mice. cell differentiation has confirmed the isolation right-MSCs from lipoaspirate.
Restriction enzyme digestion and sequencing verified the successful cloning RIL- 23R in CD813A-1 lentiviral vectors. Green fluorescent protein (GFP) positive transduction level is up to 90%, and real-time PCR showed expression levels of RIL-23R. October-4 has the same expression pattern nontransduced-MSCs have and have-MSCs transduced / RIL-23R which showed that lentiviral vectors does not affect the characteristics of own-MSCs. Downregulation of IL-17, and upregulation of IL-10 showed activity right-MSCs have engineered.
The results show that transduced own-MSCs / RIL- 23R, express IL-23 decoy receptors, may provide a useful approach to basic research on cell-based gene therapy for autoimmune disorders.
The Human IL-23 Decoy Receptor Inhibits T-Cells Producing IL-17 by Genetically Engineered Mesenchymal Stem Cells.
Bioluminescent imaging exogenous Stem Cells in Intact Guinea Pig Cochlear.
Stem cell-based therapy can be used to replace damaged or missing neurons in the cochlear nerve of a patient suffering from sensorineural hearing loss severe-to-profound. In order to achieve functional recovery in future clinical trials, knowledge about the survival of transplanted cells and their differentiation into functional neurons is a prerequisite. It calls for non-invasive in vivo visualization of cell and long-term monitoring of life and their fate after transplantation cochlea. We have investigated if the molecular optical imaging allows visualization of cells within the cochlea exogenous intact cadaver heads guinea pigs.
Transduced (stem) cells stably co-expressing fluorescent (copGFP) and bioluminescent (Luc2) reporter molecules, which are injected into the internal auditory meatus or directly to the cochlea through the round window. After the injection of cells into the internal auditory meatus, glowing light signal observed in the cavum conchae of the ear, indicating that the light generated by Luc2 passing through the tympanic membrane and external auditory meatus.
pCDH-CMV-MCS-EF1-Neo cDNA Cloning and Expression Vector
Description: Clone your gene of interest into this AAV Expression Vector, then co-transfect along with AAV packaging vectors into a packaging host cell line such as 293AAV.
Description: Clone your gene of interest into this AAV Expression Vector, then co-transfect along with AAV packaging vectors into a packaging host cell line such as 293AAV.
Description: Clone your gene of interest into this AAV Expression Vector, then co-transfect along with AAV packaging vectors into a packaging host cell line such as 293AAV.
Description: The ANPRA/Aequorin expression vector is designed to co-express human atrial natriuretic peptide receptor A (ANPRA, also called natriuretic peptide receptor A/guanylate cyclase A) and jellyfish (Aequorea victoria) Aequorin in mammalian cells.
Description: GFP-Rac1 Expression Vector Set contains 3 vectors: Rac wild type, T17N dominant negative mutant, and Q61L constitutively active mutant. Each vector also contains a GFP reporter sequence.
Description: GFP-RhoA Expression Vector Set contains 3 vectors: RhoA wild type, T19N dominant negative mutant, and Q63L constitutively active mutant. Each vector also contains a GFP reporter sequence.
Description: GFP-Cdc42 Expression Vector Set contains 3 vectors: Cdc42 wild type, T17N dominant negative mutant, and Q61L constitutively active mutant. Each vector also contains a GFP reporter sequence.
Description: Active Rac1 Expression Vector Set contains 3 vectors expressing different constitutively active mutants of Rac1: Q61L, Q61L/F37A, and Q61L/Y40C.
Description: Clone your gene of interest into this AAV Expression Vector, then co-transfect along with AAV packaging vectors into a packaging host cell line such as 293AAV.
Description: Clone your gene of interest into this AAV Expression Vector, then co-transfect along with AAV packaging vectors into a packaging host cell line such as 293AAV.
Description: Clone your gene of interest into this AAV Expression Vector, then co-transfect along with AAV packaging vectors into a packaging host cell line such as 293AAV.
Description: Clone your gene of interest into this AAV Expression Vector, then co-transfect along with AAV packaging vectors into a packaging host cell line such as 293AAV.
