Duration: Weeks 17-24 (8 weeks)
Modules to Add: 6 new Rust modules + Python bindings
Code Size: ~5,000 new lines of Rust code
Tests: 70+ new test cases
File: src/geospatial.rs (✅ Started)
Status: Foundation complete, ready for provider implementations
✅ GeoSpatialProvider trait
✅ DemographicData, RealEstateData, UrbanMetrics (CARTO)
✅ ElevationData, HydrographyData, LandCoverData (ArcGIS)
✅ Geometry model for PostGIS
✅ GeoEnrichedRow - enriched output model
✅ SpatialJoinConfig - spatial query configurationFile: src/geospatial/carto.rs (New)
pub struct CartoEnricher {
client: CartoClient,
enricher: Arc<Enricher>,
}
impl CartoEnricher {
pub async fn enrich_with_demographics(
&self,
row: &EnrichedRow,
) -> Result<GeoEnrichedRow>
pub async fn enrich_with_real_estate(
&self,
row: &EnrichedRow,
) -> Result<GeoEnrichedRow>
pub async fn enrich_with_urban_metrics(
&self,
row: &EnrichedRow,
) -> Result<GeoEnrichedRow>
}
impl GeoSpatialProvider for CartoEnricher {
fn name(&self) -> &str { "CARTO" }
fn provider_type(&self) -> ProviderType { ProviderType::CARTO }
}CARTO API Endpoints:
- Demographics: GET /sql?q=SELECT * FROM demographics_table WHERE ...
- Real Estate: GET /sql?q=SELECT * FROM real_estate WHERE ...
- Urban Metrics: GET /sql?q=SELECT * FROM urban_metrics WHERE ...
Use Cases:
- Retail site selection: location + weather + demographics
- Insurance risk: location + elevation + demographics
- Real estate: location + weather + prices
Checkpoint: Demographics enrichment working for 100K locations/day
File: src/geospatial/arcgis.rs (New)
pub struct ArcGISEnricher {
client: ArcGISClient,
enricher: Arc<Enricher>,
}
impl ArcGISEnricher {
pub async fn enrich_with_elevation(
&self,
row: &EnrichedRow,
) -> Result<GeoEnrichedRow>
pub async fn enrich_with_land_use(
&self,
row: &EnrichedRow,
) -> Result<GeoEnrichedRow>
pub async fn enrich_with_hydrography(
&self,
row: &EnrichedRow,
) -> Result<GeoEnrichedRow>
}
impl GeoSpatialProvider for ArcGISEnricher {
fn name(&self) -> &str { "ArcGIS" }
fn provider_type(&self) -> ProviderType { ProviderType::ArcGIS }
}ArcGIS Services:
- Elevation service: DEM data, slope, aspect
- Land use classification: Urban/rural/agricultural
- Hydrography: Flood zones, water bodies
Use Cases:
- Agriculture: Elevation + soil + weather
- Construction: Terrain + climate risks
- Utilities: Watersheds + demand prediction
Checkpoint: Land use & elevation available for spatial analysis
File: src/geospatial/postgis.rs (New)
pub struct PostGISEnricher {
pool: PgPool,
enricher: Arc<Enricher>,
}
impl PostGISEnricher {
pub async fn spatial_join(
&self,
enriched_table: &str,
reference_table: &str,
max_distance_m: u32,
) -> Result<Vec<SpatialJoinResult>>
pub async fn find_nearest_poi(
&self,
lat: f64,
lng: f64,
poi_table: &str,
) -> Result<Vec<PointOfInterest>>
pub async fn write_enriched_geometry(
&self,
enriched: &[GeoEnrichedRow],
table: &str,
) -> Result<()>
}
impl GeoSpatialProvider for PostGISEnricher {
fn name(&self) -> &str { "PostGIS" }
fn provider_type(&self) -> ProviderType { ProviderType::PostGIS }
}PostGIS Operations:
- Spatial joins (ST_DWithin, ST_Intersects)
- Distance calculations (ST_Distance)
- Buffer operations (ST_Buffer)
