CCcam in 2026: current status, setup, and alternatives

Protocolcccam 2026 is a topic discussed on forums every year, and every year there are people who declare it dead. This is incorrect. The official development stopped back in 2014, but the protocol lives on — through OScam, through compatible clients, through thousands of functioning peer networks. Below is a technical analysis of the real state of affairs, without fluff and fabricated quotes.

Status of the CCcam protocol in 2026

The official CCcam released version 2.3.2 in 2014 — and that’s it. The development team disbanded, the repository was abandoned. But this does not mean that the protocol has stopped working.

The CCcam 2.3.2 binary still runs on x86_64 Linux without any major issues. Dependencies are minimal, it consumes about 25-30 MB of memory, and behaves stably on weak VPS. The protocol is simple — and this simplicity turned out to be its main advantage.

The last official version and why development has stopped

CCcam 2.3.2 is the last official release. No 2.4, no "updated builds from team X" — if someone sells you "CCcam 3.0", it is either a rebuild of OScam or something homemade altogether.

The reason for the halt is simple: the original development was closed and commercial. When interest waned — so did the project. OScam, which emerged as an open-source alternative, ultimately outlived it and is now actively developed. Commits to the OScam repository continue regularly to this day.

Is the protocol alive: what real practice shows

In 2026, most peer networks operate on OScam but use the CCcam protocol for compatibility. This is a key point. The protocol and the program are different things. OScam can fully emulate the CCcam protocol, accept C-line connections, and distribute F-line to clients.

So when you connect via C-line to a "CCcam server," it may very well be OScam running there. This is normal and even better — OScam is more stable and supports more card formats.

Compatibility with modern receivers and DVB cards

Enigma2 receivers (Vu+, GigaBlue, Dreambox) have long used either native CCcam or OScam with Softcam Manager. DVB cards like TBS, DVBSky work directly through oscam via smart card readers.

The problem arises on very old receivers with firmware for CCcam 2.1.x — there the F-line format differs, and the new server may reject the connection. If you have such a receiver — either update the firmware or setVERSION = 2.1.3 in the client settings section in CCcam.cfg on the server.

On ARM devices like Raspberry Pi, the CCcam 2.3.2 x86 binary will not run — either a rebuild for armhf is needed, or a switch to OScam, which compiles properly for ARM from source with the commandmake arm.

Setting up a CCcam server on Linux in 2026

Most articles on setting up CCcam are copy-pastes from 2018 with commands for init.d. Here I will provide a current guide for modern Debian/Ubuntu with systemd.

Installing the binary on Debian/Ubuntu (current dependencies)

CCcam 2.3.2 is built with a dependency on the old libssl. On Ubuntu 22.04+, you will need to install compatible libraries:

apt install libssl1.1 libcrypto++8 libc6
# или через compat пакет:
wget http://security.ubuntu.com/ubuntu/pool/main/o/openssl/libssl1.1_1.1.1f-1ubuntu2_amd64.deb
dpkg -i libssl1.1_1.1.1f-1ubuntu2_amd64.deb

Place the binary in/usr/bin/CCcam, make it executable:

chmod +x /usr/bin/CCcam

Structure of CCcam.cfg: F-line, C-line, N-line

The config is located in/var/etc/CCcam.cfg or/usr/keys/CCcam.cfg depending on the build. On Enigma2, the standard path is/etc/CCcam.cfg. The contents of a typical working config:

# Слушаем входящие подключения на 12000
SERVER LISTEN PORT = 12000
SERVER UDP PORT = 12001

# Веб-интерфейс и telnet
WEBINFO LISTEN PORT = 16001
TELNETINFO LISTEN PORT = 16000

# Уровень логирования (0-3, 1 — нормальный, 3 — debug)
DEBUG = 1

# Обработка EMM (обновления ключей)
EMM REASSEMBLY = ON

# Клиенты (F-line)
F: client1 password123 2 0 0
F: client2 securepass 1 0 0

# Подключение к удалённым пирам (C-line)
C: peer.example.com 12000 myuser mypassword

# N-line (Newcamd peers)
# N: host port user pass key 01 02 03 04 05 06 07 08 09 10 11 12 13 14

F-line format:F: username password reshare_hops use_emm use_ecm. The value of reshare_hops = 2 means that the client can share your cards at most through 2 hops. Set it to 0 if you do not want resharing.

Running as a systemd service instead of init.d

Creating a file/etc/systemd/system/cccam.service:

[Unit]
Description=CCcam Card Sharing Server
After=network.target

[Service]
Type=forking
ExecStart=/usr/bin/CCcam
ExecStop=/bin/kill -TERM $MAINPID
Restart=on-failure
RestartSec=10
User=root
PIDFile=/tmp/cccam.pid

[Install]
WantedBy=multi-user.target

Enable and start:

systemctl daemon-reload
systemctl enable cccam
systemctl start cccam
systemctl status cccam

ParameterRestart=on-failure andRestartSec=10 — are important. CCcam sometimes crashes due to card or network issues, and without auto-restart, the server will just hang in a dead state.

