scholarly journals 2348 Lafora disease premature termination codons (PTCs) are likely candidates for suppression by aminoglycosides

2018 ◽  
Vol 2 (S1) ◽  
pp. 16-17
Author(s):  
Zoe R. Simmons ◽  
Amanda Sherwood ◽  
Selena Li ◽  
Sylvie Garneau-Tsodikova ◽  
Matthew Gentry

OBJECTIVES/SPECIFIC AIMS: A small molecule therapy is within reach to treat a molecular mechanism known to result in thousands of fatal diseases. For 10% of patients with a genetic disease, a nonsense/STOP mutation/premature termination codon (PTC) is the underlying cause of their malady. PTCs prematurely stop protein synthesis and yield truncated proteins. Truncated proteins typically provide little to no proper function or activity and are rapidly degraded; thus, disease is imminent. Recent work has demonstrated that small molecules including aminoglycosides can cause the ribosome to readthrough these PTCs. Thus, PTC readthrough with small molecules is a very attractive approach for treating diseases caused by PTCs. Small molecules that promote readthrough act on the ribosome and induce a ribosomal conformational change. In this conformation, the PTC is not recognized by the translational machinery and an amino acid is incorporated into the growing peptide chain, thus protein synthesis continues and does not stop. The use of a single small molecule to readthrough various PTC mutations has been repeatedly effective for in vitro studies and some of these have progressed to clinical trials. Although there has been success in defining these small molecules, the field has discovered that every PTC is unique and likely requires a different small molecule. Thus, developing a cell culture model to test read-through of Lafora PTCs and the functionality of the protein product is the first step to developing a readthrough therapy for a LD. METHODS/STUDY POPULATION: Method for in vitro quantification of readthrough: 24 hours before transfection, HEK293 cells were split in 6-well plates. On the following day, approximately 60% confluence, the cells were transiently transfected with the WT or PTC mutated constructs using Polyethylenimine HCl MAX. Cells were transfected with a total amount of 0.35 μg DNA/well and 2 μl Polyethylenimine HCl MAX/well. Four hours later, the transfection medium was removed and replaced with fresh medium, without streptomycin and penicillin. The fresh media contained gentamicin diluted to the indicated concentration per well. Fresh gentamicin-containing medium was replaced after 24 hours. After 48 hours, lysates were collected in 100 μL mRIPA supplemented with protease inhibitors for each construct. The lysates were run on a western blot and the N-terminal was probed with anti-FLAG. A malachite green phosphatase assay to measure inorganic phosphate release from phospho-glucans, that is glycogen or LBs. Glycogen is used in this laforin bioassay as the biologically relevant substrate in order to determine the specific activity of the readthrough products. All reactions are incubated for 40 minute the absorbance is measured at 620 nm and the pmoles of phosphate released/min/nmol protein was calculated using a standard curve. RESULTS/ANTICIPATED RESULTS: HEK293 cells were transfected with MeCP2 R241X, laforin R241X, or laforin WT NT-FLAG construct, treated with different concentrations of gentamicin for 48 hours, and laforin levels were assessed by Western analysis with anti-FLAG. HEK293 cells were transfected with WT laforin or a laforin PTC CT-FLAG construct, treated with different concentrations of gentamicin for 48 hours, and laforin levels were assessed by Western analysis with anti-FLAG. B. Quantification of read-through for PTC experiments. *p-value≤0.001. #p-value≤0.001. Schematic of laforin bioassay. The assay has been performed with human and mouse tissue as well as cultured cells. B. Laforin bioassay results using laforin from PTC experiment. **p-value≤0.001. *p-value≤0.01. DISCUSSION/SIGNIFICANCE OF IMPACT: Our results suggest that gentamicin is not only responsible for inducing readthrough of the PTC mutations, but also for promoting translation of fully functional laforin. Therefore, our in vitro system for the analysis of PTC readthrough of laforin will be useful for determining which PTC mutations are suppressible with gentamicin or other small molecules, in what quantities laforin is recovered from PTC mutations, and if the protein products possess the appropriate enzymatic function.

2019 ◽  
Vol 10 (1) ◽  
Author(s):  
James O’Connell ◽  
John Porter ◽  
Boris Kroeplien ◽  
Tim Norman ◽  
Stephen Rapecki ◽  
...  