- Geometry validation
Use Cases:
- Delivery: Find orders within service zones
- Retail: Identify competitors within 5km
- Utilities: Serve customers by watershed
Checkpoint: Spatial queries executing in <500ms
File: src/cloud/mod.rs (New)
pub trait CloudStorage: Send + Sync {
async fn read(&self, path: &str) -> Result<Vec<u8>>;
async fn write(&self, path: &str, data: &[u8]) -> Result<()>;
async fn list(&self, prefix: &str) -> Result<Vec<String>>;
async fn delete(&self, path: &str) -> Result<()>;
}
pub struct S3Storage {
client: s3::Client,
bucket: String,
}
pub struct GCSStorage {
client: google_cloud_storage::Client,
bucket: String,
}
pub struct AzureStorage {
client: azure_storage::BlobClient,
container: String,
}Implementations:
- AWS S3
- Google Cloud Storage
- Azure Blob Storage
- Alibaba OSS (optional)
Checkpoint: Read/write to all 3 cloud providers
pub struct MultiCloudPipeline {
source_storage: Box<dyn CloudStorage>,
destination_storage: Box<dyn CloudStorage>,
enricher: Arc<Enricher>,
}
impl MultiCloudPipeline {
pub async fn enrich_across_clouds(
&self,
source_path: &str,
dest_path: &str,
) -> Result<()> {
// Read from source cloud
let data = self.source_storage.read(source_path).await?;
// Enrich
let enriched = self.enricher.enrich_batch(parse(data)).await?;
// Write to destination cloud
self.destination_storage.write(dest_path, &serialize(enriched)).await?;
Ok(())
}
}Checkpoint: Data can flow S3 → GCS → Azure
File: src/dataframe/mod.rs (New)
File: src/python/pyspark.py
from pyspark.sql import SparkSession, DataFrame
import pyweatherenriched
class PyWeatherEnrichedSpark:
def __init__(self, spark: SparkSession, api_key: str):
self.spark = spark
self.enricher = pyweatherenriched.PyWeatherEnriched(api_key)
def enrich_dataframe(
self,
df: DataFrame,
location_cols: list,
timestamp_col: str,
) -> DataFrame:
# Register Pandas UDF for distributed enrichment
@pandas_udf("*")
def enrich_batch(rows: pd.DataFrame) -> pd.DataFrame:
return self.enricher.enrich_dataframe(rows, location_cols, timestamp_col)
# Apply across Spark cluster
return df.mapInPandas(enrich_batch, schema=...)Features:
- Distributed enrichment across cluster
- Pandas UDF for efficiency
- Write to Delta/Iceberg
Checkpoint: 100M rows enriched in <10 minutes on 10-node cluster
from pyflink.datastream import StreamExecutionEnvironment, MapFunction
class EnrichmentFunction(MapFunction):
def __init__(self, api_key: str):
self.enricher = pyweatherenriched.PyWeatherEnriched(api_key)
def map(self, value):
enriched = self.enricher.enrich_row(value)
return enriched
# Kafka → Enrich → Kafka
env = StreamExecutionEnvironment.get_execution_environment()
stream = env.add_source(KafkaSource(...))
stream.map(EnrichmentFunction(...)).add_sink(KafkaSink(...))
env.execute()Checkpoint: Real-time Flink enrichment
import duckdb
class DuckDBEnricher:
def __init__(self, api_key: str):
self.enricher = pyweatherenriched.PyWeatherEnriched(api_key)
def enrich_parquet(self, input_path: str, output_path: str):
# Load Parquet via DuckDB
df = duckdb.read_parquet(input_path)
# Convert to pandas, enrich
pandas_df = df.to_df()
enriched = self.enricher.enrich_dataframe(pandas_df, ...)
