demo docker file

This commit is contained in:
2026-02-17 11:32:25 +00:00
parent 2f75efa964
commit 09be4c2472
7 changed files with 588 additions and 0 deletions
+16
View File
@@ -0,0 +1,16 @@
.git
__pycache__
*.pyc
*.pyo
*.db
.pytest_cache
.coverage
htmlcov
tests
.venv
*.egg-info
dist
build
.mypy_cache
.ruff_cache
*.spec
+20
View File
@@ -0,0 +1,20 @@
FROM python:3.11-slim
WORKDIR /app
COPY . .
# Runtime deps only — excludes snowflake, pywebview, pyinstaller, pyarrow, fastparquet
RUN pip install --no-cache-dir \
dash>=2.14.0 \
dash-mantine-components>=0.14.0 \
plotly>=5.15.0 \
pandas>=2.0.3 \
numpy>=1.25.0 \
gunicorn>=21.0.0
# Generate synthetic database at build time
RUN python scripts/generate_demo_db.py
EXPOSE 8050
CMD ["gunicorn", "--bind", "0.0.0.0:8050", "--workers", "2", "--timeout", "120", "dash_app.app:server"]
+13
View File
@@ -18,6 +18,19 @@ def make_header():
],
),
# Demo banner
html.Div(
"SYNTHETIC DATA FOR DEMONSTRATION",
style={
"color": "#e53e3e",
"fontWeight": "bold",
"fontSize": "0.85rem",
"letterSpacing": "0.05em",
"textAlign": "center",
"whiteSpace": "nowrap",
},
),
# Center: 3 fraction KPIs (filtered / total)
html.Div(
className="top-header__kpis",
BIN
View File
Binary file not shown.
+2
View File
@@ -24,6 +24,8 @@ Usage:
connector.close()
"""
from __future__ import annotations
from contextlib import contextmanager
from dataclasses import dataclass
from datetime import date, datetime
+6
View File
@@ -0,0 +1,6 @@
services:
hcd-demo:
build: .
ports:
- "8050:8050"
restart: unless-stopped
+531
View File
@@ -0,0 +1,531 @@
"""Generate a complete synthetic pathways.db for the containerised demo.
Uses the existing schema and migration infrastructure to build a fully
functional database with fabricated patient pathway data. Reference data
(drug names, directories, SNOMED clusters) comes from the real CSVs —
these are standard NHS terminology, not patient data. Trust names are
fictional to make the synthetic nature obvious.
Usage:
python scripts/generate_demo_db.py
"""
from __future__ import annotations
import json
import random
import sqlite3
import sys
import uuid
from datetime import datetime, timedelta
from pathlib import Path
# Ensure project root is on sys.path
_project_root = str(Path(__file__).resolve().parent.parent)
if _project_root not in sys.path:
sys.path.insert(0, _project_root)
# Pre-register data_processing as a bare namespace package to avoid its
# __init__.py which pulls in snowflake_connector (not needed/available here).
import types
import importlib
if "data_processing" not in sys.modules:
_pkg = types.ModuleType("data_processing")
_pkg.__path__ = [str(Path(_project_root) / "data_processing")]
_pkg.__package__ = "data_processing"
sys.modules["data_processing"] = _pkg
from core.config import PathConfig # noqa: E402
from data_processing.database import DatabaseConfig, DatabaseManager # noqa: E402
from data_processing.schema import create_all_tables # noqa: E402
from data_processing.reference_data import ( # noqa: E402
migrate_drug_names,
migrate_organizations,
migrate_directories,
migrate_drug_directory_map,
migrate_drug_indication_clusters,
)
# ---------------------------------------------------------------------------
# Configuration
# ---------------------------------------------------------------------------
random.seed(42)
