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Kalkulator Load Balance PCC Multi-WAN MikroTik

Generator script penyeimbang beban Multi-WAN (2–5 ISP) PCC proporsional dan failover bertingkat rekursif di RouterOS v7.

Parameter Input

Coba Contoh:
Mbps
11000
Mbps
11000

Hasil Perhitungan

Jumlah Jalur ISP (WAN)
2 ISP
Mode Perhitungan
pcc
Metode Klasifikasi PCC
both-addresses-and-ports
Interface LAN / Bridge
bridge-lan
Subnet Jaringan LAN
192.168.88.0/24
Total Akumulasi Bandwidth
150 Mbps
Rasio Proporsi Beban ISP
2 : 1
Total Pembagian Stream PCC
3 Stream
Ingin membandingkan 2 opsi desain (misal: RAIDZ1 vs RAIDZ2, atau Cat6 vs Cat5e)?
⚡ Uji Refleks Jaringan (Standar SKKNI, MTCNA & CCNA)
Uji keahlian MTCNA / CCNA / SMK TKJ & unduh sertifikat skor berstempel
⚡ Tier SOHO / Branch Office (≤ 150 Mbps)
MikroTik hEX S (RB760iGS) / hAP ax³
RouterOS v7 Level 4 • Dual-Core ARM/MMIPS

Cukup untuk antrean FQ-CoDel / Simple Queue hingga 30–50 user aktif dan tunnel WireGuard ringan.

Tabel Konfigurasi Jalur WAN / ISP
NoNama SegmenInterface WANIP GatewayBandwidthIP Target Check-GatewayBobot Stream PCCConnection MarkRouting Table
1ISP1ether1-ISP1192.168.1.1100 Mbps1.1.1.12ISP1_connto-ISP1
2ISP2ether2-ISP2192.168.2.150 Mbps8.8.8.81ISP2_connto-ISP2
Script Konfigurasi Terminal (CLI)
# =====================================================================
# InfraCalc.web.id - MikroTik RouterOS v7 Multi-WAN (2 ISP) PCC + Recursive Failover
# Rasio Beban Otomatis: ISP1 (100M) : ISP2 (50M) = 2 : 1 (3 PCC Streams)
# Classifier: both-addresses-and-ports | LAN Interface: bridge-lan (192.168.88.0/24)
# =====================================================================

/routing table
add disabled=no fib name=to-ISP1
add disabled=no fib name=to-ISP2

/ip firewall address-list
add address=192.168.0.0/16 list=RFC1918-LOCAL comment="Bypass Private LAN Traffic"
add address=10.0.0.0/8 list=RFC1918-LOCAL
add address=172.16.0.0/12 list=RFC1918-LOCAL

/ip firewall mangle
add action=accept chain=prerouting dst-address-list=RFC1918-LOCAL in-interface=bridge-lan comment="Bypass Local-to-Local / Inter-VLAN dari PCC"
add action=mark-connection chain=prerouting connection-mark=no-mark in-interface=ether1-ISP1 new-connection-mark=ISP1_conn passthrough=yes comment="Mark Inbound ISP1"
add action=mark-connection chain=prerouting connection-mark=no-mark in-interface=ether2-ISP2 new-connection-mark=ISP2_conn passthrough=yes comment="Mark Inbound ISP2"
add action=mark-connection chain=prerouting connection-mark=no-mark dst-address-type=!local in-interface=bridge-lan new-connection-mark=ISP1_conn passthrough=yes per-connection-classifier=both-addresses-and-ports:3/0 comment="PCC Stream 1/3 -> ISP1 (100M)"
add action=mark-connection chain=prerouting connection-mark=no-mark dst-address-type=!local in-interface=bridge-lan new-connection-mark=ISP1_conn passthrough=yes per-connection-classifier=both-addresses-and-ports:3/1 comment="PCC Stream 2/3 -> ISP1 (100M)"
add action=mark-connection chain=prerouting connection-mark=no-mark dst-address-type=!local in-interface=bridge-lan new-connection-mark=ISP2_conn passthrough=yes per-connection-classifier=both-addresses-and-ports:3/2 comment="PCC Stream 3/3 -> ISP2 (50M)"
add action=mark-routing chain=prerouting connection-mark=ISP1_conn in-interface=bridge-lan new-routing-mark=to-ISP1 passthrough=no comment="Route LAN ke ISP1"
add action=mark-routing chain=prerouting connection-mark=ISP2_conn in-interface=bridge-lan new-routing-mark=to-ISP2 passthrough=no comment="Route LAN ke ISP2"
add action=mark-routing chain=output connection-mark=ISP1_conn new-routing-mark=to-ISP1 passthrough=no comment="Route Output Router ke ISP1"
add action=mark-routing chain=output connection-mark=ISP2_conn new-routing-mark=to-ISP2 passthrough=no comment="Route Output Router ke ISP2"