Default ports (12000) and firewall configuration

Standard CCcam ports: 12000 TCP (main pairing), 12001 UDP (optional), 16000 TCP (telnet info), 16001 TCP (web interface). Minimal firewall through ufw:

ufw allow from peer_ip to any port 12000 proto tcp
ufw deny 12000
ufw allow from 127.0.0.1 to any port 16001

It is better not to expose the web interface on 16001 to the outside — only localhost or through an SSH tunnel.

CCcam.cfg file: key parameters and their impact

SERVER LISTEN PORT and SERVER UDP PORT

TCP port — the main transport. UDP is used for some types of ECM requests, but not all clients support it. If you have problems behind NAT — it is better to disable UDP altogether by settingSERVER UDP PORT = 0.

In case of port conflicts when OScam is also running on the same server — simply change the port of one of the daemons. For example, OScam listens on 11000, CCcam — 12000. Clients specify the required port in the C-line.

DEBUG levels and log analysis

DEBUG = 0 — almost no logs. DEBUG = 1 — connections, disconnections, errors. DEBUG = 2 — details of ECM/EMM. DEBUG = 3 — all traffic, log grows very quickly, not suitable for production.

Live log monitoring:tail -f /var/log/CCcam.log. If the file does not exist — CCcam writes to stdout, which systemd intercepts:journalctl -u cccam -f.

Through telnet, you can view live statistics:telnet localhost 16000. Columns in the status:hop (number of retransmissions to the actual card),share (number of shared CAID),ecm time (response time in ms).

EMM REASSEMBLY and key update processing

EMM REASSEMBLY = ON is needed if your cards require key updates via satellite stream (most paid packages). Without it, the card will stop working a few days after the provider changes the keys. Leave ON if unsure.

ALLOW TELNETINFO and web interface on port 16001

By default, telnet and web are open to everyone. This is bad. Add to the config:

ALLOW WEBINFO ADDRESS = 127.0.0.1
ALLOW TELNETINFO ADDRESS = 127.0.0.1

Normal ECM time is 200-600 ms. 600-1000 ms is the borderline zone, HD channels may freeze. Above 1000 ms indicates a problem with the peer or network, needs investigation or changing the peer.

Typical errors and their diagnosis

Channel does not open: check CAID and Provider ID

First, check if the daemon is actually listening on the port:

netstat -tnlp | grep 12000
# или через ss:
ss -tnlp | grep 12000

If the port is not listening — the daemon did not start. Check the log:journalctl -u cccam --no-pager -n 50.

If the daemon is running but the channel does not open — check CAID. In CCcam.cfg there is no explicit CAID indication, it is taken from the actual card. If the peer does not provide the required CAID — in the status via telnet you will see that the CAID for this provider is simply absent from the list.

FREEZE and hangs: causes and solutions

Freezes on HD — almost always ECM time above 800 ms. HD stream requires fast decryption, the standard SDR requirement is up to 400 ms.

Causes of high ECM time: large hop (>2), overloaded peer server, problems with the peer's card, our poor network. Diagnosis: ping to the peer host, check via CCcam web interface hop and ecm time of the specific peer.

MultiCAS cards (multiple CAID on one) sometimes give unstable reshare. Symptom — the channel opens, then freezes after 10-30 seconds. Solution: disable reshare on this card (reshare = 0 for this client).

Connection refused / no card available

Connection refused — server unavailable or firewall. Check telnet manually:telnet peer_host 12000. If the connection cannot be established — the problem is on the peer's side or between you.

"no card available" — the peer connected, but the required CAID is absent. Either the peer's card does not support your provider, or it is temporarily unavailable.

High ECM time and freezes on HD channels

NAT and Double NAT — a common cause. If you are behind the provider's CGNAT (gray IP), accepting incoming connections on 12000 is impossible without port forwarding. Many home providers in 2026 are distributing CGNAT — in this case, your server can only make outgoing connections via C-line, but cannot accept clients via F-line.

Another problem: CCcam is originally IPv4-only. If the server has only an IPv6 address or binds to it by default — add to the config:SERVER BIND ADDRESS = 0.0.0.0.

For peers with dynamic IP: add the parameterRECONNECT TIMEOUT = 30 — this will make CCcam reconnect on disconnection, rather than hanging in a broken state.

CCcam server security in 2026

Open port 12000 on the internet — a bad idea. Botnet scanners regularly check this port and attempt to connect with password brute force. This is not a theory — it is something that can be seen in the logs about an hour after opening the port.

Isolation through a VPN tunnel instead of an open port

The right approach: both servers (yours and the peer's) raise a WireGuard or OpenVPN tunnel, and the C-line points to the peer's VPN address. Port 12000 is completely closed from the outside. WireGuard in 2026 — the obvious choice: faster than OpenVPN, simpler configuration, available for all platforms.

