Premium CCcam: server setup and connections 2026

If you already have a receiver on Enigma2 or a Linux server and want to understand what really lies behind the word "premium" in the context of card sharing — this material is for you. Premium CCcam is not a marketing label, but a specific set of technical parameters: ECM response time up to 300–400 ms, cards with hop 1, and uptime above 99%. Let's break it down step by step: from the syntax of CCcam.cfg to diagnosing freezes through the OScam log.

What is premium CCcam and how does it differ from the regular one

CCcam protocol and the principle of card sharing

CCcam is a daemon implementing the card sharing protocol. The server receives an encrypted signal from the tuner, queries the smart card, obtains the DCW (Decryption Control Word), and transmits it to the client via TCP. By default, port 12000 is used, which can be changed by the directiveSERVER LISTEN PORT in the config.

The protocol does not encrypt traffic "out of the box" — data is transmitted openly over TCP. On a server with external access, this should be secured via VPN or operated within a trusted network. Versions CCcam 2.1.4 and 2.3.0 remain the most common on Enigma2 receivers.

What is meant by the word "premium": uptime, local cards, ECM response time

In practice, these are three things. First — local cards, that is hop 1: DCW is taken directly from the physical card on the server, without a chain of intermediaries. Second — ECM time within 300–400 ms. At values above 700 ms, the picture starts to freeze. Third — actual uptime not lower than 99%, not just a figure from a promotional brochure.

Free or cheap servers almost always provide reshared cards with hop 2–4 and ECM time of 800–1500 ms. This is the main reason for freezes — the DCW simply does not arrive before the current encryption interval of the operator ends.

CCcam vs OScam: when to choose what

CCcam is simpler in initial setup: one config file, understandable C: line syntax. But it has not actually developed since 2012 and does not support some modern CAM systems without patches.

OScam is an actively supported project that can work as a CCcam server (viaprotocol = cccam), as a newcamd server, and as CS378X. It is more flexible in configuring groups, reader priorities, and load balancing. If the server serves more than 10 clients or needs to work with multiple cards from different operators — OScam is preferable. For a simple home receiver with one C: line, the difference is negligible.

Server setup: configuration files and ports

Structure of CCcam.cfg and main directives

On an Enigma2 receiver, the config is located at/var/etc/CCcam.cfg. On desktop Linux with manual installation — more often/usr/local/etc/CCcam.cfg or/etc/CCcam.cfg. The path depends on the build.

Basic structure of the file:

SERVER LISTEN PORT = 12000

The lineC: — is the client connection line to the server. The lineF: — is the list of users to whom the daemon provides cards.SHARE RESHARING LEVEL = 0 completely prohibits resharing,1 — allows only own cards.

Opening ports 12000 and forwarding through NAT

If the server is behind the router, you need to forward TCP port 12000 to the internal IP of the server. On most home routers, this is the "Virtual Server" or "Port Forwarding" section.

Check that the port is accessible from the outside:

nc -zv your.external.ip 12000

If the connection is established, the daemon is visible from the outside. If not, check the firewall and NAT. One common case is when the mobile operator provides a gray IP or double NAT (CGNAT), and incoming TCP connections do not physically reach the server. In this case, a VPN tunnel will help — WireGuard can be set up in 15 minutes and provides a permanent external IP on a rented VPS.

Translating the configuration to OScam (oscam.server, oscam.conf, oscam.user)

OScam splits the configuration into several files. All are located in/etc/oscam/. The main ones areoscam.conf,oscam.server andoscam.user.

Inoscam.conf, the global config and ports are set:

[global]

Connection to the upstream CCcam server is specified inoscam.server:

[reader]

Reader and newcamd lines

If the upstream server operates using the newcamd protocol (port usually 15050), the reader section changes:

[reader]

Parameterkey — DES key for newcamd, provided by the provider along with the login. This is not present in CCcam — there, authorization is only by user/password. If the provider issued a string with a 28-character key — this is newcamd, not CCcam.

Client setup on the receiver and connection check

Writing the C: line on Enigma2 and Dreambox

The file/var/etc/CCcam.cfg is uploaded via FTP or SFTP. The receiver's address is visible in the network settings menu; connect via FileZilla or WinSCP on port 21 (FTP) or 22 (SFTP, if dropbear is installed).

The minimum client config is one line:

C: server.example.com 12000 mylogin mypassword

After saving, a restart of the daemon is required. Via SSH on the receiver:

/etc/init.d/CCcam restart

On Dreambox DM900/DM920 with OScam — similarly, but restart OScam:

/etc/init.d/oscam restart

Simply saving the file and waiting is not enough — the daemon reads the config only at startup.