AbstractTumour necrosis factor (TNF) is a cytokine belonging to a family of trimeric proteins; it has been shown to be a key mediator in autoimmune diseases such as rheumatoid arthritis and Crohn’s disease. While TNF is the target of several successful biologic drugs, attempts to design small molecule therapies directed to this cytokine have not led to approved products. Here we report the discovery of potent small molecule inhibitors of TNF that stabilise an asymmetrical form of the soluble TNF trimer, compromising signalling and inhibiting the functions of TNF in vitro and in vivo. This discovery paves the way for a class of small molecule drugs capable of modulating TNF function by stabilising a naturally sampled, receptor-incompetent conformation of TNF. Furthermore, this approach may prove to be a more general mechanism for inhibiting protein–protein interactions.


2017 ◽  
Vol 114 (4) ◽  
pp. 681-686 ◽  
Author(s):  
Glen P. Liszczak ◽  
Zachary Z. Brown ◽  
Samuel H. Kim ◽  
Rob C. Oslund ◽  
Yael David ◽  
...  

Recent advances in the field of programmable DNA-binding proteins have led to the development of facile methods for genomic localization of genetically encodable entities. Despite the extensive utility of these tools, locus-specific delivery of synthetic molecules remains limited by a lack of adequate technologies. Here we combine the flexibility of chemical synthesis with the specificity of a programmable DNA-binding protein by using protein trans-splicing to ligate synthetic elements to a nuclease-deficient Cas9 (dCas9) in vitro and subsequently deliver the dCas9 cargo to live cells. The versatility of this technology is demonstrated by delivering dCas9 fusions that include either the small-molecule bromodomain and extra-terminal family bromodomain inhibitor JQ1 or a peptide-based PRC1 chromodomain ligand, which are capable of recruiting endogenous copies of their cognate binding partners to targeted genomic binding sites. We expect that this technology will allow for the genomic localization of a wide array of small molecules and modified proteinaceous materials.


Blood ◽  
2007 ◽  
Vol 110 (11) ◽  
pp. 4096-4096
Author(s):  
Michael W. Epperly ◽  
Darcy Franicola ◽  
Tracy Dixon ◽  
Xichen Zhang ◽  
Paavani Komanduri ◽  
...  

Abstract Development of small molecule radioprotectors is a major national priority. Two groups of compounds have particular promise. The first group targets the mitochondria based upon previous data with transgene MnSOD which when expressed in the mitochondria prevents apoptosis and increases radioprotection. These agents contain the antioxidant tempol or nitric oxide synthetase inhibitor 2-amino-5,6-dihydro-6-methyl-4H-1,3-thiazine (AMT) attached to a hemi-gramicidin linker which targets the mitochondria. The second group consists of the dietary agent resveratrol and acetylated variants. Mouse hematopoietic progenitor 32Dcl3 cells were incubated for 1 hr in 10 μM tempol, AMT, or gramicidin linked tempol XJB-5-125 (tempol), XJB-7-75 (tempol) or JP4-039 (AMT). In separate experiments, 32Dcl3 cells were incubated for 1 hr in resveratrol or acetylated resveratrol. The cells were then irradiated to doses ranging from 0 to 8 Gy, plated in 0.8% methylcellulose, and incubated in a 5% CO2 incubator for 7 days. Colonies of greater than 50 cells were counted with the data analyzed using linear quadratic or single-hit, multi-target models. 32Dcl3 cells incubated in 10 μm tempol before irradiation resulted in no change in radiation sensitivity while incubation in XJB-5-125 or XJB-7-75 had decreased radiosensitivity. XJB-5-125 had an increased Do of 1.91 ± 0.67 Gy compared to 1.32 ± 0.09 Gy for 32Dcl3 cells incubated in tempol and 1.35 ± 0.27 Gy for control 32Dcl3 cells (p = 0.045 or 0.040, respectively). Incubation in XJB-5-75 resulted in an increased shoulder on the survival curve with an ñ of 19.4 ± 2.6 compared to 8.7 + 1.6 for cells incubated in tempol or 6.9 +1.8 for control 32Dcl3 cells (p = 0.025 or 0.022). Incubation in JP4-039 resulted in an increased Do of 2.2 ± 0.1 Gy compared to 1.24 ± 0.15 or 1.13 ± 0.06 for cells incubated in AMT or control 32Dcl3 cells only, respectively (p = 0.0115 or 0.0098, respectively). Incubation of 32Dcl3 cells in resveratrol or acetylated resveratrol before irradiation resulted in an increased shoulder on the survival curve of 33.2 ± 5.7 or 57.5 ± 9.9, respectively, compared to 6.9 ± 1.8 for 32Dcl3 cells (p = 0.0122 or 0.0072, respectively). These compounds were tested in mice receiving an LD50/30 irradiation dose. C57BL/6NHsd mice were injected intraperitoneally with 10 mg/kg of XJB-5-125, XJB-7-75or JP4-039 or 25 mg/kg of resveratrol or acetylated resveratrol and irradiated 10 mins later along with control mice to 9.5 Gy whole body irradiation. The mice injected with XJB-5-125, XJB-7-75, JP4-039 or acetylated-resveratrol had increased survival compared to control irradiated mice (p ≤ 0.0004). Therefore, four new small molecules have been identified which demonstrate significant radioprotective properties both in vitro and in vivo.


