- Add ENV HOST=0.0.0.0 so workspace listens on all interfaces
(required for Traefik reverse proxy to reach it)
- Add ENV NODE_ENV=production for production-mode optimizations
- Remove apt-get install of nodejs (already in base image,
apt version would be older and could conflict)
- Only install tmux and curl in the workspace layer
- entrypoint-combined.sh: rewritten with proper logging,
graceful shutdown, configurable gateway health check
update-alternatives --set fails because the base image only registers
iptables-legacy as an alternative. The iptables-nft binary (/usr/sbin/iptables-nft)
exists but isn't in the alternatives database. Direct ln -sf bypasses this.
In Alpine 3.18+, the 'iptables' package IS the nftables variant.
iptables-nft is not a separate package. The binary is already in
the base image — only need to flip update-alternatives.
- Switch FROM weejewel/wg-easy:latest (4yr old, Alpine 3.11) to
ghcr.io/wg-easy/wg-easy:latest (actively maintained, Alpine krypton)
- Use update-alternatives instead of raw ln -sf to flip iptables
from legacy to nftables backend
- Fix compose build context: ./vpn -> . (Dockerfile was at same level)
The weejewel/wg-easy image lacked iptables-nft package in Alpine 3.11.
The new official image has it available, we just flip the alternatives.
The old ln -sf approach was fragile across Alpine versions.
wg-easy's Alpine wg-quick uses legacy iptables which requires the
iptable_nat kernel module. On NixOS kernels compiled without legacy
netfilter modules, the container crashes in a restart loop:
iptables v1.8.3 (legacy): can't initialize iptables table 'nat'
Table does not exist (do you need to insmod?)
Fix: build a custom image that installs Alpine's iptables-nft package
and symlinks iptables -> iptables-nft (nftables backend).
- Switch Dockerfile to clone from gortium/hermes-agent (Gitea fork)
- Add SSH agent forwarding for private repo clone at build time
- Set CHROME_EXECUTABLE for Playwright Chromium
- Remove patch_tts_tool.py (Piper patch now in fork source)
- Enable Gitea Actions in versioncontrol compose
- Use --preset 'ROCm 6' for HIP build step (enables enable_language(HIP))
- Remove /opt/rocm from PATH for CPU build to prevent check_language(HIP)
- Add CMAKE_PREFIX_PATH=/opt/rocm so find_package(hip) finds hip-config.cmake
- cmake --install --component HIP now works correctly with OLLAMA_RUNNER_DIR=rocm
gfx940/gfx1010/gfx1030/gfx1100 cause C++ narrowing errors in ollama's
mma.cuh with hipcc. Since we only have MI50 (gfx906) cards, compile
for gfx906 only. Reduces build time and avoids upstream code bugs.
CPU backends compiled with GCC (fixes AVX intrinsic errors from hipcc).
HIP backend compiled with hipcc (legacy mode skips enable_language(HIP)).
Go binary built with GCC for CGo linking.
This avoids both CMAKE_HIP_COMPILER rejection and CXX=hipcc CPU failures.
The old Dockerfile used the deprecated llama.cpp/ subdirectory approach
which doesn't exist in ollama v0.23.2. Now using the official CMake
presets (ROCm 6 preset) with AMDGPU_TARGETS including gfx906:xnack-.