Checking status via the OScam web interface (port 8888)

The OScam web interface is accessed athttp://<IP receiver>:8888. The login and password are those set inoscam.conf in the section[webif].

You need to check two sections. The first is "Readers": it should have the status "connected" and display a list of cards in the Entitlements column. If the status is "disconnected" — there is a connection problem: check the login/password and host availability. The second section is "Users": here you can see who is connected to the server and how many ECM requests have been processed.

The Entitlements column shows the list of CAID and Provider ID cards available through this reader. If it is empty while the status is "connected" — your account does not have rights to the cards, or the upstream server itself does not have the necessary cards.

CCcam info: reading the number of cards, hops, and reshare

In the CCcam Info plugin, the key fields are:

• Cards — total number of cards across all C: lines
• Hops — distance to the physical card. Hop 1 = local card on the server, hop 2 = one link of resharing
• Reshare — whether resharing the card further is allowed
• Idents — list of CAIDs that are available through the server

Cards = 0 means either no connection or the account is blocked. Hops everywhere 3–4 — the provider buys access from someone else. This directly affects ECM time and stability.

Diagnosing problems: freeze, black screen, instability

Freeze and long ECM time

The most common cause of freezing is ECM time above 600–700 ms. Check in real-time through the OScam log:

tail -f /var/log/oscam.log | grep ecm

The log will have lines like:

2026/03/10 21:14:05 [... ecm] caid: 0x0500, ecm time: 1243ms

1243 ms — guaranteed freeze. A normal indicator for premium CCcam is up to 400 ms, ideally — 100–200 ms. If ECM time fluctuates from 100 to 1500 ms depending on the time of day — the server is overloaded during peak hours. A typical problem with cheap servers, where several thousand clients are hanging on a pool of 15–20 cards.

Channels do not open: checking CAID and provider ID

If a specific channel does not open with a working connection — check what CAID this channel has. In Enigma2, this is visible in "Service Info" (Menu button on the channel → Service Info). Compare with Entitlements in OScam — if the required CAID is not there, the server simply does not have a card for this operator.

A common situation in 2026: the operator updated the firmware and changed the Provider ID for the package. The old C: line may be working, the card physically exists — but it does not match the new ident. The update occurs on the provider's side, and until they update the cards, the channel will not open.

In OScam, you can forcibly set a CAID filter for the reader to reduce unnecessary load:

[reader]

Connection drop and auto-reconnect

OScam reconnects automatically. The parameterreconnecttimeout = 15 sets the delay between attempts in seconds.keepalive = 1 includes heartbeat packets to maintain the connection.

One non-trivial case: if the receiver's system time is incorrect (NTP is not configured or the time zone is wrong), keepalive packets are sent with an incorrect timestamp — the server starts dropping the connection for no clear reason. Check with the command date on the receiver: the time should match the real time within a minute.

Another reason for instability is multiple readers with the same CAID without priority settings. OScam jumps between readers and gives chaotic ECM. The solution is to explicitly set priority:

 [reader]

The reader with the lower number is used first. The second one is only used if the first is unavailable.

Criteria for choosing a card sharing provider

Local cards vs. reshared ones

This is the most important criterion. A provider with local cards physically holds the smart card in the reader on their server — hop 1. A reshared server is itself a client of someone else and adds another link of delay.

This can only be checked practically: connect and look at hops in CCcam Info or Entitlements in OScam. If everywhere is hop 2 and above — you are facing a reshared server. A normal premium CCcam provider shows hop 1 for all declared packages, not just for flagship ones.

Declared uptime and response time

Uptime 99% means about 87 hours of downtime per year. Uptime 99.9% means about 8 hours. The difference is significant, especially when watching live broadcasts. The average ECM time should be within 200–400 ms.

Good providers publish real-time load statistics and ECM time — this is a sign that they have nothing to hide. If they respond evasively to a direct question about ECM time or say "everything is great" without numbers, it's a reason to look for another option.

Trial period and protocol support

A normal provider gives trial access for 24–48 hours. During this time, you can check the real ECM time, hops, and stability during peak load hours — evenings and weekends, when the number of clients is at its maximum.

Support for multiple protocols — CCcam, newcamd, CS378X — indicates that the server is running on OScam or an analogue. This is a good sign: OScam is more stable under load and more flexible in configuration than a bare CCcam daemon. A transparent CAID list is also important: the provider honestly shows which operators are available, rather than promising abstract "all packages."