/ip firewall nat
add action=masquerade chain=srcnat out-interface=ether1-ISP1 comment="NAT Masquerade ISP1 (100 Mbps)"
add action=masquerade chain=srcnat out-interface=ether2-ISP2 comment="NAT Masquerade ISP2 (50 Mbps)"

# Recursive Routing Failover (Mendeteksi Putus di Tengah Jaringan ISP / FO Cut)
/ip route
add dst-address=1.1.1.1/32 gateway=192.168.1.1 scope=10 target-scope=10 comment="Monitor Host ISP1 via ether1-ISP1"
add dst-address=8.8.8.8/32 gateway=192.168.2.1 scope=10 target-scope=10 comment="Monitor Host ISP2 via ether2-ISP2"

# Routing Table per ISP + Cascading Backup Otomatis
add check-gateway=ping distance=1 dst-address=0.0.0.0/0 gateway=1.1.1.1 routing-table=to-ISP1 scope=30 target-scope=11 comment="Primary Route Table ISP1"
add check-gateway=ping distance=2 dst-address=0.0.0.0/0 gateway=8.8.8.8 routing-table=to-ISP1 scope=30 target-scope=11 comment="Failover Table ISP1 -> Backup ISP2"
add check-gateway=ping distance=1 dst-address=0.0.0.0/0 gateway=8.8.8.8 routing-table=to-ISP2 scope=30 target-scope=11 comment="Primary Route Table ISP2"
add check-gateway=ping distance=2 dst-address=0.0.0.0/0 gateway=1.1.1.1 routing-table=to-ISP2 scope=30 target-scope=11 comment="Failover Table ISP2 -> Backup ISP1"

# Default Route pada Main Routing Table
add check-gateway=ping distance=1 dst-address=0.0.0.0/0 gateway=1.1.1.1 routing-table=main scope=30 target-scope=11 comment="Default Route Main ISP1 (Distance 1)"
add check-gateway=ping distance=2 dst-address=0.0.0.0/0 gateway=8.8.8.8 routing-table=main scope=30 target-scope=11 comment="Default Route Main ISP2 (Distance 2)"
Multi-Vendor & Packet Flow

Multi-Vendor Config Translator & Visualisasi Alur Paket (Packet Flow)

Diagram Alur Paket Interaktif (Klik Tahap untuk Detail Inspeksi)WAN ➔ Prerouting/NAT ➔ Filter/QoS ➔ LAN
1. LAN IngressSrc: 192.168.88.0/242. PCC Hash Classifier2 Streams Hash3. Routing Table Lookupto-wan1 .. to-wan24. Multi-WAN EgressSRC-NAT Masquerade
1. LAN Ingress: Trafik dari klien LAN masuk ke router; daftar RFC1918 lokal di-accept agar tidak ter-load-balance.
# =====================================================================
# InfraCalc.web.id - MikroTik RouterOS v7 Multi-WAN (2 ISP) PCC + Recursive Failover
# Rasio Beban Otomatis: ISP1 (100M) : ISP2 (50M) = 2 : 1 (3 PCC Streams)
# Classifier: both-addresses-and-ports | LAN Interface: bridge-lan (192.168.88.0/24)
# =====================================================================

/routing table
add disabled=no fib name=to-ISP1
add disabled=no fib name=to-ISP2

/ip firewall address-list
add address=192.168.0.0/16 list=RFC1918-LOCAL comment="Bypass Private LAN Traffic"
add address=10.0.0.0/8 list=RFC1918-LOCAL
add address=172.16.0.0/12 list=RFC1918-LOCAL

