Tricolor Card Sharing Setup: CCcam & OScam Guide

Getting Tricolor channels through a card sharing server is a straightforward process once you understand what each config parameter actually does. But most guides just paste a C-line and call it a day, leaving you stranded the moment something doesn't work. This guide covers the full Tricolor card sharing setup (CCcam/OScam) — real config file paths, correct CAID/ident values, working block syntax, and a diagnostic path for when channels stay black or freeze. I'll also cover the edge cases that other guides skip entirely.

Tricolor on Card Sharing: What You Need Before You Start

Before touching a config file, you need to understand the encryption system, have the right hardware in place, and actually be able to read the server line you've been given. Skipping any of these steps is how you end up spending two hours debugging a problem that was never about the config.

Encryption System and CAID Used by Tricolor

Tricolor TV broadcasts from Eutelsat 36E (36.0° East) and uses DRE Crypt encryption — sometimes written DGCrypt. The primary CAID is 0x4AE1. Some packages or transponders may reference 0x4AE5. This matters because every line you get from a card sharing source is only valid for the CAIDs that source's card actually holds. A line built around a different CAID won't request ECMs from your box, or will request them and get nothing back.

To confirm the active CAID on your Enigma2 box, tune to a Tricolor transponder, open the service info panel (usually long-press Info), and check the CA descriptor field. You should see 4AE1 listed. If you don't, either you're on the wrong satellite position or the transponder isn't encrypted.

The ident (provider ID) for standard DRE Crypt lines is typically 4AE1:000000. You'll need this exact value in OScam reader and user blocks.

Hardware and OS Prerequisites

You need a DVB-S2 tuner locked to Eutelsat 36E. Sounds obvious, but a box pointed at 13E or 19.2E will never tune the encrypted transponder regardless of how perfect your CCcam config is. Verify with a signal meter: a clean lock at 36.0E with >70% quality on a Tricolor beam transponder is the baseline.

For OS, you need Enigma2 (OpenATV, OpenPLi, OpenVision, etc.) or any Linux-based receiver with softcam support. CCcam and OScam both run as daemons on these platforms. SSH or Telnet access to the box is non-negotiable — you'll be editing configs and reading logs over the command line.

Your box also needs a working internet connection. Test with ping 8.8.8.8 before anything else. Card sharing traffic is low-bandwidth but latency-sensitive, so a flaky connection will cause constant freezing even with a perfect config.

Choosing CCcam vs OScam for This Provider

CCcam is simpler to drop in: one config file, paste your C-line, restart the daemon, done. OScam requires more files and more knowledge, but gives you granular CAID/ident control, far better logging, and much easier troubleshooting.

My recommendation: use OScam, especially if you're diagnosing freezing or decode failures. The log output from OScam tells you exactly what's happening — whether an ECM was requested, which reader handled it, how many milliseconds it took, and why it failed. CCcam gives you almost none of that. For DRE Crypt, where CAID/ident mismatches are a common source of black screens, OScam's visibility is worth the extra setup time.

How to Read a Server Line You Have Been Given

A CCcam C-line looks like this: C: hostname port username password. The hostname is the server address, port is typically 12000, and the credentials are specific to your account. An N-line (newcamd format) adds a 14-byte DES key at the end: N: hostname port username password 01 02 03 04 05 06 07 08 09 10 11 12 13 14.

If you've been given a line and none of the fields make sense, you're either looking at OScam reader block syntax (different format entirely) or a mangled paste. Don't guess. Ask whoever gave you the line to confirm the format before you spend time debugging a typo.

Configuring CCcam for Tricolor

CCcam's config lives at /usr/keys/CCcam.cfg on most Enigma2 images. Some older builds use /etc/CCcam.cfg or /var/etc/CCcam.cfg. Check which path your image uses with find / -name CCcam.cfg 2>/dev/null before editing.

Editing CCcam.cfg and the C-line Format

The C-line format is straightforward:

C: server.example.com 12000 myusername mypassword

Optional flags on the C-line include a hop limit and a block-server directive, but for a basic Tricolor line you don't need them. Paste the line exactly as given, one line per server connection.

You can add a debug log path:

LOGGER FILENAME : /tmp/CCcam.logDEBUG LEVEL : 1

Level 1 is enough to see connection events. Level 12 produces a wall of noise — don't use it in production.

Setting the Listen Port and Connection Options

If your box is acting as a CCcam server (sharing a local card to other clients), set the listen port:

SERVER LISTEN PORT : 12000

If you're only a client — connecting to someone else's card — you don't need this. The port only needs to be open/forwarded on your router if inbound connections are expected.

For connection resilience, add:

RECONNECT ON TIMEOUT : yesMINIMUM SEND INTERVAL : 50KEEPALIVE TIMEOUT : 180

DES Key / N-line Cases and When They Apply

Most modern DRE Crypt lines use the CCcam C-line protocol, which is connection-based and doesn't require a DES key. But if you're connecting to a newcamd server instead, you'll use an N-line with that 14-byte key. The key looks like a sequence of hex pairs: 01 02 03 04 05 06 07 08 09 10 11 12 13 14. These must match exactly what the server expects. A single wrong byte means a silent auth failure — no error message, just no ECMs processed.

