AGENT SKILLBY NEO4J-CONTRIB
Reads: aura_client_id, aura_client_secret, aura_project_id (optional)
AT A GLANCE
Reads is an analytics skill for AI agents. Serverless Aura Graph Analytics (AGA) GDS Sessions — covers GdsSessions. The neo4j-contrib/neo4j-skills repository on GitHub, maintained by neo4j-contrib, has 102 stars and the MIT license. To add it, run npx skills add neo4j-contrib/neo4j-skills --skill neo4j-aura-graph-analytics-skill
- SOURCE REPOSITORY
- neo4j-contrib/neo4j-skills (opens GitHub in a new tab)
- REPO STARS
- SOURCE REPOSITORY
- LICENSE
- MIT
- CATEGORIES
- SKILL.MD SIZE
- 22.1 KB624 LINES
QUICK ANSWER
- WHAT IT IS01
- Serverless Aura Graph Analytics (AGA) GDS Sessions, covers GdsSessions. What sets it apart is how it narrows marketing analytics into one specific workflow rather than a broad, generic prompt.
- INPUTS02
- Context for marketing analytics: your goals, audience, constraints, and any source material the skill asks for.
- OUTPUT03
- A ready-to-use result for marketing analytics: the analysis, copy, or recommendations the agent produces.
INSTALL
One command adds this skill from its source repository.
npx skills add neo4j-contrib/neo4j-skills --skill neo4j-aura-graph-analytics-skillREAD THE SKILL.MD BELOW BEFORE YOU RUN IT. SKILLS INSTRUCT YOUR AGENT.
SKILL.MD
The full file, as published in the source repository. Copy it, download it or open it on GitHub.
ON THIS PAGE · 27
When to Use#
- Running GDS algorithms in Aura Graph Analytics GDS Sessions
- Creating
GdsSessionsor usingAuraGraphDataScience - Remote projecting connected Neo4j data with
gds.graph.project.remote(...) - Using AuraDB Cypher API projection with
{ memory: ... }or{ sessionId: ... } - Processing graph data from non-Neo4j sources (Pandas, Spark, CSV)
- On-demand / pipeline workloads — ephemeral sessions, pay per session-minute
- Full isolation from the live database during analytics
When NOT to Use#
- Aura Pro with embedded GDS plugin →
neo4j-gds-skill - Self-managed Neo4j with embedded GDS plugin →
neo4j-gds-skill - Writing Cypher queries →
neo4j-cypher-skill - Snowflake Graph Analytics →
neo4j-snowflake-graph-analytics-skill
Deployment Decision Table#
| Deployment | Use |
|---|---|
| AuraDB Free | this skill — max m_2GB, 1 concurrent session, unbilled |
| Aura Pro + Graph Analytics plugin enabled (lightweight exploration, shared resources) | neo4j-gds-skill |
| Aura Pro / Pro Trial + session (isolated compute) | this skill — up to 128 GB (Pro) / 8 GB (Pro Trial), 100 / 3 concurrent sessions |
| AuraDB + Python client sessions | this skill |
| AuraDB + Cypher API | this skill for AGA-specific projection/session notes; neo4j-cypher-skill for query authoring |
| Self-managed Neo4j + AGA session | this skill |
| Self-managed Neo4j + embedded plugin | neo4j-gds-skill |
| Non-Neo4j data (Pandas, Spark) | this skill (standalone mode) |
Defaults#
graphdatascience >= 1.15required;>= 1.18for Spark- Prefer v2 endpoints:
gds.v2.graph.project(...),gds.v2.page_rank.*,gds.v2.graph.node_properties.* - Use snake_case parameters end-to-end; never mix v2 with camelCase params
- Use v1 if v2 endpoint missing/incompatible; label fallback
- Call
gds.v2.verify_session_connectivity()after session creation - Connected sessions: call
gds.v2.verify_db_connectivity()when source DB access required - Estimate memory before large sessions
- Set TTL; default 1h idle, max 7d
- Close session when done:
gds.delete()orsessions.delete(name)stops billing - Use
