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Author SHA1 Message Date
root
c78e135cb6 modification roles glpi 2024-01-11 11:18:53 +01:00
root
6902c40779 mise a jour role glpi 2024-01-11 09:44:41 +01:00
161 changed files with 882 additions and 5080 deletions

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@ -1,36 +1,34 @@
# gsb2024
* 2024-05-23 16h07 ps
* 2024-04-12 8h55 ps
* 2024-01-19 11h45 ps
2024-12-21 ps
Environnement et playbooks **ansible** pour le projet **GSB 2024**
Environnement et playbooks ansible pour le projet GSB 2024
## Quickstart
Prérequis :
* une machine **Linux Debian Bookworm** ou **Windows**
* une machine LInux Debian Bookworm ou Windows
* VirtualBox
* git
* fichier machines virtuelles **ova** :
* **debian-bookworm-gsb-2024b.ova**
* **debian-bullseye-gsb-2024b.ova**
* **debian-bookworm-gsb-2023c.ova**
* **debian-buster-gsb-2023a.ova**
## Les machines
* **s-adm** : routeur adm, DHCP + NAT, déploiement, proxy squid
* **s-adm** : routeur adm, DHCP + NAT, deploiement, proxy squid
* **s-infra** : DNS maitre, autoconfiguration navigateurs avec **wpad**
* **r-int** : routage, DHCP
* **r-ext** : routage, NAT
* **s-proxy** : proxy **squid**
* **s-proxy** : squid
* **s-itil** : serveur GLPI
* **s-backup** : DNS esclave + sauvegarde s-win (SMB), Stork et Gotify
* **s-mon** : supervision avec **Nagios4/Zabbix**, notifications et journald
* **s-backup** : DNS esclave + sauvegarde s-win (SMB)
* **s-mon** : supervision avec **Nagios4**, notifications et syslog
* **s-fog** : deploiement postes de travail avec **FOG**
* **s-win** : Windows Server 2019, AD, DNS, DHCP, partage fichiers
* **s-nxc** : NextCloud avec **docker** via proxy inverse **traefik** et certificat auto-signé
* **s-elk** : pile **ELK** dockerisée
* **s-nxc** : NextCloud avec **docker**
* **s-elk** : pile ELK dockerisée
* **s-lb** : Load Balancer **HaProxy** pour application Wordpress (DMZ)
* **r-vp1** : Routeur VPN Wireguard coté siège
* **r-vp2** : Routeur VPN Wireguard coté agence, DHCP
@ -40,8 +38,6 @@ Prérequis :
* **s-lb-web2** : Serveur Wordpress 2 Load Balancer
* **s-lb-db** : Serveur Mariadb pour Wordpress
* **s-nas** : Serveur NFS pour application Wordpress avec LB
* **s-kea1** : Serveur DHCP Kea HA 1
* **s-kea2** : Serveur DHCP Kea HA 2
## Les playbooks
@ -51,12 +47,12 @@ Il existe un playbook ansible pour chaque machine à installer, nommé comme la
## Installation
On utilisera les images de machines virtuelle suivantes :
* **debian-bookworm-gsb-2024b.ova** (2024-05-23)
* Debian Bookworm 12.5 - 2 cartes - 1 Go - Stockage 20 Go
* **debian-bookworm-gsb-2023c.ova** (2023-12-18)
* Debian Bookworm 12.4 - 2 cartes - 1 Go - Stockage 20 Go
et pour **s-fog** :
* **debian-bullseye-2024b.ova** (2024-04-11)
* Debian Bullseye 11.9 - 2 cartes - 1 Go - stockage 20 Go
* **debian-buster-2023a.ova** (2023-01-06)
* Debian Buster 10 - 2 cartes - 1 Go - stockage 20 Go
Les images **.ova** doivent etre stockées dans le répertoire habituel de téléchargement de l'utilisateur courant.
@ -76,10 +72,6 @@ mkvm -r s-adm
```
### Machine s-adm
La machine **-sadm** est la première machine à installer.
* créer la machine virtuelle **s-adm** avec **mkvm** comme décrit plus haut.
* démarrer la VM puis ouvir une session
* utiliser le script de renommage comme suit :
@ -93,49 +85,48 @@ bash chname <nouveau_nom_de_machine>` , puis redémarrer
git clone https://gitea.lyc-lecastel.fr/gsb/gsb2024.git
cd gsb2024/pre
bash inst-depl
cd /root/tools/ansible/gsb2024/pre
DEPL=192.168.99.99 bash gsbboot
cd ../.. ; bash pull-config
cd /var/www/html/gsbstore
bash getall
cd /root/tools/ansible/gsb024/pre
bash gsbboot
cd .. ; bash pull-config
```
- redémarrer
- la machine **s-adm** doit etre opérationnelle
### Pour chaque machine
#### Etape 1 - Nommage machine
#### Etape 1
- créer la machine avec **mkvm -r**, les cartes réseau sont paramétrées par **mkvm** selon les spécifications
- ouvrir une session sur la machine considérée
- renommer la machine soit
- renomme la machine soit
* en utilisant le script de renommage comme suit :
` /root/tools/ansible/gsb2024/scripts/chname <nouveau_nom_de_machine>`
* soit (ici on renomme la machine en **s-infra**) avec :
* soit avec :
```shell
export HOST=s-infra
curl 192.168.99.99/gsbstore/inst1|bash
reboot # on redemarre
NHOST=mavm
sed -i "s/bookworm/${NHOST}/g" /etc/host{s,name}
sudo reboot # on redemarre
```
#### Etape 2 - installation outils, depot gsb2024 et lancement playbook
#### Etape 2
- utiliser le script **gsb-start** : `bash gsb-start`
- ou sinon:
```shell
curl 192.168.99.99/gsbstore/inst2|bash
mkdir -p tools/ansible ; cd tools/ansible
git clone https://gitea.lyc-lecastel.fr/gsb/gsb2024.git
cd gsb2024/pre
DEPL=192.168.99.99 bash gsbboot
cd ../..
bash pull-config
```
- le script recupere le dépot **gsb2024.git**
- il lance ensuite le script **pull-config** avec le script porant le nom de la machine
- on peut alors redémarrer
#### Etape 3 - Redémarrage et tests
#### Etape 3
- redémarrer
- **Remarque** : une machine doit avoir été redémarrée pour prendre en charge la nouvelle configuration, en particulier la couche réseau et l'adressage.
- selon les situations, il est possible qu'un seul playbook ne soit pas suffisant pour installer complètement une machine. Dans ce cas de figure, le second playbook s'appelle **s-machine-post.yml**.
Il est à lancer depuis ''tools/ansible/gsb2024'' :
```shell
ansible-playbook -i localhost, -c local s-machine-post.yml
```
- **Remarque** : une machine doit avoir été redémarrée pour prendre en charge la nouvelle configuration
## Les tests

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@ -1,7 +0,0 @@
---
- hosts: localhost
connection: local
become: yes
roles:
- firewalld

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@ -1,25 +0,0 @@
port:
tcp:22:
listening: true
ip:
- 0.0.0.0
tcp6:22:
listening: true
ip:
- '::'
service:
sshd:
enabled: true
running: true
user:
sshd:
exists: true
uid: 101
gid: 65534
groups:
- nogroup
home: /run/sshd
shell: /usr/sbin/nologin
process:
sshd:
running: true

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@ -1,20 +1,21 @@
file:
/etc/wireguard/wg0.conf:
exists: true
mode: "0600"
mode: "0644"
owner: root
group: root
filetype: file
contains: []
contains:
- AllowedIPs = 10.0.0.2/32, 172.16.128.0/24
package:
wireguard:
installed: true
versions:
- 1.0.20210914-1
- 1.0.20210223-1
wireguard-tools:
installed: true
versions:
- 1.0.20210914-1+b1
- 1.0.20210223-1
service:
wg-quick@wg0:
enabled: true

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@ -1,8 +1,7 @@
file:
/etc/wireguard/wg0.conf:
exists: true
mode: "0600"
size: 374
mode: "0644"
owner: root
group: root
filetype: file
@ -11,11 +10,11 @@ package:
wireguard:
installed: true
versions:
- 1.0.20210914-1
- 1.0.20210223-1
wireguard-tools:
installed: true
versions:
- 1.0.20210914-1+b1
- 1.0.20210223-1
service:
isc-dhcp-server:
enabled: true

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@ -1,18 +1,6 @@
file:
/var/www/html/gsbstore/getall:
exists: true
mode: "0644"
owner: root
group: root
filetype: file
contents: []
package:
dnsmasq:
installed: true
lighttpd:
installed: true
versions:
- 1.4.69-1
squid:
installed: true
addr:
@ -24,18 +12,10 @@ port:
listening: true
ip:
- 0.0.0.0
tcp:80:
listening: true
ip:
- 0.0.0.0
tcp6:53:
listening: true
ip:
- '::'
tcp6:80:
listening: true
ip:
- '::'
udp:53:
listening: true
ip:
@ -52,9 +32,6 @@ service:
dnsmasq:
enabled: true
running: true
lighttpd:
enabled: true
running: true
squid:
enabled: true
running: true
@ -84,8 +61,6 @@ dns:
process:
dnsmasq:
running: true
lighttpd:
running: true
squid:
running: true
interface:

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@ -1,6 +0,0 @@
interface:
enp0s8:
exists: true
addrs:
- 172.16.0.22/24
mtu: 1500

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@ -1,59 +1,18 @@
file:
/tftpboot/default.ipxe:
interface:
enp0s3:
exists: true
mode: "0644"
owner: root
group: root
filetype: file
contains: []
contents: null
package:
apache2:
installed: true
versions:
- 2.4.56-1~deb11u2
isc-dhcp-server:
installed: true
versions:
- 4.4.1-2.3+deb11u2
mariadb-server:
installed: true
versions:
- 1:10.5.21-0+deb11u1
tftpd-hpa:
installed: true
versions:
- 5.2+20150808-1.2
port:
tcp:80:
listening: true
ip:
- 0.0.0.0
tcp:443:
listening: true
ip:
- 0.0.0.0
udp:67:
listening: true
ip:
- 0.0.0.0
udp:69:
listening: true
ip:
- 0.0.0.0
service:
apache2:
enabled: true
running: true
isc-dhcp-server:
enabled: true
running: true
nfs-server:
enabled: true
running: true
tftpd-hpa:
enabled: true
running: true
addrs:
- 192.168.99.16/24
interface:
enp0s8:
exists: true
addrs:
- 172.16.0.16/24
interface:
enp0s9:
exists: true
addrs:
- 172.16.64.16/24
command:
ping -c 4 192.168.99.99:
exit-status: 0
@ -67,11 +26,3 @@ command:
- 0% packet loss
stderr: []
timeout: 10000
process:
apache2:
running: true
interface:
enp0s9:
exists: true
addrs:
- 172.16.64.16/24

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@ -1,87 +1,36 @@
file:
/etc/nginx/sites-enabled/default:
exists: false
contents: []
/etc/nginx/sites-enabled/glpi:
exists: true
mode: "0644"
owner: root
group: root
filetype: file
contents: []
/var/www/html/glpi:
exists: true
mode: "0755"
owner: www-data
group: www-data
filetype: directory
contents: []
/var/www/html/glpicli:
/var/www/html/ficlients:
exists: true
mode: "0775"
owner: www-data
group: www-data
filetype: directory
contents: []
/var/www/html/glpicli/GLPI-Agent-1.7-x64.msi:
/var/www/html/glpi/plugins:
exists: true
mode: "0644"
owner: root
group: root
mode: "0777"
filetype: directory
/var/www/html/index.nginx-debian.html:
exists: true
mode: "0775"
owner: www-data
group: www-data
filetype: file
contents: []
port:
tcp:22:
listening: true
ip:
- 0.0.0.0
tcp:80:
listening: true
ip:
- 0.0.0.0
tcp:3306:
listening: true
ip:
- 127.0.0.1
tcp:9000:
listening: true
ip:
- 127.0.0.1
tcp:10050:
listening: true
ip:
- 0.0.0.0
service:
mariadb.service:
mariadb:
enabled: true
running: true
nginx:
enabled: true
running: true
php8.2-fpm.service:
enabled: true
running: true
ssh:
enabled: true
running: true
systemd-journal-upload:
enabled: true
running: true
zabbix-agent:
enabled: true
running: true
http:
http://s-itil.gsb.lan/:
status: 200
allow-insecure: false
no-follow-redirects: false
timeout: 5000
body: []
username: glpi
password: glpi
http://s-itil.gsb.lan/glpicli:
status: 200
allow-insecure: false
no-follow-redirects: false
timeout: 5000
body: []

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@ -1,93 +0,0 @@
file:
/etc/kea/kea-ctrl-agent.conf:
exists: true
mode: "0644"
owner: _kea
group: root
filetype: file
contents: []
/etc/kea/kea-dhcp4.conf:
exists: true
mode: "0644"
owner: _kea
group: root
filetype: file
contents: []
/tmp/kea4-ctrl-socket:
exists: true
mode: "0755"
size: 0
owner: _kea
group: _kea
filetype: socket
contains: []
contents: null
/usr/lib/x86_64-linux-gnu/kea:
exists: true
mode: "0755"
owner: root
group: root
filetype: directory
contents: []
package:
isc-kea-common:
installed: true
versions:
- 2.4.1-isc20231123184533
isc-kea-ctrl-agent:
installed: true
versions:
- 2.4.1-isc20231123184533
isc-kea-dhcp4:
installed: true
versions:
- 2.4.1-isc20231123184533
isc-kea-hooks:
installed: true
versions:
- 2.4.1-isc20231123184533
libmariadb3:
installed: true
versions:
- 1:10.11.4-1~deb12u1
mariadb-common:
installed: true
versions:
- 1:10.11.4-1~deb12u1
mysql-common:
installed: true
versions:
- 5.8+1.1.0
addr:
udp://172.16.64.254:67:
local-address: 127.0.0.1
reachable: true
timeout: 500
port:
tcp:8000:
listening: true
ip:
- 172.16.0.20
service:
isc-kea-ctrl-agent.service:
enabled: true
running: true
isc-kea-dhcp4-server.service:
enabled: true
running: true
interface:
enp0s3:
exists: true
addrs:
- 192.168.99.20/24
mtu: 1500
enp0s8:
exists: true
addrs:
- 172.16.0.20/24
mtu: 1500
enp0s9:
exists: true
addrs:
- 172.16.64.20/24
mtu: 1500

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@ -1,93 +0,0 @@
file:
/etc/kea/kea-ctrl-agent.conf:
exists: true
mode: "0644"
owner: _kea
group: root
filetype: file
contents: []
/etc/kea/kea-dhcp4.conf:
exists: true
mode: "0644"
owner: _kea
group: root
filetype: file
contents: []
/tmp/kea4-ctrl-socket:
exists: true
mode: "0755"
size: 0
owner: _kea
group: _kea
filetype: socket
contains: []
contents: null
/usr/lib/x86_64-linux-gnu/kea:
exists: true
mode: "0755"
owner: root
group: root
filetype: directory
contents: []
package:
isc-kea-common:
installed: true
versions:
- 2.4.1-isc20231123184533
isc-kea-ctrl-agent:
installed: true
versions:
- 2.4.1-isc20231123184533
isc-kea-dhcp4:
installed: true
versions:
- 2.4.1-isc20231123184533
isc-kea-hooks:
installed: true
versions:
- 2.4.1-isc20231123184533
libmariadb3:
installed: true
versions:
- 1:10.11.4-1~deb12u1
mariadb-common:
installed: true
versions:
- 1:10.11.4-1~deb12u1
mysql-common:
installed: true
versions:
- 5.8+1.1.0
addr:
udp://172.16.64.254:67:
local-address: 127.0.0.1
reachable: true
timeout: 500
port:
tcp:8000:
listening: true
ip:
- 172.16.0.21
service:
isc-kea-ctrl-agent.service:
enabled: true
running: true
isc-kea-dhcp4-server.service:
enabled: true
running: true
interface:
enp0s3:
exists: true
addrs:
- 192.168.99.21/24
mtu: 1500
enp0s8:
exists: true
addrs:
- 172.16.0.21/24
mtu: 1500
enp0s9:
exists: true
addrs:
- 172.16.64.21/24
mtu: 1500

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@ -1,38 +1,21 @@
addr:
tcp://192.168.102.1:80:
reachable: true
timeout: 500
tcp://192.168.102.2:80:
reachable: true
timeout: 500
service:
mariadb:
enabled: true
running: true
mysql:
enabled: true
running: true
user:
mysql:
exists: true
uid: 104
gid: 111
groups:
- mysql
home: /nonexistent
shell: /bin/false
group:
mysql:
exists: true
gid: 111
package:
mysql-server:
installed: true
versions:
- 5.5.54-0+deb8u1
command:
egrep "#bind-address" /etc/mysql/my.cnf:
exit-status: 0
stdout:
- "#bind-address\t\t= 127.0.0.1"
stderr: []
timeout: 10000
interface:
enp0s3:
exists: true
addrs:
- 192.168.99.154/24
mtu: 1500
- 192.168.99.13/24
enp0s8:
exists: true
addrs:
- 192.168.102.254/24
mtu: 1500
- 192.168.102.50/24

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@ -2,12 +2,20 @@ package:
apache2:
installed: true
versions:
- 2.4.57-2
nfs-common:
- 2.4.10-10+deb8u7
php5:
installed: true
versions:
- 1:2.6.2-4
- 5.6.29+dfsg-0+deb8u1
port:
tcp:22:
listening: true
ip:
- 0.0.0.0
tcp6:22:
listening: true
ip:
- '::'
tcp6:80:
listening: true
ip:
@ -16,47 +24,40 @@ service:
apache2:
enabled: true
running: true
nfs-common:
enabled: false
running: false
sshd:
enabled: true
running: true
user:
sshd:
exists: true
uid: 105
gid: 65534
groups:
- nogroup
home: /var/run/sshd
shell: /usr/sbin/nologin
command:
egrep 192.168.102.14:/export/www /etc/fstab:
exit-status: 0
stdout:
- 192.168.102.14:/export/www /var/www/html nfs _netdev rw 0 0
stderr: []
timeout: 10000
process:
apache2:
running: true
mount:
/var/www/html:
exists: true
opts:
- rw
- relatime
vfs-opts:
- rw
- vers=4.2
- rsize=131072
- wsize=131072
- namlen=255
- hard
- proto=tcp
- timeo=600
- retrans=2
- sec=sys
- clientaddr=192.168.102.1
- local_lock=none
- addr=192.168.102.253
source: 192.168.102.253:/home/wordpress
filesystem: nfs4
sshd:
running: true
interface:
enp0s3:
exists: true
addrs:
- 192.168.99.101/24
mtu: 1500
- 192.168.99.11/24
enp0s8:
exists: true
addrs:
- 192.168.101.1/24
mtu: 1500
enp0s9:
exists: true
addrs:
- 192.168.102.1/24
mtu: 1500

