feat: Complete Unified Resource Architecture (Phases 1-3)

This commit implements the Unified Resource Architecture for AI-first
infrastructure management. Key features:

Phase 1 - Backend Unification:
- New unified Resource type with 9 resource types, 7 platforms, 7 statuses
- Resource store with identity-based deduplication (hostname, machineID, IP)
- 8 converter functions (FromNode, FromVM, FromContainer, etc.)
- REST API endpoints: /api/resources, /api/resources/stats, /api/resources/{id}
- 28 comprehensive unit tests

Phase 2 - AI Context Enhancement:
- Unified context builder for AI system prompts
- Cross-platform query methods: GetTopByCPU, GetTopByMemory, GetTopByDisk
- Resource correlation: GetRelated (parent, children, siblings, cluster)
- Infrastructure summary: GetResourceSummary with health status counts
- AI context now includes top consumers and infrastructure overview

Phase 3 - Agent Preference & Hybrid Mode:
- Polling optimization methods in resource store
- ResourceStoreInterface added to Monitor
- SetResourceStore() and shouldSkipNodeMetrics() helper methods
- Store automatically wired into Monitor via Router.SetMonitor()
- Foundation ready for reduced API polling when agents are active

Files added:
- internal/resources/resource.go - Core Resource type
- internal/resources/store.go - Store with deduplication
- internal/resources/converters.go - Type converters
- internal/resources/platform_data.go - Platform-specific data
- internal/resources/store_test.go - 28 tests
- internal/resources/converters_test.go - Converter tests
- internal/api/resource_handlers.go - REST API handlers
- internal/ai/resource_context.go - AI context builder
- .gemini/docs/unified-resource-architecture.md - Architecture docs

All tests pass.
This commit is contained in:
rcourtman 2025-12-07 13:49:00 +00:00
parent 190e02fbbc
commit 5f000b7974
13 changed files with 4872 additions and 10 deletions

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# Unified Resource Architecture
## Status: Draft
## Author: AI Assistant + rcourtman
## Created: 2025-12-07
## Last Updated: 2025-12-07
---
## Executive Summary
Pulse is evolving from a traditional "stare at dashboards" monitoring tool to an **AI-first infrastructure management platform** where AI is the primary operator and humans are supervisors. This document outlines the architectural changes needed to support this vision while preserving the excellent UI that 20,000+ users love.
The core change is introducing a **Unified Resource Model** - a common data abstraction that all platforms (Proxmox, Docker, Hosts, and future platforms like Kubernetes and TrueNAS) normalize to. This enables:
1. **AI intelligence across all platforms** - AI can reason about your entire infrastructure
2. **Elimination of duplicate monitoring** - One machine = one set of alerts
3. **Extensibility for new platforms** - Adding Kubernetes is adding a new resource type, not a new architecture
4. **Foundation for unified views** - Optional consolidated UI without breaking existing pages
---
## Problem Statement
### Current Architecture Issues
#### 1. Multiple Data Sources for Same Machine
When a Proxmox node also has a host agent running, Pulse monitors it twice:
- Via Proxmox API → "Node cpu at 97.9%"
- Via Host Agent → "Host cpu at 99.7%"
Result: Duplicate alerts, user confusion.
#### 2. Siloed Data Models
Each platform has its own types with no common abstraction:
```
Node, VM, Container (Proxmox)
DockerHost, DockerContainer (Docker)
Host (Host Agent)
PBSInstance, PBSDatastore (PBS)
PMGInstance (PMG)
```
AI can't easily answer: "What's using the most CPU across my infrastructure?"
#### 3. Platform-Specific Pages
The frontend has separate components for each platform:
- Dashboard (Proxmox VMs/Containers)
- Docker page
- Hosts page
- Storage page
Adding a new platform (Kubernetes) means building an entirely new page.
#### 4. Agent Capabilities Underutilized
The unified pulse-agent can:
- Report richer metrics than Proxmox API
- Execute commands for AI
- Monitor temperature, RAID, disk I/O at granular level
But the architecture doesn't fully leverage this.
---
## Vision: AI-First Monitoring
```
┌────────────────────────────────────────────────────────────────────────┐
│ TRADITIONAL MONITORING │
│ │
│ Human 👁️ ──watches──▶ Dashboard 📊 ──shows──▶ Metrics/Alerts │
│ │ │
│ └──────────────────── investigates ──▶ fixes manually │
└────────────────────────────────────────────────────────────────────────┘
⬇️
┌────────────────────────────────────────────────────────────────────────┐
│ PULSE: AI-FIRST │
│ │
│ Infrastructure 🖥️ ──reports to──▶ Pulse AI 🤖 │
│ │ │
│ ├── Detects anomalies │
│ ├── Correlates across systems │
│ ├── Diagnoses root causes │
│ ├── Suggests fixes │
│ └── Executes fixes (approved) │
│ │ │
│ ▼ │
│ Human 👤 ──reviews/approves──▶ Dashboard = CONTEXT, not PRIMARY │
└────────────────────────────────────────────────────────────────────────┘
```
The dashboard remains beautiful and functional, but AI becomes the primary interface for investigation and remediation.
---
## Solution: Unified Resource Model
### Core Abstraction
Every monitored entity becomes a `Resource` with common fields:
```go
// Resource is the universal abstraction for any monitored entity
type Resource struct {
// Identity
ID string `json:"id"` // Globally unique ID
Type ResourceType `json:"type"` // vm, container, docker-container, pod, host, etc.
Name string `json:"name"` // Human-readable name
DisplayName string `json:"displayName"` // Custom display name (if set)
// Platform/Source
PlatformID string `json:"platformId"` // Which platform instance
PlatformType PlatformType `json:"platformType"` // proxmox-pve, docker, kubernetes, etc.
SourceType SourceType `json:"sourceType"` // api, agent, hybrid
// Hierarchy
ParentID string `json:"parentId,omitempty"` // VM → Node, Pod → K8s Node
ClusterID string `json:"clusterId,omitempty"` // Cluster membership
// Universal Metrics (nullable - not all resources have all metrics)
Status ResourceStatus `json:"status"` // online, offline, running, stopped, degraded
CPU *MetricValue `json:"cpu,omitempty"`
Memory *MetricValue `json:"memory,omitempty"`
Disk *MetricValue `json:"disk,omitempty"`
Network *NetworkMetric `json:"network,omitempty"`
Temperature *float64 `json:"temperature,omitempty"`
Uptime *int64 `json:"uptime,omitempty"`
// Universal Metadata
Tags []string `json:"tags,omitempty"`
Labels map[string]string `json:"labels,omitempty"`
LastSeen time.Time `json:"lastSeen"`
Alerts []ResourceAlert `json:"alerts,omitempty"`
// Platform-Specific Data (discriminated by Type)
// This preserves all the rich data while allowing common handling
PlatformData json.RawMessage `json:"platformData,omitempty"`
}
type ResourceType string
const (
// Infrastructure
ResourceTypeNode ResourceType = "node"
ResourceTypeHost ResourceType = "host"
ResourceTypeDockerHost ResourceType = "docker-host"
ResourceTypeK8sNode ResourceType = "k8s-node"
ResourceTypeTrueNASSystem ResourceType = "truenas-system"
// Compute Workloads
ResourceTypeVM ResourceType = "vm"
ResourceTypeContainer ResourceType = "container" // LXC
ResourceTypeDockerContainer ResourceType = "docker-container"
ResourceTypePod ResourceType = "pod"
ResourceTypeJail ResourceType = "jail"
// Services
ResourceTypeDockerService ResourceType = "docker-service"
ResourceTypeK8sDeployment ResourceType = "k8s-deployment"
ResourceTypeK8sService ResourceType = "k8s-service"
// Storage
ResourceTypeStorage ResourceType = "storage"
ResourceTypeDatastore ResourceType = "datastore"
ResourceTypePool ResourceType = "pool"
ResourceTypeDataset ResourceType = "dataset"
// Backup Systems
ResourceTypePBS ResourceType = "pbs"
ResourceTypePMG ResourceType = "pmg"
)
type PlatformType string
const (
PlatformProxmoxPVE PlatformType = "proxmox-pve"
PlatformProxmoxPBS PlatformType = "proxmox-pbs"
PlatformProxmoxPMG PlatformType = "proxmox-pmg"
PlatformDocker PlatformType = "docker"
PlatformKubernetes PlatformType = "kubernetes"
PlatformTrueNAS PlatformType = "truenas"
PlatformHostAgent PlatformType = "host-agent"
)
type SourceType string
const (
SourceAPI SourceType = "api" // Data from polling an API
SourceAgent SourceType = "agent" // Data pushed from agent
SourceHybrid SourceType = "hybrid" // Both sources, agent preferred
)
```
### Deduplication Strategy
When multiple sources report on the same physical machine:
```go
type ResourceIdentity struct {
Hostname string // Primary identifier
MachineID string // /etc/machine-id or equivalent
IPs []string // Network addresses
}
// IdentityMatcher determines if two resources are the same machine
func (r *ResourceStore) IdentityMatcher(a, b Resource) bool {
// 1. Machine ID match (most reliable)
if a.MachineID != "" && a.MachineID == b.MachineID {
return true
}
// 2. Hostname match (case-insensitive)
if strings.EqualFold(a.Hostname, b.Hostname) {
return true
}
// 3. IP overlap (if same IP, likely same machine)
for _, ipA := range a.IPs {
for _, ipB := range b.IPs {
if ipA == ipB && !isLocalhost(ipA) {
return true
}
}
}
return false
}
```
When duplicates are detected, prefer **Agent > API**:
| Scenario | Result |
|----------|--------|
| Node only (no agent) | Use Node data |
| Host agent only (no Proxmox) | Use Host data |
| Both Node + Host agent | Use Host agent data, suppress Node alerts |
| Docker agent on Proxmox node | Combine: Docker data + Host metrics from agent |
---
## Implementation Phases
### Phase 0: Document & Design (This Document)
- [x] Capture the vision
- [x] Define the data model
- [ ] Review with stakeholders
- [ ] Create GitHub issues/milestones
### Phase 1: Backend Unification (Invisible to Users)
**Goal:** Create the Resource abstraction without changing any frontend behavior.
**Status:** ✅ Core implementation complete
**Completed Tasks:**
1. ✅ Create `internal/resources/resource.go` with types - Core Resource type, enums, and helper methods
2. ✅ Create `internal/resources/platform_data.go` - Platform-specific data types for PlatformData field
3. ✅ Create `internal/resources/store.go` for unified storage - In-memory store with indexes
4. ✅ Create `internal/resources/converters.go` - Converters: FromNode(), FromHost(), FromDockerHost(), FromVM(), FromContainer(), FromDockerContainer(), FromPBSInstance(), FromStorage()
5. ✅ Add deduplication logic using identity matching (hostname, machineID, IP)
6. ✅ Create `internal/resources/converters_test.go` and `store_test.go` - 25 passing tests
7. ✅ Create `internal/api/resource_handlers.go` - HTTP handlers for unified resources API
8. ✅ Add `/api/resources` endpoint with filtering (type, platform, status, parent, infrastructure, workloads)
9. ✅ Add `/api/resources/stats` endpoint for store statistics
10. ✅ Add `/api/resources/{id}` endpoint for individual resource lookup
11. ✅ Add deduplication helper methods for alert manager: `IsSuppressed()`, `GetPreferredResourceFor()`, `IsSamePhysicalMachine()`, `HasPreferredSourceForHostname()`
**Integration Points for Alert Manager:**
The resource store provides these methods that the existing alert manager can optionally use:
- `store.IsSuppressed(resourceID)` - Check if a resource was deduplicated
- `store.GetPreferredResourceFor(resourceID)` - Get the preferred resource
- `store.HasPreferredSourceForHostname(hostname)` - Check if an agent is preferred for a hostname
**Remaining Tasks:**
- [ ] *(Optional)* Enhance alert manager to use resource store methods instead of hostname-only dedup
- [ ] *(Deferred to Phase 2)* Add optional `resources` array to WebSocket state
**Backward Compatibility:**
- WebSocket still sends `nodes`, `vms`, `containers`, `hosts`, `dockerHosts` as separate arrays
- Unified resources available via REST API at `/api/resources`
- All existing frontend code continues to work unchanged
- Existing hostname-based deduplication in alert manager still works
**Metrics:**
- Zero frontend changes
- All existing tests pass
- New resource tests added (25 tests)
- New REST API endpoints available
### Phase 2: AI Context Enhancement
**Goal:** AI chat can query and act across all resource types.
**Status:** ✅ Fully complete
**Completed Tasks:**
1. ✅ Create `internal/ai/resource_context.go` - Unified context builder for AI
2. ✅ Add `ResourceProvider` interface to AI service
3. ✅ Modify `buildSystemPrompt` to use unified model when available
4. ✅ Wire up resource provider in router to AI handlers
5. ✅ AI now uses deduplicated view of infrastructure (falls back to legacy if not available)
6. ✅ Add cross-platform query methods: `GetTopByCPU()`, `GetTopByMemory()`, `GetTopByDisk()`
7. ✅ Add resource correlation: `GetRelated()` for parent/children/siblings/cluster members
8. ✅ Add infrastructure summary: `GetResourceSummary()` with status counts and averages
9. ✅ AI context includes "Top CPU Consumers", "Top Memory Consumers", "Top Disk Usage"
10. ✅ AI context includes infrastructure summary with health status
**How It Works:**
- When `ResourceProvider` is set, AI gets a cleaner "Unified Infrastructure View"
- Resources grouped by platform (Proxmox nodes, Standalone hosts, Docker hosts)
- Workloads grouped by parent infrastructure
- Agent status shown inline with infrastructure
- Resources with alerts highlighted
- **Top consumers** shown for CPU, Memory, and Disk
- **Infrastructure summary** with healthy/degraded/offline counts
**Cross-Platform Query Methods:**
```go
// Find top resource consumers across all platforms
store.GetTopByCPU(10, nil) // Top 10 by CPU, any type
store.GetTopByMemory(5, []ResourceType{ResourceTypeVM}) // Top 5 VMs by memory
// Find related resources
store.GetRelated("vm-123") // Returns parent, children, siblings, cluster_members
// Get infrastructure overview
store.GetResourceSummary() // TotalResources, Healthy, Degraded, Offline, ByType, ByPlatform
```
**User Experience:**
- AI can now answer "What's using the most CPU?" across all platforms
- AI knows about resource relationships (parent nodes, sibling VMs, cluster members)
- AI has infrastructure summary context for better analysis
### Phase 3: Agent Preference & Hybrid Mode
**Goal:** When agents exist, prefer their data over API polling.
**Status:** ✅ Core implementation complete
**Completed Tasks:**
1. ✅ Polling optimization methods added to resource store:
- `ShouldSkipAPIPolling(hostname)` - Check if API polling should be skipped
- `GetAgentMonitoredHostnames()` - Get list of agent-monitored hosts
- `GetPollingRecommendations()` - Get per-hostname polling multipliers
2. ✅ Hybrid source type defined (`SourceHybrid`)
3. ✅ Agent data automatically preferred over API data (store deduplication)
4. ✅ `ResourceStoreInterface` added to Monitor
5. ✅ `SetResourceStore()` method added to inject store into Monitor
6. ✅ `shouldSkipNodeMetrics()` helper method added to Monitor
7. ✅ Resource store wired into Monitor via `Router.SetMonitor()`
**How It Works:**
```go
// In Monitor struct
resourceStore ResourceStoreInterface
// Router injects the store when setting the monitor
func (r *Router) SetMonitor(m *monitoring.Monitor) {
// ... other setup ...
if r.resourceHandlers != nil {
m.SetResourceStore(r.resourceHandlers.Store())
}
}
// Monitor can now check if polling should be skipped
func (m *Monitor) shouldSkipNodeMetrics(nodeName string) bool {
if store := m.resourceStore; store != nil {
return store.ShouldSkipAPIPolling(nodeName)
}
return false
}
```
**How to Enable Polling Optimization:**
To enable polling optimization in the actual polling loops, add this check in `pollPVENode()`:
```go
// In monitor_polling.go, at the start of pollPVENode():
func (m *Monitor) pollPVENode(...) (models.Node, string, error) {
// Skip detailed metric polling if host agent provides data
if m.shouldSkipNodeMetrics(node.Node) {
// Still return basic node info but skip expensive API calls
// like GetNodeStatus, GetStorage, etc.
}
// ... rest of function
}
```
**Remaining Tasks (Future Enhancement):**
- [ ] Add config flag: `EnableAgentPollingOptimization bool`
- [ ] Actually integrate skip logic into `pollPVENode()` and related functions
- [ ] Add Prometheus metrics for skipped polls
- [ ] Add logging for poll optimization decisions
**Benefits:**
- Better data quality (agent metrics are more accurate)
- Reduced API load (skip redundant polling)
- More AI capabilities (command execution via agents)
### Phase 4: Optional Unified View (Future)
**Goal:** Add a consolidated "All Resources" view for power users.
**Tasks:**
1. Create new React/Solid component for unified resource table
2. Implement filtering by platform, type, status, tags
3. Support hierarchical grouping (cluster > node > workloads)
4. Add as new optional view, don't replace existing pages
**User Experience:**
- New "All Resources" option in navigation
- Existing pages unchanged
- Users choose their preferred view
### Phase 5: New Platform Support (Ongoing)
Each new platform follows the pattern:
1. **Collector:** Poll API or receive agent telemetry
2. **Converter:** `PlatformDataToResource()` function
3. **Platform Data:** Type-specific struct stored in `PlatformData` field
4. **UI Components:** (Optional) Platform-specific detail views
Example for Kubernetes:
```go
func K8sNodeToResource(node k8s.Node) Resource {
return Resource{
ID: fmt.Sprintf("k8s/%s/%s", clusterID, node.Name),
Type: ResourceTypeK8sNode,
Name: node.Name,
PlatformType: PlatformKubernetes,
SourceType: SourceAPI,
Status: mapK8sNodeStatus(node.Status),
CPU: extractK8sCPU(node),
Memory: extractK8sMemory(node),
PlatformData: marshalK8sNodeData(node),
}
}
```
---
## Migration Strategy
### Database Considerations
Current state is in-memory with JSON persistence for alerts. The unified model should:
1. **Short-term:** Continue in-memory, Resource is just an abstraction layer
2. **Medium-term:** SQLite metrics store (already implemented) extended for resources
3. **Long-term:** Consider time-series DB for metrics history
### API Compatibility
**Existing endpoints remain unchanged:**
- `/api/state` - Returns current format
- WebSocket `state` message - Returns current format
**New optional endpoints:**
- `/api/resources` - Returns unified resource list
- `/api/resources/{id}` - Returns single resource with full detail
- WebSocket `resources` message - Unified resource updates
### Frontend Migration
**No forced migration.** Existing components continue to work. New unified view is additive.
If we eventually want to migrate existing components:
1. Create `useResources()` hook that abstracts data source
2. Components can switch when ready
3. Old and new can coexist
---
## Success Metrics
### Phase 1 Complete When:
- [x] Resource type defined and tested
- [x] All current types have converters
- [x] Deduplication prevents duplicate alerts (store logic complete)
- [x] Zero frontend changes required
- [x] All existing tests pass
- [x] REST API endpoints available (`/api/resources`, `/api/resources/stats`, `/api/resources/{id}`)
- [x] Deduplication helper methods available for alert manager integration
### Phase 2 Complete When:
- [x] AI context includes unified resource view
- [x] AI can answer cross-platform questions (via GetTopByCPU/Memory/Disk)
- [x] Correlation across platforms works (via GetRelated)
### Phase 3 Complete When:
- [x] Agent data preferred when available (via store deduplication)
- [x] Polling optimization methods available (`ShouldSkipAPIPolling`, `GetPollingRecommendations`)
- [x] Resource store wired into Monitor (via `SetResourceStore`)
- [x] `shouldSkipNodeMetrics()` helper available for polling loops
- [x] AI can execute commands via agents (already implemented)
- [ ] Polling optimization actually used in live polling loops (optional enhancement)
### Phase 4 Complete When:
- [ ] Unified view accessible from UI
- [ ] Filtering and grouping works
- [ ] Existing pages still work
---
## Open Questions
1. **Should Resource replace existing types entirely, or wrap them?**
- Recommendation: Wrap initially, replace gradually
2. **How to handle platform-specific features in unified view?**
- Recommendation: Show common fields, expand for platform-specific
3. **Should we version the Resource schema?**
- Recommendation: Yes, include version field for future evolution
4. **How to handle offline/stale data in unified model?**
- Recommendation: Include `lastSeen` and `staleness` fields
---
## Appendix: Resource Type Mapping
| Current Type | Resource Type | Platform Type | Notes |
|--------------|---------------|---------------|-------|
| Node | node | proxmox-pve | Proxmox VE node |
| VM | vm | proxmox-pve | Proxmox VM |
| Container | container | proxmox-pve | LXC container |
| Host | host | host-agent | Standalone host |
| DockerHost | docker-host | docker | Docker/Podman host |
| DockerContainer | docker-container | docker | Docker container |
| PBSInstance | pbs | proxmox-pbs | Backup server |
| PBSDatastore | datastore | proxmox-pbs | PBS datastore |
| PMGInstance | pmg | proxmox-pmg | Mail gateway |
| Storage | storage | proxmox-pve | PVE storage |
| CephCluster | ceph-cluster | proxmox-pve | Ceph cluster |
---
## References
- [Conversation that sparked this design](internal discussion 2025-12-07)
- [Host Agent Deduplication Fix](commit implementing hostname-based dedup)
- [Pulse AI Features](current AI implementation)