AuraAPICredentials.from_env()— never hardcode credentials
Installation#
pip install "graphdatascience>=1.15,<2" # 1.22 is the current stable releasegraphdatascience 2.0 (alpha)#
2.0aN is pre-release — pin <2 for production. Rename map for when 2.0 ships:
| 1.x | 2.0 |
|---|---|
gds.v2.<endpoint> | gds.<endpoint> — gds.v2 prefix gone; untyped 1.x endpoints removed |
gds.graph.project(...) (AGA) | gds.graph.project.cypher(...) |
gds.graph.project_native(...) (AGA) | gds.graph.project.native(...) |
GraphV2 / ModelV2 | Graph / Model — from graphdatascience import Graph |
Graph.drop(failIfMissing=) / Model.drop(failIfMissing=) | fail_if_missing= |
run_cypher(..., retryable=) | removed — always retries |
ArrowEndpointVersion.from_arrow_info | check_version_compatibility |
ServerVersion, SemanticVersion from top level | graphdatascience.versions |
gds.graph.node_labels.mutate(write_concurrency=, job_id=) | parameters removed |
2.0 minimums: GDS server 2.13, neo4j driver 5.26, pandas 2.x–3.x, pyarrow 21–25, numpy <3.
2.0 additions: GdsSessions.estimate(algorithms=[...]) for per-algorithm memory; GdsSessions.get_or_create(show_progress=...); gds.pipeline.get; overwrite=True on gds.graph.project / generate / construct / filter / sample to drop a same-named graph first; GdsSessions.delete(session_id=...) returns False when nothing was deleted.
Key Patterns#
Step 1 — Authenticate#
import os
from graphdatascience.session import AuraAPICredentials, GdsSessions
sessions = GdsSessions(api_credentials=AuraAPICredentials.from_env())
# Reads: AURA_CLIENT_ID, AURA_CLIENT_SECRET, AURA_PROJECT_ID (optional)
# Create API credentials in Aura Console → Account → API credentialsIf member of multiple projects: set AURA_PROJECT_ID or pass project_id=.
Step 2 — Estimate Memory#
from graphdatascience.session import AlgorithmCategory, SessionMemory
memory = sessions.estimate(
node_count=1_000_000,
relationship_count=5_000_000,
algorithm_categories=[
AlgorithmCategory.CENTRALITY,
AlgorithmCategory.NODE_EMBEDDING,
AlgorithmCategory.COMMUNITY_DETECTION,
],
)
# Returns SessionMemory tier, e.g. SessionMemory.m_8GB
# Fixed tiers: m_2GB … m_512GB — see references/limitations.mdStep 3 — Create Session#
Mode A — AuraDB connected:
from graphdatascience.session import DbmsConnectionInfo, SessionMemory, CloudLocation
from datetime import timedelta
db_connection = DbmsConnectionInfo(
username=os.environ["NEO4J_USERNAME"],
password=os.environ["NEO4J_PASSWORD"],
aura_instance_id=os.environ["AURA_INSTANCEID"], # from Aura Console URL
)
gds = sessions.get_or_create(
session_name="my-analysis",
memory=memory,
db_connection=db_connection,
ttl=timedelta(hours=2),
)
gds.v2.verify_session_connectivity()
gds.v2.verify_db_connectivity()Mode B — Self-managed Neo4j:
db_connection = DbmsConnectionInfo(
uri=os.environ["NEO4J_URI"], # e.g. "bolt://my-server:7687"
username=os.environ["NEO4J_USERNAME"],
password=os.environ["NEO4J_PASSWORD"],
)
gds = sessions.get_or_create(
session_name="my-analysis-sm",
memory=SessionMemory.m_8GB,
db_connection=db_connection,
ttl=timedelta(hours=2),
cloud_location=CloudLocation("gcp", "europe-west1"),
)
gds.v2.verify_session_connectivity()
gds.v2.verify_db_connectivity()Mode C — Standalone (no Neo4j DB):
gds = sessions.get_or_create(
session_name="my-standalone",
memory=SessionMemory.m_4GB,
ttl=timedelta(hours=1),
cloud_location=CloudLocation("gcp", "europe-west1"),
)
gds.v2.verify_session_connectivity()get_or_create() is idempotent; reconnects to existing session by name.