# Write back
duckdb.from_df(enriched).to_parquet(output_path)Checkpoint: OLAP-fast enrichment of Parquet files
File: src/enterprise/mod.rs (New)
pub struct ObservabilityManager {
jaeger_tracer: opentelemetry::global::BoxedTracer,
prometheus_meter: opentelemetry::global::BoxedMeter,
}
#[instrument]
pub async fn enrich_with_tracing(&self, rows: Vec<Row>) -> Result<Vec<EnrichedRow>> {
let start = Instant::now();
let enriched = self.enricher.enrich_batch_parallel(rows).await?;
let duration = start.elapsed();
// Record metrics
self.meter.u64_counter("enrichment_rows").add(enriched.len() as u64);
self.meter.f64_histogram("enrichment_latency_ms").record(duration.as_secs_f64() * 1000.0);
Ok(enriched)
}Observability Stack:
- Jaeger (distributed tracing)
- Prometheus (metrics)
- ELK (logs)
Checkpoint: Full observability for operations teams
pub struct DataLineage {
source: String,
transformations: Vec<TransformationStep>,
output: String,
}
pub struct TransformationStep {
name: String,
inputs: Vec<String>,
outputs: Vec<String>,
parameters: Map<String, Value>,
}
impl DataGovernance {
pub async fn track_lineage(&self, source: &str, output: &str) -> Result<DataLineage>
pub async fn verify_quality(&self, enriched: &[EnrichedRow]) -> Result<QualityReport>
}Governance Features:
- Data lineage tracking
- Quality checks
- RBAC
- Audit trails
Checkpoint: GDPR/SOC2 compliance verified
pub struct DataEncryption {
master_key: Vec<u8>,
kms_client: KmsClient,
}
impl DataEncryption {
pub async fn encrypt_at_rest(&self, data: &[u8]) -> Result<Vec<u8>>
pub async fn encrypt_in_transit(&self) -> Result<TlsConfig>
pub async fn rotate_keys(&self) -> Result<()>
}Security:
- AES-256 encryption at rest
- TLS 1.3 in transit
- Key rotation (monthly)
- Secrets management (Vault)
Checkpoint: Enterprise security standards met
- CARTO integration tests (6)
- ArcGIS integration tests (6)
- PostGIS spatial queries (6)
- Cloud storage abstraction (8)
- PySpark/PyFlink tests (8)
- DuckDB tests (4)
- Encryption tests (4)
- Lineage tracking tests (4)
- Total: 46 tests
- CARTO end-to-end (2)
- ArcGIS end-to-end (2)
- PostGIS spatial joins (2)
- Multi-cloud pipeline (3)
- PySpark cluster (2)
- PyFlink streaming (2)
- DuckDB OLAP (2)
- Total: 15 integration tests
- Lineage tracking (2)
- RBAC enforcement (2)
- Encryption rotation (2)
- Multi-tenancy isolation (2)
- Total: 8 tests
# Phase 4 additions
carto-rs = "0.2"
arcgis-rs = "0.1"
postgis-types = "0.3"
sqlx = { version = "0.7", features = ["postgres", "runtime-tokio-rustls"] }
# Multi-cloud
aws-sdk-s3 = "1.0"
google-cloud-storage = "0.17"
azure-storage = "0.20"
# Security
ring = "0.17"
rustls = "0.21"
argon2 = "0.5"
# Monitoring
opentelemetry-jaeger = "0.21"
prometheus = "0.13"┌─────────────────────────────────────────┐
│ PyWeatherEnriched Enterprise Edition │
├─────────────────────────────────────────┤
│ │
│ Geo-Spatial Layer (CARTO/ArcGIS/GIS) │
│ ├─ Demographics │
│ ├─ Land use & elevation │
│ └─ Spatial queries │
│ │
│ Multi-Cloud Orchestration │
│ ├─ AWS S3 / Redshift │
│ ├─ GCP Cloud Storage / BigQuery │
│ └─ Azure Blob / Synapse │
│ │
│ DataFrame Integration Layer │
│ ├─ PySpark (100M rows/cluster) │
│ ├─ PyFlink (real-time streams) │
│ └─ DuckDB (OLAP performance) │
│ │
│ Enterprise Features │
│ ├─ Distributed tracing (Jaeger) │
│ ├─ Data governance & lineage │
│ ├─ Encryption & key management │
│ └─ RBAC & audit logging │
│ │
└─────────────────────────────────────────┘
Week 17: Geo-spatial (beta)
Week 18: Multi-cloud (beta)
Week 19: DataFrame integrations (beta)
Week 20-21: Enterprise features (beta)
Week 22-23: Full testing & hardening
Week 24: Production release
✅ CARTO/ArcGIS/PostGIS working
✅ 100M-row PySpark jobs in <10 minutes
✅ Real-time PyFlink enrichment
✅ Multi-cloud data pipeline
✅ GDPR/SOC2 compliance
✅ Enterprise-grade security
✅ 99.99% uptime SLA
✅ 69+ test cases passing
✅ Complete documentation
Phase Complete: Production-ready enterprise platform