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@ -2,12 +2,20 @@ package:
apache2:
installed: true
versions:
- 2.4.57-2
nfs-common:
- 2.4.10-10+deb8u7
php5:
installed: true
versions:
- 1:2.6.2-4
- 5.6.29+dfsg-0+deb8u1
port:
tcp:22:
listening: true
ip:
- 0.0.0.0
tcp6:22:
listening: true
ip:
- '::'
tcp6:80:
listening: true
ip:
@ -16,47 +24,40 @@ service:
apache2:
enabled: true
running: true
nfs-common:
enabled: false
running: false
sshd:
enabled: true
running: true
user:
sshd:
exists: true
uid: 105
gid: 65534
groups:
- nogroup
home: /var/run/sshd
shell: /usr/sbin/nologin
command:
egrep 192.168.102.14:/export/www /etc/fstab:
exit-status: 0
stdout:
- 192.168.102.14:/export/www /var/www/html nfs _netdev rw 0 0
stderr: []
timeout: 10000
process:
apache2:
running: true
mount:
/var/www/html:
exists: true
opts:
- rw
- relatime
vfs-opts:
- rw
- vers=4.2
- rsize=131072
- wsize=131072
- namlen=255
- hard
- proto=tcp
- timeo=600
- retrans=2
- sec=sys
- clientaddr=192.168.102.2
- local_lock=none
- addr=192.168.102.253
source: 192.168.102.253:/home/wordpress
filesystem: nfs4
sshd:
running: true
interface:
enp0s3:
exists: true
addrs:
- 192.168.99.102/24
mtu: 1500
- 192.168.99.12/24
enp0s8:
exists: true
addrs:
- 192.168.101.2/24
mtu: 1500
enp0s9:
exists: true
addrs:
- 192.168.102.2/24
mtu: 1500

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@ -1,39 +1,14 @@
package:
haproxy:
installed: true
versions:
- 2.6.12-1+deb12u1
addr:
tcp://192.168.101.1:80:
reachable: true
timeout: 500
tcp://192.168.101.2:80:
reachable: true
timeout: 500
port:
tcp:80:
listening: true
ip:
- 192.168.100.10
- 192.168.100.11
service:
haproxy:
enabled: true
running: true
user:
haproxy:
exists: true
uid: 104
gid: 111
groups:
- haproxy
home: /var/lib/haproxy
shell: /usr/sbin/nologin
group:
haproxy:
exists: true
gid: 111
process:
haproxy:
sshd:
enabled: true
running: true
interface:
enp0s3:
@ -44,12 +19,10 @@ interface:
enp0s8:
exists: true
addrs:
- 192.168.100.10/24
- 192.168.100.11/24
mtu: 1500
enp0s9:
exists: true
addrs:
- 192.168.101.254/24
mtu: 1500
http:
http://192.168.100.10/:
status: 200
allow-insecure: false
no-follow-redirects: false
timeout: 5000
body: []

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@ -1,61 +1,62 @@
file:
/etc/systemd/system/systemd-journal-remote.service:
/etc/nagios4/htdigest.users:
exists: true
mode: "0644"
owner: root
group: root
mode: "0640"
owner: nagios
group: www-data
filetype: file
contents: []
/var/log/journal/remote:
exists: true
mode: "0755"
owner: systemd-journal-remote
group: systemd-journal-remote
filetype: directory
contents: []
contains: [nagiosadmin]
package:
apache2:
installed: true
versions:
- 2.4.57-2
mariadb-server:
nagios-snmp-plugins:
installed: true
versions:
- 1:10.11.4-1~deb12u1
systemd-journal-remote:
nagios4:
installed: true
versions:
- 252.19-1~deb12u1
snmp:
installed: true
python3-passlib:
installed: true
port:
tcp:80:
listening: true
ip:
- 0.0.0.0
udp:514:
listening: true
ip:
- 0.0.0.0
service:
apache2:
enabled: true
running: true
mariadb.service:
nagios4:
enabled: true
running: true
systemd-journal-remote.socket:
enabled: true
command:
sysctl net.ipv4.ip_forward:
exit-status: 0
stdout:
- net.ipv4.ip_forward = 0
stderr: []
timeout: 10000
process:
apache2:
running: true
zabbix-agent:
enabled: true
running: true
zabbix-server:
enabled: true
nagios4:
running: true
interface:
enp0s3:
exists: true
addrs:
- 192.168.99.8/24
mtu: 1500
enp0s8:
exists: true
addrs:
- 172.16.0.8/24
mtu: 1500
http:
http://s-mon.gsb.lan/zabbix:
status: 200
http://localhost/nagios4:
status: 401
allow-insecure: false
no-follow-redirects: false
timeout: 5000

View File

@ -1,55 +0,0 @@
file:
/home/wordpress:
exists: true
mode: "0755"
owner: www-data
group: www-data
filetype: directory
contents: []
package:
file:
installed: true
versions:
- 1:5.44-3
nfs-common:
installed: true
versions:
- 1:2.6.2-4
nfs-kernel-server:
installed: true
versions:
- 1:2.6.2-4
addr:
tcp://192.168.102.1:80:
reachable: true
timeout: 500
tcp://192.168.102.2:80:
reachable: true
timeout: 500
service:
nfs-common:
enabled: false
running: false
nfs-kernel-server:
enabled: true
running: true
nfs-mountd:
enabled: true
running: true
nfs-server:
enabled: true
running: true
nfs-utils:
enabled: true
running: false
interface:
enp0s3:
exists: true
addrs:
- 192.168.99.153/24
mtu: 1500
enp0s8:
exists: true
addrs:
- 192.168.102.253/24
mtu: 1500

View File

@ -1,145 +0,0 @@
file:
/root/nxc:
exists: true
mode: "0755"
#size: 4096
#owner: root
#group: root
filetype: directory
contains: []
/root/nxc/certs:
exists: true
mode: "0755"
#size: 4096
#owner: root
#group: root
filetype: directory
contains: []
/root/nxc/config:
exists: true
mode: "0755"
#size: 4096
#owner: root
#group: root
filetype: directory
contains: []
/root/nxc/config/dynamic.yml:
exists: true
mode: "0644"
#size: 415
#owner: root
#group: root
filetype: file
contains: []
/root/nxc/config/static.yml:
exists: true
mode: "0644"
#size: 452
#owner: root
#group: root
filetype: file
contains: []
/root/nxc/docker-compose.yml:
exists: true
mode: "0644"
#size: 2135
#owner: root
#group: root
filetype: file
contains: []
/root/nxc/nxc-debug.sh:
exists: true
mode: "0755"
#size: 64
#owner: root
#group: root
filetype: file
contains: []
/root/nxc/nxc-prune.sh:
exists: true
mode: "0755"
#size: 110
#owner: root
#group: root
filetype: file
contains: []
/root/nxc/nxc-start.sh:
exists: true
mode: "0755"
#size: 34
#owner: root
#group: root
filetype: file
contains: []
/root/nxc/nxc-stop.sh:
exists: true
mode: "0755"
#size: 32
#owner: root
#group: root
filetype: file
contains: []
/usr/local/bin/mkcert:
exists: true
mode: "0755"
#size: 4788866
#owner: root
#group: root
filetype: file
contains: []
#addr:
#tcp://s-nxc.gsb.lan:443:
#reachable: true
#timeout: 500
port:
tcp:22:
listening: true
ip:
- 0.0.0.0
tcp:80:
listening: true
ip: []
tcp:443:
listening: true
ip: []
#tcp:8081:
#listening: true
#ip:
#- 0.0.0.0
interface:
enp0s3:
exists: true
addrs:
- 192.168.99.7/24
mtu: 1500
enp0s8:
exists: true
addrs:
- 172.16.0.7/24
mtu: 1500
http:
https://s-nxc.gsb.lan:
status: 200
allow-insecure: true
no-follow-redirects: false
timeout: 5000
body:
- Nextcloud

83
localhost, Normal file
View File

@ -0,0 +1,83 @@
# Ce fichier viminfo a été généré par Vim 9.0.
# Vous pouvez l'éditer, mais soyez prudent.
# Viminfo version
|1,4
# 'encoding' dans lequel ce fichier a été écrit
*encoding=utf-8
# hlsearch on (H) or off (h):
~h
# Historique ligne de commande (chronologie décroissante) :
:q!
|2,0,1703236388,,"q!"
:x
|2,0,1703236381,,"x"
:x!
|2,0,1703236221,,"x!"
# Historique chaîne de recherche (chronologie décroissante) :
# Historique expression (chronologie décroissante) :
# Historique ligne de saisie (chronologie décroissante) :
# Historique Ligne de débogage (chronologie décroissante) :
# Registres :
""1 LINE 0
connection: local
|3,1,1,1,1,0,1703236374," connection: local"
"2 LINE 0
hosts: localhost
|3,0,2,1,1,0,1703236374," hosts: localhost"
# Marques dans le fichier :
'0 1 2 ~/tools/ansible/gsb2024/s-mon.yml
|4,48,1,2,1703236388,"~/tools/ansible/gsb2024/s-mon.yml"
'1 1 9 ~/tools/ansible/gsb2024/s-mon.yml
|4,49,1,9,1703236339,"~/tools/ansible/gsb2024/s-mon.yml"
'2 9 9 ~/tools/ansible/gsb2024/s-mon.yml
|4,50,9,9,1703236221,"~/tools/ansible/gsb2024/s-mon.yml"
'3 9 9 ~/tools/ansible/gsb2024/s-mon.yml
|4,51,9,9,1703236221,"~/tools/ansible/gsb2024/s-mon.yml"
'4 11 9 ~/tools/ansible/gsb2024/s-mon.yml
|4,52,11,9,1703236221,"~/tools/ansible/gsb2024/s-mon.yml"
'5 11 9 ~/tools/ansible/gsb2024/s-mon.yml
|4,53,11,9,1703236221,"~/tools/ansible/gsb2024/s-mon.yml"
'6 1 13 ~/tools/ansible/gsb2024/s-mon.yml
|4,54,1,13,1703236013,"~/tools/ansible/gsb2024/s-mon.yml"
'7 1 13 ~/tools/ansible/gsb2024/s-mon.yml
|4,55,1,13,1703236013,"~/tools/ansible/gsb2024/s-mon.yml"
'8 1 13 ~/tools/ansible/gsb2024/s-mon.yml
|4,56,1,13,1703236013,"~/tools/ansible/gsb2024/s-mon.yml"
'9 1 13 ~/tools/ansible/gsb2024/s-mon.yml
|4,57,1,13,1703236013,"~/tools/ansible/gsb2024/s-mon.yml"
# Liste de sauts (le plus récent en premier) :
-' 1 2 ~/tools/ansible/gsb2024/s-mon.yml
|4,39,1,2,1703236388,"~/tools/ansible/gsb2024/s-mon.yml"
-' 1 9 ~/tools/ansible/gsb2024/s-mon.yml
|4,39,1,9,1703236339,"~/tools/ansible/gsb2024/s-mon.yml"
-' 9 9 ~/tools/ansible/gsb2024/s-mon.yml
|4,39,9,9,1703236318,"~/tools/ansible/gsb2024/s-mon.yml"
-' 11 9 ~/tools/ansible/gsb2024/s-mon.yml
|4,39,11,9,1703236318,"~/tools/ansible/gsb2024/s-mon.yml"
-' 11 9 ~/tools/ansible/gsb2024/s-mon.yml
|4,39,11,9,1703236221,"~/tools/ansible/gsb2024/s-mon.yml"
-' 1 13 ~/tools/ansible/gsb2024/s-mon.yml
|4,39,1,13,1703236018,"~/tools/ansible/gsb2024/s-mon.yml"
-' 1 13 ~/tools/ansible/gsb2024/s-mon.yml
|4,39,1,13,1703236013,"~/tools/ansible/gsb2024/s-mon.yml"
# Historique des marques dans les fichiers (les plus récentes en premier) :
> ~/tools/ansible/gsb2024/s-mon.yml
* 1703236386 0
" 1 2
^ 9 10
. 2 0
+ 10 0
+ 2 0

77
pre/Vagrantfile-s-adm Normal file
View File

@ -0,0 +1,77 @@
# -*- mode: ruby -*-
# vi: set ft=ruby :
# All Vagrant configuration is done below. The "2" in Vagrant.configure
# configures the configuration version (we support older styles for
# backwards compatibility). Please don't change it unless you know what
# you're doing.
Vagrant.configure("2") do |config|
# The most common configuration options are documented and commented below.
# For a complete reference, please see the online documentation at
# https://docs.vagrantup.com.
# Every Vagrant development environment requires a box. You can search for
# boxes at https://vagrantcloud.com/search.
config.vm.box = "debian/buster64"
config.vm.hostname = "s-adm"
config.vm.define "s-adm"
config.vm.provider :virtualbox do |vb|
vb.name = "s-adm"
end
# Disable automatic box update checking. If you disable this, then
# boxes will only be checked for updates when the user runs
# `vagrant box outdated`. This is not recommended.
# config.vm.box_check_update = false
# Create a forwarded port mapping which allows access to a specific port
# within the machine from a port on the host machine. In the example below,
# accessing "localhost:8080" will access port 80 on the guest machine.
# NOTE: This will enable public access to the opened port
# config.vm.network "forwarded_port", guest: 80, host: 8080
# Create a forwarded port mapping which allows access to a specific port
# within the machine from a port on the host machine and only allow access
# via 127.0.0.1 to disable public access
# config.vm.network "forwarded_port", guest: 80, host: 8080, host_ip: "127.0.0.1"
# Create a private network, which allows host-only access to the machine
# using a specific IP.
config.vm.network "public_network", ip: "192.168.1.91"
config.vm.network "private_network", ip: "192.168.99.99"
# Create a public network, which generally matched to bridged network.
# Bridged networks make the machine appear as another physical device on
# your network.
# config.vm.network "public_network"
# Share an additional folder to the guest VM. The first argument is
# the path on the host to the actual folder. The second argument is
# the path on the guest to mount the folder. And the optional third
# argument is a set of non-required options.
# config.vm.synced_folder "../data", "/vagrant_data"
# Provider-specific configuration so you can fine-tune various
# backing providers for Vagrant. These expose provider-specific options.
# Example for VirtualBox:
#
# config.vm.provider "virtualbox" do |vb|
# # Display the VirtualBox GUI when booting the machine
# vb.gui = true
#
# # Customize the amount of memory on the VM:
# vb.memory = "1024"
# end
#
# View the documentation for the provider you are using for more
# information on available options.
# Enable provisioning with a shell script. Additional provisioners such as
# Ansible, Chef, Docker, Puppet and Salt are also available. Please see the
# documentation for more information about their specific syntax and use.
config.vm.provision "shell", inline: <<-SHELL
apt-get update
apt-get upgrade
apt-get install -y vim wget curl
# apt-get install -y apache2
SHELL
end

0
pre/gsbboot Executable file → Normal file
View File

81
pre/inst-depl Executable file → Normal file
View File

@ -2,60 +2,52 @@
## aa : 2023-01-18 15:25
## ps : 2023-02-01 15:25
## ps : 2023-12-18 15:25
## ps : 2024-01-17 15:25
set -o errexit
set -o pipefail
GITUSR=gitgsb
GITPRJ=gsb2024
apt-get update
apt-get install -y lighttpd git
apt-get install -y apache2 git
STOREREP="/var/www/html/gsbstore"
SRC="${SRC:-http://depl.sio.lan/gsbstore}"
GLPIREL=10.0.11
str="wget -nc -4 https://github.com/glpi-project/glpi/releases/download/${GLPIREL}/glpi-${GLPIREL}.tgz"
str="wget -nc https://github.com/glpi-project/glpi/releases/download/${GLPIREL}/glpi-${GLPIREL}.tgz"
#GLPI Agent
GLPIAGVER=1.7
str31="wget -nc -4 https://github.com/glpi-project/glpi-agent/releases/download/${GLPIAGVER}/GLPI-Agent-${GLPIAGVER}-x64.msi"
str31="wget -nc https://github.com/glpi-project/glpi-agent/releases/download/${GLPIAGVER}/GLPI-Agent-${GLPIAGVER}-x64.msi"
#str32="wget -nc -4 https://github.com/glpi-project/glpi-agent/releases/download/${GLPIAGVER}/GLPI-Agent-${GLPIAGVER}-x86.msi"
#str32="wget -nc https://github.com/glpi-project/glpi-agent/releases/download/${GLPIAGVER}/GLPI-Agent-${GLPIAGVER}-x86.msi"
FOGREL=1.5.10
str4="wget -nc -4 https://github.com/FOGProject/fogproject/archive/${FOGREL}.tar.gz -O fogproject-${FOGREL}.tar.gz"
str4="wget -nc https://github.com/FOGProject/fogproject/archive/${FOGREL}.tar.gz -O fogproject-${FOGREL}.tar.gz"
WPREL=6.4.2
#v6.1.1 le 17/01/2023
str5="wget -nc -4 https://fr.wordpress.org/latest-fr_FR.tar.gz -O wordpress-6.4.2-fr_FR.tar.gz"
str5="wget -nc https://fr.wordpress.org/latest-fr_FR.tar.gz -O wordpress-6.4.2-fr_FR.tar.gz"
str6="wget -nc -4 https://github.com/goss-org/goss/releases/latest/download/goss-linux-amd64 -O goss"
str6="curl -L https://github.com/goss-org/goss/releases/latest/download/goss-linux-amd64 -o goss"
str7="wget -nc -4 https://github.com/goss-org/goss/releases/latest/download/dgoss -O dgoss"
str7="curl -L https://github.com/goss-org/goss/releases/latest/download/dgoss -o dgoss"
#GESTSUPREL=3.2.30
#str8="wget -nc -4 'https://gestsup.fr/index.php?page=download&channel=stable&version=${GESTSUPREL}&type=gestsup' -O gestsup_${GESTSUPREL}.zip"
str8="wget -nc -4 'https://gestsup.fr/index.php?page=download&channel=stable&version=3.2.30&type=gestsup' -O gestsup_3.2.30.zip"
#str8="wget -nc 'https://gestsup.fr/index.php?page=download&channel=stable&version=${GESTSUPREL}&type=gestsup' -O gestsup_${GESTSUPREL}.zip"
str8="wget -nc 'https://gestsup.fr/index.php?page=download&channel=stable&version=3.2.30&type=gestsup' -O gestsup_3.2.30.zip"
#METRICBEAT ET FILEBEAT
ELKREL=8.11.4
str81="wget -nc -4 https://artifacts.elastic.co/downloads/beats/filebeat/filebeat-${ELKREL}-amd64.deb"
str82="wget -nc -4 https://artifacts.elastic.co/downloads/beats/filebeat/filebeat-${ELKREL}-windows-x86_64.zip"
str83="wget -nc -4 https://artifacts.elastic.co/downloads/beats/metricbeat/metricbeat-${ELKREL}-windows-x86_64.zip"
str84="wget -nc -4 https://artifacts.elastic.co/downloads/beats/metricbeat/metricbeat-${ELKREL}-amd64.deb"
ELKREL=8.11.3
str81="wget https://artifacts.elastic.co/downloads/beats/filebeat/filebeat-${ELKREL}-amd64.deb"
str82="wget https://artifacts.elastic.co/downloads/beats/filebeat/filebeat-${ELKREL}-windows-x86_64.zip"
str83="wget https://artifacts.elastic.co/downloads/beats/metricbeat/metricbeat-${ELKREL}-windows-x86_64.zip"
str84="wget https://artifacts.elastic.co/downloads/beats/metricbeat/metricbeat-${ELKREL}-amd64.deb"
[[ -d "${STOREREP}" ]] || mkdir "${STOREREP}"
[[ -d "${STOREREP}" ]]|| mkdir "${STOREREP}"
(cat <<EOT > "${STOREREP}/getall"
#!/bin/bash
if [[ -z "${SRC+x}" ]]; then
echo "erreur : variable SRC indefinie"
echo " SRC : URL serveur deploiement"
echo "export SRC=http://depl.sio.adm/gsbstore ; ./$0"
exit 1
fi
${str}
${str31}
@ -66,55 +58,20 @@ ${str7}
chmod +x ./goss ./dgoss
wget -nc -4 https://get.docker.com -O getdocker.sh
curl -L https://get.docker.com -o getdocker.sh
chmod +x ./getdocker.sh
wget -nc -4 https://github.com/FiloSottile/mkcert/releases/download/v1.4.4/mkcert-v1.4.4-linux-amd64 -O mkcert
wget -nc https://github.com/FiloSottile/mkcert/releases/download/v1.4.4/mkcert-v1.4.4-linux-amd64 -O mkcert
chmod +x ./mkcert
#${str8}
${str8}
${str81}
${str82}
${str83}
${str84}
wget -nc -4 "${SRC}/zabbix.sql.gz" -O zabbix.sql.gz
EOT
)
cat "${STOREREP}/getall"
cd "${STOREREP}" || exit 2
bash getall
cp goss /usr/local/bin
(cat <<'EOT' > "${STOREREP}/inst1"
#!/bin/bash
if [[ -z "${HOST+x}" ]]; then
echo "erreur : variable HOST indefinie"
echo " HOST : adresse serveur deploiement"
echo "export HOST=s-xyzt ; ./$0"
exit 1
fi
hostname=$(hostname)
echo "${HOST}" > /etc/hostname
hostnamectl set-hostname "${HOST}"
sed -i "s/${hostname}/${HOST}/g" /etc/hosts
echo "vous pouvez redemarrer ..."
EOT
)
(cat <<'EOT' > "${STOREREP}/inst2"
#!/bin/bash
mkdir -p ~/tools/ansible ; cd ~/tools/ansible
git clone https://gitea.lyc-lecastel.fr/gsb/gsb2024.git
cd gsb2024/pre
DEPL=192.168.99.99 bash gsbboot
cd ../.. ; bash pull-config
EOT
)