Step 4 — Project Graph#
From connected Neo4j (remote projection):
query = """
CALL () {
MATCH (p:Person)
OPTIONAL MATCH (p)-[r:KNOWS]->(p2:Person)
RETURN p AS source, r AS rel, p2 AS target,
p {.age, .score} AS sourceNodeProperties,
p2 {.age, .score} AS targetNodeProperties
}
RETURN gds.graph.project.remote(source, target, {
sourceNodeLabels: labels(source),
targetNodeLabels: labels(target),
sourceNodeProperties: sourceNodeProperties,
targetNodeProperties: targetNodeProperties,
relationshipType: type(rel)
})
"""
G, result = gds.v2.graph.project(
graph_name="my-graph",
query=query,
undirected_relationship_types=["KNOWS"],
)
print(f"Projected {G.node_count()} nodes, {G.relationship_count()} relationships")CALL () { ... } required for multi-pattern MATCH. Use UNION inside CALL for multiple labels/rel types.
Remote query uses gds.graph.project.remote(...); pass graph name to gds.v2.graph.project(...), not query.
V1 fallback: gds.graph.project(graph_name="my-graph", query=query, undirected_relationship_types=["KNOWS"]).
Native remote projection (no Cypher query) [graphdatascience 1.22] — gds.v2.graph.project_native(...) projects from the attached DB by label/type filter:
G, result = gds.v2.graph.project_native(
"my-graph",
["Person"], # node_label_filter
["KNOWS"], # relationship_type_filter
node_properties=["age", "score"],
undirected_relationship_types=["KNOWS"],
)Attached sessions only. Use project_native for label/type-filtered projections; use project(query=...) for transformations, computed properties, or UNION heterogeneous patterns.
AuraDB Cypher API projection:
CYPHER runtime=parallel
MATCH (source)
OPTIONAL MATCH (source)-->(target)
RETURN gds.graph.project(
'my-graph',
source,
target,
{},
{ memory: '2GB' }
)Existing explicit session:
CYPHER runtime=parallel
MATCH (source)
OPTIONAL MATCH (source)-->(target)
RETURN gds.graph.project(
'my-graph',
source,
target,
{},
{ sessionId: '00000000-11111111' }
)Cypher API uses gds.graph.project(...), not gds.graph.project.remote(...). Put memory, ttl, sessionId, batchSize in fifth config argument.
Session management via Cypher API:
CALL gds.session.getOrCreate('test-session', '2GB', duration({minutes: 30}))
YIELD id, name, status
RETURN id, name, status
CALL gds.session.list()
YIELD id, name, status, memory
RETURN id, name, status, memoryImplicit Cypher API sessions delete when all projected graphs in session are dropped.
From Pandas DataFrames (standalone mode):
import pandas as pd
nodes_df = pd.DataFrame([
{"nodeId": 0, "labels": "Person", "age": 30},
{"nodeId": 1, "labels": "Person", "age": 25},
])
rels_df = pd.DataFrame([
{"sourceNodeId": 0, "targetNodeId": 1, "relationshipType": "KNOWS"},
])
G = gds.v2.graph.construct("my-graph", nodes_df, rels_df)
# Multiple DataFrames: gds.v2.graph.construct("g", [nodes1, nodes2], [rels1, rels2])Required columns — nodes: nodeId (int), labels (str). Relationships: sourceNodeId, targetNodeId, relationshipType. Drop string node properties before construct().