Blood ◽  
2011 ◽  
Vol 118 (21) ◽  
pp. 760-760
Author(s):  
Kimberly A. Hartwell ◽  
Peter G. Miller ◽  
Alison L. Stewart ◽  
Alissa R. Kahn ◽  
David J. Logan ◽  
...  

Abstract Abstract 760 Recent insights into the molecular and cellular processes that drive leukemia have called attention to the limitations intrinsic to traditional drug discovery approaches. To date, the majority of cell-based functional screens have relied on probing cell lines in vitro in isolation to identify compounds that decrease cellular viability. The development of novel therapeutics with greater efficacy and decreased toxicity will require the identification of small molecules that selectively target leukemia stem cells (LSCs) within the context of their microenvironment, while sparing normal cells. We hypothesized that it would be possible to systematically identify LSC susceptibilities by modeling key elements of bone marrow niche interactions in high throughput format. We tested this hypothesis by creating and optimizing an assay in which primary murine stem cell-enriched leukemia cells are plated on bone marrow stromal cells in 384-well format, and examined by a high content image-based readout of cobblestoning, an in vitro morphological surrogate of cell health and self-renewal. AML cells cultured in this way maintained their ability to reinitiate disease in mice with as few as 100 cells. 14,720 small molecule probes across diverse chemical space were screened at 5uM in our assay. Retest screening was performed in the presence of two different bone marrow stromal types in parallel, OP9s and primary mesenchymal stem cells (MSCs). Greater than 60% of primary screen hits positively retested (dose response with IC50 at or below 5 μM) on both types of stroma. Compounds that inhibited leukemic cobblestoning merely by killing the stroma were identified by CellTiter-Glo viability analysis and excluded. Compounds that killed normal primary hematopoietic stem and progenitor cell inputs, as assessed by a related co-culture screen, were also excluded. Selectivity for leukemia over normal hematopoietic cells was additionally examined in vitro by comingling these cells on stroma within the same wells. Primary human CD34+ AML leukemia and normal CD34+ cord blood cells were also tested, by way of the 5 week cobblestone area forming cell (CAFC) assay. Additionally, preliminary studies of human AML cells pulse-treated with small molecules ex vivo, followed by in vivo transplantation, provided further evidence of potent leukemia kill across genotypes. A biologically complex functional approach to drug discovery, such as the novel method described here, has previously been thought impossible, due to presumed incompatibility with high throughput scale. We show that it is possible, and that it bears fruit in a first pilot screen. By these means, we discover small molecule perturbants that act selectively in the context of the microenvironment to kill LSCs while sparing stroma and normal hematopoietic cells. Some hits act cell autonomously, and some do not, as evidenced by observed leukemia kill when only the stromal support cells are treated prior to the plating of leukemia. Some hits are known, such as parthenolide and celastrol, and some are previously underappreciated, such as HMG-CoA reductase inhibition. Others are entirely new, and would not have been revealed by conventional approaches to therapeutic discovery. We therefore present a powerful new approach, and identify drug candidates with the potential to selectively target leukemia stem cells in clinical patients. Disclosures: No relevant conflicts of interest to declare.


Blood ◽  
2016 ◽  
Vol 128 (22) ◽  
pp. 4712-4712
Author(s):  
Jonathan Rosen ◽  
Betsy Rezner ◽  
David Robbins ◽  
Ian Hardy ◽  
Eigen Peralta ◽  
...  

