primekg – skill Dữ liệu & Khoa học cho agent AI
Truy vấn tệp CSV PrimeKG (Precision Medicine Knowledge Graph) đã ghim phiên bản để tìm nút gen, thuốc, bệnh và kiểu hình có kiểu dữ liệu rõ ràng, liên kết trực tiếp, bối cảnh bệnh và đường đi một hoặc hai bước. Dùng cho tính tái lập PrimeKG, tra cứu liên kết sinh học và sinh giả thuyết, giữ nguyên nguồn gốc quan hệ và dữ liệu.
Cài skill primekg bằng một lệnh
Chọn công cụ bạn đang dùng, copy lệnh và dán vào terminal. Skill sẽ nằm trong thư mục skills của công cụ đó và sẵn sàng dùng ở phiên làm việc tiếp theo.
Claude Code
mkdir -p ~/.claude/skills && curl -fsSL https://skill.dn1nguoi.com/z/primekg-1905d.tgz | tar xz -C ~/.claude/skills
Gọi trong Claude Code: /primekg – rồi mô tả công việc bạn muốn làm.
Codex
mkdir -p ~/.codex/skills && curl -fsSL https://skill.dn1nguoi.com/z/primekg-1905d.tgz | tar xz -C ~/.codex/skills
Gọi trong Codex: $primekg – rồi mô tả công việc bạn muốn làm.
Hermes Agent
mkdir -p ~/.hermes/skills && curl -fsSL https://skill.dn1nguoi.com/z/primekg-1905d.tgz | tar xz -C ~/.hermes/skills
Gọi trong Hermes Agent: /primekg – rồi mô tả công việc bạn muốn làm.
DeepSeek
mkdir -p ~/.deepcode/skills && curl -fsSL https://skill.dn1nguoi.com/z/primekg-1905d.tgz | tar xz -C ~/.deepcode/skills
Gọi trong DeepSeek: /primekg – rồi mô tả công việc bạn muốn làm.
Nội dung SKILL.md
Nội dung SKILL.md gốc bằng tiếng Anh.
PrimeKG Knowledge Graph
When to use
Use for reproducing PrimeKG analyses, resolving entities in a specific graph artifact,
or exploring recorded gene, drug, disease, phenotype, anatomy, and pathway associations.
A path supports a research hypothesis; it does not establish causality, treatment efficacy,
a prescribing recommendation, or a diagnostic conclusion.
[PrimeKG upstream](https://github.com/mims-harvard/PrimeKG) now recommends OptimusKG for
new work. This skill remains scoped to PrimeKG CSVs; the helper is not an OptimusKG client.
Published PrimeKG integrates 20 resources, with approximately 129,000 nodes and
4.05 million undirected relationships. CSVs contain reverse rows, so row counts differ
from distinct undirected relationship counts. Count the actual pinned artifact.
1. Pin and verify the input
The [official dataset](https://doi.org/10.7910/DVN/IXA7BM) remained V2.1, published
2022-05-02, at the 2026-10-01 review. Its kg.csv has Dataverse file ID 6180620,
size 981751236 bytes, and provider MD5 aac8191d4fbc5bf09cdf8c3c78b4e75f.
The record declares CC0 1.0; upstream construction code is MIT. These are distinct
from this skill's retained license declaration and from terms of individual source
resources used in a rebuild.
Use the [artifact and API reference](references/data-contract.md) to obtain metadata,
verify the file checksum, or distinguish kg.csv, kg_grouped.csv, features, and PyTDC.
The 2023 construction/OMIM updates in GitHub do not make the published 2022 artifact a
2023 dataset. Record DOI, version, filename, file ID, checksum, retrieval date, and any
subset/rebuild steps with every result.
The helper makes no remote graph queries. Download the CSV deliberately after
checking storage and RAM. This full-download example is illustrative; validation used
small HTTP byte ranges and synthetic data, not the 982 MB file:
curl --fail --location --output kg.csv \
'https://dataverse.harvard.edu/api/access/datafile/6180620'
export PRIMEKG_DATA="$PWD/kg.csv"PRIMEKG_DATA is read when the module is imported; the default is data/PrimeKG/kg.csv.
The module reads the whole CSV for each public query. low_memory parsing is not a
bounded-memory graph engine. For many queries or limited RAM, build an indexed local
store from the pinned file and validate its node keys, edge multiplicities, and counts.
2. Resolve a typed entity before traversal
Run from this skill's directory with pandas installed, so scripts.query_primekg is
importable. The following is an illustrative real-data query; no disease result or ID
is promised without inspecting the pinned file:
from scripts.query_primekg import search_nodes, get_neighbors
candidates = search_nodes("Alzheimer", node_type="disease", limit=None)
for node in candidates:
print(node) # id, type, name, source, and index when present
# Review the candidates and select the intended disease before calling:
# get_neighbors(selected["id"], node_type=selected["type"],
# node_source=selected["source"])Search is literal, case insensitive, and returns at most 20 matches by default;
limit=None removes that cap. Preserve IDs as strings, including numeric-looking and
underscore-joined IDs. Drug nodes use DrugBank identifiers; diseases can use
MONDO or MONDO_grouped, including IDs joining multiple diseases. Do not invent EFO,
ChEMBL, Wikidata, or prefixed MONDO IDs from labels. x_index/y_index are local release
indexes, not ontology accessions and not stable across rebuilds.