Step 5 — Run Algorithms#
# Mutate — chain results without writing to DB
gds.v2.page_rank.mutate(G, mutate_property="pagerank", damping_factor=0.85)
gds.v2.fast_rp.mutate(G,
mutate_property="embedding",
embedding_dimension=128,
feature_properties=["pagerank"],
random_seed=42,
)
# Stream — inspect results as DataFrame
df = gds.v2.page_rank.stream(G)
print(df.sort_values("score", ascending=False).head(10))
# Write — persist to connected Neo4j DB (connected modes only)
gds.v2.louvain.write(G, write_property="community")V1 fallback: gds.pageRank.mutate(..., mutateProperty="pagerank"). Plugin algorithm reference → neo4j-gds-skill; AGA limitations differ.
ML pipelines in sessions [graphdatascience 1.22]: use gds.v2.pipeline.node_classification, gds.v2.pipeline.link_prediction, gds.v2.pipeline.node_regression. gds.pipeline.* emits a deprecation warning inside a GDS Session — use gds.v2.pipeline.*.
Step 6 — Async Job Polling#
Long-running algorithms may return job handle. Poll until done:
import time
job = gds.v2.page_rank.mutate(G, mutate_property="pagerank")
# If job object returned (async mode), poll explicitly:
if hasattr(job, "status"):
while job.status() not in ("RUNNING_DONE", "FAILED", "CANCELLED"):
time.sleep(5)
print(f"Job status: {job.status()}")
if job.status() != "RUNNING_DONE":
raise RuntimeError(f"Algorithm job failed: {job.status()}")Large graphs: check .status() before reading results.
Non-blocking API [graphdatascience 1.22]: *_async projection variants (e.g. gds.v2.graph.project_native_async) return a ProjectionJobHandle; compute() returns a JobHandle, write-back returns a WriteJobHandle. Handle methods: .job_id(), .status(), .done(), .wait(), .result(wait=False). List/recover jobs:
gds.v2.jobs.list() # JobInfo per job: job_id, name
handle = gds.v2.jobs.get(G, job_id) # concrete handle type for the jobStep 7 — Retrieve Results#
# Stream node properties
result_df = gds.v2.graph.node_properties.stream(
G,
node_properties=["pagerank", "embedding"],
db_node_properties=["name"], # connected modes only
)
result_df.head(10)Standalone mode: no db_node_properties; join source DataFrame:
result_df = gds.v2.graph.node_properties.stream(G, ["pagerank"])
result_df.merge(nodes_df[["nodeId", "name"]], how="left")Step 8 — Write Back and Clean Up#
# Write node properties to connected Neo4j
gds.v2.graph.node_properties.write(G, ["pagerank", "embedding"])
# Write relationship properties
gds.v2.graph.relationships.write(G, "SIMILAR", ["score"])
# Query connected DB from session
gds.run_cypher("MATCH (n:Person) RETURN count(n)")
# Drop projected graph
gds.v2.graph.drop(G)
# Delete session
sessions.delete(session_name="my-analysis")
