Files
logpile/internal/parser/vendors/unraid/parser.go

1041 lines
28 KiB
Go

// Package unraid provides parser for Unraid diagnostics archives.
package unraid
import (
"bufio"
"regexp"
"strconv"
"strings"
"time"
"git.mchus.pro/mchus/logpile/internal/models"
"git.mchus.pro/mchus/logpile/internal/parser"
"git.mchus.pro/mchus/logpile/internal/parser/vendors/pciids"
)
// parserVersion - increment when parsing logic changes.
const parserVersion = "1.2"
func init() {
parser.Register(&Parser{})
}
// Parser implements VendorParser for Unraid diagnostics.
type Parser struct{}
func (p *Parser) Name() string { return "Unraid Parser" }
func (p *Parser) Vendor() string { return "unraid" }
func (p *Parser) Version() string { return parserVersion }
// Detect checks if files contain typical Unraid markers.
func (p *Parser) Detect(files []parser.ExtractedFile) int {
confidence := 0
hasUnraidVersion := false
hasDiagnosticsDir := false
hasVarsParity := false
for _, f := range files {
path := strings.ToLower(f.Path)
content := string(f.Content)
// Check for unraid version file
if strings.Contains(path, "unraid-") && strings.HasSuffix(path, ".txt") {
hasUnraidVersion = true
confidence += 40
}
// Check for Unraid-specific directories
if strings.Contains(path, "diagnostics-") &&
(strings.Contains(path, "/system/") ||
strings.Contains(path, "/smart/") ||
strings.Contains(path, "/config/")) {
hasDiagnosticsDir = true
if confidence < 60 {
confidence += 20
}
}
// Check file content for Unraid markers
if strings.Contains(content, "Unraid kernel build") {
confidence += 50
}
// Check for vars.txt with disk array info
if strings.Contains(path, "vars.txt") && strings.Contains(content, "[parity]") {
hasVarsParity = true
confidence += 30
}
if confidence >= 100 {
return 100
}
}
// Boost confidence if we see multiple key indicators together
if hasUnraidVersion && (hasDiagnosticsDir || hasVarsParity) {
confidence += 20
}
if confidence > 100 {
return 100
}
return confidence
}
// Parse parses Unraid diagnostics and returns normalized data.
func (p *Parser) Parse(files []parser.ExtractedFile) (*models.AnalysisResult, error) {
result := &models.AnalysisResult{
Events: make([]models.Event, 0),
FRU: make([]models.FRUInfo, 0),
Sensors: make([]models.SensorReading, 0),
Hardware: &models.HardwareConfig{
Firmware: make([]models.FirmwareInfo, 0),
CPUs: make([]models.CPU, 0),
Memory: make([]models.MemoryDIMM, 0),
Storage: make([]models.Storage, 0),
},
}
// Track storage by slot to avoid duplicates
storageBySlot := make(map[string]*models.Storage)
hasDetailedMemory := false
ethtoolByIface := make(map[string]ethtoolInfo)
ethtoolByBDF := make(map[string]ethtoolInfo)
ifconfigByIface := make(map[string]ifconfigInfo)
// Parse different file types
for _, f := range files {
path := strings.ToLower(f.Path)
content := string(f.Content)
switch {
case strings.Contains(path, "unraid-") && strings.HasSuffix(path, ".txt"):
parseVersionFile(content, result)
case strings.HasSuffix(path, "/system/lscpu.txt") || strings.HasSuffix(path, "\\system\\lscpu.txt"):
parseLsCPU(content, result)
case strings.HasSuffix(path, "/system/motherboard.txt") || strings.HasSuffix(path, "\\system\\motherboard.txt"):
parseMotherboard(content, result)
case strings.HasSuffix(path, "/system/memory.txt") || strings.HasSuffix(path, "\\system\\memory.txt"):
parseMemory(content, result)
case strings.HasSuffix(path, "/system/meminfo.txt") || strings.HasSuffix(path, "\\system\\meminfo.txt"):