/ip firewall mangle
add action=accept chain=prerouting dst-address-list=RFC1918-LOCAL in-interface=bridge-lan comment="Bypass Local-to-Local / Inter-VLAN dari PCC"
add action=mark-connection chain=prerouting connection-mark=no-mark in-interface=ether1-ISP1 new-connection-mark=ISP1_conn passthrough=yes comment="Mark Inbound ISP1"
add action=mark-connection chain=prerouting connection-mark=no-mark in-interface=ether2-ISP2 new-connection-mark=ISP2_conn passthrough=yes comment="Mark Inbound ISP2"
add action=mark-connection chain=prerouting connection-mark=no-mark dst-address-type=!local in-interface=bridge-lan new-connection-mark=ISP1_conn passthrough=yes per-connection-classifier=both-addresses-and-ports:3/0 comment="PCC Stream 1/3 -> ISP1 (100M)"
add action=mark-connection chain=prerouting connection-mark=no-mark dst-address-type=!local in-interface=bridge-lan new-connection-mark=ISP1_conn passthrough=yes per-connection-classifier=both-addresses-and-ports:3/1 comment="PCC Stream 2/3 -> ISP1 (100M)"
add action=mark-connection chain=prerouting connection-mark=no-mark dst-address-type=!local in-interface=bridge-lan new-connection-mark=ISP2_conn passthrough=yes per-connection-classifier=both-addresses-and-ports:3/2 comment="PCC Stream 3/3 -> ISP2 (50M)"
add action=mark-routing chain=prerouting connection-mark=ISP1_conn in-interface=bridge-lan new-routing-mark=to-ISP1 passthrough=no comment="Route LAN ke ISP1"
add action=mark-routing chain=prerouting connection-mark=ISP2_conn in-interface=bridge-lan new-routing-mark=to-ISP2 passthrough=no comment="Route LAN ke ISP2"
add action=mark-routing chain=output connection-mark=ISP1_conn new-routing-mark=to-ISP1 passthrough=no comment="Route Output Router ke ISP1"
add action=mark-routing chain=output connection-mark=ISP2_conn new-routing-mark=to-ISP2 passthrough=no comment="Route Output Router ke ISP2"

/ip firewall nat
add action=masquerade chain=srcnat out-interface=ether1-ISP1 comment="NAT Masquerade ISP1 (100 Mbps)"
add action=masquerade chain=srcnat out-interface=ether2-ISP2 comment="NAT Masquerade ISP2 (50 Mbps)"

# Recursive Routing Failover (Mendeteksi Putus di Tengah Jaringan ISP / FO Cut)
/ip route
add dst-address=1.1.1.1/32 gateway=192.168.1.1 scope=10 target-scope=10 comment="Monitor Host ISP1 via ether1-ISP1"
add dst-address=8.8.8.8/32 gateway=192.168.2.1 scope=10 target-scope=10 comment="Monitor Host ISP2 via ether2-ISP2"

# Routing Table per ISP + Cascading Backup Otomatis
add check-gateway=ping distance=1 dst-address=0.0.0.0/0 gateway=1.1.1.1 routing-table=to-ISP1 scope=30 target-scope=11 comment="Primary Route Table ISP1"
add check-gateway=ping distance=2 dst-address=0.0.0.0/0 gateway=8.8.8.8 routing-table=to-ISP1 scope=30 target-scope=11 comment="Failover Table ISP1 -> Backup ISP2"
add check-gateway=ping distance=1 dst-address=0.0.0.0/0 gateway=8.8.8.8 routing-table=to-ISP2 scope=30 target-scope=11 comment="Primary Route Table ISP2"
add check-gateway=ping distance=2 dst-address=0.0.0.0/0 gateway=1.1.1.1 routing-table=to-ISP2 scope=30 target-scope=11 comment="Failover Table ISP2 -> Backup ISP1"

# Default Route pada Main Routing Table
add check-gateway=ping distance=1 dst-address=0.0.0.0/0 gateway=1.1.1.1 routing-table=main scope=30 target-scope=11 comment="Default Route Main ISP1 (Distance 1)"
add check-gateway=ping distance=2 dst-address=0.0.0.0/0 gateway=8.8.8.8 routing-table=main scope=30 target-scope=11 comment="Default Route Main ISP2 (Distance 2)"
Fitur Visual Otomatis

Generator Topologi Jaringan Visual (SVG / PNG)

