about
Neurolysin knockout mice generation and initial phenotype characterizationA novel intracellular peptide derived from g1/s cyclin d2 induces cell deathModulation of RhoA GTPase Activity Sensitizes Human Cervix Carcinoma Cells to γ-Radiation by Attenuating DNA Repair Pathways.Inhibition of the RhoA GTPase Activity Increases Sensitivity of Melanoma Cells to UV Radiation EffectsActivation of protein kinase C delta by ψδRACK peptide promotes embryonic stem cell proliferation through ERK 1/2.1,4-Dioxane enhances properties and biocompatibility of polyanionic collagen for tissue engineering applications.Arginine vasopressin controls p27(Kip1) protein expression by PKC activation and irreversibly inhibits the proliferation of K-Ras-dependent mouse Y1 adrenocortical malignant cells.A Cyclin D2-derived peptide acts on specific cell cycle phases by activating ERK1/2 to cause the death of breast cancer cells.Fibroblast growth factor 2 restrains Ras-driven proliferation of malignant cells by triggering RhoA-mediated senescence.Vasopressin triggers senescence in K-ras transformed cells via RhoA-dependent downregulation of cyclin D1.ACTH receptor: ectopic expression, activity and signaling.c-Ki-ras oncogene amplification and FGF2 signaling pathways in the mouse Y1 adrenocortical cell line.ACTH promotion of p27(Kip1) induction in mouse Y1 adrenocortical tumor cells is dependent on both PKA activation and Akt/PKB inactivation.ACTH induces c-fos proto-oncogene in fibroblasts expressing the ACTH receptor.Rac1 GTPase-deficient HeLa cells present reduced DNA repair, proliferation, and survival under UV or gamma irradiation.Proteomic, cellular, and network analyses reveal new DUSP3 interactions with nucleolar proteins in HeLa cells.Protein disulfide isomerase is required for platelet-derived growth factor-induced vascular smooth muscle cell migration, Nox1 NADPH oxidase expression, and RhoGTPase activation.Combined experimental and bioinformatics analysis for the prediction and identification of VHR/DUSP3 nuclear targets related to DNA damage and repair.Modifications on collagen structures promoted by 1,4-dioxane improve thermal and biological properties of bovine pericardium as a biomaterial.Loss of DUSP3 activity radiosensitizes human tumor cell lines via attenuation of DNA repair pathways.Rho signaling pathway and apical constriction in the early lens placode.CDC42 Gtpase Activation Affects Hela Cell DNA Repair and Proliferation Following UV Radiation-Induced Genotoxic Stress.Signal transduction in G0/G1-arrested mouse Y1 adrenocortical cells stimulated by ACTH and FGF2.CD100/Sema4D Increases Macrophage Infection by Leishmania (Leishmania) amazonensis in a CD72 Dependent Manner.DUSP3/VHR: A Druggable Dual Phosphatase for Human DiseasesRevisiting the roles of VHR/DUSP3 phosphatase in human diseasesMeasuring the Contributions of the Rho Pathway to the DNA Damage Response in Tumor Epithelial CellsACTH inhibits A Ras-dependent anti-apoptotic and mitogenic pathway in mouse Y1 adrenocortical cellsAntitumor activity of Mn(III) complexes in combination with phototherapy and antioxidant therapyActin cytoskeleton dynamics in stem cells from autistic individualsAssessing the Roles of Rho GTPases in Cell DNA Repair by the Nucleotide Excision Repair PathwayNetwork analysis of DUSP12 partners in the nucleus under genotoxic stressA metal-free blue chromophore derived from plant pigmentsProteomic and Interactome Approaches Reveal PAK4, PHB-2, and 14-3-3η as Targets of Overactivated Cdc42 in Cellular Responses to Genomic InstabilityWhere do we aspire to publish? A position paper on scientific communication in biochemistry and molecular biologyButyrate Protects Mice from Clostridium difficile-Induced Colitis through an HIF-1-Dependent MechanismIntracellular Peptides in Cell Biology and PharmacologyDUSP3 maintains genomic stability and cell proliferation through modulation of the NER pathway and cell cycle regulatory proteins
P50
Q28508622-2F870E98-EB47-490D-8183-87CF54C40612Q33761170-3EE2051F-A92C-4CD7-A1C9-F6333F437044Q36327964-3F737C7E-E995-4A3F-AE66-4F688A3CCABAQ38294099-BACF6C24-DDC9-43A7-B10D-4336B9C1F134Q39044284-8935B31B-6D10-4179-86FE-225BB5999426Q39530088-E61C3A59-AA30-46C7-B304-217880545F55Q39542724-F5A69B45-8A8B-4C8F-B1BB-0BFBCF9326FAQ39637400-CE970100-AC3B-41BC-B834-136353B21D0AQ39954387-AECE7EA5-397E-4F7A-A04D-3731568FDBEAQ40043176-DC209596-608B-4B70-AE55-38DF2EC82744Q40255103-A1A0DF89-974A-48F9-9F45-410DE36D8200Q40277972-7E67D4B5-2124-4A55-9D00-EFCDCC42E913Q40714786-DE66EC76-6595-4E94-A453-3C245C05DE68Q40980866-891234DB-1A86-4538-A176-FB5F1CC9D514Q41251491-222E4EBE-3DF5-4059-8C5C-780A6E880EF5Q42254842-E096A67D-3573-4B99-B960-A0DE306B1A20Q42323666-E56D29B7-320C-4B5D-BC19-43D7DB03B6B6Q46610361-10FB4F1F-3710-44A4-BF6F-D03B78ACF46EQ46859276-B243D9F7-5D0E-4F2C-84A5-18D3DA986A81Q51066878-48F0D1AE-E699-4013-A93A-4B1CAB5FC5D1Q51889127-1F2AE822-4ADD-4C4B-8346-985CBB4B20A6Q52958332-63A2A888-A5FC-4B03-9590-59F20CD34CE2Q54020167-2F7E1BF9-0584-46F6-9A22-5D559DED0CFAQ55314129-145C4EC2-59F9-4764-90EB-F7379B68616FQ57171242-BE58939C-4729-455A-9BB1-C42C5FA5578BQ58699207-6085A742-1AF0-4F22-B2AD-53FD07F8DCD1Q64389143-47F7B263-962A-41EB-BF9B-DE1870F80AD0Q73483582-1966B930-45A1-4AE6-B261-635A0877C43CQ86592319-37723595-678D-4BD9-B649-D99BB99952BBQ90453055-9E6ACED7-191F-4D24-B8F1-7F2C78A72588Q90654592-20D8AF35-60D1-46A5-AEF7-78365AD4F438Q91704606-60A29456-C574-4C00-8571-4B562EFF8656Q91878423-48F5D903-FB4F-4518-A344-B91E5DEF4818Q93069466-6277426F-D31C-4895-A076-282FDF212D46Q93094005-991BE9EB-CB40-4E90-A063-3B66ACD18045Q93158138-697C9523-1C8E-466B-A3D9-06580D8825AAQ93160103-156C4BFD-6A1C-45D7-A4C0-5DDD4A6799E4Q94544247-A638B2EA-3575-4884-8539-FD90126B3AF5
P50
description
researcher
@en
wetenschapper
@nl
name
F L Forti
@en
F L Forti
@nl
type
label
F L Forti
@en
F L Forti
@nl
prefLabel
F L Forti
@en
F L Forti
@nl
P106
P31
P496
0000-0002-2278-6396