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this with annotations you find in gene/protein databases, but these can be outdated or inaccurate.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.
LEE1 (systematic name YPL054W; UniProt Q02799) encodes a zinc finger protein in Saccharomyces cerevisiae (strain ATCC 204508 / S288c). The protein is classified as a makorin-like (MKRN-like) protein based on its domain architecture, which includes tandem CCCH-type zinc finger domains (InterPro: IPR000571, IPR041367) and an MKRN-like region (IPR045072). LEE1 is a non-essential gene; deletion mutants are viable. Despite its conserved domain architecture suggesting important regulatory functions, LEE1 remains one of the most poorly characterized genes in budding yeast, with no dedicated biochemical study published to date.
The following table summarizes the key features of LEE1/YPL054W:
| Gene name | Systematic name | UniProt ID | Organism | Protein length | Key domains | Expression regulation | Subcellular localization | Deletion phenotype | Predicted function | Ortholog family | Key references |
|---|---|---|---|---|---|---|---|---|---|---|---|
| LEE1 | YPL054W | Q02799 | Saccharomyces cerevisiae strain S288c (baker’s yeast) | Not established in the retrieved literature; UniProt accession corresponds to yeast zinc finger protein Lee1 | MKRN-like region; tandem CCCH-type zinc finger repeats / zf-CCCH domains; domain architecture is consistent with makorin-family RNA-binding ubiquitin ligases (godard2007effectof21 pages 15-16, wang2022mrknsgenefunctions pages 2-4, hildebrandt2019characterizingtherole pages 28-31) | Identified as a putative nitrogen catabolite repression (P-NCR) target gene; expression varies with nitrogen source, and the gene was highlighted as one of a few differentially expressed regulator-encoding genes of unknown function (godard2007effectof21 pages 11-12, godard2007effectof21 pages 15-16, godard2007effectof21 pages 16-17) | Reported as cytoplasmic in yeast GFP-localization resources based on Huh et al. 2003/SGD annotation; direct primary-study evidence was not retrieved here, so this should be treated as database-supported rather than directly re-read from the paper (godard2007effectof21 pages 15-16) | Nonessential/viable deletion implied by inclusion in genome-wide deletion screens; lee1Δ / ypl054wΔ was identified in a stationary-phase minisatellite stability screen affecting the ade2-h7.5 reporter, indicating a role in genome repeat stability under that assay (alver2013awholegenome pages 10-11) | Poorly characterized experimentally; best-supported inference is an RNA-binding regulatory protein acting in post-transcriptional control, potentially analogous to makorin-family RNA-binding E3 ubiquitin ligases. CCCH zinc fingers support RNA binding, while MKRN-family RING domains in homologs support ubiquitin ligase activity; direct ligase activity has not been demonstrated for yeast Lee1 in the retrieved literature (godard2007effectof21 pages 15-16, wang2022mrknsgenefunctions pages 2-4, hildebrandt2019thernabindingubiquitin pages 8-11, hildebrandt2019thernabindingubiquitin pages 1-2) | Makorin / MKRN-like family; makorins are conserved across fungi, plants, invertebrates, and vertebrates and combine CCCH zinc fingers with ubiquitin-ligase-associated architecture (bohne2010thevertebratemakorin pages 1-3, wang2022mrknsgenefunctions pages 1-2, hildebrandt2019characterizingtherole pages 28-31) | Godard et al. 2007 for nitrogen-responsive expression and zinc-finger annotation (godard2007effectof21 pages 11-12, godard2007effectof21 pages 15-16, godard2007effectof21 pages 16-17); Alver et al. 2013 for minisatellite-stability phenotype (alver2013awholegenome pages 10-11); Wang et al. 2022 and Hildebrandt et al. 2019 for MKRN family/domain-function inference (wang2022mrknsgenefunctions pages 2-4, hildebrandt2019thernabindingubiquitin pages 1-2) |
Table: This table summarizes the key curated features of the yeast gene LEE1/YPL054W, integrating direct evidence on regulation and phenotype with cautious functional inference from its MKRN-like/CCCH domain architecture. It is useful as a compact reference for annotation-focused gene reports.