# or: gds.delete()Write before delete; unwritten results lost when session closes.
Session Management#
# List active sessions
from pandas import DataFrame
DataFrame(sessions.list())
# Reconnect to existing session
gds = sessions.get_or_create(session_name="my-analysis", memory=..., db_connection=...)Common Errors#
| Error | Cause | Fix |
|---|---|---|
AuthenticationError / 401 | Wrong CLIENT_ID/CLIENT_SECRET | Regenerate in Aura Console → Account → API credentials |
SessionNotFoundError | Session expired (TTL exceeded) or name typo | sessions.list() to check; recreate session |
GraphNotFoundError | Projection dropped or session reconnected without re-projecting | Re-run gds.v2.graph.project() or gds.v2.graph.construct() |
Algorithm job FAILED | Memory limit exceeded or unsupported algorithm | Increase SessionMemory; check topological link prediction not used |
MemoryEstimationExceeded | Graph larger than estimated | Re-estimate with actual counts; pick next tier up |
| Results empty after session reconnect | Results not written before session was closed | Always write/stream before gds.delete() |
String node properties not supported | String column in nodes DataFrame | Drop string columns before gds.v2.graph.construct() |
AGA not enabled for project | AGA feature not activated | Enable in Aura Console → project settings |
References#
Load on demand:
- references/workflows.md (opens in a new tab) — full AuraDB and standalone workflow examples, Spark integration
- references/limitations.md (opens in a new tab) — AGA vs embedded GDS feature table, SessionMemory tiers, cloud locations
WebFetch#
| Need | URL |
|---|---|
| AGA Python client docs | https://neo4j.com/docs/graph-data-science-client/current/aura-graph-analytics/ |
| AGA Cypher API docs | https://neo4j.com/docs/graph-data-science/current/aura-graph-analytics/cypher/ |
| Python client v2 docs | https://neo4j.com/docs/graph-data-science-client/current/v2_endpoints/ |
| AuraDB tutorial notebook | https://github.com/neo4j/graph-data-science-client/blob/main/examples/graph-analytics-serverless.ipynb |
| GDS algorithm reference | https://neo4j.com/docs/graph-data-science/current/algorithms/ |
Checklist#
- Aura API credentials created and set in environment (
AURA_CLIENT_ID,AURA_CLIENT_SECRET) - AGA feature enabled for Aura project (Aura Console → project settings)
- Memory estimated before session creation (
sessions.estimate(...)) - Cloud location chosen near data source
-
gds.v2.verify_session_connectivity()called after session creation - Connected sessions call
gds.v2.verify_db_connectivity()when source DB access required - Remote projection uses
gds.v2.graph.project(..., query)withgds.graph.project.remote(...)inside query - Remote projection graph name passed to endpoint, not remote function
- AuraDB Cypher API projection uses fifth config map for
memoryorsessionId - Explicit Cypher API sessions use
gds.session.getOrCreate(...); implicit sessions dropped with projected graph - TTL set to avoid unexpected costs on idle sessions
- Async algorithm jobs polled until
RUNNING_DONEbefore reading results - Results written back (connected modes) or streamed and persisted (standalone) before deletion
- Session deleted when done (
sessions.delete(...)orgds.delete())
Supporting file: README.md#
neo4j-aura-graph-analytics-skill#
Guides agents through Aura Graph Analytics (AGA) — Neo4j's serverless, on-demand GDS compute environment. Algorithms run in isolated ephemeral sessions billed per minute; no embedded GDS plugin required.
What this skill covers#
- Authentication with Aura API credentials (
GdsSessions,AuraAPICredentials.from_env()) - Memory estimation and
SessionMemorytier selection - Session creation, reconnection, listing, and deletion (
get_or_create, TTL) - Three data source modes: AuraDB-connected, self-managed Neo4j, standalone (Pandas/Spark)