Description: Clone your gene of interest into this AAV Expression Vector, then co-transfect along with AAV packaging vectors into a packaging host cell line such as 293AAV.
Description: Active H-Ras Expression Vector Set contains 3 vectors expressing different constitutively active mutants of H-Ras: V12, V12S35, and V12C40.
Description: Clone your gene of interest into this Lentiviral Expression Vector, then co-transfect along with lentiviral packaging vectors into a packaging cell line such as 293LTV. This expression vector is compatible with any 2nd or 3rd generation lentiviral packaging system, but due to its design it is best matched with our ViraSafe packaging vectors to produce the highest viral titer.
Description: Clone your gene of interest into this Lentiviral Expression Vector, then co-transfect along with lentiviral packaging vectors into a packaging cell line such as 293LTV. This expression vector is compatible with any 2nd or 3rd generation lentiviral packaging system, but due to its design it is best matched with our ViraSafe packaging vectors to produce the highest viral titer.
Description: Clone your gene of interest into this Lentiviral Expression Vector, then co-transfect along with lentiviral packaging vectors into a packaging cell line such as 293LTV. This expression vector is compatible with any 2nd or 3rd generation lentiviral packaging system, but due to its design it is best matched with our ViraSafe packaging vectors to produce the highest viral titer.
Description: Baculovirus cassette vector pAc-l-CH3 for the expression of human, humanized or chimeric IgG(lambda) in insect cells and secretion of assembled antibodies into the supernatant.
Description: Clone your gene of interest into this Lentiviral Expression Vector, then co-transfect along with lentiviral packaging vectors into a packaging cell line such as 293LTV. This expression vector is compatible with any 2nd or 3rd generation lentiviral packaging system, but due to its design it is best matched with our ViraSafe packaging vectors to produce the highest viral titer.
Description: Clone your gene of interest into this Lentiviral Expression Vector, then co-transfect along with lentiviral packaging vectors into a packaging cell line such as 293LTV. This expression vector is compatible with any 2nd or 3rd generation lentiviral packaging system, but due to its design it is best matched with our ViraSafe packaging vectors to produce the highest viral titer.
Description: Clone your gene of interest into this Lentiviral Expression Vector, then co-transfect along with lentiviral packaging vectors into a packaging cell line such as 293LTV. This expression vector is compatible with any 2nd or 3rd generation lentiviral packaging system, but due to its design it is best matched with our ViraSafe packaging vectors to produce the highest viral titer.
Description: Clone your gene of interest into this Lentiviral Expression Vector, then co-transfect along with lentiviral packaging vectors into a packaging cell line such as 293LTV. This expression vector is compatible with any 2nd or 3rd generation lentiviral packaging system, but due to its design it is best matched with our ViraSafe packaging vectors to produce the highest viral titer.
Description: Clone your gene of interest and a gene-specific promoter into this Lentiviral Expression Vector, then co-transfect along with lentiviral packaging vectors into a packaging cell line such as 293T or 293LTV. This expression vector is compatible with any 2nd or 3rd generation lentiviral packaging system, but due to its design it is best matched with our ViraSafe packaging vectors to produce the highest viral titer.
Description: Making an adenovirus with traditional recombinant methods takes 2-3 months and requires tedious plaque recombination. More recent technologies have shortened this time somewhat, but still produce relatively high amounts of wild type (replication-competent) plaques, levels of which increase with serial amplification. The RAPAd® Adenoviral Expression Systems produce recombinant adenovirus with substantially reduced wild-type virus, while considerably shortening the production time to 2-3 weeks. Serial amplification of adenovirus produced using the RAPAd® system does not significantly increase replication-competent adenovirus levels. The system uses a backbone vector from which the 5' ITR, packaging signal and E1 sequences have been removed.
Similar results were obtained after injection of the cells through the round window membrane, directly into the scala tympani canal or in Rosenthal in the modiolus of the cochlea basal turn. Imaging of the auditory bulla shows that bioluminescent signal passing through the tympanic membrane and the cracks in the wall of the bulla bone. After opening the auditory bulla, bioluminescent signal was coming from a round window. This is the first study showing that bioluminescence imaging allows visualization of luciferase-expressing cells injected into the intact guinea pig cochlea.
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