if parseMemoryDIMMs(content, result) > 0 {
hasDetailedMemory = true
}
case strings.HasSuffix(path, "/system/ifconfig.txt") || strings.HasSuffix(path, "\\system\\ifconfig.txt"):
parseIfconfig(content, ifconfigByIface)
case strings.HasSuffix(path, "/system/ethtool.txt") || strings.HasSuffix(path, "\\system\\ethtool.txt"):
parseEthtool(content, ethtoolByIface, ethtoolByBDF)
case strings.HasSuffix(path, "/system/lspci.txt") || strings.HasSuffix(path, "\\system\\lspci.txt"):
parseLSPCI(content, ifconfigByIface, ethtoolByIface, ethtoolByBDF, result)
case strings.HasSuffix(path, "/system/vars.txt") || strings.HasSuffix(path, "\\system\\vars.txt"):
parseVarsToMap(content, storageBySlot, result)
parseHostIdentityFromVars(content, result)
case strings.Contains(path, "/smart/") && strings.HasSuffix(path, ".txt"):
parseSMARTFileToMap(content, f.Path, storageBySlot, result)
case strings.HasSuffix(path, "/logs/syslog.txt") || strings.HasSuffix(path, "\\logs\\syslog.txt"):
parseSyslog(content, result)
}
}
if hasDetailedMemory {
filtered := make([]models.MemoryDIMM, 0, len(result.Hardware.Memory))
for _, dimm := range result.Hardware.Memory {
if strings.EqualFold(strings.TrimSpace(dimm.Slot), "system") {
continue
}
filtered = append(filtered, dimm)
}
result.Hardware.Memory = filtered
}
// Convert storage map to slice
for _, disk := range storageBySlot {
result.Hardware.Storage = append(result.Hardware.Storage, *disk)
}
return result, nil
}
func parseVersionFile(content string, result *models.AnalysisResult) {
lines := strings.Split(content, "\n")
if len(lines) > 0 {
version := strings.TrimSpace(lines[0])
if version != "" {
result.Hardware.Firmware = append(result.Hardware.Firmware, models.FirmwareInfo{
DeviceName: "Unraid OS",
Version: version,
})
}
}
}
func parseLsCPU(content string, result *models.AnalysisResult) {
// Normalize line endings
content = strings.ReplaceAll(content, "\r\n", "\n")
var cpu models.CPU
cpu.Socket = 0 // Default to socket 0
// Parse CPU model - handle multiple spaces
if m := regexp.MustCompile(`(?m)^Model name:\s+(.+)$`).FindStringSubmatch(content); len(m) == 2 {
cpu.Model = strings.TrimSpace(m[1])
}
// Parse CPU(s) - total thread count
if m := regexp.MustCompile(`(?m)^CPU\(s\):\s+(\d+)$`).FindStringSubmatch(content); len(m) == 2 {
cpu.Threads = parseInt(m[1])
}
// Parse cores per socket
if m := regexp.MustCompile(`(?m)^Core\(s\) per socket:\s+(\d+)$`).FindStringSubmatch(content); len(m) == 2 {
cpu.Cores = parseInt(m[1])
}
// Parse CPU max MHz
if m := regexp.MustCompile(`(?m)^CPU max MHz:\s+([\d.]+)$`).FindStringSubmatch(content); len(m) == 2 {
cpu.FrequencyMHz = int(parseFloat(m[1]))
}
// If no max MHz, try current MHz
if cpu.FrequencyMHz == 0 {
if m := regexp.MustCompile(`(?m)^CPU MHz:\s+([\d.]+)$`).FindStringSubmatch(content); len(m) == 2 {
cpu.FrequencyMHz = int(parseFloat(m[1]))
}
}
// Only add if we got at least the model
if cpu.Model != "" {
result.Hardware.CPUs = append(result.Hardware.CPUs, cpu)
}
}
func parseMotherboard(content string, result *models.AnalysisResult) {
var board models.BoardInfo
// Parse manufacturer from dmidecode output
lines := strings.Split(content, "\n")
inBIOSSection := false
for _, line := range lines {
trimmed := strings.TrimSpace(line)
if strings.Contains(trimmed, "BIOS Information") {
inBIOSSection = true
continue
}
if inBIOSSection {
if strings.HasPrefix(trimmed, "Vendor:") {
parts := strings.SplitN(trimmed, ":", 2)
if len(parts) == 2 {
board.Manufacturer = strings.TrimSpace(parts[1])
