Detecting protein-protein interaction based on protein fragment complementation assay.

Proteins are the most critical executive molecules by responding to the instructions stored in the genetic materials in any form of life. More frequently, proteins do their jobs by acting as a roleplayer that interacts with other protein(s), which is more evident when the function of a protein is examined in the real context of a cell. Identifying the interactions between (or amongst) proteins is very crucial for the biochemistry investigation of an individual protein and for the attempts aiming to draw a holo-picture for the interacting members at the scale of proteomics ( or protein-protein interactions mapping). Here, we introduced the currently available reporting systems that can be used to probe the interaction between candidate protein pairs based on the fragment complementation of some particular proteins. Emphases were put on the principles and details of experimental design. These systems are dihydrofolate reductase (DHFR), β-lactamase, tobacco etch virus (TEV) protease, luciferase, β-galactosidase, GAL4, horseradish peroxidase (HRP), focal adhesion kinase (FAK), green fluorescent protein (GFP), and ubiquitin.

[1]  O. Shimomura,et al.  Extraction, purification and properties of aequorin, a bioluminescent protein from the luminous hydromedusan, Aequorea. , 1962, Journal of cellular and comparative physiology.

[2]  K. Arai,et al.  Expression of plasmid R388-encoded type II dihydrofolate reductase as a dominant selective marker in Saccharomyces cerevisiae , 1984, Molecular and cellular biology.

[3]  M. Ptashne,et al.  Separation of DNA binding from the transcription-activating function of a eukaryotic regulatory protein. , 1986, Science.

[4]  F. Winkler,et al.  Crystal structure of human dihydrofolate reductase complexed with folate. , 1988, European journal of biochemistry.

[5]  S. Fields,et al.  A novel genetic system to detect protein–protein interactions , 1989, Nature.

[6]  M. Ko,et al.  The dose dependence of glucocorticoid‐inducible gene expression results from changes in the number of transcriptionally active templates. , 1990, The EMBO journal.

[7]  M. J. Cormier,et al.  Primary structure of the Aequorea victoria green-fluorescent protein. , 1992, Gene.

[8]  J. Zeilstra-Ryalls,et al.  Protein-protein interaction in the α-complementation system of β-galactosidase , 1992 .

[9]  S. Jentsch The ubiquitin-conjugation system. , 1992, Annual review of genetics.

[10]  K. Kirschner,et al.  A fully active variant of dihydrofolate reductase with a circularly permuted sequence. , 1992, Biochemistry.

[11]  W. M. Westler,et al.  Chemical structure of the hexapeptide chromophore of the Aequorea green-fluorescent protein. , 1993, Biochemistry.

[12]  A. Varshavsky,et al.  Ubiquitin‐assisted dissection of protein transport across membranes. , 1994, The EMBO journal.

[13]  A. Varshavsky,et al.  Split ubiquitin as a sensor of protein interactions in vivo. , 1994, Proceedings of the National Academy of Sciences of the United States of America.

[14]  C. Futter,et al.  Transport into and out of the Golgi complex studied by transfecting cells with cDNAs encoding horseradish peroxidase , 1994, The Journal of cell biology.

[15]  B. Matthews,et al.  Three-dimensional structure of β-galactosidase from E. coli. , 1994, Nature.

[16]  A. Murzin,et al.  Circularly permuted dihydrofolate reductase of E. coli has functional activity and a destabilized tertiary structure. , 1994, Protein engineering.

[17]  S. Fields,et al.  Protein-peptide interactions analyzed with the yeast two-hybrid system. , 1995, Nucleic acids research.

[18]  H. Blau,et al.  Gene expression and cell fusion analyzed by lacZ complementation in mammalian cells. , 1996, Proceedings of the National Academy of Sciences of the United States of America.

[19]  S. Rusconi,et al.  Alpha complementation of LacZ in mammalian cells. , 1996, Nucleic acids research.

[20]  H. Blau,et al.  Monitoring protein-protein interactions in intact eukaryotic cells by beta-galactosidase complementation. , 1997, Proceedings of the National Academy of Sciences of the United States of America.

[21]  Wanzhi Huang,et al.  A natural polymorphism in beta-lactamase is a global suppressor. , 1997, Proceedings of the National Academy of Sciences of the United States of America.

[22]  C. Matthews,et al.  Probing minimal independent folding units in dihydrofolate reductase by molecular dissection , 1997, Protein science : a publication of the Protein Society.

[23]  J. Samama,et al.  Crystal structure of an acylation transition-state analog of the TEM-1 beta-lactamase. Mechanistic implications for class A beta-lactamases. , 1998, Biochemistry.

[24]  G. Zlokarnik,et al.  Quantitation of transcription and clonal selection of single living cells with beta-lactamase as reporter. , 1998, Science.

[25]  R. Tsien,et al.  green fluorescent protein , 2020, Catalysis from A to Z.