48
pre/inst-depl.old Normal file
View File

@ -0,0 +1,48 @@
#!/bin/bash
set -o errexit
set -o pipefail
GITUSR=gitgsb
GITPRJ=gsb
apt update && apt upgrade
apt install -y apache2 git
getent passwd "${GITUSR}" >> /dev/null
if [[ $? != 0 ]]; then
echo "creation utilisateur "${GITUSR}" ..."
/sbin/useradd -m -d /home/"${GITUSR}" -s /bin/bash "${GITUSR}"
echo "${GITUSR}:${GITUSR}" | /sbin/chpasswd
else
echo "utilisateur "${GITUSR}" existant..."
fi
su -c "git init --share --bare /home/${GITUSR}/${GITPRJ}.git" "${GITUSR}"
su -c "cd ${GITPRJ}.git/.git/hooks && mv post-update.sample post-update" "${GITUSR}"
[[ -h /var/www/html/"${GITPRJ}".git ]]|| ln -s /home/"${GITUSR}"/"${GITPRJ}".git /var/www/html/"${GITPRJ}".git
[[ -d /var/www/html/gsbstore ]]|| mkdir /var/www/html/gsbstore
(cat <<EOT > /var/www/html/gsbstore/getall
#!/bin/bash
set -o errexit
set -o pipefail
GLPIREL=9.4.5
wget -nc https://github.com/glpi-project/glpi/releases/download/\${GLPIREL}/glpi-\${GLPIREL}.tgz
FIREL=9.4+2.4
wget -nc -O fusioninventory-glpi\${FIREL}.tag.gz https://github.com/fusioninventory/fusioninventory-for-glpi/archive/glpi\${FIREL}.tar.gz
#https://github.com/fusioninventory/fusioninventory-for-glpi/archive/glpi9.4+2.4.tar.g
FIAGREL=2.5.2
wget -nc https://github.com/fusioninventory/fusioninventory-agent/releases/download/\${FIAGREL}/fusioninventory-agent_windows-x64_\${FIAGREL}.exe
wget -nc https://github.com/fusioninventory/fusioninventory-agent/releases/download/\$FIAGREL/fusioninventory-agent_windows-x86_\${FIAGREL}.exe
FOGREL=1.5.7
wget -nc https://github.com/FOGProject/fogproject/archive/\${FOGREL}.tar.gz -O fogproject-\${FOGREL}.tar.gz
wget -nc https://fr.wordpress.org/wordpress-5.3.2-fr_FR.tar.gz
EOT
)
cat /var/www/html/gsbstore/getall

4
pre/pull-config Executable file → Normal file
View File

@ -14,15 +14,15 @@ dir=/root/tools/ansible
cd "${dir}" || exit 1
hostname > hosts
if [[ $# == 1 ]] ; then
opt=$1
fi
if [[ "${opt}" == '-l' ]] ; then
cd "${dir}/${prj}" || exit 2
echo "Execution locale ...."
ansible-playbook -i localhost, -c local "$(hostname).yml"
else
ansible-pull -i "$(hostname)," -U "${UREP}"
ansible-pull -i "${dir}/hosts" -C main -U "${UREP}"
fi
exit 0

View File

@ -1,9 +1,5 @@
#!/bin/bash
dir=/root/tools/ansible
prj=gsb2024
opt=""
if [ -z ${UREP+x} ]; then
UREP=https://gitea.lyc-lecastel.fr/gsb/gsb2024.git
fi
@ -14,15 +10,7 @@ dir=/root/tools/ansible
cd "${dir}" || exit 1
if [[ $# == 1 ]] ; then
opt=$1
fi
if [[ "${opt}" == '-l' ]] ; then
cd "${dir}/${prj}" || exit 2
echo "Execution locale ...."
ansible-playbook -i localhost, -c local "$(hostname).yml"
else
ansible-pull -i "$(hostname)," -U "${UREP}"
fi
hostname > hosts
ansible-pull -i "${dir}/hosts" -C main -U "${UREP}"
exit 0

View File

@ -1,14 +1,12 @@
---
- hosts: localhost
connection: local
become: yes
roles:
- base
- goss
- r-ext
- zabbix-cli
- snmp-agent
- ssh-cli
# - syslog-cli
- post

View File

@ -1,7 +1,6 @@
---
- hosts: localhost
connection: local
become: yes
roles:
- base
@ -10,5 +9,5 @@
- ssh-cli
# - syslog-cli
- dhcp
- zabbix-cli
- snmp-agent
- post

View File

@ -1,24 +0,0 @@
---
- name: Creation user awx
ansible.builtin.user:
name: awx
groups: sudo
append: yes
- name: Cration d'un mdp pour user awx
user:
name: awx
password: '$5$1POIEvs/Q.DHI4/6$RT6nl42XkekxTPKA/dktbnCMxL8Rfk8GAK7NxqL9D70'
- name: Get awx key_pub
get_url:
url: http://s-adm.gsb.adm/gsbstore/id_rsa_awx.pub
dest: /tmp
- name: Set authorized key taken from file /tmp
ansible.posix.authorized_key:
user: awx
state: present
key: "{{ lookup('file', '/tmp/id_rsa_awx.pub') }}"

View File

@ -1,20 +0,0 @@
---
- name: Creation user awx, cle SSH et group sudo
ansible.builtin.user:
name: awx
groups: sudo
append: yes
shell: /bin/bash
generate_ssh_key: yes
#- name: Creation mdp user awx
# ansible.builtin.user:
#name:
#user: awx
# password: '$5$1POIEvs/Q.DHI4/6$RT6nl42XkekxTPKA/dktbnCMxL8Rfk8GAK7NxqL9D70'
- name: Copie cle publique dans gsbstore
copy:
src: /home/awx/.ssh/id_rsa.pub
dest: /var/www/html/gsbstore/id_rsa_awx.pub
remote_src: yes

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@ -1,26 +0,0 @@
# Rôle awx
***
Rôle awx: Configuration d'un serveur AWX avec k3s.
## Tables des matières
1. [Que fait le rôle AWX ?]
2. [Connexion à l'interface WEB du serveur AWX]
**AWX** est l'application développée par **RedHat** permettant de lancer des playbooks **ansible** depuis une interface web évoluée plutôt qu'en ligne de commande. **AWX** utlise kubernetes mise en oeuvre ici avec **k3s**.
## Que fait le rôle AWX ?
Le rôle **awx** installe et configure un serveur **AWX** avec **k3s** pour cela le role:
- Installe **k3s** en spécifiant l'adresse IP ainsi que l'interface d'écoute
- Clone le dépot **Github** **awx-on-k3s**
- Procéde au déploiement du pod **awx-operator**
- Génére un certifiacat auto-signé utlisée par le serveur **AWX** en utilisant **OpenSSL**
- Edite le fichier awx.yaml afin d'y indique le nom d'hote du serveur en accord avec le nom utlisé par les certificats
- Déploie le serveur **AWX**
- Test l'accésibilité du serveur **AWX**.
### Connexions à l'interface WEB du serveur AWX ###
Une fois le role **awx** terminé il est possible de se connecter à l'interface web duserveur depuis un navigateur.
S'assurer que votre machine puisse résoudre **s-awx.gsb.lan**
- Se connecter sur : **https://s-awx.gsb.lan**
- Utlisateur: **admin** / Mot de passe: **Ansible123!**

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@ -1,79 +0,0 @@
---
- name: Installation de k3s ...
ansible.builtin.shell: curl -sfL https://get.k3s.io | INSTALL_K3S_VERSION=v1.28.5+k3s1 sh -s - --write-kubeconfig-mode 644 --node-ip "{{ awx_ip }}" --flannel-iface "{{ awx_if }}"
- name: Clonage du dépot awx-on-k3s
git:
repo: https://github.com/kurokobo/awx-on-k3s.git
dest: "{{ awx_dir }}"
clone: yes
force: yes
- name: Git checkout
ansible.builtin.shell: "git checkout 2.10.0"
args:
chdir: "{{ awx_dir }}"
- name: Deploiement AWX Operator ...
ansible.builtin.shell: "kubectl apply -k operator"
args:
chdir: "{{ awx_dir }}"
#- name: Git checkout
#ansible.builtin.git:
#repo: 'https://github.com/kurokobo/awx-on-k3s.git'
#dest: "{{ awx_dir }}"
#version: release-2.10.0
- name: Generation de certificat auto-signé avec OpenSSL
ansible.builtin.shell: 'openssl req -x509 -nodes -days 3650 -newkey rsa:2048 -out ./base/tls.crt -keyout ./base/tls.key -subj "/CN={{ awx_host }}/O={{ awx_host }}" -addext "subjectAltName = DNS:{{ awx_host }}"'
args:
chdir: "{{ awx_dir }}"
- name: Changement de la ligne hostname dans le fichier awx.yaml
replace:
path: ~/tools/awx-on-k3s/base/awx.yaml
regexp: 'awx.example.com'
replace: '{{ awx_host }}'
backup: yes
- name: creation du repertoire postgres-13
ansible.builtin.file:
path: /data/postgres-13
state: directory
mode: '0755'
- name: Creation repertoire projects
ansible.builtin.file:
path: /data/projects
state: directory
owner: 1000:0
- name: Deploiement d'AWX ...
ansible.builtin.shell: "kubectl apply -k base"
args:
chdir: "{{ awx_dir }}"
- name: Test d'accésibilité de l'interface web AWX
ansible.builtin.uri:
url: "https://s-awx.gsb.lan"
follow_redirects: none
method: GET
validate_certs: false
register: _result
until: _result.status == 200
retries: 60 # 90*10 seconds = 15 min
delay: 10 # Every 10 seconds
- debug:
msg: "L'installation du serveur AWX est terminée."
- debug:
msg: "Connectez-vous sur: https://s-awx.gsb.lan"
- debug:
msg: "Nom d'utilisateur: admin / mdp: Ansible123!"

View File

@ -1,14 +1,8 @@
---
- name: desactive unatentted upgrade
ansible.builtin.service:
name: unattended-upgrades.service
state: stopped
enabled: false
- name: Copie sources.list
copy:
src: sources.list.{{ ansible_distribution_release }}
src: sources.list.{{ ansible_distribution }}
dest: /etc/apt/sources.list
- name: Copie apt.conf pour proxy
@ -81,3 +75,8 @@
- net.ipv6.conf.default.disable_ipv6
- net.ipv6.conf.lo.disable_ipv6
- name: desactive unatentted upgrade
ansible.builtin.service:
name: unattended-upgrades.service
state: stopped
enabled: false

View File

@ -22,9 +22,6 @@
192.168.99.14 s-nas.gsb.adm
192.168.99.15 s-san.gsb.adm
192.168.99.16 s-fog.gsb.adm
192.168.99.20 s-kea1.gsb.adm
192.168.99.21 s-kea2.gsb.adm
192.168.99.22 s-awx.gsb.adm
192.168.99.50 s-lb-bd.gsb.adm
192.168.99.101 s-lb-web1.gsb.adm
192.168.99.102 s-lb-web2.gsb.adm

View File

@ -21,9 +21,6 @@
192.168.99.12 r-int.gsb.adm
192.168.99.13 r-ext.gsb.adm
192.168.99.14 s-nas.gsb.adm
192.168.99.20 s-kea1.gsb.adm
192.168.99.21 s-kea2.gsb.adm
192.168.99.22 s-awx.gsb.adm
192.168.99.50 s-lb-bd.gsb.adm
192.168.99.101 s-lb-web1.gsb.adm
192.168.99.102 s-lb-web2.gsb.adm

View File

@ -120,7 +120,7 @@ subnet 172.16.65.0 netmask 255.255.255.0 {
#DHCP pour le réseau USER
subnet 172.16.64.0 netmask 255.255.255.0 {
range 172.16.64.100 172.16.64.150;
range 172.16.64.20 172.16.64.120;
option domain-name-servers 172.16.0.1 ;
option routers 172.16.64.254;
option broadcast-address 172.16.64.255;

View File

@ -5,7 +5,7 @@
;
$TTL 604800
@ IN SOA s-infra.gsb.lan. root.s-infra.gsb.lan. (
2024011900 ; Serial
2023051000 ; Serial
7200 ; Refresh
86400 ; Retry
8419200 ; Expire
@ -16,11 +16,9 @@ $TTL 604800
@ IN A 127.0.0.1
@ IN AAAA ::1
s-infra IN A 172.16.0.1
s-backup IN A 172.16.0.4
s-proxy IN A 172.16.0.2
s-appli IN A 172.16.0.3
s-backup IN A 172.16.0.4
s-stork IN A 172.16.0.4
s-gotify IN A 172.16.0.4
s-win IN A 172.16.0.6
s-mess IN A 172.16.0.7
s-nxc IN A 172.16.0.7
@ -29,9 +27,6 @@ s-mon IN A 172.16.0.8
s-itil IN A 172.16.0.9
s-elk IN A 172.16.0.11
s-gestsup IN A 172.16.0.17
s-kea1 IN A 172.16.0.20
s-kea2 IN A 172.16.0.21
s-awx IN A 172.16.0.22
r-int IN A 172.16.0.254
r-int-lnk IN A 192.168.200.254
r-ext IN A 192.168.200.253

View File

@ -5,7 +5,7 @@
;
$TTL 604800
@ IN SOA s-infra.gsb.lan. root.s-infra.gsb.lan. (
2024011800 ; Serial
2023040501 ; Serial
7200 ; Refresh
86400 ; Retry
8419200 ; Expire
@ -21,9 +21,6 @@ $TTL 604800
7.0 IN PTR s-nxc.gsb.lan.
8.0 IN PTR s-mon.gsb.lan.
9.0 IN PTR s-itil.gsb.lan.
20.0 IN PTR s-kea1.gsb.lan.
21.0 IN PTR s-kea2.gsb.lan.
22.0 IN PTR s-awx.gsb.lan.
101.1 IN PTR s-web1
101.2 IN PTR s-web2
100.10 IN PTR s-lb

Binary file not shown.

