Fig. 3. A dynamic STUB1-TF interaction depends on the uremic status.

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Fig. 3. A dynamic STUB1-TF interaction depends on the uremic status. A dynamic STUB1-TF interaction depends on the uremic status. (A) Recombinant GST-tagged STUB1 protein was immobilized on glutathione S-transferase (GST) beads and treated with lipidated human recombinant TF (rhTF) protein for 4 hours. Eluents were probed for bound TF. Five percent of recombinant GST-tagged STUB1 stained with Coomassie and recombinant TF are shown as inputs. Representative immunoblots from four independent experiments are shown. (B) vSMCs were pretreated with 10 μM IS (24 hours) and 20 μM CH223191 (20 min) followed by immunoprecipitation using anti-STUB1 antibody, and the eluents were probed for TF. The stripped blot was reprobed for STUB1. Five percent of cell lysates are shown as inputs. Representative blots from three independent experiments are shown. DMSO, dimethyl sulfoxide. (C) Human embryonic kidney (HEK) 293T cells stably expressing FLAG-tagged WT TF (TF-WT) or TF C-terminal truncation (TFdelC) were transfected with myelocytomatosis (MYC)–tagged STUB1. Cell lysates were immunoprecipitated with FLAG or MYC antibodies, and coimmunoprecipitated proteins were detected using MYC and FLAG antibodies. Five percent of lysates were probed as inputs. A representative of two independent experiments done in duplicates is shown. (D) HEK293T cells coexpressing FLAG-tagged WT TF and empty vector (control) or MYC-tagged STUB1 plasmids were treated with cycloheximide for the indicated amount of time. The TF bands were normalized to GAPDH. Equal amounts of lysates were probed for MYC-tagged STUB1. A representative of three independent experiments is shown. (E) HEK293T cells coexpressing FLAG-tagged TFdelC and empty vector (control) or MYC-tagged STUB1 were processed as in (D). A representative from three independent experiments is shown. (F) HEK293T cells coexpressing FLAG-tagged WT TF (WT) or TFdelC (delC) along with MYC-tagged STUB1 were treated with 10 μM MG132 for 16 hours. The lysates were immunoprecipitated with anti-TF antibodies and probed for ubiquitin. The stripped blot was reprobed with FLAG. Five percent of the cell lysates are shown as inputs. Representative immunoblots from three independent experiments are shown. (G) Confocal images of paraffin-embedded sections of an explanted AVF from a 42-year-old male with stage 5 CKD stained with anti-TF and anti-STUB1 antibodies are shown. In different areas of the same AVF, cells with lower STUB1 and higher TF expression are marked by asterisks (*), and cells showing the opposite pattern are marked by crosses (+). The images shown are representative of eight immunofluorescence images acquired from four CKD/ESRD patients. Scale bar, 100 μm. (H) Pipeline of object recognition algorithm developed to correlate cell-level intensity distributions of STUB1 with TF (see Materials and Methods for more details). (I) Eight immunofluorescence images from four explanted AVFs from CKD/ESRD patients were analyzed using an object recognition algorithm. The intensities of TF and STUB1 within image objects containing vSMCs (average of 187 cells per image; total, 1501 cells) were quantified and averaged for each image. Data are shown as means ± SD. (J) Confocal images of paraffin-embedded sections of an explanted AVF from a 47-year-old CKD patient (uremic) and a popliteal artery from a 53-year-old male with normal renal function (nonuremic) (table S1) stained with anti-TF and anti-STUB1 antibodies. Two representatives from a total of eight uremic and nonuremic images are shown. L, lumen; S, subendothelium; M, medium. Asterisks (*) mark areas of cells with low STUB1 and high TF expression similar to those in (G). Scale bars, 100 μm. (K) Confocal images acquired from four explanted AVFs from CKD/ESRD patients and popliteal arteries from patients with normal renal function were analyzed using a pixel-level colocalization algorithm. Percentage colocalization of TF-STUB1 was defined as the fraction of pixels with intensity values greater than image-specific thresholds for STUB1 and TF and was compared between the two groups. Data are shown as means ± SD. Moshe Shashar et al., Sci Transl Med 2017;9:eaam8475 Published by AAAS