[26]  S. Michnick,et al.  Oligomerization domain-directed reassembly of active dihydrofolate reductase from rationally designed fragments. , 1998, Proceedings of the National Academy of Sciences of the United States of America.

[27]  R. Tsien,et al.  Circular permutation and receptor insertion within green fluorescent proteins. , 1999, Proceedings of the National Academy of Sciences of the United States of America.

[28]  D. Picard,et al.  Alpha-complemented beta-galactosidase. An in vivo model substrate for the molecular chaperone heat-shock protein 90 in yeast. , 1999, European journal of biochemistry.

[29]  A. Vallée-Bélisle,et al.  Detection of protein-protein interactions by protein fragment complementation strategies. , 2000, Methods in enzymology.

[30]  L. Regan,et al.  Antiparallel Leucine Zipper-Directed Protein Reassembly: Application to the Green Fluorescent Protein , 2000 .

[31]  T. Palzkill,et al.  A secondary drug resistance mutation of TEM-1 beta-lactamase that suppresses misfolding and aggregation. , 2001, Proceedings of the National Academy of Sciences of the United States of America.

[32]  A. Galarneau,et al.  β-Lactamase protein fragment complementation assays as in vivo and in vitro sensors of protein–protein interactions , 2002, Nature Biotechnology.

[33]  R. Tsien,et al.  Evolution of new nonantibody proteins via iterative somatic hypermutation. , 2004, Proceedings of the National Academy of Sciences of the United States of America.

[34]  R. Weissleder,et al.  Codon-optimized Gaussia luciferase cDNA for mammalian gene expression in culture and in vivo. , 2005, Molecular therapy : the journal of the American Society of Gene Therapy.

[35]  T. Terwilliger,et al.  Protein tagging and detection with engineered self-assembling fragments of green fluorescent protein , 2005, Nature Biotechnology.

[36]  Tobias M. Fischer,et al.  Monitoring regulated protein-protein interactions using split TEV , 2006, Nature Methods.

[37]  S. Michnick,et al.  A highly sensitive protein-protein interaction assay based on Gaussia luciferase , 2006, Nature Methods.

[38]  T. Terwilliger,et al.  Engineering and characterization of a superfolder green fluorescent protein , 2006, Nature Biotechnology.

[39]  S. Michnick,et al.  Using the β-lactamase protein-fragment complementation assay to probe dynamic protein–protein interactions , 2007, Nature Protocols.

[40]  C. Landry,et al.  An in Vivo Map of the Yeast Protein Interactome , 2008, Science.

[41]  I. Schlichting,et al.  Tryptophan synthase: the workings of a channeling nanomachine. , 2008, Trends in biochemical sciences.

[42]  Huan‐Xiang Zhou,et al.  Macromolecular crowding and confinement: biochemical, biophysical, and potential physiological consequences. , 2008, Annual review of biophysics.

[43]  Hyeong Jun An,et al.  Estimating the size of the human interactome , 2008, Proceedings of the National Academy of Sciences.

[44]  M. Rossner,et al.  Analysis of transient phosphorylation-dependent protein-protein interactions in living mammalian cells using split-TEV , 2008, BMC biotechnology.

[45]  M. Ueda,et al.  Development of a yeast protein fragment complementation assay (PCA) system using dihydrofolate reductase (DHFR) with specific additives , 2008, Applied Microbiology and Biotechnology.

[46]  S. Radford,et al.  Optimizing protein stability in vivo. , 2009, Molecular cell.

[47]  S. Gambhir,et al.  A molecularly engineered split reporter for imaging protein-protein interactions with positron emission tomography , 2010, Nature Medicine.

[48]  D. Hilvert,et al.  Design, selection, and characterization of a split chorismate mutase , 2010, Protein science : a publication of the Protein Society.

[49]  G. Newton,et al.  Expanding the utility of beta-galactosidase complementation: piece by piece. , 2010, Molecular pharmaceutics.

[50]  Jianli Li,et al.  Membrane Targeted Horseradish Peroxidase as a Marker for Correlative Fluorescence and Electron Microscopy Studies , 2009, Front. Neural Circuits.

[51]  M. Eck,et al.  The FERM domain: organizing the structure and function of FAK , 2010, Nature Reviews Molecular Cell Biology.

[52]  I. Ghosh,et al.  Split-protein systems: beyond binary protein-protein interactions. , 2011, Current opinion in chemical biology.

[53]  P. Vidalain,et al.  Benchmarking a luciferase complementation assay for detecting protein complexes , 2011, Nature Methods.

[54]  M. Zimmer,et al.  Function and structure of GFP-like proteins in the protein data bank. , 2011, Molecular bioSystems.

[55]  Tobias M. Fischer,et al.  Studying G protein-coupled receptor activation using split-tobacco etch virus assays. , 2011, Analytical biochemistry.

[56]  Brian R. McNaughton,et al.  Split-superpositive GFP reassembly is a fast, efficient, and robust method for detecting protein-protein interactions in vivo. , 2012, Molecular bioSystems.