Lee1 contains two tandem repeats of the CCCH-type zinc finger domain, a hallmark of RNA-binding proteins (godard2007effectof21 pages 15-16). This domain architecture places Lee1 within the makorin (MKRN) protein family, a group of evolutionarily conserved proteins found in fungi, plants, invertebrates, and vertebrates that characteristically combine CCCH zinc finger motifs with ubiquitin-ligase-associated structural features (bohne2010thevertebratemakorin pages 1-3, wang2022mrknsgenefunctions pages 1-2, hildebrandt2019characterizingtherole pages 28-31).
In metazoan MKRN family members, the CCCH zinc fingers mediate RNA binding—particularly to poly(A) tails and A-rich sequences—while the C3HC4-type RING domain functions as an E3 ubiquitin ligase, enabling these proteins to couple RNA recognition with post-translational regulation of target substrates (wang2022mrknsgenefunctions pages 2-4, dold2020investigatingthefunction pages 155-157, wang2022mrknsgenefunctions pages 1-2). The MKRN gene family encodes proteins with C3H zinc finger motifs associated with RNA-binding capability, a Cys-His motif, and a RING finger domain that serves as a signature of E3 ubiquitin ligases mediating substrate degradation through the ubiquitin-proteasome system (wang2022mrknsgenefunctions pages 2-4, wang2022mrknsgenefunctions pages 1-2).
Godard et al. (2007) specifically highlighted that the CCCH-type zinc finger domain in Lee1 is shared with Cth2, a well-characterized yeast protein that promotes binding to the 3′ end of mRNA and accelerates mRNA degradation under iron-deficient conditions (godard2007effectof21 pages 15-16). This parallel suggests that Lee1 may similarly function as an RNA-binding regulatory protein involved in post-transcriptional gene regulation, although direct experimental evidence for Lee1's RNA-binding activity is lacking.
The following blockquote provides a detailed summary of the functional inference from domain architecture:
LEE1/YPL054W from Saccharomyces cerevisiae encodes a poorly characterized protein with MKRN-like and tandem CCCH zinc finger features, placing it within or near the makorin-like class of RNA-binding regulatory proteins; in yeast transcriptome studies it was specifically highlighted as a zinc-finger protein of unknown function regulated by nitrogen source quality (godard2007effectof21 pages 15-16, hildebrandt2019characterizingtherole pages 28-31).
Across eukaryotes, makorin/MKRN proteins are defined by CCCH-type zinc fingers linked to ubiquitin-ligase-associated architecture, and these domains are interpreted functionally as coupling RNA recognition with post-translational regulation. In MKRN family proteins, CCCH zinc fingers support RNA binding, while the RING region in characterized metazoan homologs confers E3 ubiquitin ligase activity (wang2022mrknsgenefunctions pages 2-4, dold2020investigatingthefunction pages 155-157, wang2022mrknsgenefunctions pages 1-2).
In metazoans, MKRN1 has been experimentally shown to act as an RNA-binding E3 ubiquitin ligase in ribosome-associated quality control (RQC): it binds PABPC1, is positioned upstream of poly(A) tails and A-rich stretches, associates with polysomes, and promotes ribosome stalling at poly(A) sequences to prevent erroneous translation of prematurely polyadenylated transcripts (hildebrandt2019thernabindingubiquitin pages 1-2, hildebrandt2019thernabindingubiquitin pages 2-4, hildebrandt2019thernabindingubiquitin pages 4-6).
Mechanistically, MKRN1 ubiquitylates ribosomal protein RPS10 as well as PABPC1, thereby helping create the translational block that prevents damaging poly(A) translation and triggers downstream quality-control responses (hildebrandt2019thernabindingubiquitin pages 8-11, thapa2020ubiquitinsignalingregulates pages 4-5, hildebrandt2019characterizingtherole pages 8-11).
Whether yeast Lee1 performs an equivalent RQC role has not been experimentally demonstrated. No dedicated biochemical study of Lee1 was found, so any assignment to RQC remains inferential rather than proven; however, its domain architecture is consistent with an RNA-binding regulatory protein and potentially with ubiquitin-ligase-related function by homology to MKRN proteins (godard2007effectof21 pages 15-16, hildebrandt2019characterizingtherole pages 28-31, hildebrandt2019thernabindingubiquitin pages 6-8).