- Remote graph projection (
gds.v2.graph.project(..., query)withgds.graph.project.remote()) - Python client v2 endpoint shape (
gds.v2.*) without mixing camelCase/snake_case; v1 fallback when needed - AuraDB Cypher API projection with
memoryorsessionId - Standalone graph construction from DataFrames (
gds.v2.graph.construct()) - Algorithm execution: mutate / stream / write modes
- Async job polling pattern
- Result retrieval (
gds.v2.graph.node_properties.stream(),db_node_properties) - Write-back to connected Neo4j; cleanup before session deletion
- Common errors and mitigations (session expired, graph not projected, memory exceeded)
Compatibility#
graphdatascience >= 1.15, < 2 · AuraDB Free, Professional, Business Critical, and VDC tiers · Python >= 3.8
Not covered#
- Embedded GDS plugin (Aura Pro, self-managed Neo4j) →
neo4j-gds-skill - Cypher query authoring →
neo4j-cypher-skill - Snowflake Graph Analytics →
neo4j-snowflake-graph-analytics-skill
Install#
npx skills add https://github.com/neo4j-contrib/neo4j-skills --skill neo4j-aura-graph-analytics-skillSupporting file: references/limitations.md#
AGA vs Embedded GDS — Feature Comparison#
| Feature | AGA (serverless) | GDS plugin (embedded) |
|---|---|---|
| Topological link prediction | ❌ Not supported | ✅ |
| ML model persistence across sessions | ❌ Session-local only | ✅ Persistent in model catalog |
Cypher API (CALL gds.*) | ✅ AuraDB attached sessions only; limited vs plugin | ✅ |
| Non-Neo4j data sources | ✅ Pandas, Spark, Arrow | ❌ |
| Aura BC / VDC | ✅ | ❌ |
| Aura Pro | ❌ | ✅ |
| AuraDB Free | ✅ max m_2GB, 1 concurrent session, unbilled | ❌ |
| Billing | Per session-minute (Free and Pro Trial unbilled) | Included in AuraDB |
| DB performance isolation | ✅ Full isolation | ❌ Shares DB resources |
SessionMemory Tiers#
m_2GB, m_4GB, m_8GB, m_16GB, m_24GB, m_32GB, m_48GB, m_64GB, m_96GB, m_128GB, m_192GB, m_256GB, m_384GB, m_512GB — SessionMemory.all_values() lists them
Caps per AuraDB tier:
| AuraDB tier | Max session memory | Max concurrent sessions |
|---|---|---|
| Free | 2 GB | 1 |
| Pro Trial | 8 GB | 3 |
| Professional / Business Critical | 128 GB | 100 |
| Virtual Dedicated Cloud | 512 GB | 100 |
AlgorithmCategory Values#
CENTRALITY, COMMUNITY_DETECTION, SIMILARITY, PATH_FINDING, NODE_EMBEDDING
Available Cloud Locations#
print(sessions.available_cloud_locations())Common: CloudLocation("gcp", "europe-west1"), CloudLocation("gcp", "us-east1"), CloudLocation("aws", "us-east-1")
Supporting file: references/workflows.md#
AGA Full Workflow Examples#
AuraDB — PageRank + FastRP → Write Back#
from graphdatascience.session import (
AuraAPICredentials, GdsSessions, DbmsConnectionInfo,
SessionMemory, AlgorithmCategory
)
from datetime import timedelta
import os
# 1. Auth
sessions = GdsSessions(api_credentials=AuraAPICredentials.from_env())
# 2. Size
memory = sessions.estimate(
node_count=500_000,
relationship_count=2_000_000,
algorithm_categories=[AlgorithmCategory.CENTRALITY, AlgorithmCategory.NODE_EMBEDDING],
)
# 3. Session
gds = sessions.get_or_create(
session_name="prod-analysis",
memory=memory,
db_connection=DbmsConnectionInfo.from_env(),
ttl=timedelta(hours=4),
)
gds.v2.verify_session_connectivity()
gds.v2.verify_db_connectivity()
# 4. Project
query = """
CALL () {
MATCH (p:Person)
OPTIONAL MATCH (p)-[r:KNOWS]->(p2:Person)
RETURN p AS source, r AS rel, p2 AS target,
p {.score} AS sourceNodeProperties,
p2 {.score} AS targetNodeProperties
}
RETURN gds.graph.project.remote(source, target, {
sourceNodeLabels: labels(source),
targetNodeLabels: labels(target),
sourceNodeProperties: sourceNodeProperties,
targetNodeProperties: targetNodeProperties,
relationshipType: type(rel)
})
"""
G, _ = gds.v2.graph.project(
graph_name="social",
query=query,