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@ -1,16 +1,16 @@
---
- name: on recupere getdocker
get_url:
url: http://s-adm.gsb.adm/gsbstore/getdocker.sh
dest: /usr/local/bin
- name: Supprime le fichier getdocker.sh si déjà présent
file:
state: absent
path: /tmp/getdocker.sh
- name: on verifie si docker est installe
stat:
path: /usr/bin/docker
#command: which docker
register: docker_present
- name: Télécharge le script d'installation de docker
uri:
url: 'https://get.docker.com'
method: GET
dest: /tmp/getdocker.sh
mode: a+x
register: result
- name: Execution du script getdocker si docker n'est pas deja installe
shell: bash /usr/local/bin/getdocker.sh
#when: docker_present.stdout.find('/usr/bin/docker') == -1
when: not docker_present.stat.exists
- name: Execution du script getdocker
shell: bash /tmp/getdocker.sh

View File

@ -1 +1 @@
BEATVER: "8.11.4"
BEATVER: "8.11.5"

View File

@ -1,51 +1,17 @@
---
- name: Récupération de filebeat
get_url:
url: "http://s-adm.gsb.adm/gsbstore/filebeat-{{ BEATVER }}-amd64.deb"
url: http://s-adm.gsb.adm/gsbstore/filebeat-${BEATVAR}-amd64.deb
dest: /tmp/
- name: Installation de filebeat
apt:
deb: "/tmp/filebeat-{{ BEATVER }}-amd64.deb"
<<<<<<< HEAD
- name: Chgt filebeat.yml - localhost:9200 - Elastic
replace:
path: /etc/filebeat/filebeat.yml
regexp: 'localhost:9200'
replace: 's-elk.gsb.adm:9200'
backup: yes
- name: Chgt filebeat.yml - localhost:5601 - Kibana
replace:
path: /etc/filebeat/filebeat.yml
regexp: 'localhost:5601'
replace: 's-elk.gsb.adm:5601'
backup: yes
- name: Chgt filebeat.yml - user - Kibana
replace:
path: /etc/filebeat/filebeat.yml
regexp: 'user:5601'
replace: 's-elk.gsb.adm:5601'
backup: yes
#- name: Changement du fichier de conf
# copy:
# src: filebeat.yml
# dest: /etc/filebeat/filebeat.yml
=======
- name: sorie pou debug
fail:
msg: "packet installe"
deb: /tmp/filebeat-${BEATVEAR}-amd64.deb
- name: Changement du fichier de conf
copy:
src: filebeat.yml
dest: /etc/filebeat/filebeat.yml
>>>>>>> d16ccae (maj pour elk-filebeat-cli)
- name: Configuration de filebeat
shell: filebeat modules enable system

View File

@ -1,22 +1,9 @@
# Le rôle elk
ELK Version 8.5.3
## Principe du rôle elk
ELK 8.5.3
Ce rôle a pour but d'installer un serveur ELK pour centraliser les logs et les métriques pour simplifier la gestion du parc informatique GSB.
Le rôle **elk** installe **docker**, les différentes tâches de ce rôle sont de :
Ce rôle permet de créer un serveur ELK pour centraliser les logs et de des métriques pour simplifier la gestion du parc informatique GSB.
Le principe de ce rôle est d'installer docker, les différentes tâches de ce rôle sont de :
- Vérifier si ELK est déjà installé,
- clonage du depot **devianthony** depuis github,
- Changement de la configuration pour passer en version 'basic'
- Importation un docker-compose depuis github,
- Changement la configuration pour passer en version 'basic'
- Lancement d'ELK avec docker-compose
## Lancement manuel
- depuis le répertoire **nxc** :
````shell
docker compose up setup
docker compose up -d
````

View File

@ -21,7 +21,7 @@
regexp: 'xpack.license.self_generated.type: trial'
replace: 'xpack.license.self_generated.type: basic'
# - name: Execution du fichier docker-compose.yml
# shell: docker compose pull
# args:
# chdir: /root/elk
- name: Execution du fichier docker-compose.yml
shell: docker compose up -d
args:
chdir: /root/elk

View File

@ -1,26 +0,0 @@
# Rôle awx
***
Rôle awx: Configuration d'un serveur AWX avec k3s.
## Tables des matières
1. [Que fait le rôle AWX ?]
2. [Connexion à l'interface WEB du serveur AWX]
**AWX** est l'application développée par **RedHat** permettant de lancer des playbooks **ansible** depuis une interface web évoluée plutôt qu'en ligne de commande. **AWX** utlise kubernetes mise en oeuvre ici avec **k3s**.
## Que fait le rôle AWX ?
Le rôle **awx** installe et configure un serveur **AWX** avec **k3s** pour cela le role:
- Installe **k3s** en spécifiant l'adresse IP ainsi que l'interface d'écoute
- Clone le dépot **Github** **awx-on-k3s**
- Procéde au déploiement du pod **awx-operator**
- Génére un certifiacat auto-signé utlisée par le serveur **AWX** en utilisant **OpenSSL**
- Edite le fichier awx.yaml afin d'y indique le nom d'hote du serveur en accord avec le nom utlisé par les certificats
- Déploie le serveur **AWX**
- Test l'accésibilité du serveur **AWX**.
### Connexions à l'interface WEB du serveur AWX ###
Une fois le role **awx** terminé il est possible de se connecter à l'interface web duserveur depuis un navigateur.
S'assurer que votre machine puisse résoudre **s-awx.gsb.lan**
- Se connecter sur : **https://s-awx.gsb.lan**
- Utlisateur: **admin** / Mot de passe: **Ansible123!**

View File

@ -1,91 +0,0 @@
---
- name: Installation de firewalld
apt:
state: present
name:
- firewalld
- name: affectation de l'interface enp0s3 a la zone external
ansible.posix.firewalld:
zone: external
interface: enp0s3
permanent: true
state: enabled
- name: affectation de l'interface enp0s8 a la zone external
ansible.posix.firewalld:
zone: internal
interface: enp0s8
permanent: true
state: enabled
- name: FirewallD rules pour la zone internal
firewalld:
zone: internal
permanent: yes
immediate: yes
service: "{{ item }}"
state: enabled
with_items:
- http
- https
- dns
- ssh
- rdp
- name: FirewallD rules pour la zone internal
firewalld:
zone: external
permanent: yes
immediate: yes
service: "{{ item }}"
state: enabled
with_items:
- ssh
- rdp
#- ansible.posix.firewalld:
# zone: internal
# service: http
# permanent: true
# state: enabled
#- ansible.posix.firewalld:
# zone: internal
# service: dns
# permanent: true
#state: enabled
#- ansible.posix.firewalld:
# zone: internal
# service: ssh
# permanent: true
# state: enabled
#- ansible.posix.firewalld:
# zone: internal
# service: rdp
#permanent: true
#state: enabled
- ansible.posix.firewalld:
zone: internal
port: 8080/tcp
permanent: true
state: enabled
- ansible.posix.firewalld:
zone: external
port: 3389/tcp
permanent: true
state: enabled
- ansible.posix.firewalld:
port_forward:
- port: 3389
proto: tcp
toaddr: "192.168.99.6"
toport: 3389
state: enabled
immediate: yes

View File

@ -1,41 +1,16 @@
# Fog
Ce rôle permet **l'installation** et la **configuration** de **Fog**.
Ce rôle permet l'installation et la modification de Fog.
**Fog** est une solution open-source de gestion de parc informatique. Il offre des fonctionnalités telles que la **création d'images système**, le **déploiement d'images sur plusieurs machines** et la **gestion des postes de travail** grâce à **PXE**.
**PXE** (Preboot eXecution Environment) est un protocole qui permet à un hôte de démarrer via le réseau, plutôt que depuis son disque dur local. Cela facilite le déploiement d'images système à distance.
## Fog, c'est quoi ?
Dans le contexte de GSB, Fog avec PXE,assure le service **DHCP**.
Ainsi, Fog simplifie le processus de création d'images et du déployement de postes en gérant à la fois le démarrage réseau (PXE) et la configuration réseau (DHCP).
Fog permet le déploiement d'images disque tel que Windows ou bien Linux en utilisant PXE (Preboot Execution Environment).
## Comment l'installer et le configurer ?
### Prérequis:
## Comment l'installer ?
Mettre au moins 4GB de mémoire.
### Etape 1:
Lancez le PlayBook Ansible de "pré-installation" nommé **s-fog.yml**.
Il installe la base de **Fog** , l'outil **Goss** , configure le **DHCP** , **SSH** et l'agent **SSH**.
Ce PlayBook fait aussi appel au PlayBook **main.yml** qui se trouve dans **roles/fog/tasks/** qui installe les paquets de base comme **Apache2** , **MariaDb client et serveur** ... (Voir en détail le PlayBook).
Enfin ce PlayBook permet aussi de récupérer l'archive d'installation de Fog depuis le serveur **s-admin** (grâce au PlayBook **main.yml** dans **roles/default/**), puis décompresse cette archive et l'exécute (à partir du moment où on lance le deuxieme PlayBook : voir l'étape 2).
Redémarrer le serveur pour que les interfaces puissent avoir les bonnes adresses IP.
### Etape 2:
Lancez le second PlayBook **install-fog.yml** qui permet de faire appel aux tâches qui exécute le script d'installation **fogsettings** qui permet d'éviter de répondre aux différentes questions manuellement.
### Etape 3:
Il n'y a plus qu'à se rendre sur l'interface en ligne de Fog avec l'URL suivant : **http://172.16.64.16/management/** à partir d'un poste étant dans le bon réseau et suivre les consignes indiquées (Installation ou mise à jour de la base de données) et vous pourrez ainsi vous y connecter et commencer à l'utiliser.
### Etape supplémentaire:
Vous pouvez tester que la configuration est correcte avec Goss (commande : **./agoss -f tap** ) à partir du répertoire **gsb2024**.
Avant toute chose, lancer le fichier goss de s-fog ( présent dans gsb2023/goss/s-fog.yaml ) pour vérifier que la configuration réseau est correct et opérationnel. Une fois l'installation principale effectuée, il faut lancer le playbook ansible s-fog.yaml.
Il faudra se rendre dans le dossier **fog** pour lancer le script **installfog.sh** ( fog/bin/ ). La configuration sera déjà établie via le fichier **.fogsettings**

View File

@ -1,3 +1,3 @@
depl_url: "http://s-adm.gsb.adm/gsbstore"
depl_fog: "fogproject-1.5.10.tar.gz"
depl_fog: "fogproject-1.5.9.tar.gz"
instructions: "Pour lancer l'installateur Fog, faites : 'bash /root/tools/fog/bin/installfog.sh'. Suivez ensuite les instructions"

View File

@ -1,46 +0,0 @@
## Start of FOG Settings
## Created by the FOG Installer
## Find more information about this file in the FOG Project wiki:
## https://wiki.fogproject.org/wiki/index.php?title=.fogsettings
## Version: 1.5.10
## Install time: mar. 16 janv. 2024 15:27:57
ipaddress='192.168.99.100'
copybackold='0'
interface='enp0s3'
submask='255.255.255.0'
hostname='s-fog.gsb.lan'
routeraddress='192.168.99.99'
plainrouter='192.168.99.99'
dnsaddress='192.168.99.99'
username='fogproject'
password='zbSw#FaGPS7O1bJ5tpfj'
osid='2'
osname='Debian'
dodhcp='Y'
bldhcp='0'
dhcpd='isc-dhcp-server'
blexports='1'
installtype='N'
snmysqluser='fogmaster'
snmysqlpass='cbZjO*gCONbbldV4a6l1'
snmysqlhost='localhost'
mysqldbname='fog'
installlang='0'
storageLocation='/images'
fogupdateloaded=1
docroot='/var/www/html/'
webroot='/fog/'
caCreated='yes'
httpproto='http'
startrange=''
endrange=''
packages='apache2 bc build-essential cpp curl g++ gawk gcc genisoimage git gzip htmldoc isolinux lftp libapache2-mod-php libc6 libcurl4 liblzma-dev m4 mariadb-client mariadb-server net-tools nfs-kernel-server openssh-server php php-bcmath php-cli php-curl php-fpm php-gd php-json php-ldap php-mbstring php-mysql tar tftpd-hpa tftp-hpa unzip vsftpd wget zlib1g'
noTftpBuild=''
tftpAdvOpts=''
sslpath='/opt/fog/snapins/ssl/'
backupPath='/home/'
armsupport=''
php_ver='7.4'
sslprivkey='/opt/fog/snapins/ssl//.srvprivate.key'
sendreports='Y'
## End of FOG Settings

View File

@ -2,18 +2,18 @@
## Created by the FOG Installer
## Find more information about this file in the FOG Project wiki:
## https://wiki.fogproject.org/wiki/index.php?title=.fogsettings
## Version: 1.5.10
## Install time: Mon Jan 15 23:16:31 2024
ipaddress='172.16.0.16'
## Version: 1.5.9
## Install time: jeu. 26 janv. 2023 11:41:05
ipaddress='172.16.64.16'
copybackold='0'
interface='enp0s9'
submask='255.255.255.0'
hostname='s-fog'
routeraddress='172.16.64.254'
plainrouter='172.16.64.254'
hostname='s-fog.gsb.lan'
routeraddress='192.168.99.99'
plainrouter='192.168.99.99'
dnsaddress='172.16.0.1'
username='fogproject'
password='0lEyBKxcrQxseHLB#Cbg'
password='/7ElC1OHrP47EN2w59xl'
osid='2'
osname='Debian'
dodhcp='y'
@ -22,27 +22,25 @@ dhcpd='isc-dhcp-server'
blexports='1'
installtype='N'
snmysqluser='fogmaster'
snmysqlpass='DQG@4PU31F9vOE4bX6V2'
snmysqlpass='HHO5vSGqFiHE_9d2lja3'
snmysqlhost='localhost'
mysqldbname='fog'
installlang='1'
installlang='0'
storageLocation='/images'
fogupdateloaded=1
docroot='/var/www/html/'
webroot='/fog/'
caCreated='yes'
httpproto='https'
startrange='172.16.64.120'
endrange='172.16.64.140'
httpproto='http'
startrange='172.16.64.10'
endrange='172.16.64.254'
bootfilename='undionly.kpxe'
packages='apache2 bc build-essential cpp curl g++ gawk gcc genisoimage gettext git gzip htmldoc isc-dhcp-server isolinux lftp libapache2-mod-php libc6 libcurl4 liblzma-dev m4 mariadb-client mariadb-server net-tools nfs-kernel-server openssh-server php php-bcmath php-cli php-curl php-fpm php-gd php-intl php-json php-ldap php-mbstring php-mysql tar tftp-hpa tftpd-hpa unzip vsftpd wget zlib1g'
packages='apache2 bc build-essential cpp curl g++ gawk gcc genisoimage git gzip htmldoc isc-dhcp-server isolinux lftp libapache2-mod-php7.4 libc6 libcurl4 li>
noTftpBuild=''
tftpAdvOpts=''
sslpath='/opt/fog/snapins/ssl/'
#backupPath='/home/'
backupPath='/home/'
armsupport='0'
php_ver='7.4'
php_verAdds='-7.4'
sslprivkey='/opt/fog/snapins/ssl//.srvprivate.key'
sendreports='N'
## End of FOG Settings

View File

@ -1,49 +0,0 @@
## Start of FOG Settings
## Created by the FOG Installer
## Find more information about this file in the FOG Project wiki:
## https://wiki.fogproject.org/wiki/index.php?title=.fogsettings
## Version: 1.5.10
## Install time: jeu. 11 janv. 2024
## Install time: jeu. 11 janv. 2024 11:41:05
ipaddress='172.16.64.16'
copybackold='0'
interface='enp0s9'
submask='255.255.255.0'
hostname='s-fog.gsb.lan'
routeraddress='172.16.64.254'
plainrouter='172.16.64.254'
dnsaddress='172.16.0.1'
username='fogproject'
password='/7ElC1OHrP47EN2w59xl'
osid='2'
osname='Debian'
dodhcp='y'
bldhcp='1'
dhcpd='isc-dhcp-server'
blexports='1'
installtype='N'
snmysqluser='fogmaster'
snmysqlpass='HHO5vSGqFiHE_9d2lja3'
snmysqlhost='localhost'
mysqldbname='fog'
installlang='1'
storageLocation='/images'
fogupdateloaded=1
docroot='/var/www/'
webroot='/fog/'
caCreated='yes'
httpproto='https'
startrange='172.16.64.10'
endrange='172.16.64.254'
#bootfilename='undionly.kpxe'
packages='apache2 bc build-essential cpp curl g++ gawk gcc genisoimage gettext git gzip htmldoc isc-dhcp-server isolinux lftp libapache2-mod-php libc6 libcurl4 liblzma-dev m4 mariadb-client mariadb-server net-tools nfs-kernel-server openssh-server php php-bcmath php-cli php-curl php-fpm php-gd php-intl php-json php-ldap php-mbstring php-mysql tar tftpd-hpa tftp-hpa unzip vsftpd wget zlib1g'
noTftpBuild=''
tftpAdvOpts=''
sslpath='/opt/fog/snapins/ssl/'
backupPath='/home/'
armsupport='0'
php_ver='7.4'
#php_verAdds='-7.4'
sslprivkey='/opt/fog/snapins/ssl//.srvprivate.key'
sendreports='Y'
## End of FOG Settings

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@ -1,51 +0,0 @@
## Start of FOG Settings
## Created by the FOG Installer
## Find more information about this file in the FOG Project wiki:
## https://wiki.fogproject.org/wiki/index.php?title=.fogsettings
## Version: 1.5.10
## Install time: Mon Jan 15 23:16:31 2024
ipaddress='192.168.56.10'
copybackold='0'
interface='eth2'
submask='255.255.255.0'
hostname='fog'
routeraddress='192.168.1.1'
plainrouter='192.168.1.1'
dnsaddress='192.168.1.1'
username='fogproject'
password='0lEyBKxcrQxseHLB#Cbg'
osid='2'
osname='Debian'
dodhcp='y'
bldhcp='1'
dhcpd='isc-dhcp-server'
blexports='1'
installtype='N'
snmysqluser='fogmaster'
snmysqlpass='DQG@4PU31F9vOE4bX6V2'
snmysqlhost='localhost'
mysqldbname='fog'
installlang='1'
storageLocation='/images'
fogupdateloaded=1
docroot='/var/www/html/'
webroot='/fog/'
caCreated='yes'
httpproto='https'
startrange='192.168.56.10'
endrange='192.168.56.254'
packages='apache2 bc build-essential cpp curl g++ gawk gcc genisoimage gettext git gzip htmldoc i
sc-dhcp-server isolinux lftp libapache2-mod-php libc6 libcurl4 liblzma-dev m4 mariadb-client mari
adb-server net-tools nfs-kernel-server openssh-server php php-bcmath php-cli php-curl php-fpm php
-gd php-intl php-json php-ldap php-mbstring php-mysql tar tftp-hpa tftpd-hpa unzip vsftpd wget zl
ib1g '
noTftpBuild=''
tftpAdvOpts=''
sslpath='/opt/fog/snapins/ssl/'
backupPath='/home/'
armsupport='0'
php_ver='7.4'
sslprivkey='/opt/fog/snapins/ssl//.srvprivate.key'
sendreports='N'
## End of FOG Settings

View File

@ -1,54 +1,26 @@
---
- name: Installation des paquets de base
apt:
state: present
name:
- apache2
- curl
- git
- gzip
- isc-dhcp-server
- mariadb-client
- mariadb-server
- net-tools
- openssh-server
- php
- php-cli
- php-curl
- php-fpm
- php-gd
- php-intl
- php-json
- php-ldap
- php-mbstring
- php-mysql
- tar
- unzip
- vsftpd
- wget
- name: creation /root/tmp
- name: creation d'un repertoire fog
file:
path: /root/tmp
path: /root/tools/fog
state: directory
- name: recuperation de l'archive d'installation fog sur git
git:
repo: https://gitea.lyc-lecastel.fr/gadmin/fog.git
dest: /root/tools/fog/
clone: yes
update: yes
- name: Modification fichier bash (desac UDPCast)
ansible.builtin.lineinfile:
path: /root/tools/fog/lib/common/functions.sh
regexp: '^configureUDPCast\(\).*'
line: "configureUDPCast() {\nreturn"
backup: yes
- name: fichier config fogsettings
copy:
src: fogsettings
dest: /root/tmp/
command: "cp /root/tools/ansible/roles/fog/files/fogsettings /opt/fog/"
- name: Récupération archive d'installation Fog
get_url:
url: "{{ depl_url }}/{{ depl_fog }}"
dest: "/root/tmp/"
- name: Décompression de l'archive
ansible.builtin.unarchive:
src: "/root/tmp/{{ depl_fog }}"
dest: "/root/tmp/"
- name: Exécution du script d'installation Fog
ansible.builtin.shell: sudo bash /root/tmp/fogproject-1.5.10/bin/installfog.sh --recreate-keys -f /root/tmp/fogsettings -y
args:
chdir: "/root/tmp/fogproject-1.5.10/"
- name: fichier fogsettings en .fogsettings
command: "mv /opt/fog/fogsettings /opt/fog/.fogsettings"