Topologi Multi-WAN PCC Load Balance (2 ISP)KalkuNet.com • Auto-TopologyISP WAN 1 (ether1-ISP1)100 Mbps • Check 1.1.1.1ISP WAN 2 (ether2-ISP2)50 Mbps • Check 8.8.8.8RTRMikroTik RouterOS v7PCC Load Balancer • Total 150 MbSWCore Gigabit Switchbridge-lan • 192.168.88.0/24Workstation & PCboth-addresses-and-ports[LAN]Wi-Fi Access PointsSeamless Failover Session[WLAN]Local Server / NASRFC1918 Bypass Mangle[Server]
Bagikan ke WhatsApp
ℹ️

Catatan Akurasi Teknis: Hasil perhitungan di atas bersifat estimasi rekayasa berdasarkan parameter standar RFC/IEEE/ITU-T. Kondisi aktual di lapangan dapat dipengaruhi oleh overhead protokol, kualitas perangkat, dan interferensi lingkungan.

🚀 Bagikan Hasil Hitungan Ini atau Pasang di Website Anda

Tautan otomatis menyimpan angka input Anda saat ini — sangat praktis untuk diskusi grup WA, Telegram, Facebook, atau laporan proyek.

Cara Menggunakan Alat Ini

  1. Pilih jumlah ISP provider (2 sampai 5) dan tentukan mode operasi: PCC Load Balancing + Failover atau Active-Backup Failover murni.
  2. Tentukan antarmuka LAN bridge, nama interface tiap ISP, IP gateway lokal modem, bandwidth download/upload aktual, serta host target pemeriksaan ping (misalnya 1.1.1.1 atau 8.8.8.8).
  3. Periksa rasio pembagian beban otomatis dan jumlah stream PCC yang dihasilkan, lalu salin script RouterOS v7 yang telah dilengkapi bypass RFC1918 ke terminal router.

Contoh Perhitungan Nyata: Dual-WAN 100M + 50M (Rasio 2:1)

Contoh terhitung: Kombinasi 2 ISP (ISP1 100M dan ISP2 50M) menghasilkan rasio proporsional 2 : 1 dengan total 3 stream PCC pada antarmuka bridge-lan (150 Mbps agregat).

