CCcam free: free sharing — setup 2026

If you are looking for cccam free and want to really understand how it works — not from advertising pages, but technically — you have come to the right place. There will be no lists of "top-10 providers" or fabricated reviews. Only protocols, configs, commands, and diagnostics. Let's go.

What is CCcam free and how the protocol works

CCcam is a card sharing protocol. The essence is simple: one participant has a physical smart card in a reader, while others have receivers without cards. The card is "shared" over the network among clients. The word "free" in the context of cccam free means only one thing — the line is obtained for free. Technically, the protocol is no different from the paid version.

The principle of card sharing: ECM, CW, and DCW

When your receiver catches an encrypted DVB stream, the decoder pulls out ECM (Entitlement Control Message) packets from it. These are encrypted requests for the decryption key. The receiver sends the ECM over the network to the CCcam server, the server queries the smart card, receives the Control Word (CW), and returns it to the client. The client decrypts the stream using the received CW.

DCW (Decrypted Control Word) is essentially the decryption key for the stream. It changes every 10 seconds (crypto period). If the server's response comes after the period has changed — the picture freezes. Hence all the problems with freezes.

The role of the server and client in the sharing scheme

The server holds the reader with the physical card, listens for incoming connections on port 12000 (standard for CCcam), processes ECM, and distributes CW. The client — your receiver with the CCcam daemon — connects to the server, sends ECM, receives CW, and feeds it to the decoder. All this happens in fractions of a second with a normal connection.

The scheme works over regular TCP. No magic — just a client-server application over the internet.

Differences between CCcam, OScam, NewCamd, and MGcamd

CCcam is a proprietary protocol with closed source code. OScam is an open-source emulator that can work with multiple protocols simultaneously, including CCcam, NewCamd, CS378x. MGcamd is another client, popular on older Dreambox images.

NewCamd works on port 10000 by default and uses DES encryption for communication. CS378x (also known as CS378x) is a more modern OScam protocol with better compatibility. In practice, if the server is running OScam and the client is CCcam, it still works through CCcam protocol emulation on the server side.

What "free" really means and what limitations exist

Free lines are lines that someone shares without payment. The motives vary: testing the server, attracting clients, or simply generosity. But the reality is: free servers usually have few local cards, long chains of resharing (3-5 hops), overloaded connections, and unstable uptime.

ECM time on a good paid server is 50-150 ms. On a typical free server — 300-1200 ms, or even higher. This is a direct path to freezes. The protocol is the same, just the quality of the connection and infrastructure is significantly worse.

Configuring the CCcam client on Enigma2 and Linux

Suppose you have a line and a receiver on Enigma2 — Vu+, Dreambox, Octagon, or any other image on OpenPLi / OpenATV. Here’s how to set it up.

Installing the CCcam daemon on the receiver

On most modern Enigma2 images, CCcam is installed via the package manager or ipkg/opkg. On OpenPLi:opkg install enigma2-plugin-softcams-cccam. After installation, the daemon will appear in the Softcam Manager menu. Make sure that no other softcam is running simultaneously — MGcamd or OScam in client mode. A conflict of two daemons on one CAID is a common reason when "everything is set up, but it doesn't work."

On a clean Debian/Ubuntu, CCcam runs as a service. The binary is usually placed in/usr/local/bin/CCcam, the config — in/etc/CCcam.cfg, and a unit is written for systemd.

The format of the C-line and where to write it

C-line is the connection string to the server. The syntax:

C: hostname port username password

Example of a real line:

C: myserver.example.com 12000 client01 secretpass

Breakdown by fields:hostname — DNS name or IP of the server,port — port (most often 12000),username andpassword — credentials that must match the F-line on the server.

If you have multiple lines for one CAID, write them as several C: lines in a row. CCcam will try the next one if the first fails. The order of lines = connection priority.

Path to the config /etc/CCcam.cfg and /usr/keys/

The main config is located in/etc/CCcam.cfg. On some Enigma2 images (especially on older OpenDreambox), the path is different:/var/etc/CCcam.cfg. Check both if you can't find the file.