View File

@ -1,76 +1,6 @@
Configuration de ferm
# [Ferm](http://ferm.foo-projects.org/)
Modifier l'execution d'iptables [plus d'info ici#!/bin/bash
set -u
set -e
# Version Site to Site
AddressAwg=10.0.0.1/32 # Adresse VPN Wireguard cote A
EndpointA=192.168.0.51 # Adresse extremite A
PortA=51820 # Port ecoute extremite A
NetworkA=192.168.1.0/24 # reseau cote A
NetworkC=192.168.200.0/24 #reseau cote A
NetworkD=172.16.0.0/24 #reseau cote A
AddressBwg=10.0.0.2/32 # Adresse VPN Wireguard cote B
EndpointB=192.168.0.52 # Adresse extremite B
PortB=51820 # Port ecoute extremite B
NetworkB=172.16.128.0/24 # reseau cote B
umask 077
wg genkey > endpoint-a.key
wg pubkey < endpoint-a.key > endpoint-a.pub
wg genkey > endpoint-b.key
wg pubkey < endpoint-b.key > endpoint-b.pub
PKA=$(cat endpoint-a.key)
pKA=$(cat endpoint-a.pub)
PKB=$(cat endpoint-b.key)
pKB=$(cat endpoint-b.pub)
cat <<FINI > wg0-a.conf
# local settings for Endpoint A
[Interface]
PrivateKey = $PKA
Address = $AddressAwg
ListenPort = $PortA
# IP forwarding
PreUp = sysctl -w net.ipv4.ip_forward=1
# remote settings for Endpoint B
[Peer]
PublicKey = $pKB
Endpoint = ${EndpointB}:$PortB
AllowedIPs = $AddressBwg, $NetworkB
FINI
cat <<FINI > wg0-b.conf
# local settings for Endpoint B
[Interface]
PrivateKey = $PKB
Address = $AddressBwg
ListenPort = $PortB
# IP forwarding
PreUp = sysctl -w net.ipv4.ip_forward=1
# remote settings for Endpoint A
[Peer]
PublicKey = $pKA
Endpoint = ${EndpointA}:$PortA
AllowedIPs = $AddressAwg, $NetworkA, $NetworkC, $NetworkD
FINI
echo "wg0-a.conf et wg0-b.conf sont generes ..."
echo "copier wg0-b.conf sur la machine b et renommer les fichiers de configuration ..."](https://wiki.debian.org/iptables)
Modifier l'execution d'iptables [plus d'info ici](https://wiki.debian.org/iptables)
```shell
update-alternatives --set iptables /usr/sbin/iptables-legacy
```

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@ -4,6 +4,7 @@
@def $DEV_PRIVATE = enp0s8;
@def $DEV_WORLD = enp0s9;
@def $DEV_WORLD = enp0s9;
@def $DEV_VPN= wg0;
@def $NET_PRIVATE = 172.16.0.0/24;
@ -31,7 +32,7 @@ table filter {
# well-known internet hosts
saddr ($NET_PRIVATE) proto tcp dport ssh ACCEPT;
# we provide DNS services for the internal net
# we provide DNS and SMTP services for the internal net
interface $DEV_PRIVATE saddr $NET_PRIVATE {
proto (udp tcp) dport domain ACCEPT;
proto udp dport bootps ACCEPT;

View File

@ -29,7 +29,7 @@ table filter {
# well-known internet hosts
saddr ($NET_PRIVATE) proto tcp dport ssh ACCEPT;
# we provide DNS services for the internal net
# we provide DNS and SMTP services for the internal net
interface $DEV_PRIVATE saddr $NET_PRIVATE {
proto (udp tcp) dport domain ACCEPT;
proto udp dport bootps ACCEPT;

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@ -1,93 +1,44 @@
## Comment fonctionne le rôle
## Comment marche le rôle
Le rôle installe un serveur GLPI fonctionnant graĉe à php et à nginx.
Ce rôle permet aussi de télécharger l'agent GLPI sur glpi.
Le rôle permet de créer la base GLPI.
Ce rôle permet aussi d'installer FusionInventory sur glpi.
Le rôle permet aussi de sauvegarde la BDD de glpi.
## Comment utiliser GLPI
Après le pull-config, depuis une machine du réseau n-user, se rendre sur l'URL : *http://s-itil.gsb.lan*
Puis lancer l'installation, les paramètres sql à fournir sont les suivant :
* serveur : **localhost**
* utilisateur : **glpi**
* mot de passe : **glpi**
* Selectionner la base **glpi**
Après le pull-config, aller sur une machine du réseau n-user et aller sur http://s-itil/install/install.php
Puis lancer l'installation, les paramètres sql à fournir sont :
serveur : localhost
utilisateur : glpi
mot de passe : glpi
Selectionner la base glpi
Ne pas envoyer de statistique d'usage
## Postfix :
Postfix est utilisé pour renvoyer des messages pour assuré le suivi de l'avancement du ticket.
Aller dans **Configuration > Notification**, activer le suivi et les notification
Aller dans Configuration > Notification, activer le suivi et les notification
Aller dans Configuration des notifications par courriels
Mettre l'adresse mail de supervision dans : Courriel de l'administrateur, Courriel expéditeur et comme adresse de réponse
Le mode d'envoie des courriels est SMTP
l'hôte SMTP est localhost
## Inventorier une machine windows sur le serveur GLPI avec l'agent :
Actuellement la version de l'agent glpi disponible directement sur le serveur est la version 1.7 de celui.
* Télécharger l'agent depuis le serveur GLPI : *http://s-itil/glpicli*
* Installer l'agent : sélectionner l'option "Typical" et entrer l'URL du serveur dans "Remote Targets" : *http://s-itil/*
* Se rendre sur localhost:62354 pour forcer la remonter
*Note: si la machine ne remonte aprés avoir forcer l'interface depuis l'interface web il est possible de rédémarrer le service glpi agent.*
* Actualiser GLPI et la machine sera inventoriée
## Enregistrements A et PTR pour S-WIN :
Les enregistrements "A" et "PTR" sont utilisés pour résoudre les noms des machines nécessaire à la synchronisation de l'annuaire LDAP sur le serveur comme serveur DNS GLPI en utilisant le serveur S-WIN sans passé sur le serveur S-INFRA.
Ajouter les enregistrement "A" et "PTR" sur le DNS de l'Active Directory:
Sur le serveur S-WIN:
**Gestionnaire de serveur** --> **Gestionnaire DNS** --> **Zones Recherches Directes** --> **gsb.lan** --> **Ajouter un hôte (A)**:
* s-infra 172.16.0.1
* s-itil 172.16.0.9
* r-int 172.16.0.254
* s-win 172.16.0.6
Cocher la case **Créer un pointeur d'enregistrement PTR associé**
## LDAP :
Aller dans Configuration > Authentification > Annuaires LDAP.
Ajouter un serveur en cliquant sur le +
Remplisser les cases:
* Nom : **s-win**
* Serveur par défaut : **oui**
* Actif : **oui**
* Serveur : **s-win.gsb.lan**
* Filtre de connexion : (&(objectClass=user)(objectCategory=person)(!(userAccountControl:1.2.840.113556.1.4.803:=2)))
* BaseDN : **DC=gsb,DC=lan**
* DN du compte : **GSB\Administrateur**
* Mot de passe : **Azerty1+**
* Champ de l'identifiant : **samaccountname**
Nom : s-win
Serveur par défaut : oui
Actif : oui
Serveur : s-win.gsb.lan
Filtre de connexion : (&(objectClass=user)(objectCategory=person)(!(userAccountControl:1.2.840.113556.1.4.803:=2)))
BaseDN : DC=gsb,DC=lan
DN du compte : GSB\Administrateur
Mot de passe : Azerty1+
Champ de l'identifiant : samaccountname
Pour importer les utilisateurs allez dans **Administration > Utilisateur > Liaison annuaire LDAP > Importation de nouveau utilisateurs**
Pour importer les utilisateurs allez dans Administration > Utilisateur > Liaison annuaire LDAP > Importation de nouveau utilisateurs
Appuyer sur rechercher
Puis sélectionner les utilisateurs afficher, allez dans action et sélectionnez importer.
## Rejoindre le domaine gsb.lan depuis un client windows :
Afin de rejoindre le domaine **gsb.lan**, il est nécessaire d'ajouter en guise de serveur DNS sur la machine cliente le serveur DNS de l'Active Directory **s-win.gsb.lan**.
Il est possible d'ainsi rejoindre le domaine **gsb.lan**.
Nous utiliserons pour se connecter à l'Active Directory l'utilisateur **Administrateur**:
* **Login**: **Administrateur@gsb.lan**
* **Mot de passe**: **Azerty1+**
## Les modification à faire pour un prochaine version de GLPI :
Pour les prochaines versions de GLPI et pouvoir utiliser le playbook, voici les modification à faire :
* Changer la version de GLPI
* Changer la version de PHP
* Changer la version de GLPI Agent
*Modification effectué par : jm - ak*

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@ -1,15 +1,9 @@
---
- name: restart php-fpm
service:
name: php8.2-fpm
state=: restarted
service: name=php8.2-fpm state=restarted
- name: restart nginx
service:
name: nginx
state: restarted
service: name=nginx state=restarted
- name: restart mariadb-server
service:
name: mariadb-server
state: restarted
service: name=mariadb-server state=restarted

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@ -139,7 +139,7 @@
- restart nginx
- name: lancer la commande de création de la base de donnees glpi
ansible.builtin.shell: "php bin/console database:install --reconfigure --db-name {{ glpi_dbname }} --db-user {{ glpi_dbuser }} --db-password {{ glpi_dbpasswd }} -f -n"
ansible.builtin.shell: php bin/console database:install -f -n
args:
chdir: "{{ glpi_dir }}"

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@ -1,16 +0,0 @@
# Rôle Gotify
***
Rôle gotify pour la notification Zabbix et pas que
## Que fait le rôle gotify ?
Le rôle gotify va installer gotify en binaire, il s'agit d'une installation basic sans https.
***
## Identifiant
***
Admin
Admin
***

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@ -1,50 +0,0 @@
---
- name: Mise a jour apt cache
apt:
update_cache: yes
- name: Creation /etc/gotify
ansible.builtin.file:
path: /etc/gotify
state: directory
mode: '0755'
- name: Creation /opt/gotify
ansible.builtin.file:
path: /opt/gotify
state: directory
mode: '0755'
- name: installation de gotify
get_url:
url: "https://github.com/gotify/server/releases/latest/download/gotify-linux-amd64.zip"
dest: "/tmp/gotify.zip"
- name: Extraction de Gotify
ansible.builtin.unarchive:
src: "/tmp/gotify.zip"
dest: "/opt/gotify"
become: yes
- name: Creation du fichier systemd
template:
src: "gotify.service.j2"
dest: "/etc/systemd/system/gotify.service"
become: yes
- name: Reload systemd
systemd:
daemon_reload: yes
- name: Creation du fichier conf gotify
template:
src: "config.yml.j2"
dest: "/etc/gotify/config.yml"
become: yes
- name: Demarage du gotify
systemd:
name: gotify
state: started
enabled: yes

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@ -1,4 +0,0 @@
server:
keepaliveperiodseconds: 0
listenaddr: "" # the address to bind on, leave empty to bind on all addresses
port: 8008

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@ -1,13 +0,0 @@
[Unit]
Description=Gotify Server
After=network.target
[Service]
Type=simple
User=root
ExecStart=/opt/gotify/gotify-linux-amd64
Restart=on-failure
[Install]
WantedBy=multi-user.target

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@ -1,30 +1,16 @@
# Role journald-rcv : installation et configuration du serveur systemd-journal-remote (centralisation des logs)
# Role syslog : installation et configuration de syslog serveur (centralisation des logs)
***
## Fonctionnalitées du rôle:
Ce role a pour objectif d'installer et d'éditer les fichiers de configuration de systemd journal remote afin que les machines lançant ce rôle puissent recevoir les logs des autres machine du parc.
Ce role a pour objectif de activer le module UDP dans le fichier /etc/rsyslog.conf pour accepter les logs entrants des machines concernées :
on décommente la ligne suivante :
'module(load="imudp"\)'
## Opérations réalisées par le role:
Le role réalise les opération suivante:
* installation du paquet **systemd-journal-remote**.
* Démarrage et activation (au démarrage) du service **systemd-journal-remote.socket.
* Création des fichiers de configuration de **systemd-journal-remote** à partir d'une copie du fichier de configuration déja existante.
* Changement du protocole utilisé par journald. Passant du protocole **HTTPS** au protocole **HTTP*** Activation du mode split qui permet d'avoir un fichier de log par machine supervisées.
* Création du répertoire qui accueillera les fichiers de logs.
* Rédémarrage du daemon systemd afin que le système prenne en compte les modifications efféctuées.
Ensuite le role active l'écoute du module UDP sur le port 514 afin de pouvoir envoyer les logs.
on décommente la ligne suivante dans le même fichier que ci-dessus :
'input\(type="imudp" port="514"\)'
## Test du bon fonctionnement du rôle
pour finir le role va charger le module UDP afin que la machine **s-infra** puissent reçevoir les logs entrants.
Pour faire cela on décommente la ligne suivante dans le fichier /etc/systemd/journald.conf :
'ForwardToSyslog=yes'
Afin de tester le rôle nous éffectuons un test:
**Depuis la machine sur laquelle ce rôle est installé:**
* **journalctl -f -D /var/log/journal/remote/
* S'assurer que le port 19532 (port par défault utilisé par le serviceà) soit ouvert et utilisable sur toutes les machines en entrée.
Afin de consulter les fichiers d'événement.
** Depuis une des machines eméttrices de logs:**
* **logger ok**
Si le message émis par la machine éméttrice et consultable depuis la machine receptrice alors le test est réussi.
pour finir le role va redemmarer automatiquement les services journald et rsyslog

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@ -1,21 +0,0 @@
# Rôle Kea
***
Rôle Kea: Configuration de 2 serveurs KEA en mode haute disponbilité.
## Tables des matières
1. [Que fait le rôle Kea ?]
2. [Installation et configuration de ka]
3. [Remarques]
## Que fait le rôle Kea ?
Le rôle KEA permet de configurer 1 serveurs kea (s-kea1 et s-kea2) en mode haute disponibilité.
- Le serveur **s-kea1** sera en mode **primary** il délivrera les baux DHCP sur le réseau n-user.
- Le serveur **s-kea2**, sera en mode **stand-by** le service DHCP basculera donc sur **s-kea2** en cas disponibilité du serveur**s-kea1**.
### Installation et configuration de kea
Le rôle kea installe les packets **kea dhcp4, hooks, admin** une fois les packets installer. Il configure un serveur kea pour qu'il distribue les ips sur le réseau n-user et soit en haute disponibilité.
### Remarquees ###
Une fois le playbook **s-kea** correctement terminé et la machine **s-kea** redemarrée, redémarrée le service **isc-kea-dhcp4.service** afin de prendre en compte les modifications éfféctuées sur la couche réseau par le role POST.

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@ -1,8 +0,0 @@
#variable kea
kea_ver: "2.4.1"
kea_dbname: ""
kaa_dbuser: ""
kea_dbpasswd: ""
kea_dhcp4_dir: "/etc/kea/kea-dhcp4.conf"
kea_ctrl_dir: "/etc/kea/kea-ctrl-agent.conf"

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@ -1,66 +0,0 @@
// This is an example of a configuration for Control-Agent (CA) listening
// for incoming HTTP traffic. This is necessary for handling API commands,
// in particular lease update commands needed for HA setup.
{
"Control-agent":
{
// We need to specify where the agent should listen to incoming HTTP
// queries.
"http-host": "172.16.0.20",
// This specifies the port CA will listen on.
"http-port": 8000,
"control-sockets":
{
// This is how the Agent can communicate with the DHCPv4 server.
"dhcp4":
{
"comment": "socket to DHCPv4 server",
"socket-type": "unix",
"socket-name": "/tmp/kea4-ctrl-socket"
},
// Location of the DHCPv6 command channel socket.
# "dhcp6":
# {
# "socket-type": "unix",
# "socket-name": "/tmp/kea6-ctrl-socket"
# },
// Location of the D2 command channel socket.
# "d2":
# {
# "socket-type": "unix",
# "socket-name": "/tmp/kea-ddns-ctrl-socket",
# "user-context": { "in-use": false }
# }
},
// Similar to other Kea components, CA also uses logging.
"loggers": [
{
"name": "kea-ctrl-agent",
"output_options": [
{
"output": "stdout",
// Several additional parameters are possible in addition
// to the typical output. Flush determines whether logger
// flushes output to a file. Maxsize determines maximum
// filesize before the file is rotated. maxver
// specifies the maximum number of rotated files being
// kept.
"flush": true,
"maxsize": 204800,
"maxver": 4,
// We use pattern to specify custom log message layout
"pattern": "%d{%y.%m.%d %H:%M:%S.%q} %-5p [%c/%i] %m\n"
}
],
"severity": "INFO",
"debuglevel": 0 // debug level only applies when severity is set to DEBUG.
}
]
}
}