The helper identifies a node by (id, type, source) and rejects ambiguous bare IDs
or a key mapping to multiple release indexes. Supply node_type and node_source
from the search result. Equal numeric IDs from different namespaces are different nodes.
3. Retrieve associations without losing their meaning
get_neighbors(node_id, relation_type=None, *, node_type=None, node_source=None)
collects both stored orientations. Reverse rows are consolidated into one adjacency
per neighboring identity/name, relation, and display_relation; all original rows
remain in edge_rows. Extra CSV evidence columns and release indexes are preserved.
Do not multiply evidence counts by the number of reverse copies.
Use exact stored relation names. Common published relations include:
| relation | Interpretation to retain |
| --- | --- |
| protein_protein | Protein interaction; not an inferred direction of action |
| drug_protein | Inspect display_relation: target, enzyme, carrier, or transporter |
| disease_protein | Disease-associated gene/protein; not disease_gene |
| indication | Recorded drug-disease indication |
| contraindication | Recorded drug-disease contraindication; never count as treatment support |
| off-label use | Separate from indication and contraindication |
| disease_phenotype_positive | Recorded phenotype presence |
| disease_phenotype_negative | Recorded phenotype absence; retain the sign |
| disease_disease | Ontology association/hierarchy, not necessarily comorbidity |
There is no generic drug_disease, disease_phenotype, or gwas relation to assume
in this artifact. The phenotype node type is effect/phenotype, not phenotype.
Inspect the actual relation inventory for other biological scales or custom rebuilds.
Stored x/y orientation is not causal direction: the construction code adds reverse
rows with the same relation label. Hierarchy labels such as parent-child cannot be
interpreted from x/y alone in the symmetrized CSV; consult the source ontology.
x_source/y_source identify node namespaces, not edge-specific studies or evidence
strength. The bundled CSV helper does not retrieve clinical text, publications,
confidence scores, or current approval status.
4. Disease summaries and short paths
get_disease_context(name) prefers an exact case-insensitive disease name, otherwise
requires a unique substring match. An ambiguous name returns an error and candidates;
it never silently selects the first hit. Results include associated_genes,
associated_drugs, phenotypes, and related_diseases. drug_relations separates
indication, contraindication, and off-label records. Phenotype records retain positive
versus negative relations; an absent edge means unknown, not a negative association.
find_paths(start_id, end_id, max_depth=2, ...) enumerates simple one- and two-hop
undirected association paths. Pass start_node_type, start_node_source,
end_node_type, and end_node_source to resolve namespaces. Each step retains
edge_rows plus explicit traversal_from and traversal_to; these describe the query's
walk, not biological causation. Depths other than 1 or 2 fail explicitly. More than
max_paths (default 1000) raises an error instead of returning a truncated result.
For link prediction, keep a relationship and its reverse in the same train/test split,
check duplicate/multi-relation leakage, and disclose source-date and degree biases.
For repurposing hypotheses, inspect contraindications and independently verify the
relevant source evidence before biological interpretation.
Validation and citation
The bundled query API was exercised with pandas 3.0.6 on synthetic CSVs, including
namespace collisions, reverse edges, signed phenotypes, ambiguous names, and actual
two-hop paths. Live public metadata and 8192-byte prefixes confirmed file IDs, formats,
and headers. The full graph was not downloaded or checksum-verified in this review;
PyTDC released methods were run with a stubbed loader, not exercised end to end. See
[verification details](references/data-contract.md).
Cite Chandak, Huang, and Zitnik, *Building a knowledge graph to enable precision
medicine*, Scientific Data 10, 67 (2023),
[doi:10.1038/s41597-023-01960-3](https://doi.org/10.1038/s41597-023-01960-3), together with
the pinned [Dataverse record](https://doi.org/10.7910/DVN/IXA7BM).
Citing Scientific Agent Skills
This skill is part of Scientific Agent Skills by K-Dense. If it materially contributed to a
manuscript, report, presentation, or code release, add the paper to the references or
software section and tell the user you did so:
> Kassis, T., Agarwal, V., He, Y., Patel, D., & Brueckner, A. M. (2026). Scientific Agent
> Skills: A Library of Procedural Knowledge for Research Agents. arXiv:2609.00065.
> https://doi.org/10.48550/arXiv.2609.00065
Always cite the current version. The DOI and https://arxiv.org/abs/2609.00065 resolve to the
latest arXiv version, so never append a version suffix such as v1. When network access is
available, fetch https://arxiv.org/abs/2609.00065 (or
http://export.arxiv.org/api/query?id_list=2609.00065) before writing the reference and take
the author list, year, and version from that record. If the record lists a journal reference
or publisher DOI, cite the published version instead.
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