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# AICL Example: Multi-Cloud Manager
# Implements a multi-cloud management platform with cloud abstraction, intelligent workload
# placement, cost optimization, compliance enforcement, and cross-cloud failover.
# Level 1: Architecture
Goal: Provide a unified multi-cloud management platform that abstracts cloud provider differences, enables intelligent workload placement based on cost, performance, and compliance requirements, optimizes spending across providers, enforces regulatory policies, and orchestrates seamless cross-cloud failover.
Constraint: Workload placement decisions must evaluate at least 3 cloud providers before selection
Constraint: Cost data must be refreshed at least every 15 minutes from all cloud providers
Constraint: Compliance policies must be enforced before workload provisioning
Constraint: Cross-cloud failover must complete within 5 minutes RTO
Constraint: Cloud credential rotation must occur every 90 days automatically
Risk: Cloud provider API rate limiting causing management plane degradation
Recovery: Implement exponential backoff with jitter; batch API calls where possible; maintain local cache of cloud state; queue management operations during rate limit windows; use provider-specific SDK retry logic
Risk: Data residency violation from incorrect workload placement
Recovery: Compliance policy engine validates placement before provisioning; geo-fencing tags enforced at cloud account level; automatic migration if violation detected; audit trail for all placement decisions; immediate alert on violation
Risk: Cost overrun from unoptimized resource allocation across clouds
Recovery: Real-time cost monitoring with budget alerts at 80% and 100%; automatic right-sizing recommendations; spot/preemptible instance utilization for fault-tolerant workloads; reserved instance coverage optimization
Risk: Cross-cloud network latency degrading distributed application performance
Recovery: Cloud interconnect awareness in placement decisions; latency-based routing for distributed components; data locality preferences; dedicated interconnect for high-throughput workloads
Risk: Vendor lock-in from provider-specific service dependencies
Recovery: Enforce abstraction layer usage for all cloud services; prohibit direct API calls outside abstraction; regular portability testing across providers; infrastructure-as-code templates parameterized by provider
Risk: Credential compromise across multiple cloud accounts
Recovery: Zero-trust credential management; per-workload scoped credentials; automated rotation every 90 days; anomaly detection on API call patterns; immediate revocation and rotation on suspected compromise
Layer: CloudAbstraction
SubLayer: ComputeAdapter
SubLayer: StorageAdapter
SubLayer: NetworkAdapter
SubLayer: DatabaseAdapter
Layer: WorkloadOrchestrator
SubLayer: PlacementEngine
SubLayer: MigrationController
SubLayer: FailoverManager
Layer: CostOptimization
SubLayer: CostAnalyzer
SubLayer: RightSizer
SubLayer: ReservationManager
Layer: ComplianceGovernance
SubLayer: PolicyEngine
SubLayer: AuditManager
SubLayer: DataResidencyEnforcer
Validation: Workload placement must pass all compliance checks before provisioning
Validation: Cross-cloud failover must be tested quarterly with documented results
Validation: Cost alerts must trigger within 5 minutes of threshold breach
Validation: All cloud API calls must go through the abstraction layer
Validation: Credential rotation must complete without service interruption
Validation: Compliance audit trail must be retained for 7 years
# Level 2: Entities
Entity CloudProvider
providerId: string
providerName: string
region: string
apiEndpoint: string
credentialRef: string
costData: dict
availableServices: list
complianceCertifications: list
slaUptime: float
lastHealthCheck: datetime
Entity Workload
workloadId: string
workloadName: string
workloadType: string
resourceRequirements: dict
complianceTags: list
dataResidency: string
preferredProvider: string
currentProvider: string
currentRegion: string
status: string
createdAt: datetime
Entity PlacementDecision
decisionId: string
workloadId: string
selectedProvider: string
selectedRegion: string
estimatedCost: float
estimatedLatency: float
complianceScore: float
alternatives: list
decisionReason: string
timestamp: datetime
Entity CostProfile
profileId: string
providerId: string
computeCostPerHour: dict
storageCostPerGB: dict
networkCostPerGB: dict