}
} else if strings.HasPrefix(trimmed, "Version:") {
parts := strings.SplitN(trimmed, ":", 2)
if len(parts) == 2 {
biosVersion := strings.TrimSpace(parts[1])
result.Hardware.Firmware = append(result.Hardware.Firmware, models.FirmwareInfo{
DeviceName: "System BIOS",
Version: biosVersion,
})
}
} else if strings.HasPrefix(trimmed, "Release Date:") {
// Could extract BIOS date if needed
}
}
}
// Extract product name from first line
if len(lines) > 0 {
firstLine := strings.TrimSpace(lines[0])
if firstLine != "" {
board.ProductName = firstLine
}
}
result.Hardware.BoardInfo = board
}
func parseMemory(content string, result *models.AnalysisResult) {
// Parse memory from free output
// Example: Mem: 50Gi 11Gi 1.4Gi 565Mi 39Gi 39Gi
if m := regexp.MustCompile(`(?m)^Mem:\s+(\d+(?:\.\d+)?)(Ki|Mi|Gi|Ti|KB|MB|GB|TB)`).FindStringSubmatch(content); len(m) >= 3 {
size := parseFloat(m[1])
unit := strings.ToUpper(m[2])
var sizeMB int
switch unit {
case "KI", "KB":
sizeMB = int(size / 1024)
case "MI", "MB":
sizeMB = int(size)
case "GI", "GB":
sizeMB = int(size * 1024)
case "TI", "TB":
sizeMB = int(size * 1024 * 1024)
}
if sizeMB > 0 {
result.Hardware.Memory = append(result.Hardware.Memory, models.MemoryDIMM{
Slot: "system",
Present: true,
SizeMB: sizeMB,
Type: "DRAM",
Status: "ok",
})
}
}
}
func parseMemoryDIMMs(content string, result *models.AnalysisResult) int {
blocks := strings.Split(content, "Handle ")
added := 0
for _, block := range blocks {
b := strings.TrimSpace(block)
if b == "" || !strings.Contains(b, "DMI type 17") || !strings.Contains(b, "Memory Device") {
continue
}
sizeRaw := extractFieldValue(b, "Size:")
if sizeRaw == "" || strings.Contains(strings.ToLower(sizeRaw), "no module installed") {
continue
}
sizeMB := parseDIMMSizeMB(sizeRaw)
if sizeMB <= 0 {
continue
}
slot := extractFieldValue(b, "Locator:")
if slot == "" {
slot = extractFieldValue(b, "Bank Locator:")
}
if slot == "" {
slot = "dimm"
}
dimm := models.MemoryDIMM{
Slot: slot,
Location: extractFieldValue(b, "Bank Locator:"),
Present: true,
SizeMB: sizeMB,
Type: extractFieldValue(b, "Type:"),
MaxSpeedMHz: parseSpeedMTs(extractFieldValue(b, "Speed:")),
CurrentSpeedMHz: parseSpeedMTs(extractFieldValue(b, "Configured Memory Speed:")),
Manufacturer: strings.TrimSpace(extractFieldValue(b, "Manufacturer:")),
SerialNumber: strings.TrimSpace(extractFieldValue(b, "Serial Number:")),
PartNumber: strings.TrimSpace(extractFieldValue(b, "Part Number:")),
Ranks: parseInt(extractFieldValue(b, "Rank:")),
Status: "ok",
}
if dimm.Type == "" || strings.EqualFold(dimm.Type, "Unknown") {
dimm.Type = "DRAM"
}
if dimm.CurrentSpeedMHz == 0 {
dimm.CurrentSpeedMHz = dimm.MaxSpeedMHz
}
result.Hardware.Memory = append(result.Hardware.Memory, dimm)
added++
}
return added
}
func extractFieldValue(block, key string) string {
for _, line := range strings.Split(block, "\n") {
line = strings.TrimSpace(line)
if strings.HasPrefix(line, key) {
return strings.TrimSpace(strings.TrimPrefix(line, key))
}
}
return ""
}
func parseDIMMSizeMB(s string) int {
s = strings.TrimSpace(strings.ToUpper(s))
if s == "" {
return 0
}
parts := strings.Fields(s)
if len(parts) < 2 {
return 0
}
v := parseFloat(parts[0])
switch parts[1] {
case "KB", "KIB":
return int(v / 1024)
case "MB", "MIB":
return int(v)
case "GB", "GIB":
return int(v * 1024)
case "TB", "TIB":
return int(v * 1024 * 1024)
default:
return 0
}
}
func parseSpeedMTs(s string) int {
s = strings.TrimSpace(strings.ToUpper(s))
if s == "" {
return 0
}