Input Contoh
Jumlah ISP Provider
2 ISP Provider
Mode Operasi
PCC Load Balance + Recursive Failover
PCC Classifier
both-addresses-and-ports (Rekomendasi)
Interface LAN Bridge
bridge-lan
Subnet LAN (CIDR)
192.168.88.0/24
Bandwidth ISP 1 (Mbps)
100 Mbps
Gateway IP ISP 1
192.168.1.1
Interface ISP 1
ether1-ISP1
Bandwidth ISP 2 (Mbps)
50 Mbps
Gateway IP ISP 2
192.168.2.1
Interface ISP 2
ether2-ISP2
Output Terhitung
Jumlah Jalur ISP (WAN)
2 ISP
Mode Perhitungan
pcc
Metode Klasifikasi PCC
both-addresses-and-ports
Interface LAN / Bridge
bridge-lan
Subnet Jaringan LAN
192.168.88.0/24
Total Akumulasi Bandwidth
150 Mbps
Rasio Proporsi Beban ISP
2 : 1
Total Pembagian Stream PCC
3 Stream
Script Konfigurasi Terminal (CLI)
# ===================================================================== # InfraCalc.web.id - MikroTik RouterOS v7 Multi-WAN (2 ISP) PCC + Recursive Failover # Rasio Beban Otomatis: ISP1 (100M) : ISP2 (50M) = 2 : 1 (3 PCC Streams) # Classifier: both-addresses-and-ports | LAN Interface: bridge-lan (192.168.88.0/24) # ===================================================================== /routing table add disabled=no fib name=to-ISP1 add disabled=no fib name=to-ISP2 /ip firewall address-list add address=192.168.0.0/16 list=RFC1918-LOCAL comment="Bypass Private LAN Traffic" add address=10.0.0.0/8 list=RFC1918-LOCAL add address=172.16.0.0/12 list=RFC1918-LOCAL /ip firewall mangle add action=accept chain=prerouting dst-address-list=RFC1918-LOCAL in-interface=bridge-lan comment="Bypass Local-to-Local / Inter-VLAN dari PCC" add action=mark-connection chain=prerouting connection-mark=no-mark in-interface=ether1-ISP1 new-connection-mark=ISP1_conn passthrough=yes comment="Mark Inbound ISP1" add action=mark-connection chain=prerouting connection-mark=no-mark in-interface=ether2-ISP2 new-connection-mark=ISP2_conn passthrough=yes comment="Mark Inbound ISP2" add action=mark-connection chain=prerouting connection-mark=no-mark dst-address-type=!local in-interface=bridge-lan new-connection-mark=ISP1_conn passthrough=yes per-connection-classifier=both-addresses-and-ports:3/0 comment="PCC Stream 1/3 -> ISP1 (100M)" add action=mark-connection chain=prerouting connection-mark=no-mark dst-address-type=!local in-interface=bridge-lan new-connection-mark=ISP1_conn passthrough=yes per-connection-classifier=both-addresses-and-ports:3/1 comment="PCC Stream 2/3 -> ISP1 (100M)" add action=mark-connection chain=prerouting connection-mark=no-mark dst-address-type=!local in-interface=bridge-lan new-connection-mark=ISP2_conn passthrough=yes per-connection-classifier=both-addresses-and-ports:3/2 comment="PCC Stream 3/3 -> ISP2 (50M)" add action=mark-routing chain=prerouting connection-mark=ISP1_conn in-interface=bridge-lan new-routing-mark=to-ISP1 passthrough=no comment="Route LAN ke ISP1" add action=mark-routing chain=prerouting connection-mark=ISP2_conn in-interface=bridge-lan new-routing-mark=to-ISP2 passthrough=no comment="Route LAN ke ISP2" add action=mark-routing chain=output connection-mark=ISP1_conn new-routing-mark=to-ISP1 passthrough=no comment="Route Output Router ke ISP1" add action=mark-routing chain=output connection-mark=ISP2_conn new-routing-mark=to-ISP2 passthrough=no comment="Route Output Router ke ISP2" /ip firewall nat add action=masquerade chain=srcnat out-interface=ether1-ISP1 comment="NAT Masquerade ISP1 (100 Mbps)" add action=masquerade chain=srcnat out-interface=ether2-ISP2 comment="NAT Masquerade ISP2 (50 Mbps)" # Recursive Routing Failover (Mendeteksi Putus di Tengah Jaringan ISP / FO Cut) /ip route add dst-address=1.1.1.1/32 gateway=192.168.1.1 scope=10 target-scope=10 comment="Monitor Host ISP1 via ether1-ISP1" add dst-address=8.8.8.8/32 gateway=192.168.2.1 scope=10 target-scope=10 comment="Monitor Host ISP2 via ether2-ISP2" # Routing Table per ISP + Cascading Backup Otomatis add check-gateway=ping distance=1 dst-address=0.0.0.0/0 gateway=1.1.1.1 routing-table=to-ISP1 scope=30 target-scope=11 comment="Primary Route Table ISP1" add check-gateway=ping distance=2 dst-address=0.0.0.0/0 gateway=8.8.8.8 routing-table=to-ISP1 scope=30 target-scope=11 comment="Failover Table ISP1 -> Backup ISP2" add check-gateway=ping distance=1 dst-address=0.0.0.0/0 gateway=8.8.8.8 routing-table=to-ISP2 scope=30 target-scope=11 comment="Primary Route Table ISP2" add check-gateway=ping distance=2 dst-address=0.0.0.0/0 gateway=1.1.1.1 routing-table=to-ISP2 scope=30 target-scope=11 comment="Failover Table ISP2 -> Backup ISP1" # Default Route pada Main Routing Table add check-gateway=ping distance=1 dst-address=0.0.0.0/0 gateway=1.1.1.1 routing-table=main scope=30 target-scope=11 comment="Default Route Main ISP1 (Distance 1)" add check-gateway=ping distance=2 dst-address=0.0.0.0/0 gateway=8.8.8.8 routing-table=main scope=30 target-scope=11 comment="Default Route Main ISP2 (Distance 2)"
Tabel Konfigurasi Jalur WAN / ISP
NoNama SegmenInterface WANIP GatewayBandwidthIP Target Check-GatewayBobot Stream PCCConnection MarkRouting Table
1ISP1ether1-ISP1192.168.1.1100 Mbps1.1.1.12ISP1_connto-ISP1
2ISP2ether2-ISP2192.168.2.150 Mbps8.8.8.81ISP2_connto-ISP2