Abstract Adoptive cellular therapies using engineered chimeric antigen receptor T cells (CAR-T cells) are rapidly emerging as a highly effective treatment option for a variety of life-threatening hematological malignancies. Small molecule-mediated modulation of T cell differentiation during the in vitro CAR-T manufacturing process has great potential as a method to optimize the therapeutic potential of cellular immunotherapies. In animal models, T cells with a central or stem memory (TCM/SCM) phenotype display enhanced in vivoefficacy and persistence relative to other T cell subpopulations. We sought to identify small molecules that promote skewing towards a TCM/SCM phenotype during the CAR-T manufacturing process, with associated enhanced viability, expansion and metabolic profiles of the engineered cells. To this end, we developed a high-throughput functional screening platform with primary human T cells using a combination of high-content immunophenotyping and gene expression-based readouts to analyze cells following a high-throughput T cell culture platform that represents a scaled-down model of clinical CAR-T cell production. Multicolor flow cytometry was used to measure expansion, cell viability and the expression levels of cell surface proteins that define TCM cells (e.g., CCR7, CD62L and CD27) and markers of T cell exhaustion (e.g., PD1, LAG3, and TIM3). In parallel, a portion of each sample was evaluated using high content RNA-Seq based gene expression analysis of ~100 genes representing key biological pathways of interest. A variety of known positive and negative control compounds were incorporated into the high-throughput screens to validate the functional assays and to assess the robustness of the 384-well-based screening. The ability to simultaneously correlate small molecule-induced changes in protein and gene expression levels with impacts on cell proliferation and viability of various T cell subsets, enabled us to identify multiple classes of small molecules that favorably enhance the therapeutic properties of CAR-T cells. Consistent with results previously presented by Perkins et al. (ASH, 2015), we identified multiple PI3K inhibitors that could modify expansion of T cells while retaining a TCM/SCM phenotype. In addition, we identified small molecules, and small molecule combinations, that have not been described previously in the literature that could improve CAR-T biology. Several of the top hits from the screens have been evaluated across multiple in vitro (e.g., expansion, viability, CAR expression, serial restimulation/killing, metabolic profiling, and evaluation of exhaustion markers) and in vivo (e.g., mouse tumor models for persistence and killing) assays. Results from the initial screening hits have enabled us to further refine the optimal target profile of a pharmacologically-enhanced CAR-T cell. In addition, we are extending this screening approach to identify small molecules that enhance the trafficking and persistence of CAR-T cells for treating solid tumors. In conclusion, the approach described here identifies unique small molecule modulators that can modify CAR-T cells during in vitro expansion, such that improved profiles can be tracked and selected from screening through in vitro and in vivo functional assays. Disclosures Rosen: Fate Therapeutics: Employment, Equity Ownership. Rezner:Fate Therapeutics, Inc: Employment, Equity Ownership. Robbins:Fate Therapeutics: Employment, Equity Ownership. Hardy:Fate Therapeutics: Employment, Equity Ownership. Peralta:Fate Therapeutics: Employment, Equity Ownership. Maine:Fate Therapeutics: Employment, Equity Ownership. Sabouri:Fate Therapeutics: Employment, Equity Ownership. Reynal:Fate Therapeutics: Employment. Truong:Fate Therapeutics: Employment, Equity Ownership. Moreno:Fate Therapeutics, Inc.: Employment, Equity Ownership. Foster:Fate Therapeutics: Employment, Equity Ownership. Borchelt:Fate Therapeutics: Employment, Equity Ownership. Meza:Fate Therapeutics: Employment, Equity Ownership. Thompson:Juno Therapeutics: Employment, Equity Ownership. Fontenot:Juno Therapeutics: Employment, Equity Ownership. Larson:Juno Therapeutics: Employment, Equity Ownership. Mujacic:Juno Therapeutics: Employment, Equity Ownership. Shoemaker:Fate Therapeutics: Employment, Equity Ownership.