re := regexp.MustCompile(`(\d+)\s*MT/S`)
if m := re.FindStringSubmatch(s); len(m) == 2 {
return parseInt(m[1])
}
return 0
}
type ethtoolInfo struct {
Interface string
BusInfo string
Driver string
Firmware string
SpeedMbps int
LinkUp bool
}
type ifconfigInfo struct {
Interface string
State string
Addresses []string
}
func parseIfconfig(content string, out map[string]ifconfigInfo) {
lines := strings.Split(strings.ReplaceAll(content, "\r\n", "\n"), "\n")
for _, line := range lines {
line = strings.TrimSpace(line)
if line == "" {
continue
}
fields := strings.Fields(line)
if len(fields) < 2 {
continue
}
iface := strings.Split(fields[0], "@")[0]
if iface == "" || strings.HasPrefix(iface, "lo") || strings.HasPrefix(iface, "docker") || strings.HasPrefix(iface, "veth") {
continue
}
state := fields[1]
addrs := make([]string, 0, 2)
for _, f := range fields[2:] {
if strings.Contains(f, ".") || strings.Contains(f, ":") {
addrs = append(addrs, f)
}
}
out[iface] = ifconfigInfo{
Interface: iface,
State: state,
Addresses: addrs,
}
}
}
func parseEthtool(content string, byIface, byBDF map[string]ethtoolInfo) {
sections := strings.Split(content, "--------------------------------")
for _, sec := range sections {
s := strings.TrimSpace(sec)
if s == "" {
continue
}
var info ethtoolInfo
for _, line := range strings.Split(s, "\n") {
t := strings.TrimSpace(line)
switch {
case strings.HasPrefix(t, "Settings for "):
info.Interface = strings.TrimSuffix(strings.TrimPrefix(t, "Settings for "), ":")
case strings.HasPrefix(t, "driver:"):
info.Driver = strings.TrimSpace(strings.TrimPrefix(t, "driver:"))
case strings.HasPrefix(t, "firmware-version:"):
info.Firmware = strings.TrimSpace(strings.TrimPrefix(t, "firmware-version:"))
case strings.HasPrefix(t, "bus-info:"):
info.BusInfo = normalizeBDF(strings.TrimSpace(strings.TrimPrefix(t, "bus-info:")))
case strings.HasPrefix(t, "Speed:"):
info.SpeedMbps = parseSpeedMbps(strings.TrimSpace(strings.TrimPrefix(t, "Speed:")))
case strings.HasPrefix(t, "Link detected:"):
info.LinkUp = strings.EqualFold(strings.TrimSpace(strings.TrimPrefix(t, "Link detected:")), "yes")
}
}
if info.Interface != "" {
byIface[info.Interface] = info
}
if info.BusInfo != "" {
byBDF[info.BusInfo] = info
}
}
}
func parseLSPCI(
content string,
iface map[string]ifconfigInfo,
ethtoolByIface map[string]ethtoolInfo,
ethtoolByBDF map[string]ethtoolInfo,
result *models.AnalysisResult,
) {
lines := strings.Split(strings.ReplaceAll(content, "\r\n", "\n"), "\n")
lspciLineRe := regexp.MustCompile(`^([0-9a-fA-F:.]+)\s+(.+?)\s+\[[0-9a-fA-F]{4}\]:\s+(.+?)\s+\[([0-9a-fA-F]{4}):([0-9a-fA-F]{4})\]`)
hasPCIe := make(map[string]bool)
hasAdapter := make(map[string]bool)
for _, line := range lines {
m := lspciLineRe.FindStringSubmatch(strings.TrimSpace(line))
if len(m) != 6 {
continue
}
bdf := normalizeBDF(m[1])
class := strings.TrimSpace(m[2])
desc := strings.TrimSpace(m[3])
vendorID := parseHexID(m[4])
deviceID := parseHexID(m[5])
if bdf == "" {
continue
}
if isInterestingPCIClass(class) && !hasPCIe[bdf] {
vendor := pciids.VendorName(vendorID)
result.Hardware.PCIeDevices = append(result.Hardware.PCIeDevices, models.PCIeDevice{
Slot: bdf,
BDF: bdf,
DeviceClass: class,
Description: desc,
VendorID: vendorID,
DeviceID: deviceID,
Manufacturer: vendor,
Status: "ok",
})
hasPCIe[bdf] = true
}
if !isNICClass(class) || hasAdapter[bdf] {
continue
}
etInfo := ethtoolByBDF[bdf]
if etInfo.Interface == "" {
for _, it := range ethtoolByIface {
if normalizeBDF(it.BusInfo) == bdf {