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package ai
import (
"fmt"
"strings"
"github.com/rcourtman/pulse-go-rewrite/internal/resources"
"github.com/rs/zerolog/log"
)
// ResourceProvider provides access to the unified resource store.
type ResourceProvider interface {
GetAll() []resources.Resource
GetInfrastructure() []resources.Resource
GetWorkloads() []resources.Resource
GetByType(t resources.ResourceType) []resources.Resource
GetStats() resources.StoreStats
// Cross-platform query methods
GetTopByCPU(limit int, types []resources.ResourceType) []resources.Resource
GetTopByMemory(limit int, types []resources.ResourceType) []resources.Resource
GetTopByDisk(limit int, types []resources.ResourceType) []resources.Resource
GetRelated(resourceID string) map[string][]resources.Resource
GetResourceSummary() resources.ResourceSummary
}
// SetResourceProvider sets the resource provider for unified infrastructure context.
func (s *Service) SetResourceProvider(rp ResourceProvider) {
s.mu.Lock()
defer s.mu.Unlock()
s.resourceProvider = rp
}
// buildUnifiedResourceContext creates AI context from the unified resource model.
// This provides a cleaner, deduplicated view of infrastructure.
func (s *Service) buildUnifiedResourceContext() string {
s.mu.RLock()
rp := s.resourceProvider
s.mu.RUnlock()
if rp == nil {
return ""
}
var sections []string
stats := rp.GetStats()
// Header with summary
sections = append(sections, "## Unified Infrastructure View")
sections = append(sections, fmt.Sprintf("Total resources: %d (Infrastructure: %d, Workloads: %d)",
stats.TotalResources, stats.ByType[resources.ResourceTypeNode]+stats.ByType[resources.ResourceTypeHost]+stats.ByType[resources.ResourceTypeDockerHost],
stats.ByType[resources.ResourceTypeVM]+stats.ByType[resources.ResourceTypeContainer]+stats.ByType[resources.ResourceTypeDockerContainer]))
// Build agent lookup
agentsByHostname := make(map[string]bool)
if s.agentServer != nil {
for _, agent := range s.agentServer.GetConnectedAgents() {
agentsByHostname[strings.ToLower(agent.Hostname)] = true
}
}
// Infrastructure resources (nodes, hosts, docker hosts)
infrastructure := rp.GetInfrastructure()
if len(infrastructure) > 0 {
sections = append(sections, "\n### Infrastructure (Nodes & Hosts)")
sections = append(sections, "These are the physical/virtual machines that host workloads.")
// Group by platform
byPlatform := make(map[resources.PlatformType][]resources.Resource)
for _, r := range infrastructure {
byPlatform[r.PlatformType] = append(byPlatform[r.PlatformType], r)
}
// Proxmox nodes
if nodes, ok := byPlatform[resources.PlatformProxmoxPVE]; ok && len(nodes) > 0 {
sections = append(sections, "\n**Proxmox VE Nodes:**")
for _, node := range nodes {
hasAgent := agentsByHostname[strings.ToLower(node.Name)]
agentStatus := "NO AGENT"
if hasAgent {
agentStatus = "HAS AGENT ✓"
}
// Build cluster info
clusterInfo := ""
if node.ClusterID != "" {
clusterInfo = fmt.Sprintf(" [cluster: %s]", node.ClusterID)
}
// Get CPU/Memory metrics
metrics := ""
if node.CPU != nil && node.Memory != nil {
metrics = fmt.Sprintf(" - CPU: %.1f%%, Mem: %.1f%%", node.CPUPercent(), node.MemoryPercent())
}
sections = append(sections, fmt.Sprintf("- **%s** (%s)%s%s [%s]",
node.EffectiveDisplayName(), agentStatus, clusterInfo, metrics, node.Status))
}
}
// Standalone hosts
if hosts, ok := byPlatform[resources.PlatformHostAgent]; ok && len(hosts) > 0 {
sections = append(sections, "\n**Standalone Hosts (via Host Agent):**")
for _, host := range hosts {
// Get IPs from identity
ips := ""
if host.Identity != nil && len(host.Identity.IPs) > 0 {
ips = " - " + strings.Join(host.Identity.IPs, ", ")
}
// Get metrics
metrics := ""
if host.CPU != nil && host.Memory != nil {
metrics = fmt.Sprintf(", CPU: %.1f%%, Mem: %.1f%%", host.CPUPercent(), host.MemoryPercent())
}
sections = append(sections, fmt.Sprintf("- **%s**%s%s [%s]",
host.EffectiveDisplayName(), ips, metrics, host.Status))
}
}
// Docker hosts
if dhosts, ok := byPlatform[resources.PlatformDocker]; ok && len(dhosts) > 0 {
sections = append(sections, "\n**Docker/Podman Hosts:**")
for _, dh := range dhosts {
if dh.Type != resources.ResourceTypeDockerHost {
continue
}
// Count containers for this host
allWorkloads := rp.GetWorkloads()
containerCount := 0
runningCount := 0
for _, w := range allWorkloads {
if w.ParentID == dh.ID {
containerCount++
if w.Status == resources.StatusRunning {
runningCount++
}
}
}
sections = append(sections, fmt.Sprintf("- **%s** (%d/%d containers running) [%s]",
dh.EffectiveDisplayName(), runningCount, containerCount, dh.Status))
}
}
}
// Workloads (VMs, containers)
workloads := rp.GetWorkloads()
if len(workloads) > 0 {
sections = append(sections, "\n### Workloads (VMs & Containers)")
// Group by parent for better organization
byParent := make(map[string][]resources.Resource)
noParent := []resources.Resource{}
for _, w := range workloads {
if w.ParentID != "" {
byParent[w.ParentID] = append(byParent[w.ParentID], w)
} else {
noParent = append(noParent, w)
}
}
// Get all infrastructure to map parent IDs to names
infraMap := make(map[string]resources.Resource)
for _, r := range infrastructure {
infraMap[r.ID] = r
}
// Show workloads grouped by parent
for parentID, children := range byParent {
parentName := parentID
if parent, ok := infraMap[parentID]; ok {
parentName = parent.EffectiveDisplayName()
}
sections = append(sections, fmt.Sprintf("\n**On %s:**", parentName))
for _, w := range children {
typeLabel := string(w.Type)
if w.Type == resources.ResourceTypeVM {
typeLabel = "VM"
} else if w.Type == resources.ResourceTypeContainer {
typeLabel = "LXC"
} else if w.Type == resources.ResourceTypeDockerContainer {
typeLabel = "Docker"
}
// Get VMID from platform data if available
vmidInfo := ""
if w.PlatformID != "" && w.Type != resources.ResourceTypeDockerContainer {
vmidInfo = fmt.Sprintf(" %s", w.PlatformID)
}
// Get IPs
ips := ""
if w.Identity != nil && len(w.Identity.IPs) > 0 {
ips = " - " + strings.Join(w.Identity.IPs[:min(2, len(w.Identity.IPs))], ", ")
}
sections = append(sections, fmt.Sprintf(" - **%s** (%s%s)%s [%s]",
w.EffectiveDisplayName(), typeLabel, vmidInfo, ips, w.Status))
}
}
// Show orphaned workloads
if len(noParent) > 0 {
sections = append(sections, "\n**Other workloads:**")
for _, w := range noParent {
sections = append(sections, fmt.Sprintf(" - **%s** (%s) [%s]",
w.EffectiveDisplayName(), w.Type, w.Status))
}
}
}
// Resources with alerts
allResources := rp.GetAll()
var alertResources []resources.Resource
for _, r := range allResources {
if len(r.Alerts) > 0 {
alertResources = append(alertResources, r)
}
}
if len(alertResources) > 0 {
sections = append(sections, "\n### Resources with Active Alerts")
for _, r := range alertResources {
for _, alert := range r.Alerts {
sections = append(sections, fmt.Sprintf("- **%s**: %s (%s)",
r.EffectiveDisplayName(), alert.Message, alert.Level))
}
}
}
// Add resource summary for cross-platform analysis
summary := rp.GetResourceSummary()
if summary.TotalResources > 0 {
sections = append(sections, "\n### Infrastructure Summary")
sections = append(sections, fmt.Sprintf("- Status: %d healthy, %d degraded, %d offline",
summary.Healthy, summary.Degraded, summary.Offline))
if summary.WithAlerts > 0 {
sections = append(sections, fmt.Sprintf("- Resources with alerts: %d", summary.WithAlerts))
}
// Show average resource usage by type
if len(summary.ByType) > 0 {
sections = append(sections, "- Average utilization by type:")
for t, ts := range summary.ByType {
if ts.Count > 0 && (ts.AvgCPUPercent > 0 || ts.AvgMemoryPercent > 0) {
sections = append(sections, fmt.Sprintf(" - %s (%d): CPU %.1f%%, Memory %.1f%%",
t, ts.Count, ts.AvgCPUPercent, ts.AvgMemoryPercent))
}
}
}
}
// Top resource consumers (helps answer "what's using the most CPU/memory")
topCPU := rp.GetTopByCPU(3, nil)
if len(topCPU) > 0 {
sections = append(sections, "\n### Top CPU Consumers")
for i, r := range topCPU {
sections = append(sections, fmt.Sprintf("%d. **%s** (%s): %.1f%%",
i+1, r.EffectiveDisplayName(), r.Type, r.CPUPercent()))
}
}
topMem := rp.GetTopByMemory(3, nil)
if len(topMem) > 0 {
sections = append(sections, "\n### Top Memory Consumers")
for i, r := range topMem {
sections = append(sections, fmt.Sprintf("%d. **%s** (%s): %.1f%%",
i+1, r.EffectiveDisplayName(), r.Type, r.MemoryPercent()))
}
}
topDisk := rp.GetTopByDisk(3, nil)
if len(topDisk) > 0 {
sections = append(sections, "\n### Top Disk Usage")
for i, r := range topDisk {
sections = append(sections, fmt.Sprintf("%d. **%s** (%s): %.1f%%",
i+1, r.EffectiveDisplayName(), r.Type, r.DiskPercent()))
}
}
if len(sections) == 0 {
return ""
}
result := "\n\n" + strings.Join(sections, "\n")
// Limit context size
const maxContextSize = 50000
if len(result) > maxContextSize {
log.Warn().
Int("original_size", len(result)).
Int("max_size", maxContextSize).
Msg("Unified resource context truncated")
result = result[:maxContextSize] + "\n\n[... Context truncated ...]"
}
log.Debug().Int("unified_resource_context_size", len(result)).Msg("Built unified resource context")
return result
}
// min returns the smaller of two integers
func min(a, b int) int {
if a < b {
return a
}
return b
}

View file

@ -29,15 +29,16 @@ type StateProvider interface {
// Service orchestrates AI interactions
type Service struct {
mu sync.RWMutex
persistence *config.ConfigPersistence
provider providers.Provider
cfg *config.AIConfig
agentServer *agentexec.Server
policy *agentexec.CommandPolicy
stateProvider StateProvider
alertProvider AlertProvider
knowledgeStore *knowledge.Store
mu sync.RWMutex
persistence *config.ConfigPersistence
provider providers.Provider
cfg *config.AIConfig
agentServer *agentexec.Server
policy *agentexec.CommandPolicy
stateProvider StateProvider
alertProvider AlertProvider
knowledgeStore *knowledge.Store
resourceProvider ResourceProvider // Unified resource model provider (Phase 2)
}
// NewService creates a new AI service
@ -1760,7 +1761,18 @@ Pulse manages LXC containers agentlessly from the PVE host.
}
// Add connected infrastructure info
prompt += s.buildInfrastructureContext()
// Try unified resource context first (Phase 2), fall back to legacy
s.mu.RLock()
hasResourceProvider := s.resourceProvider != nil
s.mu.RUnlock()
if hasResourceProvider {
// Use the new unified resource model for cleaner, deduplicated context
prompt += s.buildUnifiedResourceContext()
} else {
// Fall back to legacy state-based context
prompt += s.buildInfrastructureContext()
}
// Add user annotations from all resources (global context)
prompt += s.buildUserAnnotationsContext()

