Package: babeld Version: 1:1.13.1+nxd1-2 Architecture: armhf Maintainer: Julien Muchembled Installed-Size: 180 Pre-Depends: init-system-helpers (>= 1.54~) Depends: libb2-1 (>= 0.98.1), libc6 (>= 2.34) Suggests: ahcpd Filename: armhf/babeld_1.13.1+nxd1-2_armhf.deb Size: 77312 MD5sum: 901de9615c95aa61f5f0d80185208f8c SHA1: 4e9f333444b3f63fc14b20b49c9a4dd34df70a75 SHA256: 988a8a4584118da2d2d6cf06247fbdec16416bf37a22360a11b48381aed463eb Section: net Priority: optional Homepage: https://lab.nexedi.com/nexedi/babeld Description: loop-free distance-vector routing protocol Babel is a distance-vector routing protocol for IPv6 and IPv4 with fast convergence properties, described in RFC 6126. It was designed to be robust and efficient on both wireless mesh networks and classical wired networks. Babel has extremely modest memory and CPU requirements. Unlike most routing protocols, which route either IPv4 or IPv6 but not both at the same time, Babel is a hybrid IPv6 and IPv4 protocol: a single update packet can carry both IPv6 and IPv4 routes (this is similar to how multi-protocol BGP works). This makes Babel particularly efficient on dual (IPv6 and IPv4) networks. This implementation also includes a radio frequency-aware variant of Babel. . Babel has the following features: * it is a distance-vector protocol; * it is a proactive protocol, but with adaptative (reactive) features; * it senses link quality for computing route metrics using a variant of the ETX algorithm; * it uses a feasibility condition that guarantees the absence of loops (the feasibility condition is taken from EIGRP and is somewhat less strict than the one in AODV); * it uses sequence numbers to make old routes feasible again (like DSDV and AODV, but unlike EIGRP); * it speeds up convergence by reactively requesting a new sequence number (like AODV, and to a certain extent EIGRP, but unlike DSDV); * it allows redistributed external routes to be injected into the routing domain at multiple points (like EIGRP, but unlike DSDV and AODV). Package: babeld-dbgsym Source: babeld Version: 1:1.13.1+nxd1-2 Auto-Built-Package: debug-symbols Architecture: armhf Maintainer: Julien Muchembled Installed-Size: 231 Depends: babeld (= 1:1.13.1+nxd1-2) Filename: armhf/babeld-dbgsym_1.13.1+nxd1-2_armhf.deb Size: 207744 MD5sum: 717c8b5bafebc211922e2effd70e46d2 SHA1: 9172b7bef5ce02e135058e4875ded631cde9c24c SHA256: f00bb37d18e28ab826e8e46fa2eb24e17a4f387e2e710e2ca3944d8117e63764 Section: debug Priority: optional Description: debug symbols for babeld Build-Ids: 441a02a15056545f473ddc29852971fd2862db13 Package: openvpn-re6stnet Version: 2.4.12-1 Architecture: armhf Maintainer: Julien Muchembled Installed-Size: 738 Depends: libc6 (>= 2.34), liblz4-1 (>= 0.0~r130), liblzo2-2 (>= 2.02), libssl3 (>= 3.0.0), iproute2 Filename: armhf/openvpn-re6stnet_2.4.12-1_armhf.deb Size: 334368 MD5sum: 4e86218267f3e8a8eb299089aa2b5caa SHA1: 6249833c39ea59c6fa81c2bf0c64dcf088345698 SHA256: 2c49b2358f22b5e61bc14d5ba57263c9bbbfe64ce0f03df03e4aa70f5b3df4d7 Section: net Priority: optional Homepage: https://openvpn.net/ Description: virtual private network daemon OpenVPN is an application to securely tunnel IP networks over a single UDP or TCP port. It can be used to access remote sites, make secure point-to-point connections, enhance wireless security, etc. . OpenVPN uses all of the encryption, authentication, and certification features provided by the OpenSSL library (any cipher, key size, or HMAC digest). . OpenVPN may use static, pre-shared keys or TLS-based dynamic key exchange. It also supports VPNs with dynamic endpoints (DHCP or dial-up clients), tunnels over NAT or connection-oriented stateful firewalls (such as Linux's iptables). . Due to a regression in version 2.5.x, this package ships the last version of OpenVPN that's supported by re6stnet (https://re6st.nexedi.com/). Package: openvpn-re6stnet-dbgsym Source: openvpn-re6stnet Version: 2.4.12-1 Auto-Built-Package: debug-symbols Architecture: armhf Maintainer: Julien Muchembled Installed-Size: 1001 Depends: openvpn-re6stnet (= 2.4.12-1) Filename: armhf/openvpn-re6stnet-dbgsym_2.4.12-1_armhf.deb Size: 943572 MD5sum: fef1a0ea408547ede0eb037e10b1ee07 SHA1: 18efeb7f74f39bd8774cb8ba6e3d5803f09eb110 SHA256: 16e2bdbeda0617c13f0440d093f13c0b342464ad32a83218ba2c6cab02ea15a1 Section: debug Priority: optional Description: debug symbols for openvpn-re6stnet Build-Ids: 38cfb8921edbe5fa26556aca93f8ef6889344b86 Package: re6st-node Source: re6stnet Version: 0.672+g05c9a70-1 Architecture: all Maintainer: Julien Muchembled Installed-Size: 4451 Depends: python3-openssl (>= 19), python3-openssl (<< 26), openvpn-re6stnet, babeld (>> 1:1.13.1+nxd), iproute2, openssl, python3-geoip2 Recommends: logrotate Suggests: ndisc6 Conflicts: re6stnet Replaces: re6stnet Provides: re6stnet Filename: all/re6st-node_0.672+g05c9a70-1_all.deb Size: 1244476 MD5sum: 41ecfc12949d1669134c0084ba1c2db9 SHA1: 4c8d1a03b4d30ce4a34ec962347b0c6116cc0236 SHA256: b9889f2d39aa3c89c300cd224d742703fe7998e0cb8eddde8ae0df4d0c5b00d3 Section: net Priority: optional Description: resilient, scalable, IPv6 network application Package: slapos-node Version: 1.24.1+1.0.508+1-1 Architecture: armhf Maintainer: Thomas Gambier Installed-Size: 270750 Depends: libc6 (>= 2.36), libcrypt1 (>= 1:4.1.0), libgcc-s1 (>= 3.5), libstdc++6 (>= 11), awk, libc6-dev | libc-dev, gcc | c-compiler, g++ | c++-compiler, make, patch, iproute2, procps, lm-sensors, util-linux Conflicts: firewalld Filename: armhf/slapos-node_1.24.1+1.0.508+1-1_armhf.deb Size: 49007256 MD5sum: 62e547bd6bd12414294f05bc1bf2718e SHA1: c6f72319fb2a6dab088724bf5c4bd210a3d22271 SHA256: 66a21d8f466795c90ffff77a8c6d8e8b421922692ddcbc1c8a82a20d557f1657 Section: net Priority: optional Homepage: https://slapos.nexedi.com Description: Client-side to deploy applications with SlapOS SlapOS allows one to turn any application into SaaS (Service as a System), PaaS (Platform as a Service) or IaaS (Infrastructure as a Service) without loosing your freedom. SlapOS defines two types of servers: SlapOS server and SlapOS node. . This package contains libraries and tools to deploy a node. . Slapformat prepares a SlapOS node before running slapgrid. It then generates a report and sends the information to the configured SlapOS master. . Slapgrid allows you to easily deploy instances of software based on buildout profiles.