The research report should be a detailed narrative explaining the function, biological processes, and localization of the gene product. Citations should be given for all claims.
You should prioritize authoritative reviews and primary scientific literature when conducting research. You can supplement
this with annotations you find in gene/protein databases, but these can be outdated or inaccurate.
We are specifically interested in the primary function of the gene - for enzymes, what reaction is catalyzed, and what is the substrate specificity? For transporters, what is the substrate? For structural proteins or adapters, what is the broader structural role? For signaling molecules, what is the role in the pathway.
We are interested in where in or outside the cell the gene product carries out its function.
We are also interested in the signaling or biochemical pathways in which the gene functions. We are less interested in broad pleiotropic effects, except where these elucidate the precise role.
Include evidence where possible. We are interested in both experimental evidence as well as inference from structure, evolution, or bioinformatic analysis. Precise studies should be prioritized over high-throughput, where available.
Identity verified. The target is Arabidopsis thaliana CYP71A13 (locus At2g30770, UniProt O49342), annotated as cytochrome P450 71A13/indoleacetaldoxime dehydratase (EC 4.8.1.3). The accession, locus and EC assignment are supplied in the question’s UniProt record; independent Arabidopsis literature confirms that CYP71A13 is a CYP71-family P450 acting in camalexin synthesis. The specified Cyt_P450/PF00067 and related domain annotations agree with that experimentally established family assignment. CYP71A12 and CYP71A27 are separate Arabidopsis genes, not alternative names for this protein. (bak2011cytochromesp450 pages 11-12, pastorczyk2020theroleof pages 1-2, koprivova2019rootspecificcamalexinbiosynthesis pages 3-4)
CYP71A13 diverts indole-3-acetaldoxime (IAOx), a tryptophan-derived branch-point metabolite, toward the sulfur-containing antimicrobial phytoalexin camalexin. Its established annotated reaction is IAOx → indole-3-acetonitrile (IAN) + H₂O. The original biochemical assignment is Nafisi et al., “Arabidopsis Cytochrome P450 Monooxygenase 71A13 Catalyzes the Conversion of Indole-3-Acetaldoxime in Camalexin Synthesis,” The Plant Cell (June 2007), doi:10.1105/tpc.107.051383; an authoritative P450 review independently describes the IAOx-to-IAN activity. The original article was identifiable but its full text was not available in this retrieval, so the detailed original assay conditions cannot be independently reproduced here. (bak2011cytochromesp450 pages 11-12)
The dehydration annotation does not capture the entire current pathway model. Subsequent work implicates CYP71A13, particularly strongly relative to CYP71A12, in production of an activated IAN-derived intermediate described as indole-3-cyanohydrin. Glutathione conjugation of that intermediate supplies GS-IAN, which is processed to cysteine-IAN [Cys(IAN)]; the downstream P450 PAD3/CYP71B15, rather than CYP71A13, then converts Cys(IAN) toward camalexin. IAN can therefore be named as a demonstrated product/intermediate without asserting that a pool of freely released IAN must precede every instance of cyanohydrin formation. This distinction is illustrated in Mucha et al.’s pathway figure. (mucha2019theformationof pages 1-2, mucha2019theformationof pages 2-3, mucha2019theformationof media e594cac2, bottcher2009themultifunctionalenzyme pages 1-2)
The experimentally supported physiological substrate is IAOx; the available evidence does not justify assigning CYP71A13 a similarly well-established substrate panel or calling it the final camalexin-forming enzyme. In yeast microsomes, coexpression of CYP79B2, CYP71A13 and the reductase ATR1 shifted tryptophan-derived products toward IAN. The apparent Kₘ for CYP79B2 acting on tryptophan changed from 17.5 ± 1.9 to 6.9 ± 0.9 µM with CYP71A13 present—evidence consistent with functional coupling, not a measurement of CYP71A13’s own Kₘ for IAOx. Mucha et al., The Plant Cell (2019), doi:10.1105/tpc.19.00403. (mucha2019theformationof pages 5-6, mucha2019theformationof pages 7-8)
