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this with annotations you find in gene/protein databases, but these can be outdated or inaccurate.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.
PIKM1-TS is the Tsuyuake allele of the rice blast-resistance sensor commonly called Pikm-1, in Oryza sativa subsp. japonica. The accession-to-name correspondence is supplied by the specified UniProt record, B5UBC1; the literature independently identifies Pikm1-TS and its adjacent partner Pikm2-TS in japonica cultivar Tsuyuake, but the papers examined do not themselves quote B5UBC1. Pikm is an allele of the chromosome-11 Pik resistance locus, not the similarly named Pigm resistance locus or the distinct Pikp and Piks alleles. Cloning and transgenic complementation established that both Pikm1-TS and Pikm2-TS are needed for Pikm-specific resistance to the rice blast fungus Magnaporthe oryzae. The founding study is Ashikawa and colleagues, Genetics, December 2008, doi:10.1534/genetics.108.095034; the accessible account of its complementation experiments is secondary. (shikari2019towardstheunderstanding pages 6-7)
Functional assignment: Pikm-1 is an intracellular, effector-binding immune sensor, not a pathogen-killing enzyme or a metal transporter. It detects particular fungal virulence proteins through an integrated heavy-metal-associated (HMA) domain and works with the Pikm-2 helper NLR to initiate effector-triggered immunity, including hypersensitive cell death and restriction of blast infection. The conventional coiled-coil (CC)–HMA–nucleotide-binding (NB-ARC)–leucine-rich-repeat (LRR) organization agrees with the NB-LRR/HMA annotations supplied for B5UBC1: the HMA lies between the N-terminal CC and NB regions, whereas the LRRs form part of the NLR receptor scaffold. “Heavy-metal-associated” describes a domain family, not an experimentally established metal-transport or metal-binding function for Pikm-1; its documented role here is effector binding. Direct ATP-hydrolysis activity or a metal substrate for this particular full-length protein was not established by the studies reviewed. (concepcion2022recognitionofrice pages 44-48, oikawa2024theblastpathogen pages 2-3)
In the native Pikm pair, the HMA domain of Pikm-1 binds AVR-Pik effector variants D, E and A, with binding and immune-response strength ranked D > E > A. The pair does not show productive recognition of AVR-PikC; subsequent work identifies AVR-PikF, like C, as escaping characterized native Pik HMA receptors. Crystallography resolved Pikm-HMA bound to D, E and A at 1.2, 1.3 and 1.3 Å, respectively, supporting a direct, allele-specific interaction. These structural measurements concern the isolated HMA complexes, not a structure of the activated full-length Pikm-1/Pikm-2 pair. De la Concepcion and colleagues, Nature Plants, July 2018, doi:10.1038/s41477-018-0194-x; Maidment and colleagues, eLife, May 2023, doi:10.7554/eLife.81123. (concepcion2018polymorphicresiduesin pages 5-7, maidment2023effectortargetguidedengineering pages 2-3)
The native recognition range is not confined to AVR-Pik. Sugihara and colleagues showed by yeast two-hybrid and in-vitro co-immunoprecipitation that Pikm-1 HMA binds AVR-Mgk1, an effector in a distinct sequence family. The Pikm-1/Pikm-2 pair responded to AVR-Mgk1 and AVR-PikD in Nicotiana benthamiana; importantly, a blast strain engineered to express AVR-Mgk1 elicited resistance in Tsuyuake rice itself. By contrast, the closely related Piks pair responded to AVR-Mgk1 but not AVR-PikD. Two sensor-HMA differences between Piks-1 and Pikm-1 affected the strength of AVR-PikD recognition, while their helper proteins have identical amino-acid sequences. Sugihara and colleagues, PLOS Biology, 19 January 2023, doi:10.1371/journal.pbio.3001945, especially Fig. 7. (sugihara2023disentanglingthecomplexa pages 9-10, sugihara2023disentanglingthecomplexa pages 13-15, sugihara2023disentanglingthecomplex media 63fec180)
The allele and engineering distinctions most relevant to functional annotation are summarized below. Only the native Pikm rows describe the B5UBC1-associated sensor’s naturally documented specificity. (concepcion2018polymorphicresiduesin pages 5-7, zdrzałek2024bioengineeringaplant pages 2-3, sugihara2023disentanglingthecomplexa pages 13-15)