View file

@ -51,6 +51,11 @@ func (h *AISettingsHandler) SetStateProvider(sp ai.StateProvider) {
h.aiService.SetStateProvider(sp)
}
// SetResourceProvider sets the resource provider for unified infrastructure context (Phase 2)
func (h *AISettingsHandler) SetResourceProvider(rp ai.ResourceProvider) {
h.aiService.SetResourceProvider(rp)
}
// AISettingsResponse is returned by GET /api/settings/ai
// API key is masked for security
type AISettingsResponse struct {

View file

@ -0,0 +1,237 @@
package api
import (
"encoding/json"
"net/http"
"strings"
"github.com/rcourtman/pulse-go-rewrite/internal/models"
"github.com/rcourtman/pulse-go-rewrite/internal/resources"
)
// ResourceHandlers provides HTTP handlers for the unified resource API.
type ResourceHandlers struct {
store *resources.Store
}
// NewResourceHandlers creates resource handlers with a new store.
func NewResourceHandlers() *ResourceHandlers {
return &ResourceHandlers{
store: resources.NewStore(),
}
}
// Store returns the underlying resource store for populating from the monitor.
func (h *ResourceHandlers) Store() *resources.Store {
return h.store
}
// HandleGetResources returns all resources, optionally filtered by query params.
// GET /api/resources
// Query params:
// - type: filter by resource type (comma-separated)
// - platform: filter by platform type (comma-separated)
// - status: filter by status (comma-separated)
// - parent: filter by parent ID
// - infrastructure: if "true", only return infrastructure resources
// - workloads: if "true", only return workload resources
func (h *ResourceHandlers) HandleGetResources(w http.ResponseWriter, r *http.Request) {
if r.Method != http.MethodGet {
http.Error(w, "Method not allowed", http.StatusMethodNotAllowed)
return
}
query := h.store.Query()
// Parse type filter
if typeParam := r.URL.Query().Get("type"); typeParam != "" {
types := parseResourceTypes(typeParam)
if len(types) > 0 {
query = query.OfType(types...)
}
}
// Parse platform filter
if platformParam := r.URL.Query().Get("platform"); platformParam != "" {
platforms := parsePlatformTypes(platformParam)
if len(platforms) > 0 {
query = query.FromPlatform(platforms...)
}
}
// Parse status filter
if statusParam := r.URL.Query().Get("status"); statusParam != "" {
statuses := parseStatuses(statusParam)
if len(statuses) > 0 {
query = query.WithStatus(statuses...)
}
}
// Parse parent filter
if parentID := r.URL.Query().Get("parent"); parentID != "" {
query = query.WithParent(parentID)
}
// Parse alerts filter
if r.URL.Query().Get("alerts") == "true" {
query = query.WithAlerts()
}
// Execute query
var result []resources.Resource
// Handle infrastructure/workloads shortcut
if r.URL.Query().Get("infrastructure") == "true" {
result = h.store.GetInfrastructure()
} else if r.URL.Query().Get("workloads") == "true" {
result = h.store.GetWorkloads()
} else {
result = query.Execute()
}
w.Header().Set("Content-Type", "application/json")
json.NewEncoder(w).Encode(ResourcesResponse{
Resources: result,
Count: len(result),
Stats: h.store.GetStats(),
})
}
// HandleGetResource returns a single resource by ID.
// GET /api/resources/{id}
func (h *ResourceHandlers) HandleGetResource(w http.ResponseWriter, r *http.Request) {
if r.Method != http.MethodGet {
http.Error(w, "Method not allowed", http.StatusMethodNotAllowed)
return
}
// Extract ID from path: /api/resources/{id}
path := strings.TrimPrefix(r.URL.Path, "/api/resources/")
if path == "" || path == "/" {
http.Error(w, "Resource ID required", http.StatusBadRequest)
return
}
resource, ok := h.store.Get(path)
if !ok {
http.Error(w, "Resource not found", http.StatusNotFound)
return
}
w.Header().Set("Content-Type", "application/json")
json.NewEncoder(w).Encode(resource)
}
// HandleGetResourceStats returns statistics about the resource store.
// GET /api/resources/stats
func (h *ResourceHandlers) HandleGetResourceStats(w http.ResponseWriter, r *http.Request) {
if r.Method != http.MethodGet {
http.Error(w, "Method not allowed", http.StatusMethodNotAllowed)
return
}
stats := h.store.GetStats()
w.Header().Set("Content-Type", "application/json")
json.NewEncoder(w).Encode(stats)
}
// ResourcesResponse is the response for /api/resources.
type ResourcesResponse struct {
Resources []resources.Resource `json:"resources"`
Count int `json:"count"`
Stats resources.StoreStats `json:"stats"`
}
// PopulateFromState converts all resources from a StateSnapshot to the unified store.
// This should be called whenever the state is updated.
func (h *ResourceHandlers) PopulateFromSnapshot(snapshot models.StateSnapshot) {
// Convert nodes
for _, node := range snapshot.Nodes {
r := resources.FromNode(node)
h.store.Upsert(r)
}
// Convert VMs
for _, vm := range snapshot.VMs {
r := resources.FromVM(vm)
h.store.Upsert(r)
}
// Convert containers
for _, ct := range snapshot.Containers {
r := resources.FromContainer(ct)
h.store.Upsert(r)
}
// Convert hosts
for _, host := range snapshot.Hosts {
r := resources.FromHost(host)
h.store.Upsert(r)
}
// Convert docker hosts and their containers
for _, dh := range snapshot.DockerHosts {
r := resources.FromDockerHost(dh)
h.store.Upsert(r)
// Convert containers within the docker host
for _, dc := range dh.Containers {
r := resources.FromDockerContainer(dc, dh.ID, dh.Hostname)
h.store.Upsert(r)
}
}
// Convert PBS instances
for _, pbs := range snapshot.PBSInstances {
r := resources.FromPBSInstance(pbs)
h.store.Upsert(r)
}
// Convert storage
for _, storage := range snapshot.Storage {
r := resources.FromStorage(storage)
h.store.Upsert(r)
}
}
// Helper functions for parsing query parameters
func parseResourceTypes(s string) []resources.ResourceType {
parts := strings.Split(s, ",")
var result []resources.ResourceType
for _, p := range parts {
p = strings.TrimSpace(p)
if p == "" {
continue
}
result = append(result, resources.ResourceType(p))
}
return result
}
func parsePlatformTypes(s string) []resources.PlatformType {
parts := strings.Split(s, ",")
var result []resources.PlatformType
for _, p := range parts {
p = strings.TrimSpace(p)
if p == "" {
continue
}
result = append(result, resources.PlatformType(p))
}
return result
}
func parseStatuses(s string) []resources.ResourceStatus {
parts := strings.Split(s, ",")
var result []resources.ResourceStatus
for _, p := range parts {
p = strings.TrimSpace(p)
if p == "" {
continue
}
result = append(result, resources.ResourceStatus(p))
}
return result
}

View file

@ -54,6 +54,7 @@ type Router struct {
temperatureProxyHandlers *TemperatureProxyHandlers
systemSettingsHandler *SystemSettingsHandler
aiSettingsHandler *AISettingsHandler
resourceHandlers *ResourceHandlers
agentExecServer *agentexec.Server
wsHub *websocket.Hub
reloadFunc func() error
@ -182,6 +183,7 @@ func (r *Router) setupRoutes() {
r.dockerAgentHandlers = NewDockerAgentHandlers(r.monitor, r.wsHub)
r.hostAgentHandlers = NewHostAgentHandlers(r.monitor, r.wsHub)
r.temperatureProxyHandlers = NewTemperatureProxyHandlers(r.config, r.persistence, r.reloadFunc)
r.resourceHandlers = NewResourceHandlers()
// API routes
r.mux.HandleFunc("/api/health", r.handleHealth)
@ -221,6 +223,11 @@ func (r *Router) setupRoutes() {
r.mux.HandleFunc("/api/backups/pbs", RequireAuth(r.config, RequireScope(config.ScopeMonitoringRead, r.handleBackupsPBS)))
r.mux.HandleFunc("/api/snapshots", RequireAuth(r.config, RequireScope(config.ScopeMonitoringRead, r.handleSnapshots)))
// Unified resources API (Phase 1 of unified resource architecture)
r.mux.HandleFunc("/api/resources", RequireAuth(r.config, RequireScope(config.ScopeMonitoringRead, r.resourceHandlers.HandleGetResources)))
r.mux.HandleFunc("/api/resources/stats", RequireAuth(r.config, RequireScope(config.ScopeMonitoringRead, r.resourceHandlers.HandleGetResourceStats)))
r.mux.HandleFunc("/api/resources/", RequireAuth(r.config, RequireScope(config.ScopeMonitoringRead, r.resourceHandlers.HandleGetResource)))
// Guest metadata routes
r.mux.HandleFunc("/api/guests/metadata", RequireAuth(r.config, RequireScope(config.ScopeMonitoringRead, guestMetadataHandler.HandleGetMetadata)))
r.mux.HandleFunc("/api/guests/metadata/", RequireAuth(r.config, func(w http.ResponseWriter, req *http.Request) {
@ -1029,6 +1036,10 @@ func (r *Router) setupRoutes() {
r.aiSettingsHandler.SetAlertProvider(ai.NewAlertManagerAdapter(alertManager))
}
}
// Inject unified resource provider for Phase 2 AI context (cleaner, deduplicated view)
if r.resourceHandlers != nil {
r.aiSettingsHandler.SetResourceProvider(r.resourceHandlers.Store())
}
r.mux.HandleFunc("/api/settings/ai", RequireAdmin(r.config, RequireScope(config.ScopeSettingsRead, r.aiSettingsHandler.HandleGetAISettings)))
r.mux.HandleFunc("/api/settings/ai/update", RequireAdmin(r.config, RequireScope(config.ScopeSettingsWrite, r.aiSettingsHandler.HandleUpdateAISettings)))
r.mux.HandleFunc("/api/ai/test", RequireAdmin(r.config, RequireScope(config.ScopeSettingsWrite, r.aiSettingsHandler.HandleTestAIConnection)))
@ -1265,6 +1276,10 @@ func (r *Router) SetMonitor(m *monitoring.Monitor) {
mgr.SetPublicURL(url)
}
}
// Inject resource store for polling optimization
if r.resourceHandlers != nil {
m.SetResourceStore(r.resourceHandlers.Store())
}
}
}
@ -2469,6 +2484,13 @@ func (r *Router) handleState(w http.ResponseWriter, req *http.Request) {
}
state := r.monitor.GetState()
// Also populate the unified resource store (Phase 1 of unified architecture)
// This runs on every state request to keep resources up-to-date
if r.resourceHandlers != nil {
r.resourceHandlers.PopulateFromSnapshot(state)
}
frontendState := state.ToFrontend()
if err := utils.WriteJSONResponse(w, frontendState); err != nil {

View file

@ -80,6 +80,17 @@ type PVEClientInterface interface {
GetCephDF(ctx context.Context) (*proxmox.CephDF, error)
}
// ResourceStoreInterface provides methods for polling optimization.
// When an agent is monitoring a node, we can reduce API polling for that node.
type ResourceStoreInterface interface {
// ShouldSkipAPIPolling returns true if API polling should be skipped for the hostname
// because an agent is providing richer data.
ShouldSkipAPIPolling(hostname string) bool
// GetPollingRecommendations returns a map of hostname -> polling multiplier.
// 0 = skip entirely, 0.5 = half frequency, 1 = normal
GetPollingRecommendations() map[string]float64
}
func getNodeDisplayName(instance *config.PVEInstance, nodeName string) string {
baseName := strings.TrimSpace(nodeName)
if baseName == "" {
@ -604,6 +615,7 @@ type Monitor struct {
pollStatusMap map[string]*pollStatus
dlqInsightMap map[string]*dlqInsight
nodeLastOnline map[string]time.Time // Track last time each node was seen online (for grace period)
resourceStore ResourceStoreInterface // Optional unified resource store for polling optimization
}
type rrdMemCacheEntry struct {
@ -6990,6 +7002,16 @@ func (m *Monitor) GetAlertManager() *alerts.Manager {
return m.alertManager
}
// SetResourceStore sets the resource store for polling optimization.
// When set, the monitor will check if it should reduce polling frequency
// for nodes that have host agents providing data.
func (m *Monitor) SetResourceStore(store ResourceStoreInterface) {
m.mu.Lock()
defer m.mu.Unlock()
m.resourceStore = store
log.Info().Msg("Resource store set for polling optimization")
}
// GetNotificationManager returns the notification manager
func (m *Monitor) GetNotificationManager() *notifications.NotificationManager {
return m.notificationMgr
@ -7005,6 +7027,27 @@ func (m *Monitor) GetMetricsStore() *metrics.Store {
return m.metricsStore
}
// shouldSkipNodeMetrics returns true if we should skip detailed metric polling
// for the given node because a host agent is providing richer data.
// This helps reduce API load when agents are active.
func (m *Monitor) shouldSkipNodeMetrics(nodeName string) bool {
m.mu.RLock()
store := m.resourceStore
m.mu.RUnlock()
if store == nil {
return false
}
should := store.ShouldSkipAPIPolling(nodeName)
if should {
log.Debug().
Str("node", nodeName).
Msg("Skipping detailed node metrics - host agent provides data")
}
return should
}
// pollStorageBackupsWithNodes polls backups using a provided nodes list to avoid duplicate GetNodes calls
func (m *Monitor) pollStorageBackupsWithNodes(ctx context.Context, instanceName string, client PVEClientInterface, nodes []proxmox.Node, nodeEffectiveStatus map[string]string) {

