logpile/internal/exporter/reanimator_converter.go

package exporter

import (
	"fmt"
	"strings"
	"time"

	"git.mchus.pro/mchus/logpile/internal/models"
)

// ConvertToReanimator converts AnalysisResult to Reanimator export format
func ConvertToReanimator(result *models.AnalysisResult) (*ReanimatorExport, error) {
	if result == nil {
		return nil, fmt.Errorf("no data available for export")
	}

	if result.Hardware == nil {
		return nil, fmt.Errorf("no hardware data available for export")
	}

	if result.Hardware.BoardInfo.SerialNumber == "" {
		return nil, fmt.Errorf("board serial_number is required for Reanimator export")
	}

	// Determine target host (required field)
	targetHost := result.TargetHost
	if targetHost == "" {
		// Try to extract from filename (e.g., "redfish://10.10.10.103")
		if strings.HasPrefix(result.Filename, "redfish://") {
			targetHost = strings.TrimPrefix(result.Filename, "redfish://")
		} else if strings.HasPrefix(result.Filename, "ipmi://") {
			targetHost = strings.TrimPrefix(result.Filename, "ipmi://")
		} else {
			targetHost = "unknown"
		}
	}

	boardSerial := result.Hardware.BoardInfo.SerialNumber

	export := &ReanimatorExport{
		Filename:    result.Filename,
		SourceType:  result.SourceType,
		Protocol:    result.Protocol,
		TargetHost:  targetHost,
		CollectedAt: formatRFC3339(result.CollectedAt),
		Hardware: ReanimatorHardware{
			Board:         convertBoard(result.Hardware.BoardInfo),
			Firmware:      convertFirmware(result.Hardware.Firmware),
			CPUs:          convertCPUs(result.Hardware.CPUs),
			Memory:        convertMemory(result.Hardware.Memory),
			Storage:       convertStorage(result.Hardware.Storage),
			PCIeDevices:   convertPCIeDevices(result.Hardware, boardSerial),
			PowerSupplies: convertPowerSupplies(result.Hardware.PowerSupply),
		},
	}

	return export, nil
}

// formatRFC3339 formats time in RFC3339 format, returns current time if zero
func formatRFC3339(t time.Time) string {
	if t.IsZero() {
		return time.Now().UTC().Format(time.RFC3339)
	}
	return t.UTC().Format(time.RFC3339)
}

// convertBoard converts BoardInfo to Reanimator format
func convertBoard(board models.BoardInfo) ReanimatorBoard {
	return ReanimatorBoard{
		Manufacturer: board.Manufacturer,
		ProductName:  board.ProductName,
		SerialNumber: board.SerialNumber,
		PartNumber:   board.PartNumber,
		UUID:         board.UUID,
	}
}

// convertFirmware converts firmware information to Reanimator format
func convertFirmware(firmware []models.FirmwareInfo) []ReanimatorFirmware {
	if len(firmware) == 0 {
		return nil
	}

	result := make([]ReanimatorFirmware, 0, len(firmware))
	for _, fw := range firmware {
		result = append(result, ReanimatorFirmware{
			DeviceName: fw.DeviceName,
			Version:    fw.Version,
		})
	}
	return result
}

// convertCPUs converts CPU information to Reanimator format
func convertCPUs(cpus []models.CPU) []ReanimatorCPU {
	if len(cpus) == 0 {
		return nil
	}

	result := make([]ReanimatorCPU, 0, len(cpus))
	for _, cpu := range cpus {
		manufacturer := inferCPUManufacturer(cpu.Model)

		result = append(result, ReanimatorCPU{
			Socket:          cpu.Socket,
			Model:           cpu.Model,
			Cores:           cpu.Cores,
			Threads:         cpu.Threads,
			FrequencyMHz:    cpu.FrequencyMHz,
			MaxFrequencyMHz: cpu.MaxFreqMHz,
			Manufacturer:    manufacturer,
			Status:          "OK", // CPUs are typically OK if detected
		})
	}
	return result
}