[57]  I. Gut,et al.  DNA sequencing - spanning the generations. , 2012, New biotechnology.

[58]  S. Benkovic,et al.  The purinosome, a multi-protein complex involved in the de novo biosynthesis of purines in humans. , 2013, Chemical communications.

[59]  Hau B. Nguyen,et al.  A New Protein-Protein Interaction Sensor Based on Tripartite Split-GFP Association , 2013, Scientific Reports.

[60]  S. Carr,et al.  Proteomic Mapping of Mitochondria in Living Cells via Spatially Restricted Enzymatic Tagging , 2013, Science.

[61]  S. Michnick,et al.  An infrared reporter to detect spatiotemporal dynamics of protein-protein interactions , 2014, Nature Methods.

[62]  S. Fields,et al.  The yeast two-hybrid assay: still finding connections after 25 years , 2014, Nature Methods.

[63]  E. Bejarano,et al.  Using the yeast two-hybrid system to identify protein-protein interactions. , 2014, Methods in molecular biology.

[64]  V. S. Rao,et al.  Protein-Protein Interaction Detection: Methods and Analysis , 2014, International journal of proteomics.

[65]  H. N. Tipu,et al.  Evolution of DNA sequencing. , 2015, Journal of the College of Physicians and Surgeons--Pakistan : JCPSP.

[66]  Feng Zhang,et al.  A split-Cas9 architecture for inducible genome editing and transcription modulation , 2015, Nature Biotechnology.

[67]  Chunlei Du,et al.  Nanopore-based Fourth-generation DNA Sequencing Technology , 2015, Genom. Proteom. Bioinform..

[68]  T. Deerinck,et al.  A split horseradish peroxidase for detection of intercellular protein-protein interactions and sensitive visualization of synapses , 2016, Nature Biotechnology.

[69]  B. Chain,et al.  The sequence of sequencers: The history of sequencing DNA , 2016, Genomics.

[70]  Ji-Long Liu The Cytoophidium and Its Kind: Filamentation and Compartmentation of Metabolic Enzymes. , 2016, Annual review of cell and developmental biology.

[71]  M. Kretz,et al.  Non-coding RNAs: Classification, Biology and Functioning. , 2016, Advances in experimental medicine and biology.

[72]  C. Landry,et al.  Protein-Fragment Complementation Assays for Large-Scale Analysis, Functional Dissection, and Spatiotemporal Dynamic Studies of Protein-Protein Interactions in Living Cells. , 2016, Cold Spring Harbor protocols.

[73]  J. Silberg,et al.  Programming Post-Translational Control over the Metabolic Labeling of Cellular Proteins with a Noncanonical Amino Acid. , 2017, ACS synthetic biology.

[74]  Rajeev K Sukumaran,et al.  Metagenome Analysis: a Powerful Tool for Enzyme Bioprospecting , 2017, Applied Biochemistry and Biotechnology.

[75]  D. A. Abou El Ella,et al.  Thiazolo[4,5-d]pyridazine analogues as a new class of dihydrofolate reductase (DHFR) inhibitors: Synthesis, biological evaluation and molecular modeling study. , 2017, Bioorganic chemistry.

[76]  Junjie Hou,et al.  Optimizing the fragment complementation of APEX2 for detection of specific protein-protein interactions in live cells , 2017, Scientific Reports.

[77]  B. Dickinson,et al.  RNA Polymerase Tags To Monitor Multidimensional Protein-Protein Interactions Reveal Pharmacological Engagement of Bcl-2 Proteins. , 2017, Journal of the American Chemical Society.

[78]  S. Benkovic,et al.  A New View into the Regulation of Purine Metabolism: The Purinosome. , 2017, Trends in biochemical sciences.

[79]  N. Segata,et al.  Shotgun metagenomics, from sampling to analysis , 2017, Nature Biotechnology.

[80]  T. Schikorski,et al.  Quintuple labeling in the electron microscope with genetically encoded enhanced horseradish peroxidase , 2018, PloS one.

[81]  William Sheffler,et al.  De novo design of a fluorescence-activating β-barrel , 2018, Nature.

[82]  David Baker,et al.  Programmable design of orthogonal protein heterodimers , 2018, Nature.

[83]  David Baker,et al.  Modular and tunable biological feedback control using a de novo protein switch , 2019, Nature.

[84]  Robert A. Langan,et al.  Programmable design of orthogonal protein heterodimers , 2019 .

[85]  F. Slack,et al.  The Role of Non-coding RNAs in Oncology , 2019, Cell.

[86]  S. Boxer,et al.  Split Green Fluorescent Proteins: Scope, Limitations, and Outlook. , 2019, Annual review of biophysics.

[87]  Yan Guo,et al.  Improved Monitoring of Low-Level Transcription in Escherichia coli by a β-Galactosidase α-Complementation System , 2019, Front. Microbiol..