etInfo = it
break
}
}
}
if etInfo.Driver == "bonding" {
continue
}
model := desc
if devName := pciids.DeviceName(vendorID, deviceID); devName != "" {
model = devName
}
vendor := pciids.VendorName(vendorID)
if vendor == "" {
vendor = firstWords(desc, 2)
}
slot := etInfo.Interface
if slot == "" {
slot = bdf
}
status := "ok"
if etInfo.Interface != "" && !etInfo.LinkUp {
status = "warning"
} else if etInfo.Interface != "" {
if ifInfo, ok := iface[etInfo.Interface]; ok && !strings.EqualFold(ifInfo.State, "UP") {
status = "warning"
}
}
adapter := models.NetworkAdapter{
Slot: slot,
Location: bdf,
Present: true,
Model: model,
Vendor: vendor,
VendorID: vendorID,
DeviceID: deviceID,
Firmware: strings.TrimSpace(etInfo.Firmware),
PortCount: 1,
Status: status,
}
result.Hardware.NetworkAdapters = append(result.Hardware.NetworkAdapters, adapter)
result.Hardware.NetworkCards = append(result.Hardware.NetworkCards, models.NIC{
Name: slot,
Model: model,
SpeedMbps: etInfo.SpeedMbps,
})
hasAdapter[bdf] = true
}
}
func isNICClass(class string) bool {
c := strings.ToLower(strings.TrimSpace(class))
return strings.Contains(c, "ethernet controller") || strings.Contains(c, "network controller")
}
func isInterestingPCIClass(class string) bool {
c := strings.ToLower(strings.TrimSpace(class))
if isNICClass(c) {
return true
}
switch {
case strings.Contains(c, "scsi storage controller"),
strings.Contains(c, "sata controller"),
strings.Contains(c, "raid bus controller"),
strings.Contains(c, "vga compatible controller"),
strings.Contains(c, "3d controller"),
strings.Contains(c, "display controller"),
strings.Contains(c, "non-volatile memory controller"),
strings.Contains(c, "processing accelerators"):
return true
default:
return false
}
}
func parseHexID(s string) int {
v, err := strconv.ParseInt(strings.TrimSpace(s), 16, 32)
if err != nil {
return 0
}
return int(v)
}
func parseSpeedMbps(s string) int {
s = strings.TrimSpace(strings.ToUpper(s))
if s == "" || s == "UNKNOWN!" {
return 0
}
if m := regexp.MustCompile(`(\d+)MB/S`).FindStringSubmatch(s); len(m) == 2 {
return parseInt(m[1])
}
return 0
}
func normalizeBDF(bdf string) string {
bdf = strings.TrimSpace(strings.ToLower(bdf))
if bdf == "" {
return ""
}
if strings.Count(bdf, ":") == 1 {
return "0000:" + bdf
}
return bdf
}
func firstWords(s string, n int) string {
parts := strings.Fields(strings.TrimSpace(s))
if len(parts) == 0 {
return ""
}
if len(parts) < n {
n = len(parts)
}
return strings.Join(parts[:n], " ")
}
func parseVarsToMap(content string, storageBySlot map[string]*models.Storage, result *models.AnalysisResult) {
// Normalize line endings
content = strings.ReplaceAll(content, "\r\n", "\n")
// Parse PHP-style array from vars.txt
// Extract only the first "disks" section to avoid duplicates
disksStart := strings.Index(content, "disks\n(")
if disksStart == -1 {
return
}
// Find the end of this disks array (look for next top-level key or end)
remaining := content[disksStart:]
endPattern := regexp.MustCompile(`(?m)^[a-z_]+\n\(`)
endMatches := endPattern.FindAllStringIndex(remaining, -1)
var disksSection string
if len(endMatches) > 1 {
// Use second match as end (first match is "disks" itself)
disksSection = remaining[:endMatches[1][0]]
} else {
disksSection = remaining
}
// Look for disk entries within this section only
diskRe := regexp.MustCompile(`(?m)^\s+\[(disk\d+|parity|cache\d*)\]\s+=>\s+Array`)
matches := diskRe.FindAllStringSubmatch(disksSection, -1)
seen := make(map[string]bool)
