CCcam.cfg 2026 Setup: Complete Guide

If you are reading this material, it means CCcam is already installed on the receiver or Linux server — and something is going wrong. Either the sharing is not starting, or the channels are freezing, or it is completely unclear where to write the C-line. This CCcam cfg 2026 setup guide will cover everything in order: syntax, permissions, diagnostics, typical traps. No providers, no "ready-made lines" — only what you really need to know.

Where CCcam.cfg is located and the basic structure of the file

The CCcam daemon looks for the config in several places at startup, in order of priority. The order depends on the build, but the standard chain is as follows: first/etc/CCcam.cfg, then/var/etc/CCcam.cfg, then/usr/keys/CCcam.cfg. If the file is found — it is used, the others are ignored.

The problem is that some Enigma2 images place the config in/var/etc/, while the user edits/etc/CCcam.cfg — and does not understand why the changes are not applied. Always check with the commandfind / -name CCcam.cfg 2>/dev/null, where the file actually resides.

Paths to the file on Enigma2 and regular Linux

On Enigma2 (OpenATV, OpenPLi, DreamElite and similar) the most commonly used is/etc/CCcam.cfg or/var/etc/CCcam.cfg. On a clean Debian/Ubuntu without a special image — almost always/etc/CCcam.cfg. The file/usr/keys/CCcam.cfg is found in older builds for DM500/DM800.

If multiple copies of the config exist simultaneously — this is almost guaranteed to be a headache. The daemon reads the first found file and stops. Keep only one.

File permissions and encoding

Permissions should bechmod 644 — read for all, write only for the owner. If the file was copied via FTP and the permissions were reset to000 or600 with the wrong owner, the daemon simply will not start. Check:ls -la /etc/CCcam.cfg.

Encoding — UTF-8 without BOM. If you saved the file in Notepad++ or another editor with BOM (markerEF BB BF at the beginning), the first line of the config will be ignored. This silently kills the first C-line without an error in the logs. You can check with the commandhexdump -C /etc/CCcam.cfg | head -1 — the first bytes should not beef bb bf.

Line endings — only LF (Unix, 0x0A). If you edited the config on Windows and saved it with CRLF (0x0D 0x0A), the daemon will not parse the lines correctly. The config seems empty — all lines are considered broken. Convert with:dos2unix /etc/CCcam.cfg or in Notepad++ via "Edit → EOL Conversion → UNIX".

What the config consists of: directives and lines

CCcam.cfg consists of two types of content: configuration directives (in uppercase) and connection lines (C:, F:, N:, B:). Comments start with the symbol# — everything after it on the line is ignored.

Example of minimal structure:

# Main CCcam config

Restarting the daemon after edits

CCcam reads the config once — at startup. Any change to the file requires a full restart of the daemon. On Enigma2:/etc/init.d/softcam restart. On pure Linux:

killall -9 CCcam&

There is no "hot reload". Don't wait — just restart.

Syntax of connection lines: C-line, N-line, F-line

This is the most important part of any cccam cfg 2026 setup guide. Most problems occur here: a typo in the password, incorrect port, an extra space at the end of the line. Let's break down each type.

C-line client: hostname port username password

C-line — client line. It tells the daemon where to connect to obtain decoding keys. Full format:

C: hostname port username password [no/yes] [{ SID1:SID2:... }]

Specific example with encryption parameter and AU filter:

C: server.example.com 12000 john secret123 no { 0:0:2 }

Field breakdown:

• hostname — domain name or IP of the server
• port — server port (standard 12000)
• username andpassword — credentials without quotes
• no/yes — flag of active card sharing (node-sharing).no — do not offer your cards to the server
• { 0:0:2 } — filtering block: CAID:ProviderID:uphops

If there is a space in the password, it will break the parsing. There should be no spaces in the username and password.

F-line of the server: friend username password

F-line — a line on the server side. Describes the account that is allowed to connect and receive cards. Format:

F: username password [allow_sharing] [caid_level_uphops] [caid_level_downhops] [{ SID:... }]

Minimal working option:

F: john secret123 1 0 0 { }

Fields after the password: the first number — whether to allow the client to share their cards (1 = yes, 0 = no). The second and third — restrictions on uphops and downhops. Empty curly braces mean "no filtering by SID."