View file

@ -0,0 +1,847 @@
package resources
import (
"encoding/json"
"fmt"
"strings"
"time"
"github.com/rcourtman/pulse-go-rewrite/internal/models"
)
// FromNode converts a Proxmox Node to a unified Resource.
func FromNode(n models.Node) Resource {
// Calculate primary temperature if available
var temp *float64
if n.Temperature != nil && n.Temperature.Available && n.Temperature.HasCPU {
// Use CPU package temperature if available, otherwise average core temps
if n.Temperature.CPUPackage > 0 {
temp = &n.Temperature.CPUPackage
} else if len(n.Temperature.Cores) > 0 {
avg := 0.0
for _, c := range n.Temperature.Cores {
avg += c.Temp
}
avg /= float64(len(n.Temperature.Cores))
temp = &avg
}
}
// Build memory metric
var memory *MetricValue
if n.Memory.Total > 0 {
memory = &MetricValue{
Current: n.Memory.Usage,
Total: &n.Memory.Total,
Used: &n.Memory.Used,
Free: &n.Memory.Free,
}
}
// Build disk metric
var disk *MetricValue
if n.Disk.Total > 0 {
disk = &MetricValue{
Current: n.Disk.Usage,
Total: &n.Disk.Total,
Used: &n.Disk.Used,
Free: &n.Disk.Free,
}
}
// Build platform data
platformData := NodePlatformData{
Instance: n.Instance,
Host: n.Host,
GuestURL: n.GuestURL,
PVEVersion: n.PVEVersion,
KernelVersion: n.KernelVersion,
LoadAverage: n.LoadAverage,
IsClusterMember: n.IsClusterMember,
ClusterName: n.ClusterName,
ConnectionHealth: n.ConnectionHealth,
CPUInfo: CPUInfo{
Model: n.CPUInfo.Model,
Cores: n.CPUInfo.Cores,
Sockets: n.CPUInfo.Sockets,
},
}
platformDataJSON, _ := json.Marshal(platformData)
// Determine cluster ID
clusterID := ""
if n.IsClusterMember && n.ClusterName != "" {
clusterID = fmt.Sprintf("pve-cluster/%s", n.ClusterName)
}
return Resource{
ID: n.ID,
Type: ResourceTypeNode,
Name: n.Name,
DisplayName: n.DisplayName,
PlatformID: n.Instance,
PlatformType: PlatformProxmoxPVE,
SourceType: SourceAPI,
ClusterID: clusterID,
Status: mapNodeStatus(n.Status),
CPU: &MetricValue{
Current: n.CPU * 100, // Node CPU is 0-1, convert to percentage
},
Memory: memory,
Disk: disk,
Temperature: temp,
Uptime: &n.Uptime,
LastSeen: n.LastSeen,
PlatformData: platformDataJSON,
Identity: &ResourceIdentity{
Hostname: n.Name,
},
SchemaVersion: CurrentSchemaVersion,
}
}
// FromVM converts a Proxmox VM to a unified Resource.
func FromVM(vm models.VM) Resource {
// Build memory metric
var memory *MetricValue
if vm.Memory.Total > 0 {
memory = &MetricValue{
Current: vm.Memory.Usage,
Total: &vm.Memory.Total,
Used: &vm.Memory.Used,
Free: &vm.Memory.Free,
}
}
// Build disk metric
var disk *MetricValue
if vm.Disk.Total > 0 {
disk = &MetricValue{
Current: vm.Disk.Usage,
Total: &vm.Disk.Total,
Used: &vm.Disk.Used,
Free: &vm.Disk.Free,
}
}
// Build network metric
network := &NetworkMetric{
RXBytes: vm.NetworkIn,
TXBytes: vm.NetworkOut,
}
// Build platform data
var lastBackup *time.Time
if !vm.LastBackup.IsZero() {
lastBackup = &vm.LastBackup
}
platformData := VMPlatformData{
VMID: vm.VMID,
Node: vm.Node,
Instance: vm.Instance,
CPUs: vm.CPUs,
Template: vm.Template,
Lock: vm.Lock,
AgentVersion: vm.AgentVersion,
OSName: vm.OSName,
OSVersion: vm.OSVersion,
IPAddresses: vm.IPAddresses,
NetworkIn: vm.NetworkIn,
NetworkOut: vm.NetworkOut,
DiskRead: vm.DiskRead,
DiskWrite: vm.DiskWrite,
LastBackup: lastBackup,
}
platformDataJSON, _ := json.Marshal(platformData)
// Parent is the node
parentID := fmt.Sprintf("%s/node/%s", vm.Instance, vm.Node)
return Resource{
ID: vm.ID,
Type: ResourceTypeVM,
Name: vm.Name,
PlatformID: vm.Instance,
PlatformType: PlatformProxmoxPVE,
SourceType: SourceAPI,
ParentID: parentID,
Status: mapGuestStatus(vm.Status),
CPU: &MetricValue{
Current: vm.CPU * 100, // VM CPU is 0-1, convert to percentage
},
Memory: memory,
Disk: disk,
Network: network,
Uptime: &vm.Uptime,
Tags: vm.Tags,
LastSeen: vm.LastSeen,
PlatformData: platformDataJSON,
SchemaVersion: CurrentSchemaVersion,
}
}
// FromContainer converts a Proxmox LXC Container to a unified Resource.
func FromContainer(ct models.Container) Resource {
// Build memory metric
var memory *MetricValue
if ct.Memory.Total > 0 {
memory = &MetricValue{
Current: ct.Memory.Usage,
Total: &ct.Memory.Total,
Used: &ct.Memory.Used,
Free: &ct.Memory.Free,
}
}
// Build disk metric
var disk *MetricValue
if ct.Disk.Total > 0 {
disk = &MetricValue{
Current: ct.Disk.Usage,
Total: &ct.Disk.Total,
Used: &ct.Disk.Used,
Free: &ct.Disk.Free,
}
}
// Build network metric
network := &NetworkMetric{
RXBytes: ct.NetworkIn,
TXBytes: ct.NetworkOut,
}
// Build platform data
var lastBackup *time.Time
if !ct.LastBackup.IsZero() {
lastBackup = &ct.LastBackup
}
platformData := ContainerPlatformData{
VMID: ct.VMID,
Node: ct.Node,
Instance: ct.Instance,
CPUs: ct.CPUs,
Template: ct.Template,
Lock: ct.Lock,
OSName: ct.OSName,
IPAddresses: ct.IPAddresses,
NetworkIn: ct.NetworkIn,
NetworkOut: ct.NetworkOut,
DiskRead: ct.DiskRead,
DiskWrite: ct.DiskWrite,
LastBackup: lastBackup,
}
platformDataJSON, _ := json.Marshal(platformData)
// Parent is the node
parentID := fmt.Sprintf("%s/node/%s", ct.Instance, ct.Node)
return Resource{
ID: ct.ID,
Type: ResourceTypeContainer,
Name: ct.Name,
PlatformID: ct.Instance,
PlatformType: PlatformProxmoxPVE,
SourceType: SourceAPI,
ParentID: parentID,
Status: mapGuestStatus(ct.Status),
CPU: &MetricValue{
Current: ct.CPU * 100, // Container CPU is 0-1, convert to percentage
},
Memory: memory,
Disk: disk,
Network: network,
Uptime: &ct.Uptime,
Tags: ct.Tags,
LastSeen: ct.LastSeen,
PlatformData: platformDataJSON,
SchemaVersion: CurrentSchemaVersion,
}
}
// FromHost converts a Host agent to a unified Resource.
func FromHost(h models.Host) Resource {
// Build memory metric
var memory *MetricValue
if h.Memory.Total > 0 {
memory = &MetricValue{
Current: h.Memory.Usage,
Total: &h.Memory.Total,
Used: &h.Memory.Used,
Free: &h.Memory.Free,
}
}
// Combine disk metrics from multiple disks
var disk *MetricValue
var totalDisk, usedDisk, freeDisk int64
for _, d := range h.Disks {
totalDisk += d.Total
usedDisk += d.Used
freeDisk += d.Free
}
if totalDisk > 0 {
usage := float64(usedDisk) / float64(totalDisk) * 100
disk = &MetricValue{
Current: usage,
Total: &totalDisk,
Used: &usedDisk,
Free: &freeDisk,
}
}
// Calculate network totals
var rxTotal, txTotal int64
for _, iface := range h.NetworkInterfaces {
rxTotal += int64(iface.RXBytes)
txTotal += int64(iface.TXBytes)
}
network := &NetworkMetric{
RXBytes: rxTotal,
TXBytes: txTotal,
}
// Get primary temperature
var temp *float64
if len(h.Sensors.TemperatureCelsius) > 0 {
// Pick the first available temperature
for _, t := range h.Sensors.TemperatureCelsius {
temp = &t
break
}
}
// Build platform data
disks := make([]DiskInfo, len(h.Disks))
for i, d := range h.Disks {
disks[i] = DiskInfo{
Mountpoint: d.Mountpoint,
Device: d.Device,
Type: d.Type,
Total: d.Total,
Used: d.Used,
Free: d.Free,
Usage: d.Usage,
}
}
interfaces := make([]NetworkInterface, len(h.NetworkInterfaces))
for i, iface := range h.NetworkInterfaces {
interfaces[i] = NetworkInterface{
Name: iface.Name,
MAC: iface.MAC,
Addresses: iface.Addresses,
RXBytes: iface.RXBytes,
TXBytes: iface.TXBytes,
SpeedMbps: iface.SpeedMbps,
}
}
diskIO := make([]DiskIOStats, len(h.DiskIO))
for i, d := range h.DiskIO {
diskIO[i] = DiskIOStats{
Device: d.Device,
ReadBytes: d.ReadBytes,
WriteBytes: d.WriteBytes,
ReadOps: d.ReadOps,
WriteOps: d.WriteOps,
ReadTimeMs: d.ReadTime,
WriteTimeMs: d.WriteTime,
IOTimeMs: d.IOTime,
}
}
raid := make([]HostRAIDArray, len(h.RAID))
for i, r := range h.RAID {
devices := make([]HostRAIDDevice, len(r.Devices))
for j, d := range r.Devices {
devices[j] = HostRAIDDevice{
Device: d.Device,
State: d.State,
Slot: d.Slot,
}
}
raid[i] = HostRAIDArray{
Device: r.Device,
Name: r.Name,
Level: r.Level,
State: r.State,
TotalDevices: r.TotalDevices,
ActiveDevices: r.ActiveDevices,
WorkingDevices: r.WorkingDevices,
FailedDevices: r.FailedDevices,
SpareDevices: r.SpareDevices,
UUID: r.UUID,
Devices: devices,
RebuildPercent: r.RebuildPercent,
RebuildSpeed: r.RebuildSpeed,
}
}
platformData := HostPlatformData{
Platform: h.Platform,
OSName: h.OSName,
OSVersion: h.OSVersion,
KernelVersion: h.KernelVersion,
Architecture: h.Architecture,
CPUCount: h.CPUCount,
LoadAverage: h.LoadAverage,
AgentVersion: h.AgentVersion,
IsLegacy: h.IsLegacy,
Disks: disks,
Interfaces: interfaces,
DiskIO: diskIO,
RAID: raid,
TokenID: h.TokenID,
TokenName: h.TokenName,
TokenHint: h.TokenHint,
TokenLastUsedAt: h.TokenLastUsedAt,
Sensors: HostSensorSummary{
TemperatureCelsius: h.Sensors.TemperatureCelsius,
FanRPM: h.Sensors.FanRPM,
Additional: h.Sensors.Additional,
},
}
platformDataJSON, _ := json.Marshal(platformData)
// Collect IPs for identity
var ips []string
for _, iface := range h.NetworkInterfaces {
ips = append(ips, iface.Addresses...)
}
return Resource{
ID: h.ID,
Type: ResourceTypeHost,
Name: h.Hostname,
DisplayName: h.DisplayName,
PlatformID: "host-agent", // No specific platform ID for host agents
PlatformType: PlatformHostAgent,
SourceType: SourceAgent,
Status: mapHostStatus(h.Status),
CPU: &MetricValue{
Current: h.CPUUsage,
},
Memory: memory,
Disk: disk,
Network: network,
Temperature: temp,
Uptime: &h.UptimeSeconds,
Tags: h.Tags,
LastSeen: h.LastSeen,
PlatformData: platformDataJSON,
Identity: &ResourceIdentity{
Hostname: h.Hostname,
IPs: ips,
},
SchemaVersion: CurrentSchemaVersion,
}
}
// FromDockerHost converts a DockerHost to a unified Resource.
func FromDockerHost(dh models.DockerHost) Resource {
// Build memory metric
var memory *MetricValue
if dh.Memory.Total > 0 {
memory = &MetricValue{
Current: dh.Memory.Usage,
Total: &dh.Memory.Total,
Used: &dh.Memory.Used,
Free: &dh.Memory.Free,
}
}
// Combine disk metrics
var disk *MetricValue
var totalDisk, usedDisk, freeDisk int64
for _, d := range dh.Disks {
totalDisk += d.Total
usedDisk += d.Used
freeDisk += d.Free
}
if totalDisk > 0 {
usage := float64(usedDisk) / float64(totalDisk) * 100
disk = &MetricValue{
Current: usage,
Total: &totalDisk,
Used: &usedDisk,
Free: &freeDisk,
}
}
// Calculate network totals
var rxTotal, txTotal int64
for _, iface := range dh.NetworkInterfaces {
rxTotal += int64(iface.RXBytes)
txTotal += int64(iface.TXBytes)
}
network := &NetworkMetric{
RXBytes: rxTotal,
TXBytes: txTotal,
}
// Build platform data
disks := make([]DiskInfo, len(dh.Disks))
for i, d := range dh.Disks {
disks[i] = DiskInfo{
Mountpoint: d.Mountpoint,
Device: d.Device,
Type: d.Type,
Total: d.Total,
Used: d.Used,
Free: d.Free,
Usage: d.Usage,
}
}
interfaces := make([]NetworkInterface, len(dh.NetworkInterfaces))
for i, iface := range dh.NetworkInterfaces {
interfaces[i] = NetworkInterface{
Name: iface.Name,
MAC: iface.MAC,
Addresses: iface.Addresses,
RXBytes: iface.RXBytes,
TXBytes: iface.TXBytes,
SpeedMbps: iface.SpeedMbps,
}
}
var swarm *DockerSwarmInfo
if dh.Swarm != nil {
swarm = &DockerSwarmInfo{
NodeID: dh.Swarm.NodeID,
NodeRole: dh.Swarm.NodeRole,
LocalState: dh.Swarm.LocalState,
ControlAvailable: dh.Swarm.ControlAvailable,
ClusterID: dh.Swarm.ClusterID,
ClusterName: dh.Swarm.ClusterName,
Scope: dh.Swarm.Scope,
Error: dh.Swarm.Error,
}
}
platformData := DockerHostPlatformData{
AgentID: dh.AgentID,
MachineID: dh.MachineID,
OS: dh.OS,
KernelVersion: dh.KernelVersion,
Architecture: dh.Architecture,
Runtime: dh.Runtime,
RuntimeVersion: dh.RuntimeVersion,
DockerVersion: dh.DockerVersion,
LoadAverage: dh.LoadAverage,
AgentVersion: dh.AgentVersion,
CPUs: dh.CPUs,
IsLegacy: dh.IsLegacy,
Disks: disks,
Interfaces: interfaces,
CustomDisplayName: dh.CustomDisplayName,
Hidden: dh.Hidden,
PendingUninstall: dh.PendingUninstall,
Swarm: swarm,
TokenID: dh.TokenID,
TokenName: dh.TokenName,
TokenHint: dh.TokenHint,
TokenLastUsedAt: dh.TokenLastUsedAt,
}
platformDataJSON, _ := json.Marshal(platformData)
// Collect IPs for identity
var ips []string
for _, iface := range dh.NetworkInterfaces {
ips = append(ips, iface.Addresses...)
}
// Determine display name
displayName := dh.DisplayName
if dh.CustomDisplayName != "" {
displayName = dh.CustomDisplayName
}
// Determine cluster ID from swarm
clusterID := ""
if dh.Swarm != nil && dh.Swarm.ClusterID != "" {
clusterID = fmt.Sprintf("docker-swarm/%s", dh.Swarm.ClusterID)
}
return Resource{
ID: dh.ID,
Type: ResourceTypeDockerHost,
Name: dh.Hostname,
DisplayName: displayName,
PlatformID: dh.AgentID,
PlatformType: PlatformDocker,
SourceType: SourceAgent,
ClusterID: clusterID,
Status: mapDockerHostStatus(dh.Status),
CPU: &MetricValue{
Current: dh.CPUUsage,
},
Memory: memory,
Disk: disk,
Network: network,
Uptime: &dh.UptimeSeconds,
LastSeen: dh.LastSeen,
PlatformData: platformDataJSON,
Identity: &ResourceIdentity{
Hostname: dh.Hostname,
MachineID: dh.MachineID,
IPs: ips,
},
SchemaVersion: CurrentSchemaVersion,
}
}
// FromDockerContainer converts a DockerContainer to a unified Resource.
func FromDockerContainer(dc models.DockerContainer, hostID, hostName string) Resource {
// Build memory metric
memTotal := dc.MemoryLimit
memUsed := dc.MemoryUsage
var memory *MetricValue
if memTotal > 0 {
memory = &MetricValue{
Current: dc.MemoryPercent,
Total: &memTotal,
Used: &memUsed,
}
}
// Build platform data
ports := make([]ContainerPort, len(dc.Ports))
for i, p := range dc.Ports {
ports[i] = ContainerPort{
PrivatePort: p.PrivatePort,
PublicPort: p.PublicPort,
Protocol: p.Protocol,
IP: p.IP,
}
}
networks := make([]ContainerNetwork, len(dc.Networks))
for i, n := range dc.Networks {
networks[i] = ContainerNetwork{
Name: n.Name,
IPv4: n.IPv4,
IPv6: n.IPv6,
}
}
var podman *PodmanContainerInfo
if dc.Podman != nil {
podman = &PodmanContainerInfo{
PodName: dc.Podman.PodName,
PodID: dc.Podman.PodID,
Infra: dc.Podman.Infra,
ComposeProject: dc.Podman.ComposeProject,
ComposeService: dc.Podman.ComposeService,
}
}
platformData := DockerContainerPlatformData{
HostID: hostID,
HostName: hostName,
Image: dc.Image,
State: dc.State,
Status: dc.Status,
Health: dc.Health,
RestartCount: dc.RestartCount,
ExitCode: dc.ExitCode,
CreatedAt: dc.CreatedAt,
StartedAt: dc.StartedAt,
FinishedAt: dc.FinishedAt,
Labels: dc.Labels,
Ports: ports,
Networks: networks,
Podman: podman,
}
platformDataJSON, _ := json.Marshal(platformData)
// Create unique ID combining host and container
resourceID := fmt.Sprintf("%s/%s", hostID, dc.ID)
return Resource{
ID: resourceID,
Type: ResourceTypeDockerContainer,
Name: dc.Name,
PlatformID: hostID,
PlatformType: PlatformDocker,
SourceType: SourceAgent,
ParentID: hostID,
Status: mapDockerContainerStatus(dc.State),
CPU: &MetricValue{
Current: dc.CPUPercent,
},
Memory: memory,
Uptime: &dc.UptimeSeconds,
Labels: dc.Labels,
LastSeen: time.Now(), // Containers don't have their own LastSeen
PlatformData: platformDataJSON,
SchemaVersion: CurrentSchemaVersion,
}
}
// FromPBSInstance converts a PBS instance to a unified Resource.
func FromPBSInstance(pbs models.PBSInstance) Resource {
// Build memory metric
var memory *MetricValue
if pbs.MemoryTotal > 0 {
memory = &MetricValue{
Current: pbs.Memory,
Total: &pbs.MemoryTotal,
Used: &pbs.MemoryUsed,
}
}
platformData := PBSPlatformData{
Host: pbs.Host,
Version: pbs.Version,
ConnectionHealth: pbs.ConnectionHealth,
MemoryUsed: pbs.MemoryUsed,
MemoryTotal: pbs.MemoryTotal,
NumDatastores: len(pbs.Datastores),
}
platformDataJSON, _ := json.Marshal(platformData)
return Resource{
ID: pbs.ID,
Type: ResourceTypePBS,
Name: pbs.Name,
PlatformID: pbs.Host,
PlatformType: PlatformProxmoxPBS,
SourceType: SourceAPI,
Status: mapPBSStatus(pbs.Status, pbs.ConnectionHealth),
CPU: &MetricValue{
Current: pbs.CPU,
},
Memory: memory,
Uptime: &pbs.Uptime,
LastSeen: pbs.LastSeen,
PlatformData: platformDataJSON,
SchemaVersion: CurrentSchemaVersion,
}
}
// FromStorage converts a Proxmox Storage to a unified Resource.
func FromStorage(s models.Storage) Resource {
var disk *MetricValue
if s.Total > 0 {
disk = &MetricValue{
Current: s.Usage,
Total: &s.Total,
Used: &s.Used,
Free: &s.Free,
}
}
platformData := StoragePlatformData{
Instance: s.Instance,
Node: s.Node,
Nodes: s.Nodes,
Type: s.Type,
Content: s.Content,
Shared: s.Shared,
Enabled: s.Enabled,
Active: s.Active,
}
platformDataJSON, _ := json.Marshal(platformData)
status := StatusOnline
if !s.Active {
status = StatusOffline
} else if !s.Enabled {
status = StatusStopped
}
return Resource{
ID: s.ID,
Type: ResourceTypeStorage,
Name: s.Name,
PlatformID: s.Instance,
PlatformType: PlatformProxmoxPVE,
SourceType: SourceAPI,
ParentID: fmt.Sprintf("%s/node/%s", s.Instance, s.Node),
Status: status,
Disk: disk,
LastSeen: time.Now(), // Storage doesn't have LastSeen
PlatformData: platformDataJSON,
SchemaVersion: CurrentSchemaVersion,
}
}
// Status mapping helpers
func mapNodeStatus(status string) ResourceStatus {
switch strings.ToLower(status) {
case "online":
return StatusOnline
case "offline":
return StatusOffline
default:
return StatusUnknown
}
}
func mapGuestStatus(status string) ResourceStatus {
switch strings.ToLower(status) {
case "running":
return StatusRunning
case "stopped":
return StatusStopped
case "paused":
return StatusPaused
default:
return StatusUnknown
}
}
func mapHostStatus(status string) ResourceStatus {
switch strings.ToLower(status) {
case "online":
return StatusOnline
case "offline":
return StatusOffline
case "degraded":
return StatusDegraded
default:
return StatusUnknown
}
}
func mapDockerHostStatus(status string) ResourceStatus {
switch strings.ToLower(status) {
case "online":
return StatusOnline
case "offline":
return StatusOffline
default:
return StatusUnknown
}
}
func mapDockerContainerStatus(state string) ResourceStatus {
switch strings.ToLower(state) {
case "running":
return StatusRunning
case "exited", "dead":
return StatusStopped
case "paused":
return StatusPaused
case "restarting", "created":
return StatusUnknown
default:
return StatusUnknown
}
}
func mapPBSStatus(status, connectionHealth string) ResourceStatus {
if connectionHealth != "healthy" {
return StatusDegraded
}
switch strings.ToLower(status) {
case "online":
return StatusOnline
case "offline":
return StatusOffline
default:
return StatusUnknown
}
}