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@ -1,226 +0,0 @@
// This is an example configuration of the Kea DHCPv4 server 1:
//
// - uses High Availability hook library and Lease Commands hook library
// to enable High Availability function for the DHCP server. This config
// file is for the primary (the active) server.
// - uses memfile, which stores lease data in a local CSV file
// - it assumes a single /24 addressing over a link that is directly reachable
// (no DHCP relays)
// - there is a handful of IP reservations
//
// It is expected to run with a standby (the passive) server, which has a very similar
// configuration. The only difference is that "this-server-name" must be set to "server2" on the
// other server. Also, the interface configuration depends on the network settings of the
// particular machine.
{
"Dhcp4": {
// Add names of your network interfaces to listen on.
"interfaces-config": {
// The DHCPv4 server listens on this interface. When changing this to
// the actual name of your interface, make sure to also update the
// interface parameter in the subnet definition below.
"interfaces": [ "enp0s9" ]
},
// Control socket is required for communication between the Control
// Agent and the DHCP server. High Availability requires Control Agent
// to be running because lease updates are sent over the RESTful
// API between the HA peers.
"control-socket": {
"socket-type": "unix",
"socket-name": "/tmp/kea4-ctrl-socket"
},
// Use Memfile lease database backend to store leases in a CSV file.
// Depending on how Kea was compiled, it may also support SQL databases
// (MySQL and/or PostgreSQL). Those database backends require more
// parameters, like name, host and possibly user and password.
// There are dedicated examples for each backend. See Section 7.2.2 "Lease
// Storage" for details.
"lease-database": {
// Memfile is the simplest and easiest backend to use. It's an in-memory
// database with data being written to a CSV file. It is very similar to
// what ISC DHCP does.
"type": "memfile"
},
// Let's configure some global parameters. The home network is not very dynamic
// and there's no shortage of addresses, so no need to recycle aggressively.
"valid-lifetime": 43200, // leases will be valid for 12h
"renew-timer": 21600, // clients should renew every 6h
"rebind-timer": 32400, // clients should start looking for other servers after 9h
// Kea will clean up its database of expired leases once per hour. However, it
// will keep the leases in expired state for 2 days. This greatly increases the
// chances for returning devices to get the same address again. To guarantee that,
// use host reservation.
// If both "flush-reclaimed-timer-wait-time" and "hold-reclaimed-time" are
// not 0, when the client sends a release message the lease is expired
// instead of being deleted from lease storage.
"expired-leases-processing": {
"reclaim-timer-wait-time": 3600,
"hold-reclaimed-time": 172800,
"max-reclaim-leases": 0,
"max-reclaim-time": 0
},
// HA requires two hook libraries to be loaded: libdhcp_lease_cmds.so and
// libdhcp_ha.so. The former handles incoming lease updates from the HA peers.
// The latter implements high availability feature for Kea. Note the library name
// should be the same, but the path is OS specific.
"hooks-libraries": [
// The lease_cmds library must be loaded because HA makes use of it to
// deliver lease updates to the server as well as synchronize the
// lease database after failure.
{
"library": "/usr/local/lib/kea/hooks/libdhcp_lease_cmds.so"
},
{
// The HA hook library should be loaded.
"library": "/usr/local/lib/kea/hooks/libdhcp_ha.so",
"parameters": {
// Each server should have the same HA configuration, except for the
// "this-server-name" parameter.
"high-availability": [ {
// This parameter points to this server instance. The respective
// HA peers must have this parameter set to their own names.
"this-server-name": "s-kea1.gsb.lan",
// The HA mode is set to hot-standby. In this mode, the active server handles
// all the traffic. The standby takes over if the primary becomes unavailable.
"mode": "hot-standby",
// Heartbeat is to be sent every 10 seconds if no other control
// commands are transmitted.
"heartbeat-delay": 10000,
// Maximum time for partner's response to a heartbeat, after which
// failure detection is started. This is specified in milliseconds.
// If we don't hear from the partner in 60 seconds, it's time to
// start worrying.
"max-response-delay": 30000,
// The following parameters control how the server detects the
// partner's failure. The ACK delay sets the threshold for the
// 'secs' field of the received discovers. This is specified in
// milliseconds.
"max-ack-delay": 5000,
// This specifies the number of clients which send messages to
// the partner but appear to not receive any response.
"max-unacked-clients": 0,
// This specifies the maximum timeout (in milliseconds) for the server
// to complete sync. If you have a large deployment (high tens or
// hundreds of thousands of clients), you may need to increase it
// further. The default value is 60000ms (60 seconds).
"sync-timeout": 60000,
"peers": [
// This is the configuration of this server instance.
{
"name": "s-kea1.gsb.lan",
// This specifies the URL of this server instance. The
// Control Agent must run along with this DHCPv4 server
// instance and the "http-host" and "http-port" must be
// set to the corresponding values.
"url": "http://172.16.64.20:8000/",
// This server is primary. The other one must be
// secondary.
"role": "primary"
},
// This is the configuration of the secondary server.
{
"name": "s-kea2.gsb.lan",
// Specifies the URL on which the partner's control
// channel can be reached. The Control Agent is required
// to run on the partner's machine with "http-host" and
// "http-port" values set to the corresponding values.
"url": "http://172.16.64.21:8000/",
// The other server is secondary. This one must be
// primary.
"role": "standby"
}
]
} ]
}
}
],
// This example contains a single subnet declaration.
"subnet4": [
{
// Subnet prefix.
"subnet": "172.16.64.0/24",
// There are no relays in this network, so we need to tell Kea that this subnet
// is reachable directly via the specified interface.
"interface": "enp0s9",
// Specify a dynamic address pool.
"pools": [
{
"pool": "172.16.64.100-172.16.64.150"
}
],
// These are options that are subnet specific. In most cases, you need to define at
// least routers option, as without this option your clients will not be able to reach
// their default gateway and will not have Internet connectivity. If you have many
// subnets and they share the same options (e.g. DNS servers typically is the same
// everywhere), you may define options at the global scope, so you don't repeat them
// for every network.
"option-data": [
{
// For each IPv4 subnet you typically need to specify at least one router.
"name": "routers",
"data": "172.16.64.254"
},
{
// Using cloudflare or Quad9 is a reasonable option. Change this
// to your own DNS servers is you have them. Another popular
// choice is 8.8.8.8, owned by Google. Using third party DNS
// service raises some privacy concerns.
"name": "domain-name-servers",
"data": "172.16.0.1"
}
],
// Some devices should get a static address. Since the .100 - .199 range is dynamic,
// let's use the lower address space for this. There are many ways how reservation
// can be defined, but using MAC address (hw-address) is by far the most popular one.
// You can use client-id, duid and even custom defined flex-id that may use whatever
// parts of the packet you want to use as identifiers. Also, there are many more things
// you can specify in addition to just an IP address: extra options, next-server, hostname,
// assign device to client classes etc. See the Kea ARM, Section 8.3 for details.
// The reservations are subnet specific.
#"reservations": [
# {
# "hw-address": "1a:1b:1c:1d:1e:1f",
# "ip-address": "192.168.1.10"
# },
# {
# "client-id": "01:11:22:33:44:55:66",
# "ip-address": "192.168.1.11"
# }
#]
}
],
// fichier de logs
"loggers": [
{
// This section affects kea-dhcp4, which is the base logger for DHCPv4 component. It tells
// DHCPv4 server to write all log messages (on severity INFO or higher) to a file. The file
// will be rotated once it grows to 2MB and up to 4 files will be kept. The debuglevel
// (range 0 to 99) is used only when logging on DEBUG level.
"name": "kea-dhcp4",
"output_options": [
{
"output": "stdout",
"maxsize": 2048000,
"maxver": 4
}
],
"severity": "INFO",
"debuglevel": 0
}
]
}
}

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@ -1,12 +0,0 @@
---
- name: Restart isc-kea-dhcp4-server
ansible.builtin.service:
name: isc-kea-dhcp4-server.service
state: restarted
enabled: yes
- name: Restart isc-kea-ctrl-agent
ansible.builtin.service:
name: isc-kea-ctrl-agent.service
state: restarted
enabled: yes

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@ -1,43 +0,0 @@
---
- name: Preparation
ansible.builtin.shell: curl -1sLf 'https://dl.cloudsmith.io/public/isc/kea-2-4/setup.deb.sh' | sudo -E bash
- name: Update apt
ansible.builtin.apt:
update_cache: yes
#- name: Installation paquet isc-kea-common
# ansible.builtin.apt:
# deb: isc-kea-common
# state: present
- name: Installation isc-kea-dhcp4
ansible.builtin.apt:
name: isc-kea-dhcp4-server
state: present
- name: Installation isc-kea-ctrl-agent
ansible.builtin.apt:
name: isc-kea-ctrl-agent
state: present
- name: Installation isc-kea-hooks
ansible.builtin.apt:
name: isc-kea-hooks
state: present
- name: Generation ---- du fichier de configuration kea-ctrl-agent
ansible.builtin.template:
src: kea-ctrl-agent.conf.j2
dest: /etc/kea/kea-ctrl-agent.conf
notify:
- Restart isc-kea-ctrl-agent
- name: Generation du fichier de configuration kea-dhcp4.conf
ansible.builtin.template:
src: kea-dhcp4.conf.j2
dest: /etc/kea/kea-dhcp4.conf
notify:
- Restart isc-kea-dhcp4-server

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@ -1,32 +0,0 @@
{
"Control-agent":
{
"http-host": "{{ kea_ctrl_address_this }}",
"http-port": 8000,
"control-sockets":
{
"dhcp4":
{
"socket-type": "unix",
"socket-name": "/tmp/kea4-ctrl-socket"
},
},
"loggers": [
{
"name": "kea-ctrl-agent",
"output_options": [
{
"output": "stdout",
"flush": true,
"maxsize": 204800,
"maxver": 4,
{% raw %} "pattern": "%d{%y.%m.%d %H:%M:%S.%q} %-5p [%c/%i] %m\n", {% endraw %}
}
],
"severity": "INFO",
"debuglevel": 0
}
]
}
}

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@ -1,241 +0,0 @@
// This is an example configuration of the Kea DHCPv4 server 1:
//
// - uses High Availability hook library and Lease Commands hook library
// to enable High Availability function for the DHCP server. This config
// file is for the primary (the active) server.
// - uses memfile, which stores lease data in a local CSV file
// - it assumes a single /24 addressing over a link that is directly reachable
// (no DHCP relays)
// - there is a handful of IP reservations
//
// It is expected to run with a standby (the passive) server, which has a very similar
// configuration. The only difference is that "this-server-name" must be set to "server2" on the
// other server. Also, the interface configuration depends on the network settings of the
// particular machine.
{
"Dhcp4": {
// Add names of your network interfaces to listen on.
"interfaces-config": {
// The DHCPv4 server listens on this interface. When changing this to
// the actual name of your interface, make sure to also update the
// interface parameter in the subnet definition below.
"interfaces": ["{{ kea_dhcp_int }}"]
},
// Control socket is required for communication between the Control
// Agent and the DHCP server. High Availability requires Control Agent
// to be running because lease updates are sent over the RESTful
// API between the HA peers.
"control-socket": {
"socket-type": "unix",
"socket-name": "/tmp/kea4-ctrl-socket"
},
// Use Memfile lease database backend to store leases in a CSV file.
// Depending on how Kea was compiled, it may also support SQL databases
// (MySQL and/or PostgreSQL). Those database backends require more
// parameters, like name, host and possibly user and password.
// There are dedicated examples for each backend. See Section 7.2.2 "Lease
// Storage" for details.
"lease-database": {
// Memfile is the simplest and easiest backend to use. It's an in-memory
// database with data being written to a CSV file. It is very similar to
// what ISC DHCP does.
"type": "memfile"
},
// Let's configure some global parameters. The home network is not very dynamic
// and there's no shortage of addresses, so no need to recycle aggressively.
"valid-lifetime": 43200, // leases will be valid for 12h
"renew-timer": 21600, // clients should renew every 6h
"rebind-timer": 32400, // clients should start looking for other servers after 9h
// Kea will clean up its database of expired leases once per hour. However, it
// will keep the leases in expired state for 2 days. This greatly increases the
// chances for returning devices to get the same address again. To guarantee that,
// use host reservation.
// If both "flush-reclaimed-timer-wait-time" and "hold-reclaimed-time" are
// not 0, when the client sends a release message the lease is expired
// instead of being deleted from lease storage.
"expired-leases-processing": {
"reclaim-timer-wait-time": 3600,
"hold-reclaimed-time": 172800,
"max-reclaim-leases": 0,
"max-reclaim-time": 0
},
// HA requires two hook libraries to be loaded: libdhcp_lease_cmds.so and
// libdhcp_ha.so. The former handles incoming lease updates from the HA peers.
// The latter implements high availability feature for Kea. Note the library name
// should be the same, but the path is OS specific.
"hooks-libraries": [
// The lease_cmds library must be loaded because HA makes use of it to
// deliver lease updates to the server as well as synchronize the
// lease database after failure.
{
"library": "/usr/lib/x86_64-linux-gnu/kea/hooks/libdhcp_lease_cmds.so"
},
{
"library": "/usr/lib/x86_64-linux-gnu/kea/hooks/libdhcp_stat_cmds.so"
},
{
// The HA hook library should be loaded.
"library": "/usr/lib/x86_64-linux-gnu/kea/hooks/libdhcp_ha.so",
"parameters": {
// Each server should have the same HA configuration, except for the
// "this-server-name" parameter.
"high-availability": [ {
// This parameter points to this server instance. The respective
// HA peers must have this parameter set to their own names.
"this-server-name": "{{ kea_this_server }}",
// The HA mode is set to hot-standby. In this mode, the active server handles
// all the traffic. The standby takes over if the primary becomes unavailable.
"mode": "hot-standby",
// Heartbeat is to be sent every 10 seconds if no other control
// commands are transmitted.
"heartbeat-delay": 10000,
// Maximum time for partner's response to a heartbeat, after which
// failure detection is started. This is specified in milliseconds.
// If we don't hear from the partner in 60 seconds, it's time to
// start worrying.
"max-response-delay": 30000,
// The following parameters control how the server detects the
// partner's failure. The ACK delay sets the threshold for the
// 'secs' field of the received discovers. This is specified in
// milliseconds.
"max-ack-delay": 5000,
// This specifies the number of clients which send messages to
// the partner but appear to not receive any response.
"max-unacked-clients": 0,
// This specifies the maximum timeout (in milliseconds) for the server
// to complete sync. If you have a large deployment (high tens or
// hundreds of thousands of clients), you may need to increase it
// further. The default value is 60000ms (60 seconds).
"sync-timeout": 60000,
"peers": [
// This is the configuration of this server instance.
{
"name": "{{ kea_srv1 }}",
// This specifies the URL of this server instance. The
// Control Agent must run along with this DHCPv4 server
// instance and the "http-host" and "http-port" must be
// set to the corresponding values.
"url": "http://{{ kea_ctrl_address1 }}:8000/",
// This server is primary. The other one must be
// secondary.
"role": "primary"
},
// This is the configuration of the secondary server.
{
"name": "{{ kea_srv2 }}",
// Specifies the URL on which the partner's control
// channel can be reached. The Control Agent is required
// to run on the partner's machine with "http-host" and
// "http-port" values set to the corresponding values.
"url": "http://{{ kea_ctrl_address2 }}:8000/",
// The other server is secondary. This one must be
// primary.
"role": "standby"
}
]
} ]
}
}
],
// This example contains a single subnet declaration.
"subnet4": [
{
// Subnet prefix.
"subnet": "172.16.64.0/24",
// There are no relays in this network, so we need to tell Kea that this subnet
// is reachable directly via the specified interface.
"interface": "enp0s9",
// Specify a dynamic address pool.
"pools": [
{
"pool": "172.16.64.100-172.16.64.150"
}
],
// These are options that are subnet specific. In most cases, you need to define at
// least routers option, as without this option your clients will not be able to reach
// their default gateway and will not have Internet connectivity. If you have many
// subnets and they share the same options (e.g. DNS servers typically is the same
// everywhere), you may define options at the global scope, so you don't repeat them
// for every network.
"option-data": [
{
// For each IPv4 subnet you typically need to specify at least one router.
"name": "routers",
"data": "172.16.64.254"
},
{
// Using cloudflare or Quad9 is a reasonable option. Change this
// to your own DNS servers is you have them. Another popular
// choice is 8.8.8.8, owned by Google. Using third party DNS
// service raises some privacy concerns.
"name": "domain-name-servers",
"data": "172.16.0.1, 172.16.0.4"
},
{
"name": "domain-name",
"data": "gsb.lan"
},
{
"name": "domain-search",
"data": "gsb.lan"
},
],
// Some devices should get a static address. Since the .100 - .199 range is dynamic,
// let's use the lower address space for this. There are many ways how reservation
// can be defined, but using MAC address (hw-address) is by far the most popular one.
// You can use client-id, duid and even custom defined flex-id that may use whatever
// parts of the packet you want to use as identifiers. Also, there are many more things
// you can specify in addition to just an IP address: extra options, next-server, hostname,
// assign device to client classes etc. See the Kea ARM, Section 8.3 for details.
// The reservations are subnet specific.
#"reservations": [
# {
# "hw-address": "1a:1b:1c:1d:1e:1f",
# "ip-address": "192.168.1.10"
# },
# {
# "client-id": "01:11:22:33:44:55:66",
# "ip-address": "192.168.1.11"
# }
#]
}
],
// fichier de logs
"loggers": [
{
// This section affects kea-dhcp4, which is the base logger for DHCPv4 component. It tells
// DHCPv4 server to write all log messages (on severity INFO or higher) to a file. The file
// will be rotated once it grows to 2MB and up to 4 files will be kept. The debuglevel
// (range 0 to 99) is used only when logging on DEBUG level.
"name": "kea-dhcp4",
"output_options": [
{
"output": "stdout",
"maxsize": 2048000,
"maxver": 4
}
],
"severity": "INFO",
"debuglevel": 0
}
]
}
}

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@ -1,10 +0,0 @@
# Role lb-bd
***
Rôle lb-bd pour la mise en place de la base de données du serveur WordPress.
## Tables des matières
1. Que fait le rôle lb-bd ?
## Que fait le rôle lb-bd ?
Ce rôle installe le paquet `mariadb-server` puis créé et configure la base de données nommée **wordpressdb** en ouvrant le port 3306 et en créant l'utilisateur MySQL nommé **wordpressuser** avec le mot de passe **wordpresspasswd**.

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@ -1,22 +0,0 @@
# Rôle lb-front
***
Rôle lb-front pour la répartition de charge des serveurs web sur WordPress avec HAProxy
## Tables des matières
1. Que fait le rôle lb-front ?
2. Ordre d'installation des serveurs.
## Que fait le rôle lb-front ?
Le rôle lb-front va installer `haproxy` pour le load balancing/la répartition de charge et va configurer le fichier `/etc/haproxy/haproxy.cfg`.
le fichier va faire du Round-Robin, un algoritme qui va équilibrer le nombre de requêtes entre s-lb-web1 et s-lb-web2.
le site web est accessibe à l'adresse <http://s-lb.gsb.adm>.
## Ordre d'installation des serveurs.
1. Le serveur s-lb avec haproxy qui va "initialiser" les sous-réseaux dans la DMZ.
2. Le serveur s-lb-bd qui va contenir la base de données WordPress utilisée par les serveurs web.
3. Le serveur s-nas qui va stocker la configuration WordPress et la partager aux serveurs web en NFS. Il va aussi utiliser la base de données sur stockée s-lb-bd.
4. Les serveurs s-web1 et s-web2 qui vont installer Apache2, PHP et afficher le serveur WordPress.

