pragma Singleton import Quickshell import Quickshell.Io import QtQuick Singleton { id: root property real cpuPerc property real cpuTemp property real gpuPerc property real gpuTemp property int memUsed property int memTotal readonly property real memPerc: memTotal > 0 ? memUsed / memTotal : 0 property int storageUsed property int storageTotal property real storagePerc: storageTotal > 0 ? storageUsed / storageTotal : 0 property int lastCpuIdle property int lastCpuTotal function formatKib(kib: int): var { const mib = 1024; const gib = 1024 ** 2; const tib = 1024 ** 3; if (kib >= tib) return { value: kib / tib, unit: "TiB" }; if (kib >= gib) return { value: kib / gib, unit: "GiB" }; if (kib >= mib) return { value: kib / mib, unit: "MiB" }; return { value: kib, unit: "KiB" }; } Timer { running: true interval: 3000 repeat: true onTriggered: { stat.reload(); meminfo.reload(); storage.running = true; cpuTemp.running = true; gpuUsage.running = true; gpuTemp.running = true; } } FileView { id: stat path: "/proc/stat" onLoaded: { const data = text().match(/^cpu\s+(\d+)\s+(\d+)\s+(\d+)\s+(\d+)\s+(\d+)\s+(\d+)\s+(\d+)/); if (data) { const stats = data.slice(1).map(n => parseInt(n, 10)); const total = stats.reduce((a, b) => a + b, 0); const idle = stats[3]; const totalDiff = total - root.lastCpuTotal; const idleDiff = idle - root.lastCpuIdle; root.cpuPerc = totalDiff > 0 ? (1 - idleDiff / totalDiff) : 0; root.lastCpuTotal = total; root.lastCpuIdle = idle; } } } FileView { id: meminfo path: "/proc/meminfo" onLoaded: { const data = text(); root.memTotal = parseInt(data.match(/MemTotal: *(\d+)/)[1], 10) || 1; root.memUsed = (root.memTotal - parseInt(data.match(/MemAvailable: *(\d+)/)[1], 10)) || 0; } } Process { id: storage running: true command: ["sh", "-c", "df | grep '^/dev/' | awk '{print $1, $3, $4}'"] stdout: StdioCollector { onStreamFinished: { const deviceMap = new Map(); for (const line of text.trim().split("\n")) { if (line.trim() === "") continue; const parts = line.trim().split(/\s+/); if (parts.length >= 3) { const device = parts[0]; const used = parseInt(parts[1], 10) || 0; const avail = parseInt(parts[2], 10) || 0; // Only keep the entry with the largest total space for each device if (!deviceMap.has(device) || (used + avail) > (deviceMap.get(device).used + deviceMap.get(device).avail)) { deviceMap.set(device, { used: used, avail: avail }); } } } let totalUsed = 0; let totalAvail = 0; for (const [device, stats] of deviceMap) { totalUsed += stats.used; totalAvail += stats.avail; } root.storageUsed = totalUsed; root.storageTotal = totalUsed + totalAvail; } } } Process { id: cpuTemp running: true command: ["sh", "-c", "cat /sys/class/thermal/thermal_zone*/temp"] stdout: StdioCollector { onStreamFinished: { const temps = text.trim().split(" "); const sum = temps.reduce((acc, d) => acc + parseInt(d, 10), 0); root.cpuTemp = sum / temps.length / 1000; } } } Process { id: gpuUsage running: true command: ["sh", "-c", "cat /sys/class/drm/card*/device/gpu_busy_percent"] stdout: StdioCollector { onStreamFinished: { const percs = text.trim().split("\n"); const sum = percs.reduce((acc, d) => acc + parseInt(d, 10), 0); root.gpuPerc = sum / percs.length / 100; } } } Process { id: gpuTemp running: true command: ["sensors"] stdout: StdioCollector { onStreamFinished: { let eligible = false; let sum = 0; let count = 0; for (const line of text.trim().split("\n")) { if (line === "Adapter: PCI adapter") eligible = true; else if (line === "") eligible = false; else if (eligible) { const match = line.match(/^(temp[0-9]+|GPU core|edge)+:\s+\+([0-9]+\.[0-9]+)°C/); if (match) { sum += parseFloat(match[2]); count++; } } } root.gpuTemp = count > 0 ? sum / count : 0; } } } }