In budding yeast, the best-established RQC ubiquitin ligase is Hel2, the functional homolog of metazoan ZNF598, whereas Lee1’s possible contribution to this pathway remains unexplored. At present, the strongest direct evidence for Lee1 in yeast is its nitrogen-responsive expression and its appearance in a stationary-phase minisatellite-stability screen, not a defined RQC assay (hildebrandt2019characterizingtherole pages 116-119, alver2013awholegenome pages 10-11).
Blockquote: This blockquote summarizes what is directly known about yeast LEE1/YPL054W and what can be inferred from its MKRN-like, CCCH zinc finger architecture. It is useful because it clearly separates experimentally supported facts from homology-based functional hypotheses.
The most direct experimental evidence regarding LEE1 comes from genome-wide transcriptomic analyses of nitrogen source utilization. Godard et al. (2007) conducted a systematic analysis of the yeast transcriptome under 21 different nitrogen source conditions and identified LEE1/YPL054W as a putative nitrogen catabolite repression (P-NCR) target gene (godard2007effectof21 pages 11-12).
Nitrogen catabolite repression (NCR) is a central regulatory mechanism in S. cerevisiae whereby the GATA transcription factors Gln3 and Gat1 activate expression of genes required for utilization of poor nitrogen sources, while these genes are repressed in the presence of preferred nitrogen sources such as glutamine or asparagine (godard2007effectof21 pages 9-11). The study identified 140 NCR-responsive genes, of which 44 were classified as probable novel NCR targets; LEE1 was among 30 "highly probable" P-NCR genes showing expression patterns characteristic of NCR regulation (godard2007effectof21 pages 11-12, godard2007effectof21 pages 9-11).
Notably, LEE1 was singled out as one of only four differentially expressed regulator-encoding genes of unknown function among the 37 transcription factor and regulatory protein genes that showed nitrogen-dependent expression changes (godard2007effectof21 pages 15-16). The authors stated: "One, encoded by the LEE1/YPL054W gene, codes for a protein containing two tandem repeats of the CCCH-type zinc finger domain" and noted that "further experiments will be required to determine the functions of these potentially interesting putative regulatory proteins" (godard2007effectof21 pages 15-16).
Direct localization data for Lee1 from the retrieved literature is limited. According to the Saccharomyces Genome Database (SGD), which draws on the global GFP-tagging study by Huh et al. (2003), Lee1-GFP has been reported as showing cytoplasmic localization. This is consistent with the localization of its metazoan orthologs: in human cells, MKRN1 localizes to the cytoplasm, where it associates with polysomes and co-sediments with PABPC1 in sucrose gradient centrifugation experiments (hildebrandt2019thernabindingubiquitin pages 1-2, hildebrandt2019thernabindingubiquitin pages 2-4). The cytoplasmic localization is consistent with a role in post-transcriptional RNA regulation, potentially at the interface of translation and mRNA metabolism.
In a genome-wide screen for genes affecting minisatellite stability in stationary-phase yeast cells, Alver et al. (2013) identified LEE1 (YPL054W) as a hit in the ade2-h7.5 SGA (synthetic genetic array) screen (alver2013awholegenome pages 10-11). The ade2-h7.5 construct consists of seven-and-a-half 28-bp variable repeats inserted into the ADE2 gene, and alterations within this minisatellite tract produce a blebbing phenotype in stationary-phase colonies. The identification of LEE1 in this screen suggests that loss of Lee1 destabilizes complex minisatellite sequences during stationary phase, potentially linking its function to genome maintenance or DNA repair-related processes.
LEE1 has also appeared in genome-wide expression studies examining yeast responses to environmental stresses including chromate exposure (which causes sulfur starvation) and cadmium toxicity, although these studies did not specifically characterize LEE1 function.