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@ -0,0 +1,546 @@
package resources
import (
"testing"
"time"
"github.com/rcourtman/pulse-go-rewrite/internal/models"
)
func TestFromNode(t *testing.T) {
node := models.Node{
ID: "pve1/node/node1",
Name: "node1",
DisplayName: "Production Node 1",
Instance: "pve1",
Host: "https://192.168.1.100:8006",
Status: "online",
CPU: 0.25, // 25%
Memory: models.Memory{
Total: 16 * 1024 * 1024 * 1024, // 16GB
Used: 8 * 1024 * 1024 * 1024, // 8GB
Free: 8 * 1024 * 1024 * 1024,
Usage: 50.0,
},
Disk: models.Disk{
Total: 500 * 1024 * 1024 * 1024, // 500GB
Used: 200 * 1024 * 1024 * 1024, // 200GB
Free: 300 * 1024 * 1024 * 1024,
Usage: 40.0,
},
Uptime: 86400,
KernelVersion: "6.8.4-2-pve",
PVEVersion: "8.2.2",
IsClusterMember: true,
ClusterName: "production",
LastSeen: time.Now(),
LoadAverage: []float64{1.5, 2.0, 1.8},
}
r := FromNode(node)
// Check basic fields
if r.ID != node.ID {
t.Errorf("Expected ID %s, got %s", node.ID, r.ID)
}
if r.Type != ResourceTypeNode {
t.Errorf("Expected type %s, got %s", ResourceTypeNode, r.Type)
}
if r.Name != node.Name {
t.Errorf("Expected name %s, got %s", node.Name, r.Name)
}
if r.DisplayName != node.DisplayName {
t.Errorf("Expected displayName %s, got %s", node.DisplayName, r.DisplayName)
}
if r.PlatformType != PlatformProxmoxPVE {
t.Errorf("Expected platform %s, got %s", PlatformProxmoxPVE, r.PlatformType)
}
if r.SourceType != SourceAPI {
t.Errorf("Expected source %s, got %s", SourceAPI, r.SourceType)
}
if r.Status != StatusOnline {
t.Errorf("Expected status %s, got %s", StatusOnline, r.Status)
}
// Check metrics
if r.CPU == nil {
t.Fatal("CPU should not be nil")
}
if r.CPU.Current != 25.0 { // Converted from 0-1 to percentage
t.Errorf("Expected CPU 25%%, got %f%%", r.CPU.Current)
}
if r.Memory == nil {
t.Fatal("Memory should not be nil")
}
if r.Memory.Current != 50.0 {
t.Errorf("Expected memory 50%%, got %f%%", r.Memory.Current)
}
if r.Disk == nil {
t.Fatal("Disk should not be nil")
}
if r.Disk.Current != 40.0 {
t.Errorf("Expected disk 40%%, got %f%%", r.Disk.Current)
}
if r.Uptime == nil || *r.Uptime != 86400 {
t.Errorf("Expected uptime 86400, got %v", r.Uptime)
}
// Check cluster info
if r.ClusterID != "pve-cluster/production" {
t.Errorf("Expected clusterID pve-cluster/production, got %s", r.ClusterID)
}
// Check identity
if r.Identity == nil {
t.Fatal("Identity should not be nil")
}
if r.Identity.Hostname != "node1" {
t.Errorf("Expected hostname node1, got %s", r.Identity.Hostname)
}
// Check platform data
var pd NodePlatformData
if err := r.GetPlatformData(&pd); err != nil {
t.Fatalf("Failed to get platform data: %v", err)
}
if pd.PVEVersion != "8.2.2" {
t.Errorf("Expected PVE version 8.2.2, got %s", pd.PVEVersion)
}
if pd.KernelVersion != "6.8.4-2-pve" {
t.Errorf("Expected kernel version 6.8.4-2-pve, got %s", pd.KernelVersion)
}
if len(pd.LoadAverage) != 3 {
t.Errorf("Expected 3 load average values, got %d", len(pd.LoadAverage))
}
}
func TestFromVM(t *testing.T) {
vm := models.VM{
ID: "pve1/qemu/100",
VMID: 100,
Name: "webserver",
Node: "node1",
Instance: "pve1",
Status: "running",
Type: "qemu",
CPU: 0.15,
CPUs: 4,
Memory: models.Memory{
Total: 8 * 1024 * 1024 * 1024,
Used: 4 * 1024 * 1024 * 1024,
Free: 4 * 1024 * 1024 * 1024,
Usage: 50.0,
},
Disk: models.Disk{
Total: 100 * 1024 * 1024 * 1024,
Used: 30 * 1024 * 1024 * 1024,
Free: 70 * 1024 * 1024 * 1024,
Usage: 30.0,
},
NetworkIn: 1000000,
NetworkOut: 500000,
DiskRead: 2000000,
DiskWrite: 1000000,
Uptime: 3600,
Tags: []string{"production", "web"},
LastSeen: time.Now(),
}
r := FromVM(vm)
if r.ID != vm.ID {
t.Errorf("Expected ID %s, got %s", vm.ID, r.ID)
}
if r.Type != ResourceTypeVM {
t.Errorf("Expected type %s, got %s", ResourceTypeVM, r.Type)
}
if r.Status != StatusRunning {
t.Errorf("Expected status %s, got %s", StatusRunning, r.Status)
}
if r.ParentID != "pve1/node/node1" {
t.Errorf("Expected parent pve1/node/node1, got %s", r.ParentID)
}
// Check CPU is converted to percentage
if r.CPU.Current != 15.0 {
t.Errorf("Expected CPU 15%%, got %f%%", r.CPU.Current)
}
// Check network
if r.Network == nil {
t.Fatal("Network should not be nil")
}
if r.Network.RXBytes != 1000000 {
t.Errorf("Expected RXBytes 1000000, got %d", r.Network.RXBytes)
}
if r.Network.TXBytes != 500000 {
t.Errorf("Expected TXBytes 500000, got %d", r.Network.TXBytes)
}
// Check tags
if len(r.Tags) != 2 {
t.Errorf("Expected 2 tags, got %d", len(r.Tags))
}
// Check platform data
var pd VMPlatformData
if err := r.GetPlatformData(&pd); err != nil {
t.Fatalf("Failed to get platform data: %v", err)
}
if pd.VMID != 100 {
t.Errorf("Expected VMID 100, got %d", pd.VMID)
}
if pd.CPUs != 4 {
t.Errorf("Expected 4 CPUs, got %d", pd.CPUs)
}
}
func TestFromContainer(t *testing.T) {
ct := models.Container{
ID: "pve1/lxc/101",
VMID: 101,
Name: "database",
Node: "node1",
Instance: "pve1",
Status: "stopped",
Type: "lxc",
CPU: 0.0,
CPUs: 2,
Memory: models.Memory{
Total: 4 * 1024 * 1024 * 1024,
Used: 0,
Free: 4 * 1024 * 1024 * 1024,
Usage: 0.0,
},
Uptime: 0,
Tags: []string{"database"},
IPAddresses: []string{"192.168.1.50"},
LastSeen: time.Now(),
}
r := FromContainer(ct)
if r.Type != ResourceTypeContainer {
t.Errorf("Expected type %s, got %s", ResourceTypeContainer, r.Type)
}
if r.Status != StatusStopped {
t.Errorf("Expected status %s, got %s", StatusStopped, r.Status)
}
if r.ParentID != "pve1/node/node1" {
t.Errorf("Expected parent pve1/node/node1, got %s", r.ParentID)
}
var pd ContainerPlatformData
if err := r.GetPlatformData(&pd); err != nil {
t.Fatalf("Failed to get platform data: %v", err)
}
if len(pd.IPAddresses) != 1 || pd.IPAddresses[0] != "192.168.1.50" {
t.Errorf("Expected IP 192.168.1.50, got %v", pd.IPAddresses)
}
}
func TestFromHost(t *testing.T) {
host := models.Host{
ID: "host-abc123",
Hostname: "standalone-server",
DisplayName: "Standalone Server",
Platform: "linux",
OSName: "Ubuntu",
OSVersion: "22.04",
KernelVersion: "5.15.0-generic",
Architecture: "amd64",
CPUCount: 8,
CPUUsage: 45.5,
Memory: models.Memory{
Total: 32 * 1024 * 1024 * 1024,
Used: 16 * 1024 * 1024 * 1024,
Free: 16 * 1024 * 1024 * 1024,
Usage: 50.0,
},
LoadAverage: []float64{2.5, 2.0, 1.5},
Disks: []models.Disk{
{
Mountpoint: "/",
Total: 500 * 1024 * 1024 * 1024,
Used: 200 * 1024 * 1024 * 1024,
Free: 300 * 1024 * 1024 * 1024,
Usage: 40.0,
},
},
NetworkInterfaces: []models.HostNetworkInterface{
{
Name: "eth0",
MAC: "aa:bb:cc:dd:ee:ff",
Addresses: []string{"192.168.1.100", "fe80::1"},
RXBytes: 10000000,
TXBytes: 5000000,
},
},
Sensors: models.HostSensorSummary{
TemperatureCelsius: map[string]float64{
"cpu_temp": 55.0,
},
},
Status: "online",
UptimeSeconds: 86400 * 30, // 30 days
AgentVersion: "1.2.3",
Tags: []string{"production"},
LastSeen: time.Now(),
}
r := FromHost(host)
if r.Type != ResourceTypeHost {
t.Errorf("Expected type %s, got %s", ResourceTypeHost, r.Type)
}
if r.PlatformType != PlatformHostAgent {
t.Errorf("Expected platform %s, got %s", PlatformHostAgent, r.PlatformType)
}
if r.SourceType != SourceAgent {
t.Errorf("Expected source %s, got %s", SourceAgent, r.SourceType)
}
// CPU is already a percentage for hosts
if r.CPU.Current != 45.5 {
t.Errorf("Expected CPU 45.5%%, got %f%%", r.CPU.Current)
}
// Check temperature
if r.Temperature == nil || *r.Temperature != 55.0 {
t.Errorf("Expected temperature 55.0, got %v", r.Temperature)
}
// Check identity includes IP
if r.Identity == nil {
t.Fatal("Identity should not be nil")
}
if r.Identity.Hostname != "standalone-server" {
t.Errorf("Expected hostname standalone-server, got %s", r.Identity.Hostname)
}
if len(r.Identity.IPs) < 1 {
t.Error("Expected at least 1 IP in identity")
}
// Check platform data
var pd HostPlatformData
if err := r.GetPlatformData(&pd); err != nil {
t.Fatalf("Failed to get platform data: %v", err)
}
if pd.CPUCount != 8 {
t.Errorf("Expected 8 CPUs, got %d", pd.CPUCount)
}
if pd.AgentVersion != "1.2.3" {
t.Errorf("Expected agent version 1.2.3, got %s", pd.AgentVersion)
}
}
func TestFromDockerHost(t *testing.T) {
dh := models.DockerHost{
ID: "docker-host-1",
AgentID: "agent-xyz",
Hostname: "docker-server",
DisplayName: "Docker Server",
MachineID: "machine-id-123",
OS: "linux",
Architecture: "amd64",
Runtime: "docker",
DockerVersion: "24.0.5",
CPUs: 16,
CPUUsage: 35.0,
Memory: models.Memory{
Total: 64 * 1024 * 1024 * 1024,
Used: 32 * 1024 * 1024 * 1024,
Free: 32 * 1024 * 1024 * 1024,
Usage: 50.0,
},
UptimeSeconds: 86400,
Status: "online",
LastSeen: time.Now(),
Swarm: &models.DockerSwarmInfo{
NodeID: "swarm-node-1",
NodeRole: "manager",
ClusterID: "swarm-cluster-1",
ClusterName: "production-swarm",
},
NetworkInterfaces: []models.HostNetworkInterface{
{
Name: "docker0",
Addresses: []string{"172.17.0.1"},
},
},
}
r := FromDockerHost(dh)
if r.Type != ResourceTypeDockerHost {
t.Errorf("Expected type %s, got %s", ResourceTypeDockerHost, r.Type)
}
if r.PlatformType != PlatformDocker {
t.Errorf("Expected platform %s, got %s", PlatformDocker, r.PlatformType)
}
// Check cluster ID from swarm
if r.ClusterID != "docker-swarm/swarm-cluster-1" {
t.Errorf("Expected clusterID docker-swarm/swarm-cluster-1, got %s", r.ClusterID)
}
// Check identity includes machine ID
if r.Identity == nil {
t.Fatal("Identity should not be nil")
}
if r.Identity.MachineID != "machine-id-123" {
t.Errorf("Expected machineID machine-id-123, got %s", r.Identity.MachineID)
}
var pd DockerHostPlatformData
if err := r.GetPlatformData(&pd); err != nil {
t.Fatalf("Failed to get platform data: %v", err)
}
if pd.DockerVersion != "24.0.5" {
t.Errorf("Expected Docker version 24.0.5, got %s", pd.DockerVersion)
}
if pd.Swarm == nil || pd.Swarm.NodeRole != "manager" {
t.Error("Expected swarm info with manager role")
}
}
func TestFromDockerContainer(t *testing.T) {
dc := models.DockerContainer{
ID: "container-123",
Name: "nginx",
Image: "nginx:latest",
State: "running",
Status: "Up 2 hours",
Health: "healthy",
CPUPercent: 5.5,
MemoryUsage: 256 * 1024 * 1024, // 256MB
MemoryLimit: 512 * 1024 * 1024, // 512MB
MemoryPercent: 50.0,
UptimeSeconds: 7200,
RestartCount: 0,
CreatedAt: time.Now().Add(-24 * time.Hour),
Labels: map[string]string{
"app": "web",
},
Ports: []models.DockerContainerPort{
{PrivatePort: 80, PublicPort: 8080, Protocol: "tcp"},
},
}
r := FromDockerContainer(dc, "docker-host-1", "docker-server")
if r.Type != ResourceTypeDockerContainer {
t.Errorf("Expected type %s, got %s", ResourceTypeDockerContainer, r.Type)
}
if r.ParentID != "docker-host-1" {
t.Errorf("Expected parent docker-host-1, got %s", r.ParentID)
}
if r.Status != StatusRunning {
t.Errorf("Expected status %s, got %s", StatusRunning, r.Status)
}
if r.CPU.Current != 5.5 {
t.Errorf("Expected CPU 5.5%%, got %f%%", r.CPU.Current)
}
if r.Memory == nil || r.Memory.Current != 50.0 {
t.Errorf("Expected memory 50%%, got %v", r.Memory)
}
if r.Labels["app"] != "web" {
t.Error("Expected label app=web")
}
var pd DockerContainerPlatformData
if err := r.GetPlatformData(&pd); err != nil {
t.Fatalf("Failed to get platform data: %v", err)
}
if pd.Image != "nginx:latest" {
t.Errorf("Expected image nginx:latest, got %s", pd.Image)
}
if pd.Health != "healthy" {
t.Errorf("Expected health healthy, got %s", pd.Health)
}
if len(pd.Ports) != 1 || pd.Ports[0].PublicPort != 8080 {
t.Error("Expected port 8080 mapping")
}
}
func TestResourceMethods(t *testing.T) {
// Test IsInfrastructure
nodeResource := Resource{Type: ResourceTypeNode}
if !nodeResource.IsInfrastructure() {
t.Error("Node should be infrastructure")
}
if nodeResource.IsWorkload() {
t.Error("Node should not be workload")
}
vmResource := Resource{Type: ResourceTypeVM}
if vmResource.IsInfrastructure() {
t.Error("VM should not be infrastructure")
}
if !vmResource.IsWorkload() {
t.Error("VM should be workload")
}
// Test EffectiveDisplayName
r := Resource{Name: "name", DisplayName: ""}
if r.EffectiveDisplayName() != "name" {
t.Error("Should return Name when DisplayName is empty")
}
r.DisplayName = "custom"
if r.EffectiveDisplayName() != "custom" {
t.Error("Should return DisplayName when set")
}
// Test CPUPercent
r = Resource{}
if r.CPUPercent() != 0 {
t.Error("CPUPercent should be 0 when CPU is nil")
}
r.CPU = &MetricValue{Current: 75.5}
if r.CPUPercent() != 75.5 {
t.Errorf("Expected 75.5, got %f", r.CPUPercent())
}
// Test MemoryPercent
r = Resource{}
if r.MemoryPercent() != 0 {
t.Error("MemoryPercent should be 0 when Memory is nil")
}
r.Memory = &MetricValue{Current: 60.0}
if r.MemoryPercent() != 60.0 {
t.Errorf("Expected 60.0, got %f", r.MemoryPercent())
}
}
func TestStatusMapping(t *testing.T) {
tests := []struct {
input string
expected ResourceStatus
mapper func(string) ResourceStatus
}{
{"online", StatusOnline, mapNodeStatus},
{"offline", StatusOffline, mapNodeStatus},
{"unknown", StatusUnknown, mapNodeStatus},
{"running", StatusRunning, mapGuestStatus},
{"stopped", StatusStopped, mapGuestStatus},
{"paused", StatusPaused, mapGuestStatus},
{"online", StatusOnline, mapHostStatus},
{"degraded", StatusDegraded, mapHostStatus},
{"running", StatusRunning, mapDockerContainerStatus},
{"exited", StatusStopped, mapDockerContainerStatus},
{"dead", StatusStopped, mapDockerContainerStatus},
{"paused", StatusPaused, mapDockerContainerStatus},
}
for _, test := range tests {
result := test.mapper(test.input)
if result != test.expected {
t.Errorf("Mapping %s: expected %s, got %s", test.input, test.expected, result)
}
}
}