for _, match := range matches {
if len(match) < 2 {
continue
}
diskName := match[1]
// Skip if already processed
if seen[diskName] {
continue
}
seen[diskName] = true
// Find the section for this disk
diskSection := extractDiskSection(disksSection, diskName)
if diskSection == "" {
continue
}
var disk models.Storage
disk.Slot = diskName
// Parse disk properties
if m := regexp.MustCompile(`\[device\]\s*=>\s*(\w+)`).FindStringSubmatch(diskSection); len(m) == 2 {
disk.Interface = "SATA (" + m[1] + ")"
}
if m := regexp.MustCompile(`\[id\]\s*=>\s*([^\n]+)`).FindStringSubmatch(diskSection); len(m) == 2 {
idValue := strings.TrimSpace(m[1])
// Only use if it's not empty or a placeholder
if idValue != "" && !strings.Contains(idValue, "=>") {
disk.Model = idValue
}
}
if m := regexp.MustCompile(`\[size\]\s*=>\s*(\d+)`).FindStringSubmatch(diskSection); len(m) == 2 {
sizeKB := parseInt(m[1])
if sizeKB > 0 {
disk.SizeGB = sizeKB / (1024 * 1024) // Convert KB to GB
}
}
if m := regexp.MustCompile(`\[temp\]\s*=>\s*(\d+)`).FindStringSubmatch(diskSection); len(m) == 2 {
temp := parseInt(m[1])
if temp > 0 {
result.Sensors = append(result.Sensors, models.SensorReading{
Name: diskName + "_temp",
Type: "temperature",
Value: float64(temp),
Unit: "C",
Status: getTempStatus(temp),
RawValue: strconv.Itoa(temp),
})
}
}
if m := regexp.MustCompile(`\[fsType\]\s*=>\s*(\w+)`).FindStringSubmatch(diskSection); len(m) == 2 {
fsType := m[1]
if fsType != "" && fsType != "auto" {
disk.Type = fsType
}
}
disk.Present = true
// Only add/merge disks with meaningful data
if disk.Model != "" && disk.SizeGB > 0 {
// Check if we already have this disk from SMART files
if existing, ok := storageBySlot[diskName]; ok {
// Merge vars.txt data into existing entry, preferring SMART data
if existing.Model == "" && disk.Model != "" {
existing.Model = disk.Model
}
if existing.SizeGB == 0 && disk.SizeGB > 0 {
existing.SizeGB = disk.SizeGB
}
if existing.Type == "" && disk.Type != "" {
existing.Type = disk.Type
}
if existing.Interface == "" && disk.Interface != "" {
existing.Interface = disk.Interface
}
// vars.txt doesn't have serial/firmware, so don't overwrite from SMART
} else {
// New disk not in SMART data
storageBySlot[diskName] = &disk
}
}
}
}
func parseHostIdentityFromVars(content string, result *models.AnalysisResult) {
if result == nil || result.Hardware == nil {
return
}
serial := strings.TrimSpace(result.Hardware.BoardInfo.SerialNumber)
if isUsableHostIdentifier(serial) {
return
}
flashGUID := findVarValue(content, "flashGUID")
regGUID := findVarValue(content, "regGUID")
rawUUID := findVarValue(content, "uuid")
candidates := []string{flashGUID, regGUID, rawUUID}
for _, candidate := range candidates {
candidate = strings.TrimSpace(candidate)
if !isUsableHostIdentifier(candidate) {
continue
}
result.Hardware.BoardInfo.SerialNumber = candidate
if result.Hardware.BoardInfo.UUID == "" && candidate == rawUUID {
result.Hardware.BoardInfo.UUID = candidate
}
return
}
}
func findVarValue(content, key string) string {
re := regexp.MustCompile(`(?m)^\s*\[` + regexp.QuoteMeta(key) + `\]\s*=>\s*(.+?)\s*$`)
if m := re.FindStringSubmatch(content); len(m) == 2 {
return strings.TrimSpace(m[1])
}
return ""
}
func isUsableHostIdentifier(v string) bool {
v = strings.TrimSpace(v)
if v == "" {
return false
}
l := strings.ToLower(v)
if l == "n/a" || l == "unknown" || l == "none" || l == "not available" {
return false
}
// Unraid may redact GUID values as 1... or 1..7 in diagnostics.