The following evidence map separates reactions performed by CYP71A13 from adjacent pathway steps and qualified inferences. (bak2011cytochromesp450 pages 11-12, mucha2019theformationof pages 1-2, mucha2019theformationof pages 2-3)
| Reaction / biological step | Enzyme(s) | Evidence strength | Important caveat / interpretation |
|---|---|---|---|
| Upstream precursor formation: L-tryptophan → indole-3-acetaldoxime (IAOx) | CYP79B2, CYP79B3 | Strong biochemical and genetic support. IAOx is the shared branch-point precursor for camalexin, indole glucosinolates, indole-carbonyl nitriles and related metabolites. The Formation of a Camalexin Biosynthetic Metabolon (2019), DOI: 10.1105/tpc.19.00403 (mucha2019theformationof pages 1-2, mucha2019theformationof pages 2-3) | This is upstream of CYP71A13 and is not specific to camalexin. In healthy tissue, much IAOx instead enters indole-glucosinolate biosynthesis through CYP83B1. |
| Principal annotated reaction: IAOx → indole-3-acetonitrile (IAN); subsequent oxidative “activation” toward indole-3-cyanohydrin contributes to camalexin synthesis | CYP71A13; partially redundant CYP71A12 | Strong support for IAOx-to-IAN conversion; substantial pathway evidence for further activation. Recombinant/heterologous and mutant evidence established the dehydration reaction, while later work places CYP71A13—especially strongly—also in indole-3-cyanohydrin formation. Cytochromes P450 (2011), DOI: 10.1199/tab.0144; Camalexin Biosynthetic Metabolon (2019), DOI above (bak2011cytochromesp450 pages 11-12, mucha2019theformationof pages 1-2, mucha2019theformationof pages 2-3, mucha2019theformationof media e594cac2) | IAN is a detected and important pathway intermediate, but current models should not imply that freely diffusible IAN is the sole obligatory immediate intermediate in every catalytic context. Reactive intermediates may be metabolically channeled within an ER-associated complex. |
| Sulfur incorporation: indole-3-cyanohydrin/reactive IAN-derived intermediate + glutathione → GS-IAN | One or more glutathione transferases; GSTU4 physically associates with CYP71A13 and other pathway enzymes | Strong evidence for glutathione conjugation; weak evidence for a uniquely required GST isoform. A yeast survey found many Arabidopsis GSTs capable of supporting GS-IAN formation. Camalexin Biosynthetic Metabolon (2019), DOI above (mucha2019theformationof pages 6-7, mucha2019theformationof pages 7-8) | GSTU4 interaction is not proof that GSTU4 is the required biosynthetic GST. In fact, gstu4 knockout plants accumulated more camalexin, whereas GSTU4 overexpression reduced it, indicating a competing or regulatory role rather than an indispensable catalytic role (mucha2019theformationof pages 8-9). |
| Conjugate processing and final synthesis: GS-IAN → Cys(IAN) → dihydrocamalexic acid/camalexin | GGP1 participates in shortening GS-IAN to Cys(IAN); PAD3/CYP71B15 performs the terminal multifunctional P450 reactions | Strong biochemical and genetic support. pad3 mutants are camalexin deficient and accumulate precursors; heterologously expressed CYP71B15 converts Cys(IAN) toward camalexin. The Multifunctional Enzyme CYP71B15… (2009), DOI: 10.1105/tpc.109.066670 (bottcher2009themultifunctionalenzyme pages 1-2, bak2011cytochromesp450 pages 12-13, mucha2019theformationof pages 1-2) |
CYP71A13 does not itself catalyze the final conversion to camalexin; that downstream role belongs to PAD3/CYP71B15. |
| Subcellular site and electron supply: ER-associated camalexin metabolon; CYP71A13 receives reducing equivalents through a P450 reductase | CYP71A13, ATR1, CYP79B2, CYP71A12, CYP71B15 and associated soluble enzymes | Direct localization and interaction evidence. Fluorescent CYP71A13 fusions localized to the ER in Nicotiana benthamiana; targeted co-IP repeatedly detected CYP71A13–ATR1 and CYP71A13–CYP71B15 associations, while Arabidopsis microsomal co-IP supported the native metabolon. Camalexin Biosynthetic Metabolon (2019), DOI above (mucha2019theformationof pages 5-5, mucha2019theformationof pages 5-6, mucha2019theformationof pages 6-7, mucha2019theformationof pages 3-4) | Direct CYP71A13 localization microscopy was performed mainly in a heterologous leaf system; native Arabidopsis support comes principally from microsomal interaction/proteomic evidence. The reported apparent Kₘ shift—from 17.5 ± 1.9 to 6.9 ± 0.9—belongs to CYP79B2 for tryptophan, measured without versus with CYP71A13; it is not a CYP71A13 Kₘ (mucha2019theformationof pages 5-6). |
