Premium CCcam: server and client setup 2026

If you have already figured out the basic scheme of card sharing and are now looking for a stable line without freezes — you are on the right track. The problem is that the termpremium cccam is found on every corner, but few explain what it technically entails. In this article, we will analyze the configs, parameters, and metrics that actually affect the quality of the connection.

What does "premium" technically mean in CCcam connection

Premium as a marketing term, not a protocol parameter

You open CCcam.cfg — there is no directivePREMIUM = ON there, nor can there be. "Premium" is a marketing word that providers use to denote the quality of their infrastructure. Technically, it simply means: a server with good hardware, low ping, and cards connected directly, not through a chain of reshare.

Protocols that are actually used in sharing: CCcam (port 12000 by default), newcamd (port 10000), mgcamd. They differ significantly in latency. CCcam adds its own overhead on handshake and encryption, newcamd is slightly simpler in terms of protocol, mgcamd is a lightweight client, often working through a newcamd backend.

Real technical signs of stable sharing

The quality of the line should be judged by specific numbers. ECM time up to 300–400 ms is the norm for stable decoding. Server uptime above 99% over 30 days is a good indicator. The number of active users per card directly affects latency: if the server distributes one card to 200 clients, ECM time will increase significantly.

And the ping to the server matters. For European channels, it makes sense to choose servers in Europe — a ping of 20–50 ms compared to 150+ ms from another continent is noticeable on HD streams with high bitrate.

Local cards, reshare, and hop depth

Hop is the number of intermediate nodes between the physical card and your receiver. Hop 1 means that the server holds the card locally and gives the CW directly to you. Hop 2 and above is reshare: the server receives the CW from another server and resells it to you.

Each additional hop adds latency and a point of failure. In practice: hop 1 gives a decode time of around 100–250 ms, hop 2 easily adds another 150–300 ms. At high bitrate HD/4K, this is already felt as a freeze.

Structure of the C-line and CCcam.cfg file

Syntax C: host port username password

The client line looks like this:

C: server.example.com 12000 myusername mypassword

Four fields separated by spaces: host, port, login, password. No extra characters, no quotes. The case of the login and password is important — if the server gave youUserName with a capital letter, write it exactly that way. A common mistake is to copy the login with an extra space from the provider's email.

You can add several C-lines for different providers or for backup. CCcam will try them in order when the main line is unavailable.

Path to the config: /var/etc/CCcam.cfg and /etc/CCcam.cfg

On Enigma2 receivers (OpenATV, OpenPLi, DreamOS), the file is usually located at/var/etc/CCcam.cfg. On some firmware and in Linux installations, CCcam reads/etc/CCcam.cfg. Check which path is relevant for your system:

ls -la /var/etc/CCcam.cfg /etc/CCcam.cfg

It is more convenient to edit via FTP (for example, FileZilla or WinSCP) or directly via telnet/SSH. After editing the config, restart the daemon with the command:

/etc/init.d/CCcam restart

Or through the CCcam Info plugin on the receiver. Changes do not take effect without a restart.

Key directives: SERVER LISTEN PORT, CWS, F-line

If you are setting up your own CCcam server, the main directives in the config are:

SERVER LISTEN PORT = 12000

SERVER LISTEN PORT sets the port on which the server accepts connections — this is the one you specify in the C-line of clients.DEBUG = yes enables detailed logging, but puts a load on the system; keep it enabled only during diagnostics. F-line (F: username password) adds users who are allowed access to the server.

GLOBAL LIST ON — enables the list of cards in the web interface; useful for monitoring, but may slightly slow down the server with a large number of cards.

Equivalent in OScam: oscam.server and newcamd

Section [reader] with protocol = cccam

OScam is a more flexible alternative to CCcam with detailed logging and a web interface. To connect a premium cccam line through OScam, add a block in/etc/oscam/oscam.server:

[reader]

Parameterdevice accepts host and port separated by a comma — without spaces. This is one of the common typos when migrating from CCcam.