SoftCam.Key and other keys for FTA/softcam channels are stored in/usr/keys/. Sometimes they also placeCCcam.cfg in separate builds. If the provider has changed the keys — update this file, otherwise the channels will stop opening even with live sharing.

The beginning of the working/etc/CCcam.cfg looks something like this:

SERVER LISTEN PORT = 12000

Checking connection and line status via webif

The CCcam web interface runs on port 16001. Open your browser:http://<IP_receiver>:16001. There you will see all C-lines, their status (connected / disconnected), number of hops, available CAID, and ECM time for the latest requests.

Look at the "hops" column. Hop 1 — local card on the server. Hop 2 — the server receives CW from another server. The more hops, the higher the latency and the greater the risk of chain break. On free lines hop=3-5 — is normal, which immediately explains the instability.

Restarting the daemon from the command line:

# On Enigma2

Real-time log:

tail -f /tmp/CCcam.log

Setting up your own CCcam server

If you have a physical card or want to share a line with friends — here's how to set up your server.

F-line configuration for sharing with clients

F-line — a line on the server that sets client rights. Syntax:

F: username password uphops downhops

Example:

F: client01 secretpass 1 0

Breakdown:uphops — how many hops "up" the client can request (usually 1),downhops — how many hops "down" the client can distribute further. If you set downhops=0, the client will not be able to resell your line. This is the simplest protection against abuse.

Opening ports and forwarding through NAT/firewall

Port 12000 TCP needs to be forwarded from the router to the internal IP of the server. In most routers, this is done in the "Virtual Servers" or "Port Forwarding" section.

A separate story is double NAT. If your provider distributes a gray IP (CGNAT), port forwarding from the outside is impossible at all. The solution is to rent a VPS and set up a reverse tunnel (for example, via autossh or WireGuard) so that connections go through the external IP of the VPS. This works but requires separate configuration.

In iptables on Linux, open the port:

iptables -A INPUT -p tcp --dport 12000 -j ACCEPT

SHARE LIMITS parameters and hop control

InCCcam.cfg on the server, you can strictly limit sharing:

SHARE LIMITS = 1

MAXIMUM RESHARE = 1 means that cards are shared only with one level of reshare. Clients with hop=1 are present, hop=2 are not. This reduces the load and prevents the line from spreading across the network.

Be careful with the parameterSHARE ALL CLIENTS = yes — it opens all available CAIDs to all clients indiscriminately. On a small home server, this is usually fine, but on a busy one — a source of chaos.

Linking with OScam as a card server via CS378x

Best practice — do not keep the reader directly in CCcam. Instead: OScam reads the card, and CCcam gets the CW from OScam via the CS378x protocol on localhost.

In/etc/oscam/oscam.server you add the card reader:

[reader]

In/etc/oscam/oscam.conf you enable CS378x:

[cs378x]

In/etc/CCcam.cfg on the same host, you specify the connection to OScam as a local server:

C: 127.0.0.1 10000 cccam_user cccam_pass

The advantage of the scheme: OScam works more stably with a physical reader, better manages EMM, while CCcam only handles sharing. Plus — if the local card and reshare go to the same CAID, without proper grouping in OScam, you can get request looping. OScam with thegroup setting controls this.

Diagnosing problems: FREEZE, no picture, ECM errors

Most problems with CCcam fall into three categories: the server does not respond, the server responds but slowly, the server responds but with the wrong CAID. Let's break down each.

The channel freezes or breaks up: causes and fixes

FREEZE — almost always a symptom of high ECM time or a connection break. The first thing you check: ping to the server. If the ping fluctuates from 20 to 400 ms — this is an unstable uplink or an overloaded server.

The second frequent culprit — time desynchronization. CCcam and OScam check the timestamp when exchanging CW. If the time on the receiver is off (for example, after a power outage), the exchange breaks completely — the line appears connected, but the channels do not open. Fix: set up NTP.