Konsep Dasar & Catatan Teknis

Per Connection Classifier (PCC) adalah mekanisme penyeimbang beban (load balancing) pada MikroTik RouterOS yang membagi paket data ke beberapa koneksi internet berdasarkan kombinasi hashing alamat IP asal, alamat IP tujuan, serta nomor port. Tidak seperti teknik per-packet round-robin yang dapat merusak sesi login perbankan dan situs HTTPS karena paket dari koneksi yang sama melompat antar IP publik yang berbeda, PCC menjamin bahwa seluruh paket di dalam satu koneksi TCP/UDP yang sama akan selalu dilewatkan melalui ISP yang konsisten selama sesi berlangsung. Kalkulator ini menghitung rasio bobot pembagian koneksi secara proporsional berdasarkan kapasitas bandwidth masing-masing ISP menggunakan algoritma pembagi bersama terbesar (FPB / GCD). Sebagai contoh, jika ISP 1 memiliki kecepatan 100 Mbps dan ISP 2 memiliki kecepatan 50 Mbps, rasio beban yang terbentuk adalah 2:1 dengan total 3 stream PCC. Beban internet klien akan didistribusikan ke ISP 1 sebanyak 66,7% dan ke ISP 2 sebanyak 33,3%. Jumlah stream dibatasi secara cerdas agar tabel firewall mangle tetap ringan dan tidak membebani penggunaan CPU router. Selain pembagian beban, kalkulator ini menerapkan arsitektur Recursive Routing Failover modern di RouterOS v7. Metode ini tidak hanya memeriksa apakah link fisik atau modem ONT menyala, melainkan melakukan ping berkala ke IP publik eksternal (seperti 1.1.1.1 atau 8.8.8.8) melalui gateway masing-masing ISP dengan parameter scope dan target-scope. Apabila terjadi kabel fiber optik putus di jaringan inti ISP, router akan mendeteksi hilangnya akses internet dalam hitungan detik dan secara preemptive mengalihkan seluruh trafik ke ISP cadangan tanpa perlu intervensi manual.

Cara Perhitungan (Rumus & Langkah)

Pertanyaan yang Sering Diajukan (FAQ)

Mengapa classifier 'both-addresses-and-ports' menjadi rekomendasi utama?

Classifier ini mengacak koneksi berdasarkan IP pengirim, IP tujuan, serta port. Ini menghasilkan persebaran trafik paling merata untuk banyak pengguna browsing dan download tanpa merusak koneksi HTTPS karena sesi port tunggal tetap berada di satu ISP.

Apa fungsi bypass RFC 1918 pada script mangle PCC?

Rule accept untuk alamat lokal (10.0.0.0/8, 172.16.0.0/12, 192.168.0.0/16) diletakkan di urutan paling atas agar trafik antar-VLAN dan akses ke modem ONT tidak terkena mark routing PCC ke arah internet publik.

Bagaimana cara kerja Recursive Routing Failover pada RouterOS v7?

Router menetapkan rute statis ke IP publik tertentu (misalnya 1.1.1.1) dengan scope=10 melalui gateway modem. Rute default (0.0.0.0/0) kemudian diarahkan ke 1.1.1.1 dengan check-gateway=ping dan target-scope=11. Jika ping ke 1.1.1.1 gagal, rute default otomatis nonaktif.

Apakah PCC bisa menggabungkan kecepatan download dari satu koneksi tunggal (single-stream)?

Tidak. Satu sesi koneksi tunggal (seperti download file di browser biasa) hanya melewati satu ISP. Kecepatan gabungan 100+50 = 150 Mbps baru dirasakan saat terdapat multi-koneksi (seperti torrent, download manager multi-thread, atau banyak pengguna bersamaan).

Alat Kalkulator Terkait

Lihat Semua Kalkulator Jaringan & Routing →
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Hitung Limit-At (CIR), Max-Limit (MIR), Burst, PCQ, dan FQ-CoDel RouterOS v7 lengkap dengan generator script konfigurasi otomatis.

Generator Port Forwarding (DST-NAT) dan Hairpin NAT MikroTik

Buka port server/NVR ke internet publik (DST-NAT) dan cegah koneksi loopback timeout dari dalam jaringan kantor menggunakan Hairpin NAT.

Kalkulator Subnet IPv4 dan CIDR

Hitung alamat network, broadcast, rentang host usable, netmask, wildcard, biner mask, dan tipe alamat IPv4 (RFC 1918, RFC 3021 /31, CGNAT).