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@ -1,55 +0,0 @@
global
log /dev/log local0
log /dev/log local1 notice
chroot /var/lib/haproxy
stats socket /run/haproxy/admin.sock mode 660 level admin
stats timeout 30s
user haproxy
group haproxy
daemon
# Default SSL material locations
ca-base /etc/ssl/certs
crt-base /etc/ssl/private
# Default ciphers to use on SSL-enabled listening sockets.
# For more information, see ciphers(1SSL). This list is from:
# https://hynek.me/articles/hardening-your-web-servers-ssl-ciphers/
ssl-default-bind-ciphers ECDH+AESGCM:DH+AESGCM:ECDH+AES256:DH+AES256:ECDH+AES128:DH+AES:ECDH+3DES:DH+3DES:RSA+AESGCM:RSA+AES:RSA+3DES:!aNULL:!MD5:!DSS
ssl-default-bind-options no-sslv3
defaults
log global
mode http
option httplog
option dontlognull
timeout connect 5000
timeout client 50000
timeout server 50000
errorfile 400 /etc/haproxy/errors/400.http
errorfile 403 /etc/haproxy/errors/403.http
errorfile 408 /etc/haproxy/errors/408.http
errorfile 500 /etc/haproxy/errors/500.http
errorfile 502 /etc/haproxy/errors/502.http
errorfile 503 /etc/haproxy/errors/503.http
errorfile 504 /etc/haproxy/errors/504.http
frontend proxypublic
bind 192.168.100.10:80
default_backend fermeweb
backend fermeweb
balance roundrobin
option httpclose
option httpchk HEAD / HTTP/1.0
server s-lb-web1 192.168.101.1:80 check
server s-lb-web2 192.168.101.2:80 check
listen stats
bind *:8080
stats enable
stats uri /haproxy
stats auth admin:admin

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@ -1,3 +0,0 @@
---
- name: restart haproxy
service: name=haproxy state=restarted

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@ -1,75 +0,0 @@
- name: install haproxy
apt:
name: haproxy
state: present
- name: Creer le repertoire du certificat
file:
path: /etc/haproxy/crt
state: directory
mode: '0755'
- name: Creer le repertoire de la cle privee
file:
path: /etc/haproxy/crt/private
state: directory
mode: '0755'
- name: Generer une clee privee avec les valeurs par defaut (4096 bits, RSA)
openssl_privatekey:
path: /etc/haproxy/crt/private/haproxy.pem.key
size: 4096
type: RSA
state: present
- name: creer un certificat auto-signé
openssl_certificate:
path: /etc/haproxy/crt/private/haproxy.pem
privatekey_path: /etc/haproxy/crt/private/haproxy.pem.key
provider: selfsigned
state: present
- name: s'assurer que le certificat a les bonnes permissions
file:
path: /etc/haproxy/crt/private/haproxy.pem
owner: root
group: haproxy
mode: '0640'
- name: parametre global
blockinfile:
path: /etc/haproxy/haproxy.cfg
block: |
global
log /dev/log local0
log /dev/log local1 notice
chroot /var/lib/haproxy
stats socket /run/haproxy/admin.sock mode 660 level admin
stats timeout 30s
user haproxy
group haproxy
daemon
ssl-server-verify none
- name: parametre backend et fontend
blockinfile:
path: /etc/haproxy/haproxy.cfg
block: |
frontend proxypublic
bind 192.168.100.10:80
bind 192.168.100.10:443 ssl crt /etc/haproxy/crt/private/haproxy.pem
http-request redirect scheme https unless { ssl_fc }
default_backend fermeweb
backend fermeweb
balance roundrobin
option httpclose
option httpchk HEAD / HTTP/1.0
server s-lb-web1 192.168.101.1:80 check
server s-lb-web2 192.168.101.2:80 check
- name: redemarre haproxy
service:
name: haproxy
# state: restarted
enabled: yes

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@ -1,22 +0,0 @@
# Rôle lb-front
***
Rôle lb-front pour la répartition de charge des serveurs web sur WordPress avec HAProxy
## Tables des matières
1. Que fait le rôle lb-front ?
2. Ordre d'installation des serveurs.
## Que fait le rôle lb-front ?
Le rôle lb-front va installer `haproxy` pour le load balancing/la répartition de charge et va configurer le fichier `/etc/haproxy/haproxy.cfg`.
le fichier va faire du Round-Robin, un algoritme qui va équilibrer le nombre de requêtes entre s-lb-web1 et s-lb-web2.
le site web est accessibe à l'adresse <http://s-lb.gsb.adm>.
## Ordre d'installation des serveurs.
1. Le serveur s-lb avec haproxy qui va "initialiser" les sous-réseaux dans la DMZ.
2. Le serveur s-lb-bd qui va contenir la base de données WordPress utilisée par les serveurs web.
3. Le serveur s-nas qui va stocker la configuration WordPress et la partager aux serveurs web en NFS. Il va aussi utiliser la base de données sur stockée s-lb-bd.
4. Les serveurs s-web1 et s-web2 qui vont installer Apache2, PHP et afficher le serveur WordPress.

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@ -0,0 +1,23 @@
port:
tcp:80:
listening: true
ip:
- 192.168.100.11
service:
haproxy:
enabled: true
running: true
sshd:
enabled: true
running: true
interface:
enp0s8:
exists: true
addrs:
- 192.168.100.11/24
mtu: 1500
enp0s9:
exists: true
addrs:
- 192.168.101.254/24
mtu: 1500

View File

@ -41,7 +41,7 @@ frontend proxypublic
backend fermeweb
balance roundrobin
option httpclose
option httpchk HEAD / HTTP/1.0
#option httpchk HEAD / HTTP/1.0
server s-lb-web1 192.168.101.1:80 check
server s-lb-web2 192.168.101.2:80 check

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@ -14,7 +14,7 @@
backend fermeweb
balance roundrobin
option httpclose
option httpchk HEAD / HTTP/1.0
#option httpchk HEAD / HTTP/1.0
server s-lb-web1 192.168.101.1:80 check
server s-lb-web2 192.168.101.2:80 check

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@ -1,10 +1,3 @@
# Rôle lb-nfs-client
***
Rôle lb-nfs-client pour l'accès au serveur NFS sur les serveurs lb-web1 et lb-web2.
##Partage NFS
## Tables des matières
1. Que fait le rôle lb-nfs-client ?
## Que fait le rôle lb-nfs-client ?
Ce rôle sert à installer le paquet `nfs-common` et à monter le répertoire /home/wordpress du s-nas dans /var/www/html/wordpress sur les serveurs webs.
Ce rôle sert à installer nfs et à monter le répertoire /home/wordpress du s-nas dans /var/www/html/wordpress sur les serveurs webs.

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@ -1,17 +1,10 @@
# Role lb-nfs-server
***
Rôle lb-nfs-server pour la mise en place du partage des fichiers de configuration de WordPress.
# Role s-nas-server
## Installation de nfs-server et mise en oeuvre du partage /home/wordpress
## Tables des matières
1. Que fait le rôle lb-nfs-server ?
## Que fait le rôle lb-nfs-server ?
Ce rôle :
* installe le paquet `nfs-server`
* installe **nfs-server**
* copie le fichier de configuration **exports** pour exporter le répertoire **/home/wordpress**
* décompresse WordPress dans **/home/wordpress**
* relance le service `nfs-server`
* Configure l'accès de WordPress à la base de données dans le fichier `wp-config.php`
Le répertoire **/home/wordpress** est exporté par NFS dans le sous-réseau **n-dmz-db**
* relance le service **nfs-server**
* décompresse wordpress
### Objectif
Le répertoire **/home/wordpress** est exporté par **nfs** sur le réseau **n-dmz-db**

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@ -16,7 +16,7 @@
- name: 20 - decompresse wordpress
unarchive:
src: http://s-adm.gsb.adm/gsbstore/wordpress-6.4.2-fr_FR.tar.gz
src: https://fr.wordpress.org/latest-fr_FR.tar.gz
dest: /home/
remote_src: yes

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@ -1,12 +1,3 @@
# Rôle lb-web
***
Rôle lb-web pour l'affichage et l'utilisation du site web.
##Téléchargement et configuration de WordPress
## Tables des matières
1. Que fait le rôle lb-web ?
## Que fait le rôle lb-web ?
Ce rôle télécharge les paquets nécessaires au fonctionnement du site web (`apache2`, `php` et `mariadb-client`) qui permetront aux serveurs web d'accerder a la base de données de WordPress.
Le site web est accessibe à l'adresse http://s-lb.gsb.adm.
Ce rôle télécharge wordpress depuis s-adm puis configure le fichier wp-config.php pour la situation du gsb.

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@ -1,2 +1,2 @@
depl_url: "http://s-adm.gsb.adm/gsbstore/"
depl_wordpress: "wordpress-6.4.2-fr_FR.tar.gz"
depl_wordpress: "wordpress-6.1.1-fr_FR.tar.gz"