Author(s):  
Ming He ◽  
Wenxing Lv ◽  
Yu Rao

Proteolysis targeting chimeras (PROTAC) represents a new type of small molecule induced protein degradation technology that has emerged in recent years. PROTAC uses bifunctional small molecules to induce ubiquitination of target proteins and utilizes intracellular proteasomes for chemical knockdown. It complements the gene editing and RNA interference for protein knockdown. Compared with small molecule inhibitors, PROTAC has shown great advantages in overcoming tumor resistance, affecting the non-enzymatic function of target proteins, degrading undruggable targets, and providing new rapid and reversible chemical knockout tools. At the same time, its challenges and problems also need to be resolved as a fast-developing newchemical biology technology.


2021 ◽  
Vol 7 (3) ◽  
pp. 184-198
Author(s):  
Yangyang Feng ◽  
Shuang Bai ◽  
Gaigai Li ◽  
Hao Nie ◽  
Shiling Chen ◽  
...  

Astrocytes are promising source cells to replace neurons lost to disease owing to a shared lineage and capacities for dedifferentiation and proliferation under pathological conditions. Reprogramming of astrocytes to neurons has been achieved by transcription factor modulation, but reprogramming in vitro or in vivo using small‐molecule drugs may have several advantages for clinical application. For instance, small molecules can be extensively characterized for efficacy, toxicity, and tumorigenicity in vitro; induce rapid initiation and subsequent reversal of transdifferentiation upon withdrawal, and obviate the need for exogenous gene transfection. Here we report a new astrocyte–neuron reprogramming strategy using a combination of small molecules (0.5 mM valproic acid, 1 μM RepSox, 3 μM CHIR99021, 2 μM I‐BET151, 10 μM ISX‐9, and 10 μM forskolin). Treatment with this drug combination gradually reduced expression levels of astroglial marker proteins (glial fibrillary acidic protein and S100), transiently enhanced expression of the neuronal progenitor marker doublecortin, and subsequently elevated expression of the mature neuronal marker NeuN in primary astrocyte cultures. These changes were accompanied by transition to a neuron‐like morphological phenotype and expression of multiple neuronal transcription factors. Further, this drug combination induced astrocyte‐to‐neuron transdifferentiation in a culture model of intracerebral hemorrhage (ICH) and upregulated many transdifferentiation‐associated signaling molecules in ICH model rats. In culture, the drug combination also reduced ICH model‐associated oxidative stress, apoptosis, and pro‐inflammatory cytokine production. Neurons derived from small‐molecule reprogramming of astrocytes in adult Sprague–Dawley rats demonstrated long‐term survival and maintenance of neuronal phenotype. This small‐molecule‐induced astrocyte‐to‐neuron transdifferentiation method may be a promising strategy for neuronal replacement therapy.


2022 ◽  
Author(s):  
Sumirtha Balaratnam ◽  
Zachary R Torrey ◽  
David R. Calabrese ◽  
Michael T Banco ◽  
Kamyar Yazdani ◽  
...  

Neuroblastoma RAS (NRAS) is an oncogene that is deregulated and highly mutated in cancers including melanomas and acute myeloid leukemias. Constitutively activated NRAS induces the MAPK and AKT signaling pathways and leads to uncontrolled proliferation and cell growth, making it an attractive target for small molecule inhibition. Like all RAS-family proteins, it has proven difficult to identify small molecules that directly inhibit the protein. An alternative approach would involve targeting the NRAS mRNA. The 5′ untranslated region (5′ UTR) of the NRAS mRNA is reported to contain a G-quadruplex (G4) that regulates translation of NRAS mRNA. Stabilizing the G4 structure with small molecules could reduce NRAS protein expression in cancer cells by impacting translation. Here we report a novel class of small molecule that binds to the G4 structure located in the 5′ UTR of the NRAS mRNA. We used a small molecule microarray (SMM) screen to identify molecules that selectively bind to the NRAS-G4. Biophysical studies demonstrated that compound 18 binds reversibly to the NRAS-G4 structure with submicromolar affinity. A Luciferase based reporter assay indicated that 18 inhibits the translation of NRAS via stabilizing the NRAS-G4 in vitro but showed only moderate effects on the NRAS levels in cellulo. Rapid Amplification of cDNA Ends (RACE), RT-PCR analysis on 14 different NRAS-expressing cell lines, coupled with analysis of publicly available CAGE seq experiments, revealed that predominant NRAS transcript does not possess the G4 structure. Further analysis of published rG4 and G4 sequencing data indicated the presence of G4 structure in the promoter region of NRAS gene (DNA) but not in the mRNA. Thus, although many NRAS transcripts lack a G4 in many cell lines the broader concept of targeting folded regions within 5' UTRs to control translation remains a highly attractive strategy and this work represents an intriguing example of transcript heterogeneity impacting targetability.