Kalkulator VLSM dan Pemecah Subnet IPv4

Pecah blok jaringan IPv4 menjadi N subnet sama besar atau alokasikan subnet VLSM berdasarkan kebutuhan host terbesar dengan ekspor CSV/Markdown.

Kalkulator Subnet IPv6 dan Perencana Prefix (/48, /56, /64)

Ekspansi dan kompresi alamat IPv6 (RFC 5952), hitung prefix network, rentang alamat, jumlah subnet /64 SLAAC, dan pembagian child prefix.

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Prioritaskan panggilan suara WhatsApp, meeting Zoom/Teams, dan game online di atas unduhan bulk menggunakan Queue Tree FQ-CoDel RouterOS v7.

Direktori Lengkap Kalkulator Jaringan & Routing →

Referensi Standar & Catatan

Terakhir diperbarui: Terverifikasi Teknis · Standar Industri

Catatan: Hasil di atas merupakan estimasi berdasarkan rumus standar. Selalu verifikasi dengan dokumentasi resmi vendor dan kondisi lapangan sebelum implementasi pada lingkungan produksi.

🔗Skenario Terkait & Kalkulator Pendukung

Lihat 30+ Skenario Lainnya →

⚡ Preset Skenario Siap Pakai:

/32 = Mask 255.255.255.255 • 1 Host Usable→
Subnetting /32 (CIDR /32): Subnet Mask 255.255.255.255, Jumlah Host (1) & Rentang IP

Jawaban cepat Subnetting /32: Subnet Mask adalah 255.255.255.255, Wildcard Mask 0.0.0.0, Total IP 1, dan Host Usable 1. Cocok untuk IP Loopback Router OSPF/BGP & Single Host Route.

/30 = Mask 255.255.255.252 • 2 Host Usable→
Subnetting /30 (CIDR /30): Subnet Mask 255.255.255.252, Jumlah Host (2) & Rentang IP

Jawaban cepat Subnetting /30: Subnet Mask adalah 255.255.255.252, Wildcard Mask 0.0.0.3, Total IP 4, dan Host Usable 2. Cocok untuk Link Point-to-Point Antar Router WAN (2 IP Host).

/29 = Mask 255.255.255.248 • 6 Host Usable→
Subnetting /29 (CIDR /29): Subnet Mask 255.255.255.248, Jumlah Host (6) & Rentang IP

Jawaban cepat Subnetting /29: Subnet Mask adalah 255.255.255.248, Wildcard Mask 0.0.0.7, Total IP 8, dan Host Usable 6. Cocok untuk Blok IP Publik Server DMZ & Peering BGP (6 Host).

🛠️ Kalkulator Pendukung Kategori Serupa:

Kalkulator Subnet IPv4 dan CIDR

Hitung alamat network, broadcast, rentang host usable, netmask, wildcard, biner mask, dan tipe alamat IPv4 (RFC 1918, RFC 3021 /31, CGNAT).

Kalkulator VLSM dan Pemecah Subnet IPv4

Pecah blok jaringan IPv4 menjadi N subnet sama besar atau alokasikan subnet VLSM berdasarkan kebutuhan host terbesar dengan ekspor CSV/Markdown.

Kalkulator Subnet IPv6 dan Perencana Prefix (/48, /56, /64)

Ekspansi dan kompresi alamat IPv6 (RFC 5952), hitung prefix network, rentang alamat, jumlah subnet /64 SLAAC, dan pembagian child prefix.

Kalkulator Bandwidth MikroTik (Simple Queue, Burst, PCQ, FQ-CoDel)

Hitung Limit-At (CIR), Max-Limit (MIR), Burst, PCQ, dan FQ-CoDel RouterOS v7 lengkap dengan generator script konfigurasi otomatis.

🔬 Metodologi Ilmiah & Verifikasi Standar

Analisis Sensitivitas Rekayasa, Kurva Karakteristik & Sitasi Teknis

✓ Konstanta Terkalibrasi ISO/IEC/IEEE/TIA

1. Matriks Analisis Sensitivitas & Rentang Toleransi 3-Kondisi (Matriks Toleransi 3 Titik Desain)

Evaluasi perbandingan antara batas teoretis laboratorium (0% rugi-rugi), titik operasional nominal saat ini, dan batas konservatif lapangan (termasuk derating suhu konduktor, penuaan komponen, serta margin keamanan ±15%).