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@ -0,0 +1,287 @@
package resources
import "time"
// NodePlatformData contains Proxmox VE node-specific fields.
// Stored in Resource.PlatformData when Type is ResourceTypeNode.
type NodePlatformData struct {
Instance string `json:"instance"` // Proxmox instance URL
Host string `json:"host"` // Full host URL from config
GuestURL string `json:"guestURL"` // Optional guest-accessible URL
PVEVersion string `json:"pveVersion"` // Proxmox VE version
KernelVersion string `json:"kernelVersion"` // Linux kernel version
CPUInfo CPUInfo `json:"cpuInfo"` // CPU details
LoadAverage []float64 `json:"loadAverage"` // 1, 5, 15 minute load averages
// Cluster information
IsClusterMember bool `json:"isClusterMember"`
ClusterName string `json:"clusterName"`
// Connection status
ConnectionHealth string `json:"connectionHealth"`
}
// CPUInfo contains CPU hardware details.
type CPUInfo struct {
Model string `json:"model"`
Cores int `json:"cores"`
Sockets int `json:"sockets"`
}
// VMPlatformData contains Proxmox VM-specific fields.
// Stored in Resource.PlatformData when Type is ResourceTypeVM.
type VMPlatformData struct {
VMID int `json:"vmid"`
Node string `json:"node"` // Proxmox node hosting this VM
Instance string `json:"instance"` // Proxmox instance URL
CPUs int `json:"cpus"` // Number of vCPUs
Template bool `json:"template"`
Lock string `json:"lock,omitempty"` // Lock status (backup, migrate, etc.)
AgentVersion string `json:"agentVersion,omitempty"`
OSName string `json:"osName,omitempty"`
OSVersion string `json:"osVersion,omitempty"`
IPAddresses []string `json:"ipAddresses,omitempty"`
// I/O stats
NetworkIn int64 `json:"networkIn"`
NetworkOut int64 `json:"networkOut"`
DiskRead int64 `json:"diskRead"`
DiskWrite int64 `json:"diskWrite"`
// Backup info
LastBackup *time.Time `json:"lastBackup,omitempty"`
}
// ContainerPlatformData contains Proxmox LXC container-specific fields.
// Stored in Resource.PlatformData when Type is ResourceTypeContainer.
type ContainerPlatformData struct {
VMID int `json:"vmid"`
Node string `json:"node"` // Proxmox node hosting this container
Instance string `json:"instance"` // Proxmox instance URL
CPUs int `json:"cpus"` // Number of vCPUs
Template bool `json:"template"`
Lock string `json:"lock,omitempty"`
OSName string `json:"osName,omitempty"`
IPAddresses []string `json:"ipAddresses,omitempty"`
// I/O stats
NetworkIn int64 `json:"networkIn"`
NetworkOut int64 `json:"networkOut"`
DiskRead int64 `json:"diskRead"`
DiskWrite int64 `json:"diskWrite"`
// Backup info
LastBackup *time.Time `json:"lastBackup,omitempty"`
}
// HostPlatformData contains host-agent specific fields.
// Stored in Resource.PlatformData when Type is ResourceTypeHost.
type HostPlatformData struct {
Platform string `json:"platform,omitempty"` // linux, windows, darwin
OSName string `json:"osName,omitempty"` // e.g., "Ubuntu 22.04"
OSVersion string `json:"osVersion,omitempty"` // OS version string
KernelVersion string `json:"kernelVersion,omitempty"` // Kernel version
Architecture string `json:"architecture,omitempty"` // amd64, arm64, etc.
CPUCount int `json:"cpuCount,omitempty"` // Number of CPUs
LoadAverage []float64 `json:"loadAverage,omitempty"` // 1, 5, 15 minute loads
AgentVersion string `json:"agentVersion,omitempty"` // Pulse agent version
IsLegacy bool `json:"isLegacy,omitempty"` // Legacy agent indicator
Sensors HostSensorSummary `json:"sensors,omitempty"` // Temperature/fan sensors
RAID []HostRAIDArray `json:"raid,omitempty"` // RAID arrays
DiskIO []DiskIOStats `json:"diskIO,omitempty"` // Per-disk I/O stats
Disks []DiskInfo `json:"disks,omitempty"` // Disk usage info
Interfaces []NetworkInterface `json:"interfaces,omitempty"` // Network interfaces
// Token information
TokenID string `json:"tokenId,omitempty"`
TokenName string `json:"tokenName,omitempty"`
TokenHint string `json:"tokenHint,omitempty"`
TokenLastUsedAt *time.Time `json:"tokenLastUsedAt,omitempty"`
}
// HostSensorSummary captures sensor readings from a host.
type HostSensorSummary struct {
TemperatureCelsius map[string]float64 `json:"temperatureCelsius,omitempty"`
FanRPM map[string]float64 `json:"fanRpm,omitempty"`
Additional map[string]float64 `json:"additional,omitempty"`
}
// HostRAIDArray represents an mdadm RAID array.
type HostRAIDArray struct {
Device string `json:"device"`
Name string `json:"name,omitempty"`
Level string `json:"level"`
State string `json:"state"`
TotalDevices int `json:"totalDevices"`
ActiveDevices int `json:"activeDevices"`
WorkingDevices int `json:"workingDevices"`
FailedDevices int `json:"failedDevices"`
SpareDevices int `json:"spareDevices"`
UUID string `json:"uuid,omitempty"`
Devices []HostRAIDDevice `json:"devices"`
RebuildPercent float64 `json:"rebuildPercent"`
RebuildSpeed string `json:"rebuildSpeed,omitempty"`
}
// HostRAIDDevice represents a device in a RAID array.
type HostRAIDDevice struct {
Device string `json:"device"`
State string `json:"state"`
Slot int `json:"slot"`
}
// DiskIOStats captures I/O statistics for a disk device.
type DiskIOStats struct {
Device string `json:"device"`
ReadBytes uint64 `json:"readBytes,omitempty"`
WriteBytes uint64 `json:"writeBytes,omitempty"`
ReadOps uint64 `json:"readOps,omitempty"`
WriteOps uint64 `json:"writeOps,omitempty"`
ReadTimeMs uint64 `json:"readTimeMs,omitempty"`
WriteTimeMs uint64 `json:"writeTimeMs,omitempty"`
IOTimeMs uint64 `json:"ioTimeMs,omitempty"`
}
// DiskInfo represents disk/partition usage.
type DiskInfo struct {
Mountpoint string `json:"mountpoint,omitempty"`
Device string `json:"device,omitempty"`
Type string `json:"type,omitempty"`
Total int64 `json:"total"`
Used int64 `json:"used"`
Free int64 `json:"free"`
Usage float64 `json:"usage"`
}
// NetworkInterface represents a network interface.
type NetworkInterface struct {
Name string `json:"name"`
MAC string `json:"mac,omitempty"`
Addresses []string `json:"addresses,omitempty"`
RXBytes uint64 `json:"rxBytes,omitempty"`
TXBytes uint64 `json:"txBytes,omitempty"`
SpeedMbps *int64 `json:"speedMbps,omitempty"`
}
// DockerHostPlatformData contains Docker host-specific fields.
// Stored in Resource.PlatformData when Type is ResourceTypeDockerHost.
type DockerHostPlatformData struct {
AgentID string `json:"agentId"`
MachineID string `json:"machineId,omitempty"`
OS string `json:"os,omitempty"`
KernelVersion string `json:"kernelVersion,omitempty"`
Architecture string `json:"architecture,omitempty"`
Runtime string `json:"runtime,omitempty"` // docker, podman
RuntimeVersion string `json:"runtimeVersion,omitempty"`
DockerVersion string `json:"dockerVersion,omitempty"`
LoadAverage []float64 `json:"loadAverage,omitempty"`
AgentVersion string `json:"agentVersion,omitempty"`
CPUs int `json:"cpus"`
IsLegacy bool `json:"isLegacy,omitempty"`
Disks []DiskInfo `json:"disks,omitempty"`
Interfaces []NetworkInterface `json:"interfaces,omitempty"`
CustomDisplayName string `json:"customDisplayName,omitempty"`
Hidden bool `json:"hidden"`
PendingUninstall bool `json:"pendingUninstall"`
// Swarm information
Swarm *DockerSwarmInfo `json:"swarm,omitempty"`
// Token information
TokenID string `json:"tokenId,omitempty"`
TokenName string `json:"tokenName,omitempty"`
TokenHint string `json:"tokenHint,omitempty"`
TokenLastUsedAt *time.Time `json:"tokenLastUsedAt,omitempty"`
}
// DockerSwarmInfo captures Docker Swarm membership details.
type DockerSwarmInfo struct {
NodeID string `json:"nodeId,omitempty"`
NodeRole string `json:"nodeRole,omitempty"`
LocalState string `json:"localState,omitempty"`
ControlAvailable bool `json:"controlAvailable,omitempty"`
ClusterID string `json:"clusterId,omitempty"`
ClusterName string `json:"clusterName,omitempty"`
Scope string `json:"scope,omitempty"`
Error string `json:"error,omitempty"`
}
// DockerContainerPlatformData contains Docker container-specific fields.
// Stored in Resource.PlatformData when Type is ResourceTypeDockerContainer.
type DockerContainerPlatformData struct {
HostID string `json:"hostId"` // Parent Docker host ID
HostName string `json:"hostName"` // Parent Docker host name
Image string `json:"image"` // Container image
State string `json:"state"` // created, running, paused, restarting, exited, dead
Status string `json:"status"` // Human-readable status
Health string `json:"health"` // healthy, unhealthy, starting, none
RestartCount int `json:"restartCount"`
ExitCode int `json:"exitCode"`
CreatedAt time.Time `json:"createdAt"`
StartedAt *time.Time `json:"startedAt,omitempty"`
FinishedAt *time.Time `json:"finishedAt,omitempty"`
Labels map[string]string `json:"labels,omitempty"`
Ports []ContainerPort `json:"ports,omitempty"`
Networks []ContainerNetwork `json:"networks,omitempty"`
// Podman-specific
Podman *PodmanContainerInfo `json:"podman,omitempty"`
}
// ContainerPort describes a port mapping.
type ContainerPort struct {
PrivatePort int `json:"privatePort"`
PublicPort int `json:"publicPort,omitempty"`
Protocol string `json:"protocol"`
IP string `json:"ip,omitempty"`
}
// ContainerNetwork describes a container's network attachment.
type ContainerNetwork struct {
Name string `json:"name"`
IPv4 string `json:"ipv4,omitempty"`
IPv6 string `json:"ipv6,omitempty"`
}
// PodmanContainerInfo captures Podman-specific container info.
type PodmanContainerInfo struct {
PodName string `json:"podName,omitempty"`
PodID string `json:"podId,omitempty"`
Infra bool `json:"infra,omitempty"`
ComposeProject string `json:"composeProject,omitempty"`
ComposeService string `json:"composeService,omitempty"`
}
// PBSPlatformData contains PBS-specific fields.
// Stored in Resource.PlatformData when Type is ResourceTypePBS.
type PBSPlatformData struct {
Host string `json:"host"`
Version string `json:"version"`
ConnectionHealth string `json:"connectionHealth"`
MemoryUsed int64 `json:"memoryUsed"`
MemoryTotal int64 `json:"memoryTotal"`
NumDatastores int `json:"numDatastores"`
}
// DatastorePlatformData contains PBS datastore-specific fields.
// Stored in Resource.PlatformData when Type is ResourceTypeDatastore.
type DatastorePlatformData struct {
PBSInstanceID string `json:"pbsInstanceId"`
PBSInstanceName string `json:"pbsInstanceName"`
Content string `json:"content,omitempty"`
Error string `json:"error,omitempty"`
DeduplicationFactor float64 `json:"deduplicationFactor,omitempty"`
}
// StoragePlatformData contains Proxmox storage-specific fields.
// Stored in Resource.PlatformData when Type is ResourceTypeStorage.
type StoragePlatformData struct {
Instance string `json:"instance"`
Node string `json:"node"` // Primary node
Nodes []string `json:"nodes,omitempty"` // All nodes (for shared storage)
Type string `json:"type"` // zfspool, lvmthin, cephfs, etc.
Content string `json:"content"`
Shared bool `json:"shared"`
Enabled bool `json:"enabled"`
Active bool `json:"active"`
}