FICTIONAL_TRUSTS = [
"GREENFIELD UNIVERSITY HOSPITAL NHS FT",
"RIVERSIDE DISTRICT GENERAL NHS TRUST",
"THORNBURY ROYAL INFIRMARY NHS FT",
"ASHWORTH COMMUNITY HOSPITAL NHS TRUST",
"KINGSBURY TEACHING HOSPITALS NHS FT",
]
ROOT_LABEL = "DEMO ICS"
DATE_FILTER_IDS = [
"all_6mo", "all_12mo",
"1yr_6mo", "1yr_12mo",
"2yr_6mo", "2yr_12mo",
]
CHART_TYPES = ["directory", "indication"]
# Drug → directories mapping (subset of real drugs found in ref_drug_directory_map)
DRUG_DIRECTORIES: dict[str, list[str]] = {
"ADALIMUMAB": ["RHEUMATOLOGY", "GASTROENTEROLOGY", "DERMATOLOGY", "OPHTHALMOLOGY"],
"INFLIXIMAB": ["GASTROENTEROLOGY", "RHEUMATOLOGY"],
"ETANERCEPT": ["RHEUMATOLOGY", "DERMATOLOGY"],
"RITUXIMAB": ["RHEUMATOLOGY", "HAEMATOLOGY"],
"TOCILIZUMAB": ["RHEUMATOLOGY"],
"SECUKINUMAB": ["RHEUMATOLOGY", "DERMATOLOGY"],
"VEDOLIZUMAB": ["GASTROENTEROLOGY"],
"USTEKINUMAB": ["GASTROENTEROLOGY", "DERMATOLOGY"],
"TOFACITINIB": ["GASTROENTEROLOGY", "RHEUMATOLOGY"],
"BARICITINIB": ["RHEUMATOLOGY", "DERMATOLOGY"],
"OCRELIZUMAB": ["NEUROLOGY"],
"NATALIZUMAB": ["NEUROLOGY"],
"AFLIBERCEPT": ["OPHTHALMOLOGY"],
"RANIBIZUMAB": ["OPHTHALMOLOGY"],
"IBRUTINIB": ["HAEMATOLOGY"],
"LENALIDOMIDE": ["HAEMATOLOGY"],
"PEMBROLIZUMAB": ["ONCOLOGY"],
"NIVOLUMAB": ["ONCOLOGY"],
"TRASTUZUMAB": ["ONCOLOGY"],
"BEVACIZUMAB": ["ONCOLOGY"],
}
# Drug → indications (for indication chart type)
DRUG_INDICATIONS: dict[str, list[str]] = {
"ADALIMUMAB": ["Rheumatoid arthritis", "Crohn's disease", "Psoriasis", "Uveitis"],
"INFLIXIMAB": ["Ulcerative colitis", "Crohn's disease", "Rheumatoid arthritis"],
"ETANERCEPT": ["Rheumatoid arthritis", "Psoriatic arthritis", "Ankylosing spondylitis"],
"RITUXIMAB": ["Rheumatoid arthritis", "Non-Hodgkin lymphoma", "CLL"],
"TOCILIZUMAB": ["Rheumatoid arthritis", "Giant cell arteritis"],
"SECUKINUMAB": ["Psoriasis", "Psoriatic arthritis", "Ankylosing spondylitis"],
"VEDOLIZUMAB": ["Ulcerative colitis", "Crohn's disease"],
"USTEKINUMAB": ["Psoriasis", "Crohn's disease"],
"TOFACITINIB": ["Ulcerative colitis", "Rheumatoid arthritis"],
"BARICITINIB": ["Rheumatoid arthritis", "Atopic dermatitis"],
"OCRELIZUMAB": ["Multiple sclerosis"],
"NATALIZUMAB": ["Multiple sclerosis"],
"AFLIBERCEPT": ["Wet AMD", "Diabetic macular oedema"],
"RANIBIZUMAB": ["Wet AMD"],
"IBRUTINIB": ["CLL", "Mantle cell lymphoma"],
"LENALIDOMIDE": ["Multiple myeloma"],
"PEMBROLIZUMAB": ["Non-small cell lung cancer", "Melanoma"],
"NIVOLUMAB": ["Non-small cell lung cancer", "Renal cell carcinoma"],
"TRASTUZUMAB": ["HER2+ breast cancer"],
"BEVACIZUMAB": ["Colorectal cancer", "Non-small cell lung cancer"],
}
# Directories that appear in the demo
DIRECTORIES_USED = sorted({d for dirs in DRUG_DIRECTORIES.values() for d in dirs})
# ---------------------------------------------------------------------------
# Helpers
# ---------------------------------------------------------------------------
def rand_date(start_year: int, end_year: int) -> str:
start = datetime(start_year, 1, 1)
end = datetime(end_year, 12, 28)
delta = (end - start).days
dt = start + timedelta(days=random.randint(0, max(delta, 1)))
return dt.strftime("%Y-%m-%d")
def make_average_spacing_html(drugs: list[str]) -> str:
"""Build the HTML-formatted average_spacing string the Dash app expects."""