Parameters { } — uphops and downhops

Block{ } in C-line and F-line — is not just decoration. This is where hop management lives.

Uphops — how many times the key has "jumped" from the original card to you. A local card on the server = 0 hops. Resharing someone else's card = 1 hop and more. The more hops, the higher the ECM time and the risk of freezes.

AU (Auto Update, automatic key update) works only when the number of hops = 0. If the server gives you a reshared card with 1+ hops, AU will not pass through this line. This is not a bug — this is how the protocol works.

Example of filtering: accept only cards CAID0500 with no more than 1 hop:

C: server.example.com 12000 user pass no { 0500:000000:1 }

How CCcam protocol differs from newcamd (N-line)

N-line — is a completely different protocol. Newcamd, not CCcam. Format:

N: hostname port username password DESkey

Example:

N: server.example.com 15050 user pass 01 02 03 04 05 06 07 08 09 10 11 12 13 14

DES key — 14 bytes in hexadecimal format, separated by spaces. This is a mandatory field for newcamd. CCcam can connect to newcamd servers via N-line, but the syntax cannot be confused: C-line for CCcam servers, N-line for newcamd servers. If the server is newcamd, and you write C-line — the connection will not be established.

Server configuration and network parameters

Directives SERVER LISTEN PORT and WEBINFO

If you run CCcam as a server (and not just a client), you need to specify the listening port:

SERVER LISTEN PORT : 12000

Port 12000 — standard for the CCcam protocol. It is often changed to a non-standard one (for example, 15000 or 13500), if the internet provider blocks 12000 through CGNAT or DPI. The port in the C-line of the client andSERVER LISTEN PORT of the server must match — obvious, but often forgotten.

The web interface on port 16001 — your best friend for diagnostics. Opens in a browser:http://IP_receiver:16001. Shows the status of connections, list of cards, ECM time, number of decodings. Without it, diagnosing problems is significantly more difficult.

Port forwarding and firewall (iptables)

If CCcam is behind a router, port forwarding is needed. On the router: DNAT rule from external port 12000 to internal IP of the receiver, port 12000. The exact interface depends on the router firmware (OpenWRT, DD-WRT, standard web interface).

On the server with iptables, open the ports:

iptables -A INPUT -p tcp --dport 12000 -j ACCEPT> /etc/iptables/rules.v4

Check if the daemon is listening:netstat -tlnp | grep CCcam orss -tlnp | grep 12000.

A separate problem is CGNAT with mobile and some home providers. If you do not have a public IP (checked by comparingcurl ifconfig.me with the IP in the router settings), no port forwarding will help. You need a VPN with a public IP or renting a VPS.

DYNDNS / DDNS for dynamic IP

Most home providers issue a dynamic IP. After a few hours or days, the address changes — and the C-line on the client side stops working. Solution: DDNS service (No-IP, DynDNS, DuckDNS, and similar). You get a permanent domain name likemyreceiver.ddns.net, which always points to the current IP.

In the router config or with a separate script, set up auto-update of the record when the IP changes. You give clients a C-line with the domain, not the IP address. CCcam performs DNS resolution every time it connects, so the IP change will be transparent (with a slight delay on the TTL of the record).

The directive for DDNS in the CCcam config is not needed — just use the domain name in SERVER LISTEN PORT and in the clients' C-line.

Limiting the number of connections per account

In the F-line, you can limit simultaneous connections. This is done through parameters in the block{ } or additional directives. But the basic CCcam does not have a strict limit on the number of simultaneous sessions on one F-line — one account can connect multiple times. If this is a problem, look towards OScam, where client management is significantly more flexible.

How to choose the source of C-line: criteria without tying to names

I will not name any services — only criteria by which any source should be evaluated.

What to look at: uptime, ping, ECM time

ECM time is the main indicator of the quality of the source. ECM (Entitlement Control Message) is a request for decryption. If the server responds in 100–200 ms, everything is good. 300–400 ms is acceptable, but on the edge. Above 500 ms — expect freezes, especially on channels with frequent key changes (BISS, Viaccess with a short cycle).

