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Merge pull request #56 from RogueM/translation 

some more overlays translated into FR
This commit is contained in:
RM 2015-11-16 09:46:02 +00:00
parent 6e228afc99 c10d0d150a
commit 34460019d7
11 changed files with 145 additions and 186 deletions
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5
src/fr/README.md
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#WIP French translation
This is a work in progress, many files are not yet translated!
Ce dossier est en cours de traduction!

71
src/fr/overlay/dots.md
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<!-- <!--
--- ---
name: Raspberry Pi Dots name: Raspberry Pi Dots
description: Join the dots to make a circuit description: créez un circuit avec de la peinture électrique
url: http://www.raspberrypi.org/dots/ url: http://www.raspberrypi.org/dots/
github: https://github.com/raspberrypilearning/dots github: https://github.com/raspberrypilearning/dots
pin: pin:
bcm0: bcm0:
name: 'Color: Blue' name: 'couleur: bleue'
direction: input direction: input
bcm1: bcm1:
name: Dot 7 name: point 7
direction: input direction: input
bcm2: bcm2:
name: Dot 22 name: point 22
direction: input direction: input
bcm3: bcm3:
name: Dot 21 name: point 21
direction: input direction: input
bcm4: bcm4:
name: Dot 2 name: point 2
direction: input direction: input
bcm5: bcm5:
name: Dot 9 name: point 9
direction: input direction: input
bcm6: bcm6:
name: Dot 14 name: point 14
direction: input direction: input
bcm7: bcm7:
name: Dot 6 name: point 6
direction: input direction: input
bcm8: bcm8:
name: Dot 18 name: point 18
direction: input direction: input
bcm9: bcm9:
name: Dot 17 name: point 17
direction: input direction: input
bcm10: bcm10:
name: 'Color: Green' name: 'couleur: vert'
direction: input direction: input
bcm11: bcm11:
name: Dot 8 name: point 8
direction: input direction: input
bcm12: bcm12:
name: Dot 10 name: point 10
direction: input direction: input
bcm13: bcm13:
name: Cloud name: 'forme: nuage'
direction: input direction: input
bcm14: bcm14:
name: Dot 1 name: point 1
direction: input direction: input
bcm15: bcm15:
name: Dot 3 name: point 3
direction: input direction: input
bcm16: bcm16:
name: Dot 13 name: point 13
direction: input direction: input
bcm17: bcm17:
name: Dot 4 name: point 4
direction: input direction: input
bcm18: bcm18:
name: Dot 20 name: point 20