| Paralog specialization and tissue context | CYP71A13 versus CYP71A12; distinct CYP71A27 in roots | Strong mutant/metabolomic support for overlapping but biased functions. CYP71A13 is the principal contributor to induced leaf camalexin synthesis; CYP71A12 contributes more prominently to pathogen-induced ICA/ICN-related metabolism. Both can contribute to camalexin, particularly in roots. The Role of CYP71A12… (2020), DOI: 10.1111/nph.16118; Root-specific Camalexin Biosynthesis… (2019), DOI: 10.1073/pnas.1818604116 (pastorczyk2020theroleof pages 1-2, pastorczyk2020theroleof pages 6-7, koprivova2019rootspecificcamalexinbiosynthesis pages 3-4) | CYP71A12 and CYP71A13 are close tandem paralogs and can compensate transcriptionally, so single-mutant phenotypes depend on tissue and elicitor. CYP71A27 is a separate, root-biased gene and must not be conflated with the target CYP71A13/At2g30770. |
Table: Evidence-weighted map of Arabidopsis CYP71A13 function, pathway context, localization and paralog distinctions. Caveats separate directly demonstrated reactions from metabolon models and prevent misattribution of CYP79B2 kinetics to CYP71A13.
CYP71A13 functions at the endoplasmic reticulum (ER), in an ER-associated camalexin-biosynthetic enzyme assembly. Fluorescent CYP71A13 fusions showed ER localization when expressed in Nicotiana benthamiana leaves; microscopy distinguished the ER-localized P450 from cytosolic GST proteins. This is direct localization of the Arabidopsis protein in a heterologous plant, not a claim that the same imaging experiment mapped native CYP71A13 in every Arabidopsis tissue. In Arabidopsis leaves, microsomal co-immunoprecipitation after challenge independently supports its association with an ER-membrane pathway complex. The predicted positioning of its catalytic domain on the cytosolic face follows the usual topology of eukaryotic ER P450s and is less directly demonstrated for this particular protein than ER association itself. (mucha2019theformationof pages 1-2, mucha2019theformationof pages 6-7, mucha2019theformationof pages 3-4, mucha2019theformationof pages 5-5)
Targeted co-immunoprecipitation detected CYP71A13 with ATR1, a P450 reductase, and with downstream CYP71B15/PAD3; co-immunoprecipitation and fluorescence-lifetime/FRET experiments also support contacts with other pathway proteins. In infected Arabidopsis leaf material, CYP71A13 was enriched 109-fold in a CYP71B15 pull-down relative to controls (P = 0.00014). Together, physical association and the yeast product-shift experiment support metabolic channeling of reactive intermediates, although they do not establish an immutable complex or prove that all intermediate molecules remain bound throughout synthesis. (mucha2019theformationof pages 5-6, mucha2019theformationof pages 3-4, mucha2019theformationof pages 8-9)
CYP71A13 is not an extracellular enzyme: its characterized biosynthetic site is ER-associated. Antimicrobial camalexin can subsequently act beyond the producing cell; that disposition must not be confused with the localization of the CYP71A13 protein. GSTU4’s physical recruitment to the complex likewise does not establish that it is an indispensable GS-IAN-producing enzyme: 41 Arabidopsis GSTs supported product formation in a heterologous screen, while gstu4 knockouts generally had more, and GSTU4-overexpressing plants less, induced camalexin. (mucha2019theformationof pages 6-7, mucha2019theformationof pages 7-8, mucha2019theformationof pages 8-9)
CYP71A13 supplies an inducible biochemical branch of pathogen defense, rather than functioning as a pathogen receptor or transcription factor. cyp71a13 mutants make greatly reduced camalexin after Pseudomonas syringae or Alternaria brassicicola challenge and show increased susceptibility to A. brassicicola. A separate leaf study associated cyp71a13 loss with low Botrytis cinerea-induced camalexin and larger lesions. These observations support a contribution to resistance, but the size of the phenotype depends on tissue, challenge and compensation by other tryptophan-derived defenses. Bak et al., The Arabidopsis Book (2011), doi:10.1199/tab.0144; Koprivova et al., PNAS (July 2019), doi:10.1073/pnas.1818604116. (bak2011cytochromesp450 pages 12-13, koprivova2019rootspecificcamalexinbiosynthesis pages 3-4)