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// Package resources provides a unified abstraction for all monitored entities
// across different platforms (Proxmox, Docker, Kubernetes, TrueNAS, etc.).
//
// The Resource type is the core abstraction that normalizes platform-specific
// types like Node, Host, DockerHost, VM, Container into a common data model.
// This enables:
// - AI intelligence across all platforms
// - Elimination of duplicate monitoring (one machine = one set of alerts)
// - Extensibility for new platforms
// - Foundation for unified views
package resources
import (
"encoding/json"
"time"
)
// Resource is the universal abstraction for any monitored entity.
// All platform-specific types (Node, VM, Container, DockerHost, etc.) can be
// converted to this common type for unified handling.
type Resource struct {
// Identity
ID string `json:"id"` // Globally unique ID
Type ResourceType `json:"type"` // vm, container, docker-container, pod, host, etc.
Name string `json:"name"` // Human-readable name
DisplayName string `json:"displayName"` // Custom display name (if set)
// Platform/Source
PlatformID string `json:"platformId"` // Which platform instance (e.g., cluster URL)
PlatformType PlatformType `json:"platformType"` // proxmox-pve, docker, kubernetes, etc.
SourceType SourceType `json:"sourceType"` // api, agent, hybrid
// Hierarchy
ParentID string `json:"parentId,omitempty"` // VM → Node, Pod → K8s Node
ClusterID string `json:"clusterId,omitempty"` // Cluster membership
// Universal Metrics (nullable - not all resources have all metrics)
Status ResourceStatus `json:"status"` // online, offline, running, stopped, degraded
CPU *MetricValue `json:"cpu,omitempty"` // CPU usage percentage
Memory *MetricValue `json:"memory,omitempty"` // Memory usage
Disk *MetricValue `json:"disk,omitempty"` // Primary disk usage
Network *NetworkMetric `json:"network,omitempty"` // Network I/O
Temperature *float64 `json:"temperature,omitempty"` // Temperature in Celsius
Uptime *int64 `json:"uptime,omitempty"` // Uptime in seconds
// Universal Metadata
Tags []string `json:"tags,omitempty"`
Labels map[string]string `json:"labels,omitempty"`
LastSeen time.Time `json:"lastSeen"`
Alerts []ResourceAlert `json:"alerts,omitempty"`
// Platform-Specific Data (discriminated by Type)
// This preserves all the rich data while allowing common handling.
// Use GetPlatformData() to unmarshal into the appropriate type.
PlatformData json.RawMessage `json:"platformData,omitempty"`
// Identity information for deduplication
Identity *ResourceIdentity `json:"identity,omitempty"`
// Schema version for future evolution
SchemaVersion int `json:"schemaVersion"`
}
// ResourceType identifies the kind of monitored entity.
type ResourceType string
const (
// Infrastructure - physical or virtual hosts that run workloads
ResourceTypeNode ResourceType = "node" // Proxmox VE node
ResourceTypeHost ResourceType = "host" // Standalone host (via host-agent)
ResourceTypeDockerHost ResourceType = "docker-host" // Docker/Podman host
ResourceTypeK8sNode ResourceType = "k8s-node" // Kubernetes node
ResourceTypeTrueNAS ResourceType = "truenas" // TrueNAS system
// Compute Workloads - individual running instances
ResourceTypeVM ResourceType = "vm" // Proxmox VM
ResourceTypeContainer ResourceType = "container" // LXC container
ResourceTypeDockerContainer ResourceType = "docker-container" // Docker container
ResourceTypePod ResourceType = "pod" // Kubernetes pod
ResourceTypeJail ResourceType = "jail" // BSD jail / TrueNAS jail
// Services - logical groupings of workloads
ResourceTypeDockerService ResourceType = "docker-service" // Docker Swarm service
ResourceTypeK8sDeployment ResourceType = "k8s-deployment" // Kubernetes deployment
ResourceTypeK8sService ResourceType = "k8s-service" // Kubernetes service
// Storage - storage resources
ResourceTypeStorage ResourceType = "storage" // Generic storage
ResourceTypeDatastore ResourceType = "datastore" // PBS datastore
ResourceTypePool ResourceType = "pool" // ZFS/Ceph pool
ResourceTypeDataset ResourceType = "dataset" // ZFS dataset
// Backup Systems
ResourceTypePBS ResourceType = "pbs" // Proxmox Backup Server
ResourceTypePMG ResourceType = "pmg" // Proxmox Mail Gateway
)
// PlatformType identifies the source platform/system.
type PlatformType string
const (
PlatformProxmoxPVE PlatformType = "proxmox-pve"
PlatformProxmoxPBS PlatformType = "proxmox-pbs"
PlatformProxmoxPMG PlatformType = "proxmox-pmg"
PlatformDocker PlatformType = "docker"
PlatformKubernetes PlatformType = "kubernetes"
PlatformTrueNAS PlatformType = "truenas"
PlatformHostAgent PlatformType = "host-agent"
)
// SourceType indicates how data is collected for this resource.
type SourceType string
const (
SourceAPI SourceType = "api" // Data from polling an API
SourceAgent SourceType = "agent" // Data pushed from agent
SourceHybrid SourceType = "hybrid" // Both sources, agent preferred
)
// ResourceStatus represents the operational state of a resource.
type ResourceStatus string
const (
StatusOnline ResourceStatus = "online"
StatusOffline ResourceStatus = "offline"
StatusRunning ResourceStatus = "running"
StatusStopped ResourceStatus = "stopped"
StatusDegraded ResourceStatus = "degraded"
StatusPaused ResourceStatus = "paused"
StatusUnknown ResourceStatus = "unknown"
)
// MetricValue represents a metric with current value and optional limits.
type MetricValue struct {
Current float64 `json:"current"` // Current value (percentage for CPU, bytes for memory/disk)
Total *int64 `json:"total,omitempty"` // Total capacity (bytes) - nil for percentages like CPU
Used *int64 `json:"used,omitempty"` // Used amount (bytes) - nil for percentages
Free *int64 `json:"free,omitempty"` // Free amount (bytes) - nil for percentages
}
// NetworkMetric captures network I/O.
type NetworkMetric struct {
RXBytes int64 `json:"rxBytes"` // Total bytes received
TXBytes int64 `json:"txBytes"` // Total bytes transmitted
}
// ResourceAlert represents an alert associated with a resource.
type ResourceAlert struct {
ID string `json:"id"`
Type string `json:"type"` // cpu, memory, disk, temperature, etc.
Level string `json:"level"` // warning, critical
Message string `json:"message"`
Value float64 `json:"value"`
Threshold float64 `json:"threshold"`
StartTime time.Time `json:"startTime"`
}
// ResourceIdentity contains information used for deduplication.
// When multiple sources report on the same physical machine, we use
// these fields to identify and merge them.
type ResourceIdentity struct {
Hostname string `json:"hostname,omitempty"` // Primary identifier
MachineID string `json:"machineId,omitempty"` // /etc/machine-id or equivalent
IPs []string `json:"ips,omitempty"` // Network addresses
}
// CurrentSchemaVersion is the current version of the Resource schema.
const CurrentSchemaVersion = 1
// GetPlatformData unmarshals the PlatformData into the provided type.
// Example: var nodeData NodePlatformData; r.GetPlatformData(&nodeData)
func (r *Resource) GetPlatformData(v interface{}) error {
if r.PlatformData == nil {
return nil
}
return json.Unmarshal(r.PlatformData, v)
}
// SetPlatformData marshals the provided value into PlatformData.
func (r *Resource) SetPlatformData(v interface{}) error {
data, err := json.Marshal(v)
if err != nil {
return err
}
r.PlatformData = data
return nil
}
// IsInfrastructure returns true if this resource is an infrastructure host
// (node, host, docker-host) rather than a workload (vm, container).
func (r *Resource) IsInfrastructure() bool {
switch r.Type {
case ResourceTypeNode, ResourceTypeHost, ResourceTypeDockerHost, ResourceTypeK8sNode, ResourceTypeTrueNAS:
return true
default:
return false
}
}
// IsWorkload returns true if this resource is a workload (vm, container, pod)
// rather than infrastructure.
func (r *Resource) IsWorkload() bool {
switch r.Type {
case ResourceTypeVM, ResourceTypeContainer, ResourceTypeDockerContainer, ResourceTypePod, ResourceTypeJail:
return true
default:
return false
}
}
// EffectiveDisplayName returns DisplayName if set, otherwise Name.
func (r *Resource) EffectiveDisplayName() string {
if r.DisplayName != "" {
return r.DisplayName
}
return r.Name
}
// CPUPercent returns the CPU usage as a percentage, or 0 if not available.
func (r *Resource) CPUPercent() float64 {
if r.CPU == nil {
return 0
}
return r.CPU.Current
}
// MemoryPercent returns the memory usage as a percentage, or 0 if not available.
func (r *Resource) MemoryPercent() float64 {
if r.Memory == nil {
return 0
}
// If we have used/total, calculate percentage
if r.Memory.Total != nil && *r.Memory.Total > 0 && r.Memory.Used != nil {
return float64(*r.Memory.Used) / float64(*r.Memory.Total) * 100
}
// Otherwise, Current is the percentage
return r.Memory.Current
}
// DiskPercent returns the disk usage as a percentage, or 0 if not available.
func (r *Resource) DiskPercent() float64 {
if r.Disk == nil {
return 0
}
if r.Disk.Total != nil && *r.Disk.Total > 0 && r.Disk.Used != nil {
return float64(*r.Disk.Used) / float64(*r.Disk.Total) * 100
}
return r.Disk.Current
}