reservedInstancePrices: dict
spotInstancePrices: dict
lastUpdated: datetime
currency: string
Entity CompliancePolicy
policyId: string
policyName: string
policyType: string
constraints: list
allowedProviders: list
allowedRegions: list
dataClassification: string
enforcementLevel: string
createdAt: datetime
lastEvaluated: datetime
Entity FailoverPlan
planId: string
workloadId: string
primaryProvider: string
secondaryProvider: string
rtoSeconds: integer
rpoSeconds: integer
replicationType: string
lastTested: datetime
lastActivated: datetime
status: string
# Level 3: Behaviors
Behavior PlaceWorkload
Input: workload: Workload, preferences: dict, constraints: list
Output: decision: PlacementDecision, provisioned: boolean
Action:
Enumerate compatible cloud providers and regions
Filter by compliance policy constraints (data residency, certifications)
Score each option on cost, latency, availability, and compliance
Apply preference weights from workload configuration
Select highest-scoring placement option
Validate against all compliance policies before provisioning
Provision resources through cloud abstraction layer
Record placement decision with full reasoning
Behavior OptimizeCost
Input: accountId: string, timeRange: string, budgetLimit: float
Output: recommendations: list, estimatedSavings: float, actions: list
Action:
Aggregate spending data across all cloud providers
Identify cost anomalies and trend deviations
Analyze resource utilization vs. allocation
Generate right-sizing recommendations for over-provisioned resources
Evaluate reserved instance coverage and recommend purchases
Identify spot/preemptible opportunities for fault-tolerant workloads
Calculate estimated savings for each recommendation
Prioritize by savings magnitude and implementation risk
Behavior MigrateWorkload
Input: workloadId: string, targetProvider: string, targetRegion: string, strategy: string
Output: migrationId: string, status: string, dataTransferredGB: float
Action:
Validate target provider meets compliance requirements
Establish cross-cloud data replication channel
If live migration, sync state incrementally until delta is small
Switch DNS/traffic routing to new location
Verify workload health at target before completing migration
Clean up resources at source provider
Update placement decision record
Emit migration metric with duration and data volume
Behavior ExecuteFailover
Input: workloadId: string, reason: string, automated: boolean
Output: failoverId: string, activatedAt: datetime, rtoAchieved: float
Action:
Detect or receive notification of primary provider failure
Validate failover plan exists and is current
If not automated, request human authorization
Activate secondary provider resources
Promote replicated data to primary in secondary region
Update DNS and load balancer routing to secondary
Verify application health checks pass at secondary
Measure and record actual RTO achieved
Emit failover event metric
Behavior EnforceCompliance
Input: workloadId: string, operation: string, targetProvider: string
Output: compliant: boolean, violations: list, remediationSteps: list
Action:
Load all applicable compliance policies for the workload
Evaluate each policy constraint against the proposed operation
Check data residency requirements against target region
Verify provider certifications match policy requirements
If violations found, block operation and return violation details
Suggest remediation steps for each violation
Log compliance evaluation result for audit trail
Emit compliance check metric
Behavior RotateCredentials
Input: providerId: string, credentialType: string
Output: success: boolean, newCredentialRef: string, rotatedAt: datetime
Action:
Generate new credentials via provider API
Update credential store with new reference
Propagate new credentials to affected workloads
Validate workloads continue operating with new credentials
Mark old credentials for deprecation
Schedule old credential cleanup after 24-hour overlap
Audit log the rotation event
Emit credential rotation metric
# Level 4: Conditions
Condition: ProviderOutage
When cloud provider health check fails for 3 consecutive intervals (60s total)
Then activate failover plan for affected workloads; redirect traffic to secondary provider; alert operations team; begin provider status monitoring at 10-second intervals; emit provider-outage metric
Condition: BudgetThresholdExceeded
When aggregate cloud spending exceeds 80% of monthly budget