if strings.Contains(v, "...") || strings.Contains(v, "..") {
return false
}
return true
}
func extractDiskSection(content, diskName string) string {
// Find the start of this disk's array section
startPattern := regexp.MustCompile(`(?m)^\s+\[` + regexp.QuoteMeta(diskName) + `\]\s+=>\s+Array\s*\n\s+\(`)
startIdx := startPattern.FindStringIndex(content)
if startIdx == nil {
return ""
}
// Find the end (next disk or end of disks array)
endPattern := regexp.MustCompile(`(?m)^\s+\)`)
remainingContent := content[startIdx[1]:]
endIdx := endPattern.FindStringIndex(remainingContent)
if endIdx == nil {
return remainingContent
}
return remainingContent[:endIdx[0]]
}
func parseSMARTFileToMap(content, filePath string, storageBySlot map[string]*models.Storage, result *models.AnalysisResult) {
// Extract disk name from filename
// Example: ST4000NM000B-2TF100_WX103EC9-20260205-2333 disk1 (sdi).txt
diskName := ""
if m := regexp.MustCompile(`(disk\d+|parity|cache\d*)`).FindStringSubmatch(filePath); len(m) > 0 {
diskName = m[1]
}
if diskName == "" {
return
}
var disk models.Storage
disk.Slot = diskName
// Parse device model
if m := regexp.MustCompile(`(?m)^Device Model:\s+(.+)$`).FindStringSubmatch(content); len(m) == 2 {
disk.Model = strings.TrimSpace(m[1])
}
// Parse serial number
if m := regexp.MustCompile(`(?m)^Serial Number:\s+(.+)$`).FindStringSubmatch(content); len(m) == 2 {
disk.SerialNumber = strings.TrimSpace(m[1])
}
// Parse firmware version
if m := regexp.MustCompile(`(?m)^Firmware Version:\s+(.+)$`).FindStringSubmatch(content); len(m) == 2 {
disk.Firmware = strings.TrimSpace(m[1])
}
// Parse capacity
if m := regexp.MustCompile(`(?m)^User Capacity:\s+([\d,]+)\s+bytes`).FindStringSubmatch(content); len(m) == 2 {
capacityStr := strings.ReplaceAll(m[1], ",", "")
if capacity, err := strconv.ParseInt(capacityStr, 10, 64); err == nil {
disk.SizeGB = int(capacity / 1_000_000_000)
}
}
// Parse rotation rate
if m := regexp.MustCompile(`(?m)^Rotation Rate:\s+(.+)$`).FindStringSubmatch(content); len(m) == 2 {
rateStr := strings.TrimSpace(m[1])
if strings.Contains(strings.ToLower(rateStr), "solid state") {
disk.Type = "ssd"
} else {
disk.Type = "hdd"
}
}
// Parse SATA version for interface
if m := regexp.MustCompile(`(?m)^SATA Version is:\s+(.+?)(?:,|$)`).FindStringSubmatch(content); len(m) == 2 {
disk.Interface = strings.TrimSpace(m[1])
}
// Parse SMART health
if m := regexp.MustCompile(`(?m)^SMART overall-health self-assessment test result:\s+(.+)$`).FindStringSubmatch(content); len(m) == 2 {
health := strings.TrimSpace(m[1])
if !strings.EqualFold(health, "PASSED") {
result.Events = append(result.Events, models.Event{
Timestamp: time.Now(),
Source: "SMART",
EventType: "Disk Health",
Severity: models.SeverityWarning,
Description: "SMART health check failed for " + diskName,
RawData: health,
})
}
}
disk.Present = true
// Only add/merge if we got meaningful data
if disk.Model != "" || disk.SerialNumber != "" {
// Check if we already have this disk from vars.txt