If you're unsure which protocol you need, ask the source. CCcam C-lines are more common for this provider.

Restarting the Daemon and Confirming the Connection

After editing, restart CCcam:

killall -9 CCcam && sleep 2 && /etc/init.d/softcam restart

Or on images with softcam manager:

/etc/init.d/softcam restart

Give it 10–15 seconds, then check the web info page at http://<box-ip>:16001. A connected line shows its active cards and hop count. Hop 1 means a direct card; hop 2 means your server got it from another server. If the card shows but Tricolor channels are still black, the CAID isn't matching — which OScam handles much better.

Configuring OScam for Tricolor

OScam's config files live in one of three paths depending on your image: /etc/tuxbox/config/, /var/etc/oscam/, or /etc/oscam/. The files you'll work with are oscam.conf, oscam.server, oscam.user, and optionally oscam.dvbapi. Each handles a distinct piece of the system.

oscam.server Reader Block for a CCcam Protocol Peer

This is the block that defines your connection to the card sharing source:

[reader]label = tricolor_readerprotocol = cccamdevice = server.example.com,12000user = yourusernamepassword = yourpasswordgroup = 1caid = 4AE1ident = 4AE1:000000cccversion = 2.3.0ccckeepalive = 1inactivitytimeout = 30reconnecttimeout = 10

The cccversion field must match what the remote CCcam server expects. Version mismatch causes a silent handshake failure — the connection appears to complete but no ECMs are ever answered. If you know the server runs CCcam 2.1.4, set cccversion = 2.1.4. When in doubt, 2.3.0 works with most modern deployments.

The inactivitytimeout of 30 seconds will trigger a reconnect if no ECM traffic flows. That's fine for active viewing. Set it higher (120–300) if you're seeing unnecessary reconnect loops on channels you watch continuously.

oscam.user and Account Setup

If OScam is also serving local Enigma2 clients via dvbapi, you need a user account. In oscam.user:

[account]user = local_dvbapipwd = somepasswordgroup = 1caid = 4AE1ident = 4AE1:000000au = 1

Restricting the account to CAID 4AE1 and ident 4AE1:000000 prevents this account from requesting ECMs for encryption systems it has no business touching. Keeps the logs clean and makes troubleshooting faster.

oscam.conf Webif, Ports, and Global Settings

The main config in oscam.conf:

[global]nice = -1maxlogsize = 200logfile = /tmp/.oscam/oscam.logpreferlocalcards = 1[webif]httpport = 8888httpuser = adminhttppwd = changemehttprefresh = 10httpallowed = 192.168.0.0-192.168.255.255

The webif is your primary diagnostic interface. Access it at http://<box-ip>:8888. The Live Log tab shows real-time ECM decode activity. The Readers tab shows connection status for each entry in oscam.server. Restrict httpallowed to your LAN range.

One thing that bites people: if the box clock is wrong, OScam's keepalive and TLS-adjacent handshake logic can break silently. Readers appear connected but ECMs time out. Run date on the box and verify it matches UTC. Add an NTP sync to your startup scripts if needed.

Mapping the Tricolor CAID and Provider IDs

In oscam.dvbapi (if using dvbapi for Enigma2 integration):

[dvbapi]enabled = 1au = 1pmt_mode = 0request_mode = 0boxtype = dreamboxP: 4AE1:000000

The P: line sets priority — OScam will use the reader matching CAID 4AE1 and ident 000000 first. If you have both a local card and a remote reader both claiming this CAID, this file determines which one gets the ECM request. Without an explicit priority, OScam makes its own choice, which is often the wrong one when a local card is also present.

Reading the OScam Log to Confirm ECM Decode

Monitor the log live:

tail -f /tmp/.oscam/oscam.log

A working ECM decode looks like this:

2026/06/24 14:23:01 s ECM 4AE1/000000 by tricolor_reader (125 ms)

That 125 ms figure is your round-trip ECM time. Under 300 ms is fine for most content. Over 600 ms will cause visible freezing. Over 1000 ms and channels become unwatchable. If you see ECM not found instead, the reader has the connection but the remote card doesn't hold that package — CAID mismatch or package entitlement issue.

Troubleshooting Black Screens, Freezing, and No Decode

The fastest way to diagnose a problem is to map your symptom to a cause. Here's the table I work from:

Channel Stays Black: ECM Not Found vs Not Requested

These are two different problems. If no ECM request appears in the log when you tune to a Tricolor channel, the box isn't sending the request at all. Check that dvbapi is enabled, that the CAID filter isn't blocking 4AE1, and that you're tuned to the correct satellite position (36E, not 19.2E or 13E).

If the log shows ECM requests but they return "not found", the upstream card doesn't hold that package. It has nothing to do with your config — the source simply doesn't have it. Verify your line covers the specific Tricolor package you're trying to watch.