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@ -1,16 +1,8 @@
# Installation de Nextcloud et du proxy inverse Traefik
## Explication de l'installation de Nextcloud
Afin de pouvoir faire fonctionner Nextcloud et Traefik, il faut mettre en place docker. Dans un premier plan, il vas donc falloir lancer le script **getall** sur **s-adm**. Ensuite dans un second temps, il faudra etre dans le fichier **/nxc** sur **s-nxc** et lancer **docker-compose.yaml**. Pour finir, il faudra ajouter l'authentification LDAP au nextcloud grace a l'AD de **s-win**.
Nextcloud et Traefik fonctionnent grâce à docker. Pour pouvoir faire fonctionner ce playbook, docker doit être installé.
# <p align="center">Procédure d'installation</p>
***
## 1. Installation docker
Voir: https://gitea.lyc-lecastel.fr/gsb/gsb2024/src/branch/main/roles/docker
## 2. Fonctionnement du playbook s-nxc
## 1.
Le playbook crée le dossier **nxc** à la racine de root.
@ -18,11 +10,11 @@ Les fichiers "nextcloud.yml" et "traefik.yml" y seront copiés depuis le répert
Enfin, dans le répertoire nxc, sont créés les répertoires **certs** et **config**.
### 2.1 Copie des fichiers
## 2. Copie des fichiers
Le playbook copie les fichiers placés dans "files" et les places dans les bons répertoires.
Le playbook copie les fichiers placés dans "files" et les placer dans les bons répertoires.
### 2.2 Génération du certificat
## 3. Génération du certificat
Le playbook crée un certificat **x509** grâce à **mkcert**, il s'agit d'une solution permettant de créer des certificats auto-signés. Pour cela, il télécharge **mkcert** sur **s-adm** (utiliser le script **getall**).
@ -33,7 +25,7 @@ Pour créer le certificat, le playbook exécute les commandes (lancé depuis nxc
/usr/local/bin/mkcert -install # Installe mkcert
/usr/local/bin/mkcert -key-file key.pem -cert-file cert.pem "hôte.domaine.local" "*.domaine.local" #Crée le certificat le DNS spécifié
```
## 3. Lancement
## 4. Lancement
Le playbook lance les fichiers "docker-compose" à savoir : nextcloud.yml et traefik.yml qui démarrent les deux piles **docker**.
@ -45,28 +37,22 @@ ATTENTION : Après avoir relancé la VM, executez le script "nxc-start.sh" afin
Une fois le script terminé, le site est disponible ici : https://s-nxc.gsb.lan
## 4. Ajout authentification LDAP
## 5. Ajout authentification LDAP
Pour ajouter l'authentification LDAP au Nextcloud, depuis **n-user** il faut :
* Une fois l'installation de Nextcloud terminé, cliquez sur le profil et "Application"
Pour ajouter l'authentification LDAP au Nextcloud, il faut :
* Une fois l'installation de Nextcloud terminé, cliquez sur le profil et Application
* Dans vos applications, descendre et activer "LDAP user and group backend"
* Puis cliquer sur le profil, puis "Paramètres d'administration" et dans "Administration" cliquer sur "Intégration LDAP/AD"
* Puis cliquer sur le profil, puis Paramètres d'administration et dans Administration cliquer sur Intégration LDAP/AD
* Une fois sur la page d'intégration LDAP/AD :
* Dans Hôte mettre :
> **ldap://s-win.gsb.lan**
* Cliquer sur "Détecter le port" (normalement le port 389 apparait)
> ldap://s-win.gsb.lan
* Cliquer sur Détecter le port (normalement le port 389 apparait)
* Dans DN Utilisateur mettre :
> **CN=nextcloud,CN=Users,DC=gsb,DC=lan**
> CN=nextcloud,CN=Users,DC=GSB,DC=LAN
* Mot de passe :
> **Azerty1+**
* Et dans "Un DN de base par ligne" :
> **DC=gsb,DC=lan**
* Cliquer sur "Détecter le DN de base" (normalement il apparaitra automatiquement)
* Après la configuration réaliser, cliquer sur "Continuer", puis cliquer 3 fois sur continuer
* Une fois arrivé sur "Groupes", vous pouvez vous déconnecter du compte Admin et vous connecter avec un compte qui est dans l'AD.
## Contributeurs
- LG
- CH
> Azerty1+
* Et dans Un DN de base par ligne :
> DC=GSB,DC=LAN
* Après la configuration passe OK
* Une fois la configuration finie, cliquer 3 fois sur continuer
* Une fois arrivé sur Groupes, vous pouvez vous déconnecter du compte Admin et vous connecter avec un compte qui est dans l'AD.

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@ -53,8 +53,8 @@ services:
image: nextcloud
container_name: app
restart: always
#ports:
#- 8081:80
ports:
- 8081:80
#links:
depends_on:
- db

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@ -1,19 +0,0 @@
Ce script Bash a pour objectif d'automatiser le processus de sauvegarde du serveur NextCloud, qui est exécuté dans un environnement Docker.
## 1. Activation du mode maintenance :
- La première commande Docker est utilisée pour mettre le serveur NextCloud en mode maintenance. Cette mesure préventive garantit qu'aucune modification n'est apportée pendant la sauvegarde, assurant ainsi la cohérence des données.
## 2. Copie des fichiers de sauvegarde :
- La commande `cd /root/nxc` change le répertoire de travail vers `/root/nxc`.
- Ensuite, la commande `rsync -Aavx nextcloud/ nextcloud-dirbkp/` effectue une copie récursive des fichiers du dossier `nextcloud/` vers `nextcloud-dirbkp/`. Ceci crée une copie locale des fichiers de NextCloud à des fins de sauvegarde.
## 3. Sauvegarde de la base de données MySQL/MariaDB :
- La ligne suivante utilise `docker compose exec` pour exécuter la commande `mysqldump` dans le conteneur de la base de données. Cela génère une sauvegarde de la base de données NextCloud qui est enregistrée dans le fichier `nextcloud-sqlbkp.bak`.
## 4. Désactivation du mode maintenance :
- Après la sauvegarde, une autre commande Docker est utilisée pour désactiver le mode maintenance de NextCloud, permettant ainsi la reprise normale des opérations.
## 5. Création d'une archive compressée :
- Enfin, la dernière ligne crée une archive compressée `nxc.tgz` qui regroupe la sauvegarde de la base de données (`nextcloud-sqlbkp.bak`) et la copie locale des fichiers NextCloud (`nextcloud-dirbkp/`).
Ce script simplifie et automatise le processus de sauvegarde de NextCloud en mettant en place la mise en mode maintenance, la copie des fichiers locaux, la sauvegarde de la base de données, la désactivation du mode maintenance, et la création d'une archive compressée consolidant l'ensemble des éléments de sauvegarde.

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@ -1,22 +0,0 @@
#!/bin/bash
# Mettre le serveur NextCloud en mode maintenance
docker compose exec -u www-data app php occ maintenance:mode --on
# Extraire les dossiers de sauvegarde
cd /root/nxc
# Copie locale de la sauvegarde
rsync -Aavx nextcloud/ nextcloud-dirbkp/
# Base de données MySQL/MariaDB
docker compose exec db mysqldump -u nextcloud -pAzerty1+ nextcloud > nextcloud-sqlbkp.bak
# Sortir du mode maintenance
docker compose exec -u www-data app php occ maintenance:mode --off
# création d'une archive
tar cvfz nxc.tgz nextcloud-sqlbkp.bak nextcloud-dirbkp

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@ -69,14 +69,8 @@
args:
chdir: /root/nxc
- name: vérification si le réseau proxy existe
command: docker network ls --filter name=proxy
register: net_proxy
- name: création du réseau proxy
- name: Creation reseau docker proxy
command: docker network create proxy
# when: net_proxy.stdout.find('proxy') == -1
when: "'proxy' not in net_proxy.stdout"
#- name: Démarrage du docker-compose...
#command: /bin/bash docker-compose up -d

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@ -1,14 +0,0 @@
# Rôle Kea
***
Rôle du Kea pour la haute disponibilité dhcp
## Tables des matières
1. [Que fait le rôle Kea ?]
## Que fait le rôle Kea ?
Il permet de configurer les serveur kea en mode haute disponibilité.
### Installation et configuration de kea
Le rôle kea va installer les packets kea dhcp4, hook, admin une fois les packets installer. Nous allons configurer les 2 serveurs kea pour qu'il distribut les ip de n-user et soit en haute disponibilité.

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@ -1,8 +0,0 @@
#variable kea
kea_ver: "2.4.1"
kea_dbname: ""
kaa_dbuser: ""
kea_dbpasswd: ""
kea_dhcp4_dir: "/etc/kea/kea-dhcp4.conf"
kea_ctrl_dir: "/etc/kea/kea-ctrl-agent.conf"

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@ -1,66 +0,0 @@
// This is an example of a configuration for Control-Agent (CA) listening
// for incoming HTTP traffic. This is necessary for handling API commands,
// in particular lease update commands needed for HA setup.
{
"Control-agent":
{
// We need to specify where the agent should listen to incoming HTTP
// queries.
"http-host": "172.16.64.20",
// This specifies the port CA will listen on.
"http-port": 8000,
"control-sockets":
{
// This is how the Agent can communicate with the DHCPv4 server.
"dhcp4":
{
"comment": "socket to DHCPv4 server",
"socket-type": "unix",
"socket-name": "/tmp/kea4-ctrl-socket"
},
// Location of the DHCPv6 command channel socket.
# "dhcp6":
# {
# "socket-type": "unix",
# "socket-name": "/tmp/kea6-ctrl-socket"
# },
// Location of the D2 command channel socket.
# "d2":
# {
# "socket-type": "unix",
# "socket-name": "/tmp/kea-ddns-ctrl-socket",
# "user-context": { "in-use": false }
# }
},
// Similar to other Kea components, CA also uses logging.
"loggers": [
{
"name": "kea-ctrl-agent",
"output_options": [
{
"output": "stdout",
// Several additional parameters are possible in addition
// to the typical output. Flush determines whether logger
// flushes output to a file. Maxsize determines maximum
// filesize before the file is rotated. maxver
// specifies the maximum number of rotated files being
// kept.
"flush": true,
"maxsize": 204800,
"maxver": 4,
// We use pattern to specify custom log message layout
"pattern": "%d{%y.%m.%d %H:%M:%S.%q} %-5p [%c/%i] %m\n"
}
],
"severity": "INFO",
"debuglevel": 0 // debug level only applies when severity is set to DEBUG.
}
]
}
}

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@ -1,226 +0,0 @@
// This is an example configuration of the Kea DHCPv4 server 1:
//
// - uses High Availability hook library and Lease Commands hook library
// to enable High Availability function for the DHCP server. This config
// file is for the primary (the active) server.
// - uses memfile, which stores lease data in a local CSV file
// - it assumes a single /24 addressing over a link that is directly reachable
// (no DHCP relays)
// - there is a handful of IP reservations
//
// It is expected to run with a standby (the passive) server, which has a very similar
// configuration. The only difference is that "this-server-name" must be set to "server2" on the
// other server. Also, the interface configuration depends on the network settings of the
// particular machine.
{
"Dhcp4": {
// Add names of your network interfaces to listen on.
"interfaces-config": {
// The DHCPv4 server listens on this interface. When changing this to
// the actual name of your interface, make sure to also update the
// interface parameter in the subnet definition below.
"interfaces": [ "enp0s9" ]
},
// Control socket is required for communication between the Control
// Agent and the DHCP server. High Availability requires Control Agent
// to be running because lease updates are sent over the RESTful
// API between the HA peers.
"control-socket": {
"socket-type": "unix",
"socket-name": "/tmp/kea4-ctrl-socket"
},
// Use Memfile lease database backend to store leases in a CSV file.
// Depending on how Kea was compiled, it may also support SQL databases
// (MySQL and/or PostgreSQL). Those database backends require more
// parameters, like name, host and possibly user and password.
// There are dedicated examples for each backend. See Section 7.2.2 "Lease
// Storage" for details.
"lease-database": {
// Memfile is the simplest and easiest backend to use. It's an in-memory
// database with data being written to a CSV file. It is very similar to
// what ISC DHCP does.
"type": "memfile"
},
// Let's configure some global parameters. The home network is not very dynamic
// and there's no shortage of addresses, so no need to recycle aggressively.
"valid-lifetime": 43200, // leases will be valid for 12h
"renew-timer": 21600, // clients should renew every 6h
"rebind-timer": 32400, // clients should start looking for other servers after 9h
// Kea will clean up its database of expired leases once per hour. However, it
// will keep the leases in expired state for 2 days. This greatly increases the
// chances for returning devices to get the same address again. To guarantee that,
// use host reservation.
// If both "flush-reclaimed-timer-wait-time" and "hold-reclaimed-time" are
// not 0, when the client sends a release message the lease is expired
// instead of being deleted from lease storage.
"expired-leases-processing": {
"reclaim-timer-wait-time": 3600,
"hold-reclaimed-time": 172800,
"max-reclaim-leases": 0,
"max-reclaim-time": 0
},
// HA requires two hook libraries to be loaded: libdhcp_lease_cmds.so and
// libdhcp_ha.so. The former handles incoming lease updates from the HA peers.
// The latter implements high availability feature for Kea. Note the library name
// should be the same, but the path is OS specific.
"hooks-libraries": [
// The lease_cmds library must be loaded because HA makes use of it to
// deliver lease updates to the server as well as synchronize the
// lease database after failure.
{
"library": "/usr/local/lib/kea/hooks/libdhcp_lease_cmds.so"
},
{
// The HA hook library should be loaded.
"library": "/usr/local/lib/kea/hooks/libdhcp_ha.so",
"parameters": {
// Each server should have the same HA configuration, except for the
// "this-server-name" parameter.
"high-availability": [ {
// This parameter points to this server instance. The respective
// HA peers must have this parameter set to their own names.
"this-server-name": "s-kea1.gsb.lan",
// The HA mode is set to hot-standby. In this mode, the active server handles
// all the traffic. The standby takes over if the primary becomes unavailable.
"mode": "hot-standby",
// Heartbeat is to be sent every 10 seconds if no other control
// commands are transmitted.
"heartbeat-delay": 10000,
// Maximum time for partner's response to a heartbeat, after which
// failure detection is started. This is specified in milliseconds.
// If we don't hear from the partner in 60 seconds, it's time to
// start worrying.
"max-response-delay": 30000,
// The following parameters control how the server detects the
// partner's failure. The ACK delay sets the threshold for the
// 'secs' field of the received discovers. This is specified in
// milliseconds.
"max-ack-delay": 5000,
// This specifies the number of clients which send messages to
// the partner but appear to not receive any response.
"max-unacked-clients": 0,
// This specifies the maximum timeout (in milliseconds) for the server
// to complete sync. If you have a large deployment (high tens or
// hundreds of thousands of clients), you may need to increase it
// further. The default value is 60000ms (60 seconds).
"sync-timeout": 60000,
"peers": [
// This is the configuration of this server instance.
{
"name": "s-kea1.gsb.lan",
// This specifies the URL of this server instance. The
// Control Agent must run along with this DHCPv4 server
// instance and the "http-host" and "http-port" must be
// set to the corresponding values.
"url": "http://172.16.64.20:8000/",
// This server is primary. The other one must be
// secondary.
"role": "primary"
},
// This is the configuration of the secondary server.
{
"name": "s-kea2.gsb.lan",
// Specifies the URL on which the partner's control
// channel can be reached. The Control Agent is required
// to run on the partner's machine with "http-host" and
// "http-port" values set to the corresponding values.
"url": "http://172.16.64.21:8000/",
// The other server is secondary. This one must be
// primary.
"role": "standby"
}
]
} ]
}
}
],
// This example contains a single subnet declaration.
"subnet4": [
{
// Subnet prefix.
"subnet": "172.16.64.0/24",
// There are no relays in this network, so we need to tell Kea that this subnet
// is reachable directly via the specified interface.
"interface": "enp0s9",
// Specify a dynamic address pool.
"pools": [
{
"pool": "172.16.64.100-172.16.64.150"
}
],
// These are options that are subnet specific. In most cases, you need to define at
// least routers option, as without this option your clients will not be able to reach
// their default gateway and will not have Internet connectivity. If you have many
// subnets and they share the same options (e.g. DNS servers typically is the same
// everywhere), you may define options at the global scope, so you don't repeat them
// for every network.
"option-data": [
{
// For each IPv4 subnet you typically need to specify at least one router.
"name": "routers",
"data": "172.16.64.254"
},
{
// Using cloudflare or Quad9 is a reasonable option. Change this
// to your own DNS servers is you have them. Another popular
// choice is 8.8.8.8, owned by Google. Using third party DNS
// service raises some privacy concerns.
"name": "domain-name-servers",
"data": "172.16.0.1"
}
],
// Some devices should get a static address. Since the .100 - .199 range is dynamic,
// let's use the lower address space for this. There are many ways how reservation
// can be defined, but using MAC address (hw-address) is by far the most popular one.
// You can use client-id, duid and even custom defined flex-id that may use whatever
// parts of the packet you want to use as identifiers. Also, there are many more things
// you can specify in addition to just an IP address: extra options, next-server, hostname,
// assign device to client classes etc. See the Kea ARM, Section 8.3 for details.
// The reservations are subnet specific.
#"reservations": [
# {
# "hw-address": "1a:1b:1c:1d:1e:1f",
# "ip-address": "192.168.1.10"
# },
# {
# "client-id": "01:11:22:33:44:55:66",
# "ip-address": "192.168.1.11"
# }
#]
}
],
// fichier de logs
"loggers": [
{
// This section affects kea-dhcp4, which is the base logger for DHCPv4 component. It tells
// DHCPv4 server to write all log messages (on severity INFO or higher) to a file. The file
// will be rotated once it grows to 2MB and up to 4 files will be kept. The debuglevel
// (range 0 to 99) is used only when logging on DEBUG level.
"name": "kea-dhcp4",
"output_options": [
{
"output": "stdout",
"maxsize": 2048000,
"maxver": 4
}
],
"severity": "INFO",
"debuglevel": 0
}
]
}
}

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@ -1,18 +0,0 @@
---
- name: restart isc-kea-dhcp4-server
service:
name: isc-kea-dhcp4-server.service
state: restarted
enabled: yes
- name: restart isc-kea-ctrl-agent
service:
name: isc-kea-ctrl-agent.service
state: restarted
enabled: yes
- name: restart mariadb-server
service:
name: mariadb-server
state: restarted
enabled: yes

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@ -1,75 +0,0 @@
---
- name: installation des dépendances
apt:
name:
- liblog4cplus-2.0.5
- libmariadb3
- libpq5
- mariadb-common
- mysql-common
state: present
- name: telechargemement du paquet isc-kea-common
get_url:
url: "https://dl.cloudsmith.io/public/isc/kea-2-4/deb/debian/pool/bookworm/main/i/is/isc-kea-common_2.4.1-isc20231123184533/isc-kea-common_2.4.1-isc20231123184533_amd64.deb"
dest: "/tmp"
- name: telechargement du paquet isc-kea-dhcp4
get_url:
url: "https://dl.cloudsmith.io/public/isc/kea-2-4/deb/debian/pool/bookworm/main/i/is/isc-kea-dhcp4_2.4.1-isc20231123184533/isc-kea-dhcp4_2.4.1-isc20231123184533_amd64.deb"
dest: "/tmp"
- name: telechargement du paquet isc-kea-ctrl-agent
get_url:
url: "https://dl.cloudsmith.io/public/isc/kea-2-4/deb/debian/pool/bookworm/main/i/is/isc-kea-ctrl-agent_2.4.1-isc20231123184533/isc-kea-ctrl-agent_2.4.1-isc20231123184533_amd64.deb"
dest: "/tmp"
- name: telechargement du paquet isc-kea-hooks
get_url:
url: "https://dl.cloudsmith.io/public/isc/kea-2-4/deb/debian/pool/bookworm/main/i/is/isc-kea-hooks_2.4.1-isc20231123184533/isc-kea-hooks_2.4.1-isc20231123184533_amd64.deb"
dest: "/tmp"
- name: Update apt
apt:
update_cache: yes
- name: Installation paquet isc-kea-common
apt:
deb: "/tmp/isc-kea-common_2.4.1-isc20231123184533_amd64.deb"
state: present
- name: Installation isc-kea-dhcp4
apt:
deb: "/tmp/isc-kea-dhcp4_2.4.1-isc20231123184533_amd64.deb"
state: present
- name: Installation isc-kea-ctrl-agent
apt:
deb: "/tmp/isc-kea-ctrl-agent_2.4.1-isc20231123184533_amd64.deb"
state: present
- name: Installation isc-kea-hooks
apt:
deb: "/tmp/isc-kea-hooks_2.4.1-isc20231123184533_amd64.deb"
state: present
- name: Copie du repertoire des hooks dans le repertoire /usr/local/bin/kea/hooks
copy:
src: /usr/lib/x86_64-linux-gnu/kea/
dest: /usr/local/lib/kea/
- name: Copie du fichier de configuration kea-dhcp4.conf
copy:
src: kea-dhcp4.conf
dest: /etc/kea/kea-dhcp4.conf
notify:
- restart isc-kea-dhcp4-server
- name: Copie du fichier de configuration kea-ctrl-agent
copy:
src: kea-ctrl-agent.conf
dest: /etc/kea/kea-ctrl-agent.conf
notify:
- restart isc-kea-ctrl-agent

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@ -1,14 +0,0 @@
# Rôle Kea
***
Rôle du Kea pour la haute disponibilité dhcp
## Tables des matières
1. [Que fait le rôle Kea ?]
## Que fait le rôle Kea ?
Il permet de configurer les serveur kea en mode haute disponibilité.
### Installation et configuration de kea
Le rôle kea va installer les packets kea dhcp4, hook, admin une fois les packets installer. Nous allons configurer les 2 serveurs kea pour qu'il distribut les ip de n-user et soit en haute disponibilité.

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@ -1,8 +0,0 @@
#variable kea
kea_ver: "2.4.1"
kea_dbname: ""
kaa_dbuser: ""
kea_dbpasswd: ""
kea_dhcp4_dir: "/etc/kea/kea-dhcp4.conf"
kea_ctrl_dir: "/etc/kea/kea-ctrl-agent.conf"

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@ -1,66 +0,0 @@
// This is an example of a configuration for Control-Agent (CA) listening
// for incoming HTTP traffic. This is necessary for handling API commands,
// in particular lease update commands needed for HA setup.
{
"Control-agent":
{
// We need to specify where the agent should listen to incoming HTTP
// queries.
"http-host": "172.16.64.21",
// This specifies the port CA will listen on.
"http-port": 8000,
"control-sockets":
{
// This is how the Agent can communicate with the DHCPv4 server.
"dhcp4":
{
"comment": "socket to DHCPv4 server",
"socket-type": "unix",
"socket-name": "/tmp/kea4-ctrl-socket"
},
// Location of the DHCPv6 command channel socket.
# "dhcp6":
# {
# "socket-type": "unix",
# "socket-name": "/tmp/kea6-ctrl-socket"
# },
// Location of the D2 command channel socket.
# "d2":
# {
# "socket-type": "unix",
# "socket-name": "/tmp/kea-ddns-ctrl-socket",
# "user-context": { "in-use": false }
# }
},
// Similar to other Kea components, CA also uses logging.
"loggers": [
{
"name": "kea-ctrl-agent",
"output_options": [
{
"output": "stdout",
// Several additional parameters are possible in addition
// to the typical output. Flush determines whether logger
// flushes output to a file. Maxsize determines maximum
// filesize before the file is rotated. maxver
// specifies the maximum number of rotated files being
// kept.
"flush": true,
"maxsize": 204800,
"maxver": 4,
// We use pattern to specify custom log message layout
"pattern": "%d{%y.%m.%d %H:%M:%S.%q} %-5p [%c/%i] %m\n"
}
],
"severity": "INFO",
"debuglevel": 0 // debug level only applies when severity is set to DEBUG.
}
]
}
}

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// This is an example configuration of the Kea DHCPv4 server 1:
//
// - uses High Availability hook library and Lease Commands hook library
// to enable High Availability function for the DHCP server. This config
// file is for the primary (the active) server.
// - uses memfile, which stores lease data in a local CSV file
// - it assumes a single /24 addressing over a link that is directly reachable
// (no DHCP relays)
// - there is a handful of IP reservations
//
// It is expected to run with a standby (the passive) server, which has a very similar
// configuration. The only difference is that "this-server-name" must be set to "server2" on the
// other server. Also, the interface configuration depends on the network settings of the
// particular machine.
{
"Dhcp4": {
// Add names of your network interfaces to listen on.
"interfaces-config": {
// The DHCPv4 server listens on this interface. When changing this to
// the actual name of your interface, make sure to also update the
// interface parameter in the subnet definition below.
"interfaces": [ "enp0s9" ]
},
// Control socket is required for communication between the Control
// Agent and the DHCP server. High Availability requires Control Agent
// to be running because lease updates are sent over the RESTful
// API between the HA peers.
"control-socket": {
"socket-type": "unix",
"socket-name": "/tmp/kea4-ctrl-socket"
},
// Use Memfile lease database backend to store leases in a CSV file.
// Depending on how Kea was compiled, it may also support SQL databases
// (MySQL and/or PostgreSQL). Those database backends require more
// parameters, like name, host and possibly user and password.
// There are dedicated examples for each backend. See Section 7.2.2 "Lease
// Storage" for details.
"lease-database": {
// Memfile is the simplest and easiest backend to use. It's an in-memory
// database with data being written to a CSV file. It is very similar to
// what ISC DHCP does.
"type": "memfile"
},
// Let's configure some global parameters. The home network is not very dynamic
// and there's no shortage of addresses, so no need to recycle aggressively.
"valid-lifetime": 43200, // leases will be valid for 12h
"renew-timer": 21600, // clients should renew every 6h
"rebind-timer": 32400, // clients should start looking for other servers after 9h
// Kea will clean up its database of expired leases once per hour. However, it
// will keep the leases in expired state for 2 days. This greatly increases the
// chances for returning devices to get the same address again. To guarantee that,
// use host reservation.
// If both "flush-reclaimed-timer-wait-time" and "hold-reclaimed-time" are
// not 0, when the client sends a release message the lease is expired
// instead of being deleted from lease storage.
"expired-leases-processing": {
"reclaim-timer-wait-time": 3600,
"hold-reclaimed-time": 172800,
"max-reclaim-leases": 0,
"max-reclaim-time": 0
},
// HA requires two hook libraries to be loaded: libdhcp_lease_cmds.so and
// libdhcp_ha.so. The former handles incoming lease updates from the HA peers.
// The latter implements high availability feature for Kea. Note the library name
// should be the same, but the path is OS specific.
"hooks-libraries": [
// The lease_cmds library must be loaded because HA makes use of it to
// deliver lease updates to the server as well as synchronize the
// lease database after failure.
{
"library": "/usr/local/lib/kea/hooks/libdhcp_lease_cmds.so"
},
{
// The HA hook library should be loaded.
"library": "/usr/local/lib/kea/hooks/libdhcp_ha.so",
"parameters": {
// Each server should have the same HA configuration, except for the
// "this-server-name" parameter.
"high-availability": [ {
// This parameter points to this server instance. The respective
// HA peers must have this parameter set to their own names.
"this-server-name": "s-kea2.gsb.lan",
// The HA mode is set to hot-standby. In this mode, the active server handles
// all the traffic. The standby takes over if the primary becomes unavailable.
"mode": "hot-standby",
// Heartbeat is to be sent every 10 seconds if no other control
// commands are transmitted.
"heartbeat-delay": 10000,
// Maximum time for partner's response to a heartbeat, after which
// failure detection is started. This is specified in milliseconds.
// If we don't hear from the partner in 60 seconds, it's time to
// start worrying.
"max-response-delay": 30000,
// The following parameters control how the server detects the
// partner's failure. The ACK delay sets the threshold for the
// 'secs' field of the received discovers. This is specified in
// milliseconds.
"max-ack-delay": 5000,
// This specifies the number of clients which send messages to
// the partner but appear to not receive any response.
"max-unacked-clients": 0,
// This specifies the maximum timeout (in milliseconds) for the server
// to complete sync. If you have a large deployment (high tens or
// hundreds of thousands of clients), you may need to increase it
// further. The default value is 60000ms (60 seconds).
"sync-timeout": 60000,
"peers": [
// This is the configuration of this server instance.
{
"name": "s-kea1.gsb.lan",
// This specifies the URL of this server instance. The
// Control Agent must run along with this DHCPv4 server
// instance and the "http-host" and "http-port" must be
// set to the corresponding values.
"url": "http://172.16.64.20:8000/",
// This server is primary. The other one must be
// secondary.
"role": "primary"
},
// This is the configuration of the secondary server.
{
"name": "s-kea2.gsb.lan",
// Specifies the URL on which the partner's control
// channel can be reached. The Control Agent is required
// to run on the partner's machine with "http-host" and
// "http-port" values set to the corresponding values.
"url": "http://172.16.64.21:8000/",
// The other server is secondary. This one must be
// primary.
"role": "standby"
}
]
} ]
}
}
],
// This example contains a single subnet declaration.
"subnet4": [
{
// Subnet prefix.
"subnet": "172.16.64.0/24",
// There are no relays in this network, so we need to tell Kea that this subnet
// is reachable directly via the specified interface.
"interface": "enp0s9",
// Specify a dynamic address pool.
"pools": [
{
"pool": "172.16.64.100-172.16.64.150"
}
],
// These are options that are subnet specific. In most cases, you need to define at
// least routers option, as without this option your clients will not be able to reach
// their default gateway and will not have Internet connectivity. If you have many
// subnets and they share the same options (e.g. DNS servers typically is the same
// everywhere), you may define options at the global scope, so you don't repeat them
// for every network.
"option-data": [
{
// For each IPv4 subnet you typically need to specify at least one router.
"name": "routers",
"data": "172.16.64.254"
},
{
// Using cloudflare or Quad9 is a reasonable option. Change this
// to your own DNS servers is you have them. Another popular
// choice is 8.8.8.8, owned by Google. Using third party DNS
// service raises some privacy concerns.
"name": "domain-name-servers",
"data": "172.16.0.1"
}
],
// Some devices should get a static address. Since the .100 - .199 range is dynamic,
// let's use the lower address space for this. There are many ways how reservation
// can be defined, but using MAC address (hw-address) is by far the most popular one.
// You can use client-id, duid and even custom defined flex-id that may use whatever
// parts of the packet you want to use as identifiers. Also, there are many more things
// you can specify in addition to just an IP address: extra options, next-server, hostname,
// assign device to client classes etc. See the Kea ARM, Section 8.3 for details.
// The reservations are subnet specific.
#"reservations": [
# {
# "hw-address": "1a:1b:1c:1d:1e:1f",
# "ip-address": "192.168.1.10"
# },
# {
# "client-id": "01:11:22:33:44:55:66",
# "ip-address": "192.168.1.11"
# }
#]
}
],
// fichier de logs
"loggers": [
{
// This section affects kea-dhcp4, which is the base logger for DHCPv4 component. It tells
// DHCPv4 server to write all log messages (on severity INFO or higher) to a file. The file
// will be rotated once it grows to 2MB and up to 4 files will be kept. The debuglevel
// (range 0 to 99) is used only when logging on DEBUG level.
"name": "kea-dhcp4",
"output_options": [
{
"output": "stdout",
"maxsize": 2048000,
"maxver": 4
}
],
"severity": "INFO",
"debuglevel": 0
}
]
}
}

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