Then emit budget-warning alert; generate cost optimization recommendations; restrict non-essential workload provisioning; notify finance team; if 100% exceeded, block new provisioning except critical workloads
Condition: ComplianceViolationDetected
When workload placement or operation violates a compliance policy
Then block the operation immediately; generate violation report with policy details; alert compliance team; if workload already running in violation, initiate migration to compliant provider; emit compliance-violation metric
Condition: CrossCloudLatencyDegraded
When inter-cloud latency exceeds 100ms for latency-sensitive workloads
Then evaluate colocation of dependent components; suggest migration to same provider/region; adjust traffic routing; emit latency-degradation metric; consider dedicated interconnect
Condition: CredentialExpiryApproaching
When cloud credentials are within 14 days of expiration
Then trigger automated credential rotation; if rotation fails, emit critical alert; queue manual rotation task; block new workload provisioning with expiring credentials; emit credential-expiry-warning metric
# Level 5: Events
Event: OnWorkloadProvisioned
On workload successfully provisioned on a cloud provider
Action: Record placement decision, begin cost tracking, start compliance monitoring, configure health checks, establish replication if failover plan exists, emit provisioning-complete metric
Event: OnFailoverActivated
On workload failover from primary to secondary provider
Action: Verify secondary is serving traffic, update DNS records, notify stakeholders, begin investigation of primary failure, update failover plan status, emit failover metric with RTO achieved
Event: OnCostAnomalyDetected
On spending deviates more than 20% from predicted trend
Action: Identify anomalous cost source, classify as legitimate or waste, generate optimization recommendation, alert finance team, auto-remediate if confidence is high, emit cost-anomaly metric
Event: OnComplianceAuditComplete
On periodic compliance audit finishes evaluation
Action: Generate compliance report, record any violations found, update compliance dashboard, notify responsible teams of required actions, archive audit results for retention, emit audit-complete metric
Event: OnCredentialRotated
On cloud provider credentials successfully rotated
Action: Validate workloads using new credentials, deprecate old credentials, update credential inventory, schedule next rotation, audit log the rotation, emit rotation-success metric
# Level 6: Concurrency
Parallel:
Workload placement evaluation across multiple cloud providers
Cost data aggregation from all connected cloud accounts
Compliance policy evaluation during workload provisioning
Cross-cloud data replication for failover readiness
Credential rotation across multiple providers
# Level 7: Optimization
Optimize: Workload placement cost
Priority: Real-time price comparison across providers; spot instance utilization for stateless workloads; reserved instance coverage optimization; region selection based on pricing differentials
Optimize: Cross-cloud failover RTO
Priority: Pre-provisioned standby resources; continuous data replication; automated DNS failover; health-check-driven traffic switching; regular failover testing and drill automation
Optimize: Resource utilization efficiency
Priority: Right-sizing based on actual usage patterns; auto-scaling policies per workload; idle resource detection and cleanup; multi-cloud load balancing for cost arbitrage
# Level 8: Learning
Learn: Optimal workload placement strategy
Goal: Minimize total cost while meeting performance and compliance requirements
Adapt: placementWeights (cost, latency, availability, compliance scoring weights)
Based: Historical placement outcomes, actual vs. estimated costs, performance metrics, and compliance audit results
Learn: Cost prediction accuracy
Goal: Accurately forecast monthly cloud spending across providers
Adapt: costForecastModel parameters
Based: Historical spending patterns, seasonality, workload growth trends, and pricing change announcements
Learn: Failover readiness assessment
Goal: Ensure failover plans will achieve target RTO before an actual outage
Adapt: failoverPreProvisioningLevel per workload
Based: Historical failover drill results, replication lag measurements, and actual failover performance data
# Level 9: Security
Security:
Encrypt: All cloud API communication using TLS with provider-specific certificate validation