Picture Freezes Every Few Seconds

Freezing that aligns with the ECM interval (every 8–12 seconds is typical for DRE Crypt) almost always means the decode is happening too slowly. Watch the ms figure in the OScam log for a few minutes. If you're seeing 800 ms+ consistently, the problem is network latency to the server. A server geographically closer will fix this faster than any config change.

If latency looks fine but you still freeze, check ECM caching settings in oscam.conf:

[cache]ecmnotfoundlimit = 1maxecmcount = 2

Enabling cache means a repeated ECM from the same channel gets answered from memory rather than going over the network again. Cuts freeze frequency significantly on stable lines.

Connection Drops and Reconnect Loops

If the log shows repeated connect/disconnect cycles every 30–60 seconds, the inactivitytimeout is firing on a channel you're not actively watching. Raise it to 120 or 300. If the reconnects happen mid-viewing, you have a network issue — packet loss, NAT timeout, or an overloaded server.

Box clock sync is another silent killer here. If /etc/localtime is wrong by more than a minute or two, some server-side handshake logic interprets the timestamps as invalid and drops the connection. A wrong clock that causes this is infuriating to diagnose because the error doesn't appear in the OScam log.

Wrong CAID Priority and Competing Readers

This one catches people with a local card and a remote line both covering the same CAID. OScam picks the reader based on priority rules, and if those rules aren't set explicitly, it might consistently prefer the remote line (which is slower) over the local card. Worse, if the remote line has the CAID in its profile but the remote card doesn't have the specific Tricolor package, you get "ECM not found" while your local card sits idle.

Set preferlocalcards = 1 in [global] and use explicit priority in oscam.dvbapi. If you want the remote line as primary and the local card as fallback, reverse the reader group numbers and configure the dvbapi priority accordingly.

Firewall, NAT, and Port-Forwarding Pitfalls

Most home users are CCcam clients — their box connects outbound to a server. Outbound connections don't require port forwarding. But if your box is the server and another device connects inbound, port 12000 (or whatever you configured) must be forwarded through your router to the box's LAN IP.

The bigger problem is ISP CGNAT. If your ISP assigns you a shared public IP (common with mobile carriers and some fiber ISPs), inbound connections are impossible without a VPN tunnel or a relay service. Check whether traceroute to your public IP shows more than one hop of private RFC1918 addresses — that's CGNAT. Outbound-only client setups work fine behind CGNAT. Inbound server setups don't, period.

How to Evaluate a Sharing Source Without Getting Burned

The technical config is only half the picture. A perfect OScam setup connected to a garbage source will still produce black screens and freezes. Here's what to look for before committing to any line for the Tricolor card sharing setup (CCcam/OScam) you're running.

Generic Criteria: Uptime, ECM Time, Server Location, Hop Count

ECM time is the most objective measure of quality. Under 200 ms is excellent. 200–400 ms is acceptable. Above 600 ms causes visible problems. Run a channel for an hour and watch the ms values in your OScam log — don't just check it for 30 seconds.

Server location matters because of physical latency. A server in Eastern Europe will have lower round-trip times to a box in Russia or CIS countries than a server in North America. Geography beats bandwidth every time for card sharing.

Hop count: hop 1 means the server's own card is answering your ECMs. Hop 2 means it's getting them from yet another server. Each hop adds latency and a potential failure point. Prefer hop 1 sources. Anything above hop 2 is a red flag.

Red Flags in Offers and Lines

If a line claims to cover every satellite package across multiple providers at an implausibly low cost, be skeptical. A single card only covers the packages that card is actually subscribed to. A line that promises Tricolor full HD, plus several other major providers, plus free updates is either shared across dozens of users (which destroys ECM time under load) or simply fraudulent.

Also watch for: no test period offered, refusal to share server location/region, and lines that require you to configure unusual ports or run scripts you didn't write. Legitimate sources let you test before payment and don't ask you to run unknown code.

Testing a Line Before Relying on It

Set up the line in OScam as a single reader. Open the log with tail -f /tmp/.oscam/oscam.log. Tune to five different Tricolor channels across different transponders. Record the ECM decode time for each. Then leave one channel running for 60 minutes and count how many reconnect events appear in the log.

Do a channel-zap stress test: flip through 10 channels quickly. Each zap triggers a fresh ECM request. If you get consistent decodes under 400 ms across all channels, the line is solid. If you see 3-second freezes on every channel change, the server is overloaded or geographically unsuitable.

One test session isn't enough. Providers sometimes throttle unknown IPs during evaluation periods. Run the test at different times of day, including evening peak hours when the server is under maximum load.

Done right, the full Tricolor card sharing setup (CCcam/OScam) process — from hardware check through config to line evaluation — takes a couple of hours the first time. After that, most issues come down to three things: wrong CAID/ident, high ECM latency, or a source that simply doesn't hold the package you need. The OScam log tells you which one it is within seconds.