parts = []
for drug in drugs:
times = random.randint(4, 30)
interval = round(random.uniform(2.0, 12.0), 1)
total_weeks = round(times * interval, 1)
parts.append(
f"<br><b>{drug}</b>"
f"<br>On average given {times} times with a {interval} weekly interval "
f"({total_weeks} weeks total treatment length)"
)
return "".join(parts)
def make_average_administered_json(drugs: list[str]) -> str:
"""Build the JSON array of avg doses the Dash app expects."""
entries = []
for drug in drugs:
entries.append({
"drug": drug,
"avg_dose_mg": round(random.uniform(50, 500), 1),
"avg_administrations": random.randint(4, 30),
})
return json.dumps(entries)
# ---------------------------------------------------------------------------
# Node generation
# ---------------------------------------------------------------------------
def generate_nodes_for_combination(
date_filter_id: str,
chart_type: str,
refresh_id: str,
) -> list[dict]:
"""Generate a complete hierarchy of pathway_nodes for one filter/chart combo.
Returns a list of dicts ready for INSERT.
"""
nodes: list[dict] = []
# Scale factors per date filter so narrower filters have fewer patients
scale = {
"all_6mo": 0.6, "all_12mo": 1.0,
"1yr_6mo": 0.3, "1yr_12mo": 0.5,
"2yr_6mo": 0.4, "2yr_12mo": 0.7,
}[date_filter_id]
root_patients = 0
root_cost = 0.0
for trust in FICTIONAL_TRUSTS:
trust_patients = 0
trust_cost = 0.0
# Determine level-2 groups based on chart_type
if chart_type == "directory":
level2_groups = DIRECTORIES_USED
else:
# For indication chart, use unique indications
level2_groups = sorted({
ind for inds in DRUG_INDICATIONS.values() for ind in inds
})
for group_name in level2_groups:
group_patients = 0
group_cost = 0.0
# Determine which drugs appear under this group
if chart_type == "directory":
drugs_in_group = [
d for d, dirs in DRUG_DIRECTORIES.items()
if group_name in dirs
]
else:
drugs_in_group = [
d for d, inds in DRUG_INDICATIONS.items()
if group_name in inds
]
if not drugs_in_group:
continue
# Only include a random subset per trust to create variation
if len(drugs_in_group) > 3:
n_drugs = random.randint(2, min(len(drugs_in_group), 5))
drugs_in_group = random.sample(drugs_in_group, n_drugs)
for drug in drugs_in_group:
drug_id = f"{ROOT_LABEL} - {trust} - {group_name} - {drug}"
base_patients = int(random.randint(5, 80) * scale)
if base_patients < 1:
base_patients = 1
cost_pp = round(random.uniform(3000, 25000), 2)
drug_cost = round(base_patients * cost_pp, 2)
avg_days = round(random.uniform(180, 2500), 1)
# Occasionally generate sub-pathway nodes (level 4+)
sub_pathway_patients = 0
sub_pathway_cost = 0.0
if random.random() < 0.4:
# Pick 1-2 follow-on drugs
other_drugs = [d for d in DRUG_DIRECTORIES if d != drug]
n_sub = random.randint(1, 2)
follow_on_drugs = random.sample(other_drugs, min(n_sub, len(other_drugs)))
for follow_drug in follow_on_drugs:
sub_id = f"{drug_id} - {follow_drug}"
sub_pts = int(random.randint(2, max(base_patients // 3, 3)) * scale)
if sub_pts < 1:
sub_pts = 1
sub_cpp = round(random.uniform(3000, 20000), 2)
sub_cost = round(sub_pts * sub_cpp, 2)
sub_avg_days = round(random.uniform(300, 3000), 1)
drug_seq = f"{drug}|{follow_drug}"
nodes.append({
"date_filter_id": date_filter_id,
"chart_type": chart_type,
"parents": drug_id,
"ids": sub_id,
"labels": follow_drug,
"level": 4,
"value": sub_pts,
"cost": sub_cost,
"costpp": sub_cpp,
"cost_pp_pa": f"£{sub_cpp * random.uniform(0.8, 1.2):,.0f}",
"colour": round(sub_pts / max(base_patients, 1), 4),
"first_seen": rand_date(2019, 2022),
"last_seen": rand_date(2024, 2025),
"first_seen_parent": rand_date(2018, 2021),
"last_seen_parent": rand_date(2024, 2025),
"average_spacing": make_average_spacing_html([drug, follow_drug]),
"average_administered": make_average_administered_json([drug, follow_drug]),
"avg_days": sub_avg_days,
"trust_name": trust,
"directory": group_name if chart_type == "directory" else None,
"drug_sequence": drug_seq,
"data_refresh_id": refresh_id,
})
sub_pathway_patients += sub_pts
sub_pathway_cost += sub_cost