Parameter Terukur Kondisi Ideal Teoretis Titik Kerja Operasional (Nominal) Batas Konservatif (Worst-Case ±15%) Kaidah Koreksi Rekayasa
Jumlah Jalur ISP (WAN) 1,8 2 2,3 Safety Margin Kapasitas (+15% Overhead)
Total Akumulasi Bandwidth 135 150 173 Safety Margin Kapasitas (+15% Overhead)
Total Pembagian Stream PCC 2,7 3 3,45 Safety Margin Kapasitas (+15% Overhead)

2. Kurva Karakteristik Rekayasa, Fungsi & Titik Operasi (x₀, y₀)

KURVA RESPON MATEMATIS: JUMLAH JALUR ISP (WAN) TERHADAP BANDWIDTH ISP 1 Ambang Batas Konservatif (+15% Safety Margin) 40 60 80 100 120 140 160 (x₀=100, y₀=2) Variabel Independen (x): Bandwidth ISP 1

3. Konstanta Fisika & Klausul Standar Normatif

R_loop(Cat6, 20°C) = 14 Ω/100m ANSI/TIA-568.2-D & IEEE 802.3bt

Resistansi Loop DC Konduktor Tembaga Murni Cat6 (23 AWG)

Clause 6.4.1 / Table 145-1 — Nilai nominal tipikal 23 AWG tembaga murni pada 20°C adalah 14.0 Ω/100m (batas plafon standar TIA adalah 18.8 Ω/100m).

α_opt(1490nm) = 0.25 dB/km ITU-T Rec. G.652.D & G.984.2

Koefisien Atenuasi Serat Optik Single-Mode pada 1490 nm

Table 1 / Class B+ & C+ Optical Path — Atenuasi tipikal serat G.652.D pada panjang gelombang downstream 1490 nm adalah 0.22–0.25 dB/km (upstream 1310 nm: 0.35 dB/km).

α_Cu(20°C) = 0.00393 °C⁻¹ IEC 60028

Koefisien Suhu Resistansi Tembaga Murni

International Annealed Copper Standard — Digunakan pada koreksi suhu: R(T) = R_20 × [1 + 0.00393 × (T - 20)].

4. Kutipan Referensi Teknis & Akademik Independen (IEEE / APA 7th / BibTeX / LaTeX)

Gunakan format sitasi standar di bawah ini untuk melampirkan metodologi perhitungan ke dalam dokumen spesifikasi teknis, laporan audit, karya ilmiah, atau jurnal rekayasa.

Format IEEE & APA 7th Edition

[IEEE] KalkuNet Engineering Team, "Kalkulator Load Balance PCC Multi-WAN MikroTik — Instrumen Komputasi & Verifikasi Standar Teknis," KalkuNet Technical Suite, 2026. [Online]. Tersedia: https://kalkunet.com/id/tools/mikrotik-pcc-calculator. [Diakses: 2026-11-08].

[APA 7th] KalkuNet Engineering Team. (2026). Kalkulator Load Balance PCC Multi-WAN MikroTik (Rilis Produksi 2026-11-08) [Perangkat lunak komputasi teknik]. KalkuNet. https://kalkunet.com/id/tools/mikrotik-pcc-calculator

BibTeX & LaTeX Derivation Snippet
@software{kalkunet_mikrotik_pcc_calculator_2026,
  author = {{KalkuNet Engineering Team}},
  title = {{Kalkulator Load Balance PCC Multi-WAN MikroTik --- KalkuNet Engineering Suite}},
  year = {2026},
  publisher = {KalkuNet.com},
  url = {https://kalkunet.com/id/tools/mikrotik-pcc-calculator},
  urldate = {2026-11-08}
}

% LaTeX Engineering Derivation — Generated via https://kalkunet.com/id/tools/mikrotik-pcc-calculator
\begin{equation}
  \text{Model: } Bobot Awal ISP = max(1, round(Bandwidth ÷ 10))
\end{equation}
% Parameter Input Terukur: ispCount = 2, \; mode = pcc, \; classifier = both-addresses-and-ports, \; lanIface = bridge-lan
% Hasil Evaluasi Numerik : ispCount = \mathbf{2}, \; mode = \mathbf{pcc}, \; classifier = \mathbf{both-addresses-and-ports}