Ping to the server should be minimal. A server in a neighboring country is usually better than one on another continent. 20–50 ms ping is good. 150+ ms is already a risk of problems under high load.

Look at uptime not for a day — for 30 days. A server that goes down once a week for 2 hours will ruin viewing at the most inconvenient moment.

Local cards vs reshare

Local card = physical smart card in CAM or server reader. Hops = 0. The key is generated right there, ECM time is minimal, AU works.

Reshare — the server itself receives keys from another server and passes them on to you. Hops = 1 and more. Each hop adds delay. With 3+ hops, ECM time can exceed 1 second — the image will freeze during key changes.

A source with local cards is always preferable. If they boast "thousands of channels" — it's likely a deep reshare.

Signs of an unstable source

Several red flags that are visible even without long testing:

• ECM time jumps from 200 to 2000 ms — the server is overloaded or is receiving keys over an unstable channel
• The status of the C-line periodically goes offline and returns — unstable connection or server reboots
• Some channels of one package open, some do not — the server does not have a complete set of cards for this provider
• AU does not work (keys expire after a few hours) — hops are greater than zero or the server has disabled AU

Legal aspect and risks

Card sharing of your legally purchased subscription for personal use is a gray area in most jurisdictions. Transmitting keys to third parties for money or for free may violate the terms of the contract with the broadcaster and local copyright laws. This is not legal advice — it is a reminder that technical instructions do not exempt from liability. Assess the risks yourself.

Diagnostics and troubleshooting

Any cccam cfg 2026 setup guide without a diagnostics section is half the work. Here’s how to really troubleshoot issues, not just guess.

Reading logs and web interface

Enabling detailed logging in the config:

DEBUG MODE : 1

The log is written to/tmp/cccam.log or/var/log/cccam.log depending on the build. View in real time:tail -f /tmp/cccam.log.

The web interface athttp://IP:16001 provides a clear picture: green indicator — C-line is connected and working, red — no connection, yellow — connected, but no cards. The number of cards in the "Cards" column is a critically important indicator. Zero cards with a green status means the server is connected but not providing any cards.

Through telnet (if enabled by the directiveALLOW TELNET : 1) you can get the same data:telnet localhost 16000.

Channels do not open: ECM / no response

The most common reason is that the CAID or Provider ID of the required package is simply absent from the source. In the web interface, check the column with cards: you can see the CAIDs and providers that the server is actually providing. If the CAID of your package (for example,0500 for Viaccess or1810 for Nagravision) is missing from the list — this C-line will not help you for this package.

Traffic check via tcpdump:

tcpdump -i eth0 -n port 12000

If packets are going from the receiver to the server, but there are no responses — the problem is on the server side or in the firewall. If packets are not going at all — check the settings of the receiver and C-line.

Freezes and high ECM time

Image freezes are a result of high ECM time or an unstable connection. Troubleshooting algorithm:

1. Open the web interface, check the ECM time for the problematic channel
2. If ECM is above 400 ms — the problem is in the source or the route to it
3. Ping the server from the receiver's command line:ping -c 20 server.example.com. Packet loss or jitter> 50 ms — the problem is in the network
4. If the ping is normal but ECM is high — the server is overloaded or using deep resolution
5. Disable unnecessary C-lines that you are not using — they create load on the receiver

AU is not working — a separate story. Without auto-update, the keys become outdated, and after a few hours the channel stops opening. Reason: hops greater than zero. For AU to work, a local card with hops = 0 is needed. This is an architectural limitation of the protocol, not a configuration bug.

Checking the status of C-line (online/offline)

If the C-line is constantly offline, check in order:

1. Ping to the host — if it doesn't ping, the problem is with DNS or server availability
2. Port is open:telnet server.example.com 12000 ornc -zv server.example.com 12000. Getting a connection — the port is open. Refusal — firewall or server is down
3. Correctness of login/password — one extra letter kills authentication
4. Protocol — is the C-line confused with the N-line
5. If the server is behind a dynamic IP without DDNS — the IP may have changed

This cccam cfg 2026 setup guide describes those very cases that other sources ignore: CRLF instead of LF, BOM in encoding, several copies of the config in different directories. It is precisely because of such details that the config "silently" does not work, not because of incorrect syntax of the lines.