# Drug node (level 3) — value must include sub-pathways
total_drug_patients = base_patients + sub_pathway_patients
total_drug_cost = drug_cost + sub_pathway_cost
nodes.append({
"date_filter_id": date_filter_id,
"chart_type": chart_type,
"parents": f"{ROOT_LABEL} - {trust} - {group_name}",
"ids": drug_id,
"labels": drug,
"level": 3,
"value": total_drug_patients,
"cost": total_drug_cost,
"costpp": round(total_drug_cost / max(total_drug_patients, 1), 2),
"cost_pp_pa": f"£{total_drug_cost / max(total_drug_patients, 1) * random.uniform(0.8, 1.2):,.0f}",
"colour": 0.0, # placeholder, set after group total known
"first_seen": rand_date(2018, 2021),
"last_seen": rand_date(2024, 2025),
"first_seen_parent": rand_date(2017, 2020),
"last_seen_parent": rand_date(2024, 2025),
"average_spacing": make_average_spacing_html([drug]),
"average_administered": make_average_administered_json([drug]),
"avg_days": avg_days,
"trust_name": trust,
"directory": group_name if chart_type == "directory" else None,
"drug_sequence": drug,
"data_refresh_id": refresh_id,
})
group_patients += total_drug_patients
group_cost += total_drug_cost
if group_patients == 0:
continue
# Level 2 group node (directory or indication)
group_id = f"{ROOT_LABEL} - {trust} - {group_name}"
nodes.append({
"date_filter_id": date_filter_id,
"chart_type": chart_type,
"parents": f"{ROOT_LABEL} - {trust}",
"ids": group_id,
"labels": group_name,
"level": 2,
"value": group_patients,
"cost": round(group_cost, 2),
"costpp": round(group_cost / max(group_patients, 1), 2),
"cost_pp_pa": f"£{group_cost / max(group_patients, 1) * random.uniform(0.8, 1.2):,.0f}",
"colour": 0.0, # set after trust total known
"first_seen": rand_date(2017, 2020),
"last_seen": rand_date(2024, 2025),
"first_seen_parent": rand_date(2016, 2019),
"last_seen_parent": rand_date(2024, 2025),
"average_spacing": None,
"average_administered": None,
"avg_days": None,
"trust_name": trust,
"directory": group_name if chart_type == "directory" else None,
"drug_sequence": None,
"data_refresh_id": refresh_id,
})
trust_patients += group_patients
trust_cost += group_cost
if trust_patients == 0:
continue
# Level 1 trust node
trust_id = f"{ROOT_LABEL} - {trust}"
nodes.append({
"date_filter_id": date_filter_id,
"chart_type": chart_type,
"parents": ROOT_LABEL,
"ids": trust_id,
"labels": trust,
"level": 1,
"value": trust_patients,
"cost": round(trust_cost, 2),
"costpp": round(trust_cost / max(trust_patients, 1), 2),
"cost_pp_pa": f"£{trust_cost / max(trust_patients, 1):,.0f}",
"colour": 0.0, # set after root total known
"first_seen": rand_date(2016, 2019),
"last_seen": rand_date(2024, 2025),
"first_seen_parent": None,
"last_seen_parent": None,
"average_spacing": None,
"average_administered": None,
"avg_days": None,
"trust_name": trust,
"directory": None,
"drug_sequence": None,
"data_refresh_id": refresh_id,
})
root_patients += trust_patients
root_cost += trust_cost
# Level 0 root node
nodes.append({
"date_filter_id": date_filter_id,
"chart_type": chart_type,
"parents": "",
"ids": ROOT_LABEL,
"labels": ROOT_LABEL,
"level": 0,
"value": root_patients,
"cost": round(root_cost, 2),
"costpp": round(root_cost / max(root_patients, 1), 2),
"cost_pp_pa": f"£{root_cost / max(root_patients, 1):,.0f}",
"colour": 0.5,
"first_seen": None,
"last_seen": None,
"first_seen_parent": None,
"last_seen_parent": None,
"average_spacing": None,
"average_administered": None,
"avg_days": None,
"trust_name": None,
"directory": None,
"drug_sequence": None,
"data_refresh_id": refresh_id,
})
# Fix colour values (proportion of parent)
parent_values: dict[str, int] = {n["ids"]: n["value"] for n in nodes}
for node in nodes:
if node["level"] > 0 and node["parents"] in parent_values:
parent_val = parent_values[node["parents"]]
node["colour"] = round(node["value"] / max(parent_val, 1), 4)
return nodes
# ---------------------------------------------------------------------------
# Database construction
# ---------------------------------------------------------------------------
def insert_nodes(conn: sqlite3.Connection, nodes: list[dict]) -> None:
"""Bulk insert pathway_nodes."""