if existing, ok := storageBySlot[diskName]; ok {
// Merge SMART data into existing entry
if existing.Model == "" && disk.Model != "" {
existing.Model = disk.Model
}
if existing.SerialNumber == "" && disk.SerialNumber != "" {
existing.SerialNumber = disk.SerialNumber
}
if existing.Firmware == "" && disk.Firmware != "" {
existing.Firmware = disk.Firmware
}
if existing.SizeGB == 0 && disk.SizeGB > 0 {
existing.SizeGB = disk.SizeGB
}
if existing.Type == "" && disk.Type != "" {
existing.Type = disk.Type
}
if existing.Interface == "" && disk.Interface != "" {
existing.Interface = disk.Interface
}
} else {
// New disk not in vars.txt
storageBySlot[diskName] = &disk
}
}
}
func parseSyslog(content string, result *models.AnalysisResult) {
scanner := bufio.NewScanner(strings.NewReader(content))
scanner.Buffer(make([]byte, 0, 64*1024), 1024*1024)
lineCount := 0
maxLines := 100 // Limit parsing to avoid too many events
for scanner.Scan() && lineCount < maxLines {
line := scanner.Text()
if strings.TrimSpace(line) == "" {
continue
}
// Parse syslog line
// Example: Feb 5 23:33:01 box3 kernel: Linux version 6.12.54-Unraid
timestamp, message, severity := parseSyslogLine(line)
result.Events = append(result.Events, models.Event{
Timestamp: timestamp,
Source: "syslog",
EventType: "System Log",
Severity: severity,
Description: message,
RawData: line,
})
lineCount++
}
if err := scanner.Err(); err != nil {
result.Events = append(result.Events, models.Event{
Timestamp: time.Now(),
Source: "syslog",
EventType: "System Log",
Severity: models.SeverityWarning,
Description: "syslog scan error",
RawData: err.Error(),
})
}
}
func parseSyslogLine(line string) (time.Time, string, models.Severity) {
// Simple syslog parser
// Format: Feb 5 23:33:01 hostname process[pid]: message
timestamp := time.Now()
message := line
severity := models.SeverityInfo
// Try to parse timestamp
syslogRe := regexp.MustCompile(`^(\w{3}\s+\d{1,2}\s+\d{2}:\d{2}:\d{2})\s+\S+\s+(.+)$`)
if m := syslogRe.FindStringSubmatch(line); len(m) == 3 {
timeStr := m[1]
message = m[2]
// Parse timestamp (add current year)
year := time.Now().Year()
if ts, err := parser.ParseInDefaultArchiveLocation("Jan 2 15:04:05 2006", timeStr+" "+strconv.Itoa(year)); err == nil {
timestamp = ts
}
}
// Classify severity
lowerMsg := strings.ToLower(message)
switch {
case strings.Contains(lowerMsg, "panic"),
strings.Contains(lowerMsg, "fatal"),
strings.Contains(lowerMsg, "critical"):
severity = models.SeverityCritical
case strings.Contains(lowerMsg, "error"),
strings.Contains(lowerMsg, "warning"),
strings.Contains(lowerMsg, "failed"):
severity = models.SeverityWarning
default:
severity = models.SeverityInfo
}
return timestamp, message, severity
}
func getTempStatus(temp int) string {
switch {
case temp >= 60:
return "critical"
case temp >= 50:
return "warning"
default:
return "ok"
}
}
func parseInt(s string) int {
v, _ := strconv.Atoi(strings.TrimSpace(s))
return v
}
func parseFloat(s string) float64 {
v, _ := strconv.ParseFloat(strings.TrimSpace(s), 64)
return v
}