| Sensor/helper | Effector(s) | Evidence / experimental system | Interpretation |
|---|---|---|---|
| Native Pikm-1 (PIKM1-TS/B5UBC1 per supplied UniProt) + Pikm-2 | AVR-PikD, AVR-PikE, AVR-PikA | Pikm-dependent cell death in Nicotiana benthamiana, supported by yeast two-hybrid, gel filtration, SPR and high-resolution Pikm-HMA complex structures; response and affinity rank D > E > A (concepcion2018polymorphicresiduesin pages 5-7) | Recognized native AVR-Pik variants; Pikm-1 HMA is the specificity-conferring sensor module. |
| Native Pikm-1 + Pikm-2 | AVR-PikC, AVR-PikF | AVR-PikC showed no significant Pikm-HMA binding or Pikm response; C and F evade all characterized native Pik-HMA receptors (concepcion2018polymorphicresiduesin pages 5-7, maidment2023effectortargetguidedengineering pages 2-3) | Not recognized by native Pikm; these are stealth variants, not substrates or ligands with demonstrated productive binding. |
| Native Pikm-1 + Pikm-2 | AVR-Mgk1 | Direct Pikm-HMA binding by yeast two-hybrid and in-vitro co-IP; Pikm responded in N. benthamiana; AVR-Mgk1-expressing M. oryzae triggered resistance in Tsuyuake rice (sugihara2023disentanglingthecomplexa pages 9-10, sugihara2023disentanglingthecomplexa pages 13-15) | Recognized second MAX-effector family member, demonstrating that native Pikm specificity extends beyond AVR-Pik. |
| Native Piks-1 + Piks-2 | AVR-PikD; AVR-Mgk1 | Piks-HMA did not bind or respond to AVR-PikD but directly bound AVR-Mgk1; Piks plants and transient assays responded to AVR-Mgk1 (sugihara2023disentanglingthecomplexa pages 9-10, sugihara2023disentanglingthecomplexa pages 13-15) | Comparator: AVR-PikD not recognized; AVR-Mgk1 recognized. |
| Native Pikp-1 + Pikp-2 | AVR-PikD; AVR-PikE/AVR-PikA | Pikp recognizes AVR-PikD but not native E or A; this narrower profile contrasts with Pikm (concepcion2018polymorphicresiduesin pages 5-7) | Comparator: D recognized; E and A not recognized by native Pikp. |
| Engineered Pikm-1^OsHIPP43 + Pikp-2 | Pwl2, Pwl2-2, Pwl2-3 | Replacing Pikm-1’s native HMA with OsHIPP43 switched specificity; all three Pwl2 variants triggered helper-dependent cell death in transient N. benthamiana assays. Pikm-2 caused effector-independent autoactivity, necessitating Pikp-2 (zdrzałek2024bioengineeringaplant pages 2-3) | Synthetic receptor, not native Pikm. Recognition has not been validated as rice field resistance; OsHIPP43–Pwl2 affinities must not be assigned to native Pikm-1. |
Table: Allele-resolved evidence distinguishes the native Pikm receptor’s AVR-Pik and AVR-Mgk1 specificity from comparator Pik alleles and an engineered OsHIPP43-domain chimera. It also separates rice resistance evidence from heterologous Nicotiana assays.
Mechanistically, effector recognition by Pikm-1 is upstream of Pikm-2-dependent defense activation. The proteins’ compatibility matters as well as ligand binding: a 2023 allele-swap study found that pairing Pikp-1 with Pikm-2 induced effector-independent cell death, whereas Pikm-1 could function with Pikp-2; a Pik-2 residue-230 substitution altered this compatibility. Accordingly, strong binding to an engineered HMA domain cannot, by itself, guarantee a usable resistance receptor—the sensor and helper must remain appropriately regulated. Bentham and colleagues, 2023, doi:10.1101/2022.10.10.511592. The detailed oligomeric structure and immediate biochemical output of an activated Pikm pair should not be assumed from structurally characterized other plant NLR resistosomes. (bentham2023alleliccompatibilityin pages 4-8, bentham2023alleliccompatibilityin pages 8-10, stone2025interactionsofblast pages 115-120)
The site of action is inside the plant cell, consistent with direct recognition by an intracellular NLR of fungus-delivered effectors; Pikm-1 is not established as a secreted receptor or a cell-surface ligand-binding protein. A preliminary, fluorescent-fusion study in heterologous N. benthamiana observed Pikm-1 signal at the cell periphery and apparently in nuclei, and Pikm-2 at the cell and nuclear peripheries. It did not verify that the peripheral signal was plasma membrane rather than adjacent cytoplasm, or demonstrate native protein localization in rice. Its author also cautioned that free fluorophore could account for apparent nuclear Pikm-1 signal. Thus a precise organelle or membrane assignment for native rice PIKM1-TS remains unconfirmed. Stone, 2025 doctoral research, localization chapter; the intracellular receptor classification is independently supported by the Pik molecular studies. (stone2025interactionsofblast pages 111-115, stone2025interactionsofblast pages 115-120, oikawa2024theblastpathogen pages 2-3)