2020 ◽  
Vol 117 (3) ◽  
pp. 1457-1467 ◽  
Author(s):  
Peiyuan Zhang ◽  
Hye-Jin Park ◽  
Jie Zhang ◽  
Eunsung Junn ◽  
Ryan J. Andrews ◽  
...  

Many proteins are refractory to targeting because they lack small-molecule binding pockets. An alternative to drugging these proteins directly is to target the messenger (m)RNA that encodes them, thereby reducing protein levels. We describe such an approach for the difficult-to-target protein α-synuclein encoded by the SNCA gene. Multiplication of the SNCA gene locus causes dominantly inherited Parkinson’s disease (PD), and α-synuclein protein aggregates in Lewy bodies and Lewy neurites in sporadic PD. Thus, reducing the expression of α-synuclein protein is expected to have therapeutic value. Fortuitously, the SNCA mRNA has a structured iron-responsive element (IRE) in its 5′ untranslated region (5′ UTR) that controls its translation. Using sequence-based design, we discovered small molecules that target the IRE structure and inhibit SNCA translation in cells, the most potent of which is named Synucleozid. Both in vitro and cellular profiling studies showed Synucleozid directly targets the α-synuclein mRNA 5′ UTR at the designed site. Mechanistic studies revealed that Synucleozid reduces α-synuclein protein levels by decreasing the amount of SNCA mRNA loaded into polysomes, mechanistically providing a cytoprotective effect in cells. Proteome- and transcriptome-wide studies showed that the compound’s selectivity makes Synucleozid suitable for further development. Importantly, transcriptome-wide analysis of mRNAs that encode intrinsically disordered proteins revealed that each has structured regions that could be targeted with small molecules. These findings demonstrate the potential for targeting undruggable proteins at the level of their coding mRNAs. This approach, as applied to SNCA, is a promising disease-modifying therapeutic strategy for PD and other α-synucleinopathies.


PLoS Biology ◽  
2021 ◽  
Vol 19 (5) ◽  
pp. e3001221
Author(s):  
Sara Hosseini-Farahabadi ◽  
Alireza Baradaran-Heravi ◽  
Carla Zimmerman ◽  
Kunho Choi ◽  
Stephane Flibotte ◽  
...  

Premature termination codons (PTC) cause over 10% of genetic disease cases. Some aminoglycosides that bind to the ribosome decoding center can induce PTC readthrough and restore low levels of full-length functional proteins. However, concomitant inhibition of protein synthesis limits the extent of PTC readthrough that can be achieved by aminoglycosides like G418. Using a cell-based screen, we identified a small molecule, the phenylpyrazoleanilide Y-320, that potently enhances TP53, DMD, and COL17A1 PTC readthrough by G418. Unexpectedly, Y-320 increased cellular protein levels and protein synthesis, measured by SYPRO Ruby protein staining and puromycin labeling, as well as ribosome biogenesis measured using antibodies to rRNA and ribosomal protein S6. Y-320 did not increase the rate of translation elongation and it exerted its effects independently of mTOR signaling. At the single cell level, exposure to Y-320 and G418 increased ribosome content and protein synthesis which correlated strongly with PTC readthrough. As a single agent, Y-320 did not affect translation fidelity measured using a luciferase reporter gene but it enhanced misincorporation by G418. RNA-seq data showed that Y-320 up-regulated the expression of CXC chemokines CXCL10, CXCL8, CXCL2, CXCL11, CXCL3, CXCL1, and CXCL16. Several of these chemokines exert their cellular effects through the receptor CXCR2 and the CXCR2 antagonist SB225002 reduced cellular protein levels and PTC readthrough in cells exposed to Y-320 and G418. These data show that the self-limiting nature of PTC readthrough by G418 can be compensated by Y-320, a potent enhancer of PTC readthrough that increases ribosome biogenesis and protein synthesis. They also support a model whereby increased PTC readthrough is enabled by increased protein synthesis mediated by an autocrine chemokine signaling pathway. The findings also raise the possibility that inflammatory processes affect cellular propensity to readthrough agents and that immunomodulatory drugs like Y-320 might find application in PTC readthrough therapy.


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