1016
internal/resources/store.go Normal file

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package resources
import (
"testing"
"time"
)
func TestStoreUpsertAndGet(t *testing.T) {
store := NewStore()
r := Resource{
ID: "test-1",
Type: ResourceTypeNode,
Name: "node1",
PlatformType: PlatformProxmoxPVE,
SourceType: SourceAPI,
Status: StatusOnline,
LastSeen: time.Now(),
}
id := store.Upsert(r)
if id != "test-1" {
t.Errorf("Expected ID test-1, got %s", id)
}
retrieved, ok := store.Get("test-1")
if !ok {
t.Fatal("Failed to retrieve resource")
}
if retrieved.Name != "node1" {
t.Errorf("Expected name node1, got %s", retrieved.Name)
}
}
func TestStoreGetAll(t *testing.T) {
store := NewStore()
store.Upsert(Resource{ID: "1", Type: ResourceTypeNode, LastSeen: time.Now()})
store.Upsert(Resource{ID: "2", Type: ResourceTypeVM, LastSeen: time.Now()})
store.Upsert(Resource{ID: "3", Type: ResourceTypeContainer, LastSeen: time.Now()})
all := store.GetAll()
if len(all) != 3 {
t.Errorf("Expected 3 resources, got %d", len(all))
}
}
func TestStoreGetByType(t *testing.T) {
store := NewStore()
store.Upsert(Resource{ID: "node1", Type: ResourceTypeNode, LastSeen: time.Now()})
store.Upsert(Resource{ID: "node2", Type: ResourceTypeNode, LastSeen: time.Now()})
store.Upsert(Resource{ID: "vm1", Type: ResourceTypeVM, LastSeen: time.Now()})
nodes := store.GetByType(ResourceTypeNode)
if len(nodes) != 2 {
t.Errorf("Expected 2 nodes, got %d", len(nodes))
}
vms := store.GetByType(ResourceTypeVM)
if len(vms) != 1 {
t.Errorf("Expected 1 VM, got %d", len(vms))
}
}
func TestStoreGetByPlatform(t *testing.T) {
store := NewStore()
store.Upsert(Resource{ID: "1", PlatformType: PlatformProxmoxPVE, LastSeen: time.Now()})
store.Upsert(Resource{ID: "2", PlatformType: PlatformProxmoxPVE, LastSeen: time.Now()})
store.Upsert(Resource{ID: "3", PlatformType: PlatformDocker, LastSeen: time.Now()})
pve := store.GetByPlatform(PlatformProxmoxPVE)
if len(pve) != 2 {
t.Errorf("Expected 2 PVE resources, got %d", len(pve))
}
docker := store.GetByPlatform(PlatformDocker)
if len(docker) != 1 {
t.Errorf("Expected 1 Docker resource, got %d", len(docker))
}
}
func TestStoreGetInfrastructureAndWorkloads(t *testing.T) {
store := NewStore()
store.Upsert(Resource{ID: "node1", Type: ResourceTypeNode, LastSeen: time.Now()})
store.Upsert(Resource{ID: "host1", Type: ResourceTypeHost, LastSeen: time.Now()})
store.Upsert(Resource{ID: "vm1", Type: ResourceTypeVM, LastSeen: time.Now()})
store.Upsert(Resource{ID: "ct1", Type: ResourceTypeContainer, LastSeen: time.Now()})
store.Upsert(Resource{ID: "dc1", Type: ResourceTypeDockerContainer, LastSeen: time.Now()})
infra := store.GetInfrastructure()
if len(infra) != 2 {
t.Errorf("Expected 2 infrastructure resources, got %d", len(infra))
}
workloads := store.GetWorkloads()
if len(workloads) != 3 {
t.Errorf("Expected 3 workload resources, got %d", len(workloads))
}
}
func TestStoreGetChildren(t *testing.T) {
store := NewStore()
store.Upsert(Resource{ID: "node1", Type: ResourceTypeNode, LastSeen: time.Now()})
store.Upsert(Resource{ID: "vm1", Type: ResourceTypeVM, ParentID: "node1", LastSeen: time.Now()})
store.Upsert(Resource{ID: "vm2", Type: ResourceTypeVM, ParentID: "node1", LastSeen: time.Now()})
store.Upsert(Resource{ID: "vm3", Type: ResourceTypeVM, ParentID: "node2", LastSeen: time.Now()})
children := store.GetChildren("node1")
if len(children) != 2 {
t.Errorf("Expected 2 children of node1, got %d", len(children))
}
}
func TestStoreRemove(t *testing.T) {
store := NewStore()
store.Upsert(Resource{ID: "test-1", LastSeen: time.Now()})
store.Upsert(Resource{ID: "test-2", LastSeen: time.Now()})
if len(store.GetAll()) != 2 {
t.Fatal("Expected 2 resources before remove")
}
store.Remove("test-1")
if len(store.GetAll()) != 1 {
t.Error("Expected 1 resource after remove")
}
_, ok := store.Get("test-1")
if ok {
t.Error("Removed resource should not be retrievable")
}
}
func TestDeduplicationByHostname(t *testing.T) {
store := NewStore()
now := time.Now()
// Add a Proxmox node (API source)
nodeResource := Resource{
ID: "pve1/node/server1",
Type: ResourceTypeNode,
Name: "server1",
PlatformType: PlatformProxmoxPVE,
SourceType: SourceAPI,
Status: StatusOnline,
CPU: &MetricValue{Current: 50.0},
LastSeen: now,
Identity: &ResourceIdentity{
Hostname: "server1",
},
}
store.Upsert(nodeResource)
// Add a host agent for the same server (agent source - should be preferred)
hostResource := Resource{
ID: "host-agent/server1",
Type: ResourceTypeHost,
Name: "server1",
PlatformType: PlatformHostAgent,
SourceType: SourceAgent,
Status: StatusOnline,
CPU: &MetricValue{Current: 55.0}, // Slightly different value
LastSeen: now,
Identity: &ResourceIdentity{
Hostname: "server1",
},
}
store.Upsert(hostResource)
// We should only have 1 resource (the agent one, as it's preferred)
all := store.GetAll()
if len(all) != 1 {
t.Errorf("Expected 1 resource after dedup, got %d", len(all))
}
// The agent resource should be the one stored
r, ok := store.Get("host-agent/server1")
if !ok {
t.Fatal("Failed to get agent resource")
}
if r.SourceType != SourceAgent {
t.Errorf("Expected agent source, got %s", r.SourceType)
}
if r.CPU.Current != 55.0 {
t.Errorf("Expected CPU 55.0 from agent, got %f", r.CPU.Current)
}
// The node resource should redirect to the agent resource
if !store.IsSuppressed("pve1/node/server1") {
t.Error("Node resource should be suppressed")
}
preferred := store.GetPreferredID("pve1/node/server1")
if preferred != "host-agent/server1" {
t.Errorf("Expected preferred ID to be host-agent/server1, got %s", preferred)
}
// Accessing by suppressed ID should return the preferred resource
r, ok = store.Get("pve1/node/server1")
if !ok {
t.Fatal("Should be able to get by suppressed ID")
}
if r.ID != "host-agent/server1" {
t.Errorf("Expected to get agent resource when accessing by node ID, got %s", r.ID)
}
}
func TestDeduplicationByMachineID(t *testing.T) {
store := NewStore()
now := time.Now()
machineID := "abc-123-def-456"
// Add a Docker host
dockerHost := Resource{
ID: "docker-host-1",
Type: ResourceTypeDockerHost,
Name: "server-different-name",
PlatformType: PlatformDocker,
SourceType: SourceAgent,
Status: StatusOnline,
LastSeen: now,
Identity: &ResourceIdentity{
Hostname: "server-different-name",
MachineID: machineID,
},
}
store.Upsert(dockerHost)
// Add a host agent with the same machine ID but different hostname
hostAgent := Resource{
ID: "host-agent-1",
Type: ResourceTypeHost,
Name: "server-production",
PlatformType: PlatformHostAgent,
SourceType: SourceAgent,
Status: StatusOnline,
LastSeen: now.Add(time.Second), // Slightly newer
Identity: &ResourceIdentity{
Hostname: "server-production",
MachineID: machineID,
},
}
store.Upsert(hostAgent)
// Should only have 1 resource (the newer one, since both are agent sources)
all := store.GetAll()
if len(all) != 1 {
t.Errorf("Expected 1 resource after dedup by machineID, got %d", len(all))
}
}
func TestDeduplicationByIP(t *testing.T) {
store := NewStore()
now := time.Now()
sharedIP := "192.168.1.100"
// Add a Proxmox node
node := Resource{
ID: "node-1",
Type: ResourceTypeNode,
Name: "pve-node",
PlatformType: PlatformProxmoxPVE,
SourceType: SourceAPI,
Status: StatusOnline,
LastSeen: now,
Identity: &ResourceIdentity{
Hostname: "pve-node",
IPs: []string{sharedIP},
},
}
store.Upsert(node)
// Add a host agent with the same IP
host := Resource{
ID: "host-1",
Type: ResourceTypeHost,
Name: "different-hostname",
PlatformType: PlatformHostAgent,
SourceType: SourceAgent, // Agent preferred
Status: StatusOnline,
LastSeen: now,
Identity: &ResourceIdentity{
Hostname: "different-hostname",
IPs: []string{sharedIP},
},
}
store.Upsert(host)
// Should only have 1 resource
all := store.GetAll()
if len(all) != 1 {
t.Errorf("Expected 1 resource after dedup by IP, got %d", len(all))
}
// Agent should be preferred
r, _ := store.Get("host-1")
if r == nil || r.SourceType != SourceAgent {
t.Error("Agent resource should be preferred")
}
}
func TestNoDeduplicationForWorkloads(t *testing.T) {
store := NewStore()
now := time.Now()
// VMs with the same hostname should NOT be deduplicated
// (they're workloads, not infrastructure)
vm1 := Resource{
ID: "pve1/vm/100",
Type: ResourceTypeVM,
Name: "webserver",
PlatformType: PlatformProxmoxPVE,
SourceType: SourceAPI,
LastSeen: now,
Identity: &ResourceIdentity{
Hostname: "webserver", // Same hostname
},
}
store.Upsert(vm1)
vm2 := Resource{
ID: "pve2/vm/100",
Type: ResourceTypeVM,
Name: "webserver",
PlatformType: PlatformProxmoxPVE,
SourceType: SourceAPI,
LastSeen: now,
Identity: &ResourceIdentity{
Hostname: "webserver", // Same hostname
},
}
store.Upsert(vm2)
// Both VMs should exist (workloads are not deduplicated)
all := store.GetAll()
if len(all) != 2 {
t.Errorf("Expected 2 VMs (no dedup for workloads), got %d", len(all))
}
}
func TestNoDeduplicationForLocalhost(t *testing.T) {
store := NewStore()
now := time.Now()
host1 := Resource{
ID: "host-1",
Type: ResourceTypeHost,
Name: "server1",
PlatformType: PlatformHostAgent,
SourceType: SourceAgent,
LastSeen: now,
Identity: &ResourceIdentity{
Hostname: "server1",
IPs: []string{"127.0.0.1", "192.168.1.1"},
},
}
store.Upsert(host1)
host2 := Resource{
ID: "host-2",
Type: ResourceTypeHost,
Name: "server2",
PlatformType: PlatformHostAgent,
SourceType: SourceAgent,
LastSeen: now,
Identity: &ResourceIdentity{
Hostname: "server2",
IPs: []string{"127.0.0.1", "192.168.1.2"}, // Both have localhost
},
}
store.Upsert(host2)
// Both should exist (127.0.0.1 shouldn't trigger dedup)
all := store.GetAll()
if len(all) != 2 {
t.Errorf("Expected 2 hosts (localhost shouldn't dedup), got %d", len(all))
}
}
func TestStoreStats(t *testing.T) {
store := NewStore()
store.Upsert(Resource{ID: "1", Type: ResourceTypeNode, PlatformType: PlatformProxmoxPVE, LastSeen: time.Now()})
store.Upsert(Resource{ID: "2", Type: ResourceTypeNode, PlatformType: PlatformProxmoxPVE, LastSeen: time.Now()})
store.Upsert(Resource{ID: "3", Type: ResourceTypeVM, PlatformType: PlatformProxmoxPVE, LastSeen: time.Now()})
store.Upsert(Resource{ID: "4", Type: ResourceTypeDockerHost, PlatformType: PlatformDocker, LastSeen: time.Now()})
stats := store.GetStats()
if stats.TotalResources != 4 {
t.Errorf("Expected 4 total resources, got %d", stats.TotalResources)
}
if stats.ByType[ResourceTypeNode] != 2 {
t.Errorf("Expected 2 nodes, got %d", stats.ByType[ResourceTypeNode])
}
if stats.ByPlatform[PlatformProxmoxPVE] != 3 {
t.Errorf("Expected 3 PVE resources, got %d", stats.ByPlatform[PlatformProxmoxPVE])
}
}
func TestStoreQuery(t *testing.T) {
store := NewStore()
store.Upsert(Resource{
ID: "1",
Type: ResourceTypeNode,
PlatformType: PlatformProxmoxPVE,
Status: StatusOnline,
LastSeen: time.Now(),
})
store.Upsert(Resource{
ID: "2",
Type: ResourceTypeVM,
PlatformType: PlatformProxmoxPVE,
Status: StatusRunning,
ParentID: "1",
LastSeen: time.Now(),
})
store.Upsert(Resource{
ID: "3",
Type: ResourceTypeVM,
PlatformType: PlatformProxmoxPVE,
Status: StatusStopped,
ParentID: "1",
LastSeen: time.Now(),
})
store.Upsert(Resource{
ID: "4",
Type: ResourceTypeDockerContainer,
PlatformType: PlatformDocker,
Status: StatusRunning,
LastSeen: time.Now(),
})
// Query by type
vms := store.Query().OfType(ResourceTypeVM).Execute()
if len(vms) != 2 {
t.Errorf("Expected 2 VMs, got %d", len(vms))
}
// Query by status
running := store.Query().WithStatus(StatusRunning).Execute()
if len(running) != 2 {
t.Errorf("Expected 2 running resources, got %d", len(running))
}
// Query by platform
pve := store.Query().FromPlatform(PlatformProxmoxPVE).Execute()
if len(pve) != 3 {
t.Errorf("Expected 3 PVE resources, got %d", len(pve))
}
// Query by parent
node1Children := store.Query().WithParent("1").Execute()
if len(node1Children) != 2 {
t.Errorf("Expected 2 children of node 1, got %d", len(node1Children))
}
// Combined query
runningVMs := store.Query().
OfType(ResourceTypeVM).
WithStatus(StatusRunning).
Execute()
if len(runningVMs) != 1 {
t.Errorf("Expected 1 running VM, got %d", len(runningVMs))
}
// Count
count := store.Query().OfType(ResourceTypeVM).Count()
if count != 2 {
t.Errorf("Expected count 2, got %d", count)
}
// Limit
limited := store.Query().Limit(2).Execute()
if len(limited) > 2 {
t.Errorf("Expected at most 2 results, got %d", len(limited))
}
}
func TestMarkStale(t *testing.T) {
store := NewStore()
old := time.Now().Add(-2 * time.Hour)
recent := time.Now()
store.Upsert(Resource{
ID: "old-1",
Status: StatusOnline,
LastSeen: old,
})
store.Upsert(Resource{
ID: "recent-1",
Status: StatusOnline,
LastSeen: recent,
})
stale := store.MarkStale(time.Hour)
if len(stale) != 1 {
t.Errorf("Expected 1 stale resource, got %d", len(stale))
}
r, _ := store.Get("old-1")
if r.Status != StatusDegraded {
t.Errorf("Expected stale resource to be degraded, got %s", r.Status)
}
r, _ = store.Get("recent-1")
if r.Status != StatusOnline {
t.Errorf("Recent resource should still be online, got %s", r.Status)
}
}
func TestPruneStale(t *testing.T) {
store := NewStore()
veryOld := time.Now().Add(-48 * time.Hour)
old := time.Now().Add(-2 * time.Hour)
recent := time.Now()
store.Upsert(Resource{ID: "very-old", LastSeen: veryOld})
store.Upsert(Resource{ID: "old", LastSeen: old})
store.Upsert(Resource{ID: "recent", LastSeen: recent})
removed := store.PruneStale(time.Hour, 24*time.Hour)
if len(removed) != 1 {
t.Errorf("Expected 1 removed resource, got %d", len(removed))
}
if len(store.GetAll()) != 2 {
t.Errorf("Expected 2 remaining resources, got %d", len(store.GetAll()))
}
}
func TestAPIToAgentPreference(t *testing.T) {
store := NewStore()
now := time.Now()
// First, add an API resource
apiResource := Resource{
ID: "api-node",
Type: ResourceTypeNode,
Name: "server",
PlatformType: PlatformProxmoxPVE,
SourceType: SourceAPI,
CPU: &MetricValue{Current: 50.0},
LastSeen: now,
Identity: &ResourceIdentity{
Hostname: "server",
},
}
store.Upsert(apiResource)
// Then, add an agent resource for the same machine
agentResource := Resource{
ID: "agent-host",
Type: ResourceTypeHost,
Name: "server",
PlatformType: PlatformHostAgent,
SourceType: SourceAgent,
CPU: &MetricValue{Current: 55.0},
LastSeen: now,
Identity: &ResourceIdentity{
Hostname: "server",
},
}
store.Upsert(agentResource)
// Only agent resource should exist
all := store.GetAll()
if len(all) != 1 {
t.Fatalf("Expected 1 resource, got %d", len(all))
}
if all[0].SourceType != SourceAgent {
t.Errorf("Expected agent source type, got %s", all[0].SourceType)
}
}
func TestGetTopByCPU(t *testing.T) {
store := NewStore()
now := time.Now()
store.Upsert(Resource{
ID: "vm1",
Type: ResourceTypeVM,
Name: "low-cpu-vm",
CPU: &MetricValue{Current: 20.0},
LastSeen: now,
})
store.Upsert(Resource{
ID: "vm2",
Type: ResourceTypeVM,
Name: "high-cpu-vm",
CPU: &MetricValue{Current: 85.0},
LastSeen: now,
})
store.Upsert(Resource{
ID: "node1",
Type: ResourceTypeNode,
Name: "busy-node",
CPU: &MetricValue{Current: 75.0},
LastSeen: now,
})
// Get top 2 by CPU
top := store.GetTopByCPU(2, nil)
if len(top) != 2 {
t.Fatalf("Expected 2 resources, got %d", len(top))
}
if top[0].Name != "high-cpu-vm" {
t.Errorf("Expected high-cpu-vm first, got %s", top[0].Name)
}
if top[1].Name != "busy-node" {
t.Errorf("Expected busy-node second, got %s", top[1].Name)
}
// Filter by type
topVMs := store.GetTopByCPU(10, []ResourceType{ResourceTypeVM})
if len(topVMs) != 2 {
t.Errorf("Expected 2 VMs, got %d", len(topVMs))
}
}
func TestGetRelated(t *testing.T) {
store := NewStore()
now := time.Now()
store.Upsert(Resource{
ID: "node1",
Type: ResourceTypeNode,
Name: "parent-node",
ClusterID: "cluster1",
LastSeen: now,
})
store.Upsert(Resource{
ID: "vm1",
Type: ResourceTypeVM,
Name: "child-vm-1",
ParentID: "node1",
ClusterID: "cluster1",
LastSeen: now,
})
store.Upsert(Resource{
ID: "vm2",
Type: ResourceTypeVM,
Name: "child-vm-2",
ParentID: "node1",
ClusterID: "cluster1",
LastSeen: now,
})
store.Upsert(Resource{
ID: "node2",
Type: ResourceTypeNode,
Name: "cluster-peer",
ClusterID: "cluster1",
LastSeen: now,
})
// Get related resources for vm1
related := store.GetRelated("vm1")
// Should have parent
if parent, ok := related["parent"]; !ok || len(parent) != 1 {
t.Error("Expected 1 parent")
}
// Should have sibling (vm2)
if siblings, ok := related["siblings"]; !ok || len(siblings) != 1 {
t.Errorf("Expected 1 sibling, got %d", len(related["siblings"]))
}
// Should have cluster members
if cluster, ok := related["cluster_members"]; !ok || len(cluster) != 3 {
t.Errorf("Expected 3 cluster members, got %d", len(related["cluster_members"]))
}
}
func TestGetResourceSummary(t *testing.T) {
store := NewStore()
now := time.Now()
store.Upsert(Resource{
ID: "node1",
Type: ResourceTypeNode,
PlatformType: PlatformProxmoxPVE,
Status: StatusOnline,
CPU: &MetricValue{Current: 50},
Memory: &MetricValue{Current: 50}, // 50% usage
LastSeen: now,
})
store.Upsert(Resource{
ID: "vm1",
Type: ResourceTypeVM,
PlatformType: PlatformProxmoxPVE,
Status: StatusRunning,
CPU: &MetricValue{Current: 70},
Memory: &MetricValue{Current: 50}, // 50% usage
LastSeen: now,
})
store.Upsert(Resource{
ID: "vm2",
Type: ResourceTypeVM,
PlatformType: PlatformProxmoxPVE,
Status: StatusStopped,
LastSeen: now,
})
summary := store.GetResourceSummary()
if summary.TotalResources != 3 {
t.Errorf("Expected 3 total resources, got %d", summary.TotalResources)
}
if summary.Healthy != 2 {
t.Errorf("Expected 2 healthy, got %d", summary.Healthy)
}
if summary.Offline != 1 {
t.Errorf("Expected 1 offline, got %d", summary.Offline)
}
// Check per-type stats
vmStats := summary.ByType[ResourceTypeVM]
if vmStats.Count != 2 {
t.Errorf("Expected 2 VMs, got %d", vmStats.Count)
}
}