columns = [
"date_filter_id", "chart_type", "parents", "ids", "labels", "level",
"value", "cost", "costpp", "cost_pp_pa", "colour",
"first_seen", "last_seen", "first_seen_parent", "last_seen_parent",
"average_spacing", "average_administered", "avg_days",
"trust_name", "directory", "drug_sequence",
"data_refresh_id",
]
placeholders = ", ".join(["?"] * len(columns))
col_names = ", ".join(columns)
conn.executemany(
f"INSERT INTO pathway_nodes ({col_names}) VALUES ({placeholders})",
[tuple(node[c] for c in columns) for node in nodes],
)
def build_database(db_path: Path) -> None:
"""Build the complete synthetic database."""
# Remove existing DB
if db_path.exists():
db_path.unlink()
db_path.parent.mkdir(parents=True, exist_ok=True)
config = DatabaseConfig(db_path=db_path)
db_manager = DatabaseManager(config)
paths = PathConfig(base_dir=Path(_project_root))
# 1. Create all tables (reference + pathway + date filters)
print("Creating schema...")
with db_manager.get_connection() as conn:
create_all_tables(conn)
# 2. Migrate reference data from CSVs
print("Migrating reference data...")
migrations = [
("Drug names", lambda: migrate_drug_names(db_manager, paths)),
("Organizations", lambda: migrate_organizations(db_manager, paths)),
("Directories", lambda: migrate_directories(db_manager, paths)),
("Drug-directory map", lambda: migrate_drug_directory_map(db_manager, paths)),
("Drug indication clusters", lambda: migrate_drug_indication_clusters(
db_manager, paths.data_dir / "drug_indication_clusters.csv"
)),
]
for name, migrate_fn in migrations:
result = migrate_fn()
if not result.success:
print(f" FAILED: {name}{result.error_message}")
sys.exit(1)
print(f" {name}: {result.rows_inserted} rows inserted")
# 3. Generate synthetic pathway_nodes for all 12 combinations
refresh_id = str(uuid.uuid4())
started_at = datetime.now().isoformat()
total_nodes = 0
date_filter_counts: dict[str, int] = {}
print("Generating synthetic pathway nodes...")
with db_manager.get_transaction() as conn:
for date_filter_id in DATE_FILTER_IDS:
filter_count = 0
for chart_type in CHART_TYPES:
# Reset random seed per combo for reproducibility but variation
random.seed(hash((date_filter_id, chart_type)) % (2**31))
nodes = generate_nodes_for_combination(
date_filter_id, chart_type, refresh_id
)
insert_nodes(conn, nodes)
filter_count += len(nodes)
print(f" {date_filter_id}/{chart_type}: {len(nodes)} nodes")
date_filter_counts[date_filter_id] = filter_count
total_nodes += filter_count
# 4. Insert refresh log entry
print("Writing refresh log...")
completed_at = datetime.now().isoformat()
with db_manager.get_transaction() as conn:
conn.execute(
"""
INSERT INTO pathway_refresh_log
(refresh_id, started_at, completed_at, status, record_count,
date_filter_counts, source_row_count, processing_duration_seconds)
VALUES (?, ?, ?, 'completed', ?, ?, ?, ?)
""",
(
refresh_id,
started_at,
completed_at,
total_nodes,
json.dumps(date_filter_counts),
total_nodes,
0.0,
),
)
print(f"\nDone! {total_nodes} total nodes written to {db_path}")
print(f"Date filter breakdown: {json.dumps(date_filter_counts, indent=2)}")
# ---------------------------------------------------------------------------
# Entry point
# ---------------------------------------------------------------------------
if __name__ == "__main__":
db_path = Path(_project_root) / "data" / "pathways.db"
build_database(db_path)