// convertMemory converts memory modules to Reanimator format
func convertMemory(memory []models.MemoryDIMM) []ReanimatorMemory {
	if len(memory) == 0 {
		return nil
	}

	result := make([]ReanimatorMemory, 0, len(memory))
	for _, mem := range memory {
		status := mem.Status
		if status == "" {
			if mem.Present {
				status = "OK"
			} else {
				status = "Empty"
			}
		}

		result = append(result, ReanimatorMemory{
			Slot:            mem.Slot,
			Location:        mem.Location,
			Present:         mem.Present,
			SizeMB:          mem.SizeMB,
			Type:            mem.Type,
			MaxSpeedMHz:     mem.MaxSpeedMHz,
			CurrentSpeedMHz: mem.CurrentSpeedMHz,
			Manufacturer:    mem.Manufacturer,
			SerialNumber:    mem.SerialNumber,
			PartNumber:      mem.PartNumber,
			Status:          status,
		})
	}
	return result
}

// convertStorage converts storage devices to Reanimator format
func convertStorage(storage []models.Storage) []ReanimatorStorage {
	if len(storage) == 0 {
		return nil
	}

	result := make([]ReanimatorStorage, 0, len(storage))
	for _, stor := range storage {
		// Skip storage without serial number
		if stor.SerialNumber == "" {
			continue
		}

		status := inferStorageStatus(stor)

		result = append(result, ReanimatorStorage{
			Slot:         stor.Slot,
			Type:         stor.Type,
			Model:        stor.Model,
			SizeGB:       stor.SizeGB,
			SerialNumber: stor.SerialNumber,
			Manufacturer: stor.Manufacturer,
			Firmware:     stor.Firmware,
			Interface:    stor.Interface,
			Present:      stor.Present,
			Status:       status,
		})
	}
	return result
}

// convertPCIeDevices converts PCIe devices, GPUs, and network adapters to Reanimator format
func convertPCIeDevices(hw *models.HardwareConfig, boardSerial string) []ReanimatorPCIe {
	result := make([]ReanimatorPCIe, 0)

	// Convert regular PCIe devices
	for _, pcie := range hw.PCIeDevices {
		serialNumber := pcie.SerialNumber
		if serialNumber == "" || serialNumber == "N/A" {
			// Generate serial number
			serialNumber = generatePCIeSerialNumber(boardSerial, pcie.Slot, pcie.BDF)
		}

		// Determine model (prefer PartNumber, fallback to DeviceClass)
		model := pcie.PartNumber
		if model == "" {
			model = pcie.DeviceClass
		}

		result = append(result, ReanimatorPCIe{
			Slot:         pcie.Slot,
			VendorID:     pcie.VendorID,
			DeviceID:     pcie.DeviceID,
			BDF:          pcie.BDF,
			DeviceClass:  pcie.DeviceClass,
			Manufacturer: pcie.Manufacturer,
			Model:        model,
			LinkWidth:    pcie.LinkWidth,
			LinkSpeed:    pcie.LinkSpeed,
			MaxLinkWidth: pcie.MaxLinkWidth,
			MaxLinkSpeed: pcie.MaxLinkSpeed,
			SerialNumber: serialNumber,
			Firmware:     "", // PCIeDevice doesn't have firmware in models
			Status:       "OK",
		})
	}

	// Convert GPUs as PCIe devices
	for _, gpu := range hw.GPUs {
		serialNumber := gpu.SerialNumber
		if serialNumber == "" {
			// Generate serial number
			serialNumber = generatePCIeSerialNumber(boardSerial, gpu.Slot, gpu.BDF)
		}

		// Determine device class
		deviceClass := "DisplayController"
		if gpu.Model != "" {
			deviceClass = gpu.Model
		}

		result = append(result, ReanimatorPCIe{
			Slot:         gpu.Slot,
			VendorID:     gpu.VendorID,
			DeviceID:     gpu.DeviceID,
			BDF:          gpu.BDF,
			DeviceClass:  deviceClass,
			Manufacturer: gpu.Manufacturer,
			Model:        gpu.Model,
			LinkWidth:    gpu.CurrentLinkWidth,
			LinkSpeed:    gpu.CurrentLinkSpeed,
			MaxLinkWidth: gpu.MaxLinkWidth,
			MaxLinkSpeed: gpu.MaxLinkSpeed,
			SerialNumber: serialNumber,
			Firmware:     gpu.Firmware,
			Status:       inferGPUStatus(gpu.Status),
		})
	}