Parameters cccversion, cccmaxhops, cccwantemu

cccversion — the version of the CCcam protocol that OScam announces when connecting. Usually2.3.0 or2.2.1 are suitable for most servers. Version mismatch is a real reason for connection drops immediately after handshake. If the server rejects the connection — try2.1.4.

cccmaxhops = 1 limits the maximum depth of reshare that the client accepts. Set it to 1 so that OScam only takes local cards from the server.cccwantemu = 0 disables the request for emulated cards — if you only need real ones, this is the correct setting.

Binding to oscam.user and group

Parametergroup in oscam.server must matchgroup in the file/etc/oscam/oscam.user. Without this linkage, OScam will receive a response from the server but will not pass the CW to the client. A classic situation: reader status online, cards are in the list, but channels do not open. Check the group matching first.

The OScam web interface listens on port 8888 by default. Openhttp://receiver:8888 — here you can see the statuses of all readers, the time of the last ECM, and a list of active cards in real time. Much more convenient than parsing logs manually.

Diagnostics: freeze, interruptions, and line check

Check the status of the C-line via the web interface :16001

CCcam raises its own web interface on port 16001. Open in your browserhttp://address_receiver:16001 — you will see a list of connected servers, their status (online/offline), the number of cards, and active ECM requests.

If the server status shows online, but the card list is empty — this is not a network problem. Most likely: a mismatch of the F-line on the server side, restrictions by caid, or the provider issued you a line without active cards in the required package. Check with the provider which CAIDs are included in your line.

Reading the log: cardserver, ECM time, decode time

The CCcam log on Enigma2 is written to/tmp/CCcam.log. View in real time:

tail -f /tmp/CCcam.log

Lines with ECM look like:ECM time: 234ms, decode time: 12ms. ECM time is the total time from request to receiving CW. Decode time is the time of decoding on the card itself. If ECM time is consistently below 350 ms — the line is working. Values above 600 ms already cause freezes on most channels.

Through telnet, you can get the status directly from the daemon. Connect to port 16000:

telnet 127.0.0.1 16000

And enter the commandinfo. The response will show connected servers, the number of decoded ECMs, and current hop values.

Typical causes of freezing and their elimination

Freeze with a connected line — almost always one of these reasons:

• High ECM time — overloaded server or high hop. Change the line or ask the provider to switch to a less loaded server.
• Mismatch of CAID/ProvID — the server sends a card with a different provider identifier than the receiver expects. Check that the CAID in the card list matches what the receiver sees in the channel information.
• Network losses / MTU — especially relevant for HD packages with high bitrate. Try reducing the MTU to 1400 on the receiver's network interface and check for losses with the commandping -c 100 server_address. Losses above 1% are already a problem.
• Receiver behind NAT/double NAT — outgoing port 12000 is blocked by the provider or router. Check viatelnet server_address 12000 from the receiver.
• Conflict of multiple C-lines — if two lines distribute one CAID and the GLOBAL LIST is not configured correctly, the receiver may receive CW from the slower line. Explicitly set the priority through the order of C-lines in the config.

How to choose a quality line: technical criteria

Server uptime and ping stability

Any adequate provider gives a trial period — from 24 hours to a week. During this time, measure uptime through the web interface :16001 and record how many times the status changed from online to offline. A normal server for premium cccam connection should not "blink" more than once every few days.

Ping to the server can be checked directly from the receiver:ping -c 20 server_address. An average value above 100 ms for European servers is already a reason to look for another line.

Local cards vs long reshare chains

In the CCcam or OScam web interface, the hop value for each card is visible. Hop 1 is a local card, hop 2+ is reshare. A good provider keeps most cards on hop 1. If you see hop 3-4, it’s a long resale chain, and the stability of such a line heavily depends on all intermediate nodes.

Ask the provider to show which cards are local. If they cannot answer or evade the question, that’s a signal.

Support for necessary CAID and packages

CAID (Conditional Access ID) is the identifier of the encryption system. For example, Viaccess - 0500, Nagravision - 1800, Irdeto - 0600. Before purchasing a line, make sure the provider supports your CAID and the required channel package.

To check the CAID of a channel on Enigma2: go to the channel information (Info button), find the "Encryption" or "CA" field. Compare it with what is indicated in the card list on :16001 after connecting the line. A mismatch means the channel will not open, even if the line is technically working.