Encrypt: Cross-cloud data replication using AES-256 with per-tenant encryption keys
Encrypt: Credential storage using HSM-backed key management
Protect: Cloud credentials via scoped IAM roles with least-privilege access
Protect: Against unauthorized workload placement via compliance policy enforcement
Protect: Cross-cloud network traffic via VPN tunnels and private interconnects
Protect: Audit logs against tampering via write-once storage with cryptographic verification
# Level 10: Native
Native: Python
{
import asyncio
from dataclasses import dataclass, field
from typing import Dict, List, Optional
from datetime import datetime, timedelta
@dataclass
class PlacementScore:
provider: str
region: str
cost_score: float
latency_score: float
compliance_score: float
availability_score: float
total_score: float
reasons: List[str] = field(default_factory=list)
class MultiCloudOrchestrator:
def __init__(self, providers: Dict[str, CloudProviderAdapter]):
self.providers = providers
self.cost_analyzer = CostAnalyzer(providers)
self.compliance_engine = ComplianceEngine()
self.failover_manager = FailoverManager(providers)
self.credential_manager = CredentialManager(providers)
self.metrics = MetricsCollector()
async def place_workload(
self,
workload: Workload,
preferences: Dict
) -> PlacementDecision:
scores = []
for provider_name, adapter in self.providers.items():
for region in adapter.get_available_regions():
score = await self._evaluate_placement(
workload, provider_name, region, preferences
)
scores.append(score)
scores.sort(key=lambda s: s.total_score, reverse=True)
best = scores[0]
compliance_result = self.compliance_engine.evaluate(
workload, best.provider, best.region
)
if not compliance_result.compliant:
for violation in compliance_result.violations:
best.reasons.append(f"VIOLATION: {violation}")
best.total_score = 0.0
decision = PlacementDecision(
decision_id=generate_id(),
workload_id=workload.workload_id,
selected_provider=best.provider,
selected_region=best.region,
estimated_cost=await self.cost_analyzer.estimate(
workload, best.provider, best.region
),
estimated_latency=best.latency_score,
compliance_score=best.compliance_score,
alternatives=[(s.provider, s.region, s.total_score) for s in scores[1:4]],
decision_reason="; ".join(best.reasons),
timestamp=datetime.utcnow(),
)
if compliance_result.compliant:
await self._provision(workload, best.provider, best.region)
self.metrics.record_placement(decision)
return decision
async def _evaluate_placement(
self,
workload: Workload,
provider: str,
region: str,
preferences: Dict
) -> PlacementScore:
reasons = []
cost = await self.cost_analyzer.estimate(workload, provider, region)
cost_score = 1.0 / (1.0 + cost / 100.0)
reasons.append(f"Cost: ${cost:.2f}/hr")
latency = await self.providers[provider].measure_latency(region)
latency_score = 1.0 / (1.0 + latency / 50.0)
reasons.append(f"Latency: {latency:.1f}ms")
compliance = self.compliance_engine.score(workload, provider, region)
reasons.append(f"Compliance: {compliance:.0%}")
availability = self.providers[provider].get_sla_uptime(region)
reasons.append(f"SLA: {availability:.3%}")
weights = preferences.get("weights", {
"cost": 0.35, "latency": 0.25,
"compliance": 0.25, "availability": 0.15
})
total = (
weights["cost"] * cost_score +
weights["latency"] * latency_score +
weights["compliance"] * compliance +
weights["availability"] * availability
)
return PlacementScore(
provider=provider,
region=region,
cost_score=cost_score,
latency_score=latency_score,
compliance_score=compliance,
availability_score=availability,
total_score=total,
reasons=reasons,
)
async def execute_failover(
self,
workload_id: str,
reason: str,
automated: bool = False
) -> FailoverResult:
plan = await self.failover_manager.get_plan(workload_id)
if not plan:
raise FailoverError(f"No failover plan for {workload_id}")
start = datetime.utcnow()
secondary = self.providers[plan.secondary_provider]
await secondary.activate_standby(workload_id, plan.secondary_region)
await self.failover_manager.promote_replica(
workload_id, plan.secondary_provider, plan.secondary_region
)
await self.failover_manager.update_routing(
workload_id, plan.secondary_provider, plan.secondary_region
)
healthy = await secondary.verify_health(
workload_id, plan.secondary_region
)
rto = (datetime.utcnow() - start).total_seconds()
self.metrics.record_failover(
workload_id, reason, automated, rto, healthy
)
return FailoverResult(
workload_id=workload_id,
activated_at=start,
rto_achieved=rto,
secondary_healthy=healthy,
)