Iptables rules: whitelist by peer IP

If VPN is not an option — minimal whitelist:

# Разрешить конкретный IP пира
iptables -A INPUT -p tcp --dport 12000 -s 1.2.3.4/32 -j ACCEPT
# Закрыть для всех остальных
iptables -A INPUT -p tcp --dport 12000 -j DROP

Save the rules:iptables-save > /etc/iptables/rules.v4 and installiptables-persistent.

Fail2ban against password brute-forcing

Fail2ban can read CCcam logs and ban IPs after N failed attempts. Create a file/etc/fail2ban/filter.d/cccam.conf:

[Definition]
failregex = .* connected from <HOST>.*authentication failed
ignoreregex =

Then jail in/etc/fail2ban/jail.local:logpath = /var/log/CCcam.log,maxretry = 5,bantime = 3600.

Why NOT to publish config and real IP

F-line with the real password and C-line with the real host — that’s all you need for full access to your server. Do not post the config on forums "for help with debugging". Change passwords after someone has seen your config.

CCcam or OScam: what to choose in 2026

Honest answer: for a new server in 2026, I would choose OScam. But that doesn’t mean CCcam should be immediately removed if it’s working.

Advantages of OScam: active development, more CAIDs

OScam supports significantly more types of cards and CAIDs. The web interface on port 8888 shows the status of each reader, ECM statistics, connected clients in more detail. Logs are more structured. Configuration through several files (/etc/oscam/oscam.conf,oscam.server,oscam.user) seems more complex, but in practice gives more control.

OScam in CCcam protocol mode: compatibility with peers

OScam can pretend to be a CCcam server. In/etc/oscam/oscam.conf add the section:

[cccam]
port = 12000

And the existing C-line clients continue to work without changes. Similarly, to connect OScam to a remote CCcam peer via C-line, in/etc/oscam/oscam.server:

[reader]
label         = peer1
protocol      = cccam
device        = peer.example.com,12000
user          = myuser
password      = mypassword
cccversion    = 2.3.2
cccmaxhops    = 2
reconnecttimeout = 30

Equivalent of C-line in one reader. The parametercccmaxhops = 2 — does not accept peers with hop > 2, which directly affects ECM time.

When it still makes sense to keep CCcam

If the system is working, ECM time is normal, there are no problems with cards — do not touch it. "If it works, don't fix it" is relevant. CCcam is easier to understand for beginners, takes up less memory, and is sufficient for one or two cards.

On old Enigma2 receivers with limited resources, CCcam is often preferable — OScam with a web interface consumes more RAM.

Migration of config: oscam.server from CCcam.cfg

When migrating, each C-line turns into[reader] section in oscam.server. Each F-line turns into an entry inoscam.user:

[account]
user     = client1
password = password123
cccmaxhops = 2

Running CCcam and OScam simultaneously on different ports is a working option for smooth migration. OScam on 11000, CCcam on 12000, clients are gradually transferred.

The problem with a large number of N-lines: if you have more than 20 N-line peers in CCcam.cfg — ECM time starts to increase, the daemon slows down when traversing all peers. OScam handles this better through parallel readers.

How to choose a peer or provider in 2026

There will be no names of specific services here. I will name the criteria — you will evaluate them yourself.

Criteria for a stable provider: uptime, ECM time, support

The first thing to request is a test line for 24-48 hours. Not for an hour, but specifically for a day or two. Testing during prime time (20:00-23:00 local time) is mandatory. Many servers work well at 3 AM and fail under load in the evening.

What to look for in the test: ECM time should be consistently under 600 ms, without peaks. Hop 1 or 2 is normal. Hop 3 and above is a signal of instability, especially with resharing chains. Check several HD channels in a row — they reveal the real quality.

What to avoid: "unlimited" offers, too low price

A price that is "too good" almost always means a long resharing chain. Somewhere at the beginning of the chain is one real card, which is sold to 50 clients through 4-5 hops of retransmission. This works at 3 AM when there are few simultaneous requests. In prime time — it falls apart.

"Unlimited" packages with hundreds of channels for pennies — a red flag. A real card is physically limited in the number of simultaneous ECM requests. Unlimited does not exist.

Trial period as a mandatory condition

If the provider refuses a test line — it is either a service without real cards, or they know that the test will not pass. A normal provider with a working server is not afraid to show the goods.

After receiving the test — check the hop through the CCcam web interface or OScam statistics. If the hop shows 4-5 — the real card is far away, this is unstable.

Local cards vs reseller chains

The most reliable option is a local server with a physical card and a DVB card for receiving EMM (key updates). Hop 0, ECM time 50-150 ms, no dependence on intermediaries. Yes, this is more expensive and requires physical equipment. But for prime time operation 24/7 — the only truly reliable way.

Reseller chain — a compromise. Acceptable at hop 1-2 and stable ECM. Higher — it's already a lottery.