Paralog specificity matters for annotation. CYP71A12 and CYP71A13 are closely related tandem genes, reported to have approximately 89% amino-acid similarity. Both can contribute to camalexin, but in the infection contexts examined CYP71A13 is the more important contributor in leaves, whereas CYP71A12 contributes prominently to root camalexin and to pathogen-induced indole-3-carboxylic-acid (ICA) and indole-carbonyl-nitrile-related metabolism. In infected leaves, disrupting either CYP71A gene increased expression of the other; accordingly, a single-gene mutant is not a clean measure of exclusive substrate specificity. Pastorczyk et al., New Phytologist (accepted August 2019, published in volume 225, 2020), doi:10.1111/nph.16118. The distinct root-associated CYP71A27 must not be assigned CYP71A13’s direct biochemical reaction simply because it influences camalexin phenotypes. (pastorczyk2020theroleof pages 1-2, pastorczyk2020theroleof pages 6-7, koprivova2019rootspecificcamalexinbiosynthesis pages 3-4)
IAOx is supplied upstream by CYP79B2/CYP79B3; in healthy tissues, the competing enzyme CYP83B1 instead directs much of it toward indole glucosinolates. Pathogens and elicitors induce the CYP71A13-associated defense branch. An authoritative August 2024 review discusses microbial pattern recognition, MAP kinase and WRKY-linked control of camalexin-pathway gene expression, including CYP71A13: Hu, Teng and Li, Current Opinion in Biotechnology, doi:10.1016/j.copbio.2024.103148. Such signaling regulates production of the enzyme; it does not make CYP71A13 itself a signaling protein. Regulator-to-gene relationships should be interpreted by their underlying assays rather than treating a review schematic as proof of direct binding to the CYP71A13 promoter. (hu2024unleashingplantsynthetic pages 3-4, mucha2019theformationof pages 2-3, lin2024abaregulatedjaz1proteins pages 1-3, somssich2025gunsinrosettes pages 5-6)
A 2024 Arabidopsis immune-priming experiment found that pretreatment with the synthetic strigolactone analogue rac-GR24 reduced B. cinerea leaf-lesion area from 27.3 ± 2.35 to 20.1 ± 3.55 mm² (26%), while pathogen-induced camalexin rose 36% at 18 hours and 44% at 24 hours relative to untreated controls. Priming depended on downstream PAD3 and ethylene signaling in the tested mutants. Importantly, this experiment assayed PAD3 and camalexin, not a CYP71A13-specific loss-of-function or enzymatic response: it demonstrates an application of the pathway, not a newly established reaction for CYP71A13. Fujita et al., Journal of Pesticide Science (published online 9 August 2024), doi:10.1584/jpestics.D24-019. (fujita2024enhanceddiseaseresistance pages 4-5, fujita2024enhanceddiseaseresistance pages 5-6, fujita2024enhanceddiseaseresistance pages 1-2)
The current real-world implementation is primarily experimental: CYP71A13 mutants, tagged P450s and reconstituted yeast microsomes are used to dissect pathogen resistance, substrate flow and potential metabolic engineering. The 2024 review proposes manipulating defense elicitation to improve specialized-metabolite production; the retrieved evidence does not demonstrate a deployed CYP71A13-engineered crop or justify promising field-scale disease control from this gene alone. Root experiments additionally show why deployment cannot simply extrapolate from infected leaves: CYP71A12 and the separate CYP71A27 contribute differently across organs and microbial interactions. (mucha2019theformationof pages 5-6, hu2024unleashingplantsynthetic pages 3-4, koprivova2019rootspecificcamalexinbiosynthesis pages 3-4, fujita2024enhanceddiseaseresistance pages 5-6)
Annotation conclusion. The highest-confidence assignment for UniProt O49342 is ER-associated, P450-dependent conversion of IAOx into the IAN/activated-cyanohydrin arm of tryptophan-derived camalexin biosynthesis. The IAOx→IAN dehydratase reaction is established; the detailed partitioning between released IAN and further CYP71A13-mediated activation is more context-dependent. CYP71A13 is neither the downstream PAD3 enzyme nor the CYP71A12-dominated ICA-pathway enzyme. (bak2011cytochromesp450 pages 11-12, mucha2019theformationof pages 1-2, pastorczyk2020theroleof pages 1-2, mucha2019theformationof pages 2-3, mucha2019theformationof media e594cac2)
References
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