undirected_relationship_types=["KNOWS"],
)
# V1 fallback: gds.graph.project(graph_name="social", query=query, undirected_relationship_types=["KNOWS"])
# 5. Analyse
gds.v2.page_rank.mutate(G, mutate_property="pagerank")
gds.v2.fast_rp.mutate(G, embedding_dimension=128, mutate_property="embedding",
feature_properties=["pagerank"], random_seed=42)
# 6. Write back
gds.v2.graph.node_properties.write(G, ["pagerank", "embedding"])
# 7. Cleanup
sessions.delete(session_name="prod-analysis")Standalone — Pandas DataFrame → Community Detection#
import pandas as pd
from graphdatascience.session import AuraAPICredentials, GdsSessions, SessionMemory, CloudLocation
from datetime import timedelta
sessions = GdsSessions(api_credentials=AuraAPICredentials.from_env())
gds = sessions.get_or_create(
session_name="csv-analysis",
memory=SessionMemory.m_4GB,
ttl=timedelta(hours=1),
cloud_location=CloudLocation("gcp", "europe-west1"),
)
nodes = pd.read_csv("nodes.csv") # nodeId (int), labels (str)
edges = pd.read_csv("edges.csv") # sourceNodeId, targetNodeId, relationshipType
G = gds.v2.graph.construct("my-graph", nodes, edges)
gds.v2.louvain.mutate(G, mutate_property="community")
result = gds.v2.graph.node_properties.stream(G, ["community"])
output = result.merge(nodes[["nodeId", "name"]], how="left")
print(output.sort_values("community"))
gds.delete()Multiple Node/Relationship DataFrames#
G = gds.v2.graph.construct("multi-graph", [nodes1, nodes2], [rels1, rels2])Spark Integration#
pip install "graphdatascience>=1.18" pyspark
arrow_client = gds.arrow_client()
# Use arrow_client with mapInArrow for large Spark DataFramesFAQ
07 QUESTIONS
01What is the Reads agent skill?
Serverless Aura Graph Analytics (AGA) GDS Sessions, covers GdsSessions. It is listed under analytics in the 100xLab agent skills directory.
02How do I install Reads in Cursor, Claude Code, or Codex?
Run npx skills add neo4j-contrib/neo4j-skills --skill neo4j-aura-graph-analytics-skill in the project where you want it, then ask your agent for the skill by name. The --skill flag installs only Reads, not every skill in the repository.
03What does the Reads SKILL.md cover?
The SKILL.md includes sections on When to Use, When NOT to Use, Deployment Decision Table, Defaults, Installation and graphdatascience 2.0 (alpha). Read the full text on this page or in plain markdown at /resources/agent-skills/neo4j-contrib-neo4j-skills--neo4j-aura-graph-analytics-skill--1kbt49j/raw.
04Which agents can use Reads?
Reads installs with the cross-agent skills installer (npx skills add), which sets it up for agents such as Claude Code, Cursor and Codex. Each agent loads the SKILL.md when you ask for the skill by name.
05What license is Reads under?
The neo4j-contrib/neo4j-skills repository declares the MIT license. Read the license file in the repository before you copy or redistribute the skill.
06Is Reads free to use?
Reading, copying and installing Reads costs nothing: it is published in a public GitHub repository under the MIT license. Reuse and redistribution follow that license.
07Where is the source of Reads?
Reads comes from https://github.com/neo4j-contrib/neo4j-skills, which has 102 GitHub stars. The SKILL.md is at https://github.com/neo4j-contrib/neo4j-skills/blob/HEAD/neo4j-aura-graph-analytics-skill/SKILL.md. The author is neo4j-contrib.
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ATTRIBUTION
Reads: aura_client_id, aura_client_secret, aura_project_id (optional) was written by its original authors and is published in neo4j-contrib/neo4j-skills (opens GitHub in a new tab) under the MIT license. All rights stay with the original authors.
100xLab did not write, maintain or endorse this skill. This page lists it for discovery. Repo stars belong to the source repository, not to the skill. Review any skill before you install it.