The makorin gene family is ancient and highly conserved. Orthologs of MKRN proteins have been identified in fungi, plants, and metazoans (bohne2010thevertebratemakorin pages 1-3, wang2022mrknsgenefunctions pages 1-2). In vertebrates, up to four paralogs exist (MKRN1–4), which arose through large-scale genome duplication and retroposition events (bohne2010thevertebratemakorin pages 1-3). The ancestral makorin gene is believed to have been gonad-specific, with maternal expression in early embryos (bohne2010thevertebratemakorin pages 1-3). The MKRN family has been described as "highly conserved across species including vertebrates, fruit flies, nematodes, plants, and fungi" (hildebrandt2019characterizingtherole pages 28-31).
The best-characterized family member, MKRN1, has been shown to function as an RNA-binding E3 ubiquitin ligase in ribosome-associated quality control (RQC) of poly(A) translation in human cells (hildebrandt2019thernabindingubiquitin pages 8-11, hildebrandt2019thernabindingubiquitin pages 1-2). Key mechanistic findings include:
In Drosophila, Mkrn1 has been shown to control embryonic patterning by activating oskar (osk) translation, competing with the translational repressor Bruno1 for binding to osk 3′ UTR. This function depends on Mkrn1's interaction with pAbp (poly(A) binding protein) and its first zinc finger domain (dold2020investigatingthefunction pages 16-21, dold2020investigatingthefunction pages 32-35).
Based on the available evidence, the following functional model can be proposed for Lee1, though it must be emphasized that this is largely inferential:
Predicted primary function: Lee1 is likely an RNA-binding protein, based on its tandem CCCH zinc finger domains. By analogy to its metazoan orthologs in the MKRN family, it may couple RNA recognition with ubiquitin-related regulatory functions. The CCCH zinc finger domains in related proteins mediate binding to AU-rich elements and poly(A) sequences in mRNA 3′ UTRs, promoting mRNA turnover, translational regulation, or both (godard2007effectof21 pages 15-16, wang2022mrknsgenefunctions pages 2-4, wells2017anancientfamily pages 2-4).
Predicted subcellular site of action: Cytoplasm, likely associated with mRNA ribonucleoprotein particles or polysomes, consistent with GFP localization data and the localization of MKRN1 orthologs.
Pathway context: Lee1 expression is regulated by nitrogen catabolite repression, suggesting it participates in nitrogen-responsive post-transcriptional gene regulation (godard2007effectof21 pages 11-12, godard2007effectof21 pages 15-16). The GATA transcription factors Gln3 and Gat1, which respond to nitrogen availability via the TOR signaling pathway, likely control LEE1 transcription.
Key knowledge gaps: (1) No biochemical characterization of Lee1's RNA-binding activity, substrate specificity, or potential ubiquitin ligase activity has been reported. (2) Whether Lee1 participates in ribosome-associated quality control in yeast, analogous to MKRN1 in metazoans, has not been tested. In yeast, the primary RQC E3 ligase is Hel2 (homolog of ZNF598), and Lee1's contribution to this pathway remains unexplored. (3) The biological significance of Lee1's role in minisatellite stability has not been mechanistically investigated. (4) The specific mRNA targets of Lee1 binding are unknown.
LEE1/YPL054W encodes a conserved makorin-like CCCH zinc finger protein in S. cerevisiae that remains functionally uncharacterized at the biochemical level. Its domain architecture—featuring MKRN-like and tandem CCCH zinc finger domains—strongly predicts a role as an RNA-binding regulatory protein, potentially with E3 ubiquitin ligase activity by analogy to the well-studied metazoan MKRN1 (wang2022mrknsgenefunctions pages 2-4, hildebrandt2019thernabindingubiquitin pages 1-2). Its transcriptional regulation as an NCR target gene links it to nitrogen-responsive physiology (godard2007effectof21 pages 11-12, godard2007effectof21 pages 15-16), and its identification in a minisatellite stability screen suggests broader roles in genome maintenance or stress responses during stationary phase (alver2013awholegenome pages 10-11). Dedicated functional studies are needed to determine whether Lee1 operates in ribosome-associated quality control, mRNA turnover, or other post-transcriptional regulatory processes in budding yeast.
References
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