	// Convert network adapters as PCIe devices
	for _, nic := range hw.NetworkAdapters {
		if !nic.Present {
			continue
		}

		serialNumber := nic.SerialNumber
		if serialNumber == "" {
			// Generate serial number
			serialNumber = generatePCIeSerialNumber(boardSerial, nic.Slot, "")
		}

		result = append(result, ReanimatorPCIe{
			Slot:         nic.Slot,
			VendorID:     nic.VendorID,
			DeviceID:     nic.DeviceID,
			BDF:          "",
			DeviceClass:  "NetworkController",
			Manufacturer: nic.Vendor,
			Model:        nic.Model,
			LinkWidth:    0,
			LinkSpeed:    "",
			MaxLinkWidth: 0,
			MaxLinkSpeed: "",
			SerialNumber: serialNumber,
			Firmware:     nic.Firmware,
			Status:       inferNetworkStatus(nic.Status),
		})
	}

	return result
}

// convertPowerSupplies converts power supplies to Reanimator format
func convertPowerSupplies(psus []models.PSU) []ReanimatorPSU {
	if len(psus) == 0 {
		return nil
	}

	result := make([]ReanimatorPSU, 0, len(psus))
	for _, psu := range psus {
		// Skip PSUs without serial number (if not present)
		if !psu.Present || psu.SerialNumber == "" {
			continue
		}

		status := psu.Status
		if status == "" {
			if psu.Present {
				status = "OK"
			} else {
				status = "Empty"
			}
		}

		result = append(result, ReanimatorPSU{
			Slot:         psu.Slot,
			Present:      psu.Present,
			Model:        psu.Model,
			Vendor:       psu.Vendor,
			WattageW:     psu.WattageW,
			SerialNumber: psu.SerialNumber,
			PartNumber:   psu.PartNumber,
			Firmware:     psu.Firmware,
			Status:       status,
			InputType:    psu.InputType,
			InputPowerW:  psu.InputPowerW,
			OutputPowerW: psu.OutputPowerW,
			InputVoltage: psu.InputVoltage,
		})
	}
	return result
}

// inferCPUManufacturer determines CPU manufacturer from model string
func inferCPUManufacturer(model string) string {
	upper := strings.ToUpper(model)

	// Intel patterns
	if strings.Contains(upper, "INTEL") ||
	   strings.Contains(upper, "XEON") ||
	   strings.Contains(upper, "CORE I") {
		return "Intel"
	}

	// AMD patterns
	if strings.Contains(upper, "AMD") ||
	   strings.Contains(upper, "EPYC") ||
	   strings.Contains(upper, "RYZEN") ||
	   strings.Contains(upper, "THREADRIPPER") {
		return "AMD"
	}

	// ARM patterns
	if strings.Contains(upper, "ARM") ||
	   strings.Contains(upper, "CORTEX") {
		return "ARM"
	}

	// Ampere patterns
	if strings.Contains(upper, "AMPERE") ||
	   strings.Contains(upper, "ALTRA") {
		return "Ampere"
	}

	return ""
}

// generatePCIeSerialNumber generates a serial number for PCIe device
func generatePCIeSerialNumber(boardSerial, slot, bdf string) string {
	if slot != "" {
		return fmt.Sprintf("%s-PCIE-%s", boardSerial, slot)
	}
	if bdf != "" {
		// Use BDF as identifier (e.g., "0000:18:00.0" -> "0000-18-00-0")
		safeBDF := strings.ReplaceAll(strings.ReplaceAll(bdf, ":", "-"), ".", "-")
		return fmt.Sprintf("%s-PCIE-%s", boardSerial, safeBDF)
	}
	return fmt.Sprintf("%s-PCIE-UNKNOWN", boardSerial)
}

// inferStorageStatus determines storage device status
func inferStorageStatus(stor models.Storage) string {
	if !stor.Present {
		return "Empty"
	}
	return "OK"
}

// inferGPUStatus converts GPU status to Reanimator status
func inferGPUStatus(status string) string {
	if status == "" {
		return "OK"
	}
	return status
}

// inferNetworkStatus converts network adapter status to Reanimator status
func inferNetworkStatus(status string) string {
	if status == "" {
		return "OK"
	}
	return status
}