# Check the time on the receiver

On Enigma2, the time usually synchronizes automatically when there is internet, but after a hard power outage — not always. It is worth adding to the autostart.

Line online, but channels do not open

You see in webif that the line is connected, hop shows a number, but a specific channel does not open. Possible reasons:

• The server does not have the required CAID. The log will show the linecard not found.
• Provider ID does not match. CAID is present, but the specific package of channels is not in the list of available ones.
• Time desynchronization (see above).
• Softcam conflict: CCcam and MGcamd are running simultaneously, both trying to process one ECM.

Check the log — everything is written there.decode ok means successful decryption.not found orcard not found — CAID is not present on the server.

High ECM time and how to reduce it

Normal ECM time for comfortable viewing is up to 400 ms. Above 800 ms noticeable freezes begin. Above 1200 ms — the picture regularly breaks up.

ECM time can only be reduced in one way: choose a server with fewer hops and a better communication channel. No settings on the client side will speed up a slow server. The parameterECM CACHE LENGTH = 15 in the config helps a little with repeated ECM (cache of the last CW), but this is not a panacea.

Reading CCcam and oscam logs to find the cause

The CCcam log is written by default to/tmp/CCcam.log. View in real time:

tail -100f /tmp/CCcam.log

What to look for in the log:

• ecm time: 245ms — normal
• ecm time: 1340ms — problem
• card not found for [CAID] — the required CAID is not available
• decode ok — all good
• connected to [host:port] — connection established
• disconnected — disconnection, CCcam will reconnect

The OScam log is located in/var/log/oscam/oscam.log or/tmp/oscam.log — it depends on the configuration. There you look for lines withECM and statusesfound /not found. If OScam saysnot found, and CCcam saysdecode ok — it means the CW came through another channel (reshare), not from the local card.

How to choose a reliable source of lines (criteria, not names)

This part is about how to technically evaluate any server, without advertising specific names. Because a good server is defined by parameters, not by name.

What technical parameters to look at

The first parameter is ECM time during the test period. Measure it through webif (http://IP:16001) during 10-15 minutes of watching the problematic package. A stable result up to 300 ms is a good sign. Jumping from 100 to 900 ms means the server is overloaded or the connection is unstable.

The second parameter is hops. Hop=1 means a local card on the server. This is the best option. Hop=2 — is already a reshare, meaning this server itself is a client of another. The longer the chain, the higher the total delay and the more points of failure.

The third parameter is the match of CAID and provider ID with your channels. It is useless to have a fast line if the required package is absent on the server.

Signs of an unstable or resold server

Signs of a resold server are visible directly in webif and logs:

• A large number of downhops (3 or more) — the line has been resold several times
• Floating ping with a large spread (min 30 ms, max 600 ms)
• ECM time is unstable: works fine in the evening, freezes during prime time
• Periodic disconnections with quick reconnects — the server is overloaded

On free servers, this is the norm, not an exception. If you see these signs — do not waste time on setup, look for another line.

Local cards vs reshare: how to distinguish

In CCcam webif, next to each CAID, there is a column with the number of hops. Hop=1 — guarantees a local card on the server you are connected to. Hop=2+ — reshare.

In OScam logs, this is visible differently: if OScam writesfound (local) — the card is physically in the reader. Iffound (cache) orfound (remote) — it came from another source.

For critical packages of channels — sports HD, paid movies — it makes sense to look for a line specifically with hop=1. For regular FTA or less loaded packages, hop=2 usually works fine.

Trial period and ECM time check before use

Normal line test — at least 24 hours, with checks at different times of the day. In the evening (19:00-23:00), the load on the servers is maximum. If during this time the ECM time stays up to 400 ms — the line is working.

Test exactly the channels you need. CAID may be on the server, but a specific provider ID may not be. This is only determined in practice by watching the needed channels and reading the log.

When testing cccam free lines, also pay attention to uptime: a good server does not go offline for several hours a day. If there were 3-4 interruptions of 10+ minutes during 24 hours of testing — this is a weak server, even if the ECM time is normal.