A biological rationale for the integrated HMA ‘bait’. Oikawa and colleagues found that AVR-PikD also binds rice small HMA proteins, notably OsHIPP19 and OsHIPP20, stabilizing them and changing their distribution in heterologous plant-cell assays. Disrupting OsHIPP20 increased rice blast resistance, consistent with a host susceptibility function. This supports the interpretation that the Pik-1 integrated HMA detects an effector that also engages endogenous host proteins. These OsHIPP proteins are separate gene products, not Pikm-1 domains in isolation; the study does not show that Pikm-1 itself performs their proposed host functions. PLOS Pathogens, 18 November 2024, doi:10.1371/journal.ppat.1012647. (oikawa2024theblastpathogen pages 2-3, oikawa2024theblastpathogen pages 10-12, oikawa2024theblastpathogen pages 5-7)
Engineering demonstrates modularity, but not a new native function. A 2024 study replaced the Pikm-1 HMA with the HMA of OsHIPP43, creating Pikm-1^OsHIPP43. The purified OsHIPP43 domain, not wild-type Pikm-1, bound fungal Pwl2, Pwl2-2 and Pwl2-3 with measured dissociation constants of 191, 141 and 35 nM, respectively. The synthetic sensor elicited Pwl-dependent cell death with Pikp-2 in N. benthamiana. With Pikm-2 it instead caused effector-independent autoactivity; the reported assay does not establish blast resistance by that chimera in rice fields. Zdrzałek and colleagues, PNAS, 5 July 2024, doi:10.1073/pnas.2402872121. (zdrzałek2024bioengineeringaplant pages 2-3)
A complementary 2023 engineering study obtained rice resistance to previously escaping AVR-PikC/F strains, but its engineered sensor was Pikp-1, paired with Pikp-2—not native Pikm-1. Separately, reported Pikm-1–nanobody “Pikobody” constructs with Pikm-2 recognized fluorescent protein targets and protected N. benthamiana against fluorescent-protein-bearing potato virus X; this is a synthetic application, not evidence that natural PIKM1-TS recognizes viral proteins. Maidment and colleagues, eLife, May 2023, doi:10.7554/eLife.81123; Wang, Wang and Ning, aBIOTECH, August 2023, doi:10.1007/s42994-023-00111-x. (maidment2023effectortargetguidedengineering pages 14-16, maidment2023effectortargetguidedengineering pages 13-14, wang2023harnessingnanobodiesto pages 1-3, wang2023harnessingnanobodiesto pages 3-5)
Pikm is used as a resistance locus in marker-assisted rice breeding, which necessarily involves preserving a functional sensor–helper combination rather than treating PIKM1-TS alone as sufficient. In one study spanning four breeding backgrounds, investigators developed 31 single-gene-derived and 20 two-gene-combination lines using nine resistance genes; Pikm improved blast resistance in some, not all, backgrounds. The Tsuyuake donor itself varied between years and disease sites: under the study’s 2014–2016 natural-infection conditions its leaf-blast scores were 4.40, 2.67 and 4.08, while reported neck-blast infection was 98.85%, 100% and 100%. These are trial-specific phenotypes, not a universal efficacy estimate for B5UBC1. Jiang and colleagues, Rice, May 2019, doi:10.1186/s12284-019-0292-z. (jiang2019developmentandevaluation pages 5-6, jiang2019developmentandevaluation pages 1-2)
Conclusion. The highest-confidence annotation for PIKM1-TS/B5UBC1 is HMA-integrated intracellular sensor NLR for effector-triggered rice blast resistance, directly binding selected AVR-Pik variants and AVR-Mgk1 and requiring its paired Pikm-2 helper for resistance. Exact localization in native rice cells, a Pikm-specific activated-complex structure, and any independent catalytic or metal-handling role remain unresolved; numerical affinities measured for other HMA proteins must not be assigned to native Pikm-1. (concepcion2018polymorphicresiduesin pages 5-7, shikari2019towardstheunderstanding pages 6-7, sugihara2023disentanglingthecomplexa pages 13-15, stone2025interactionsofblast pages 111-115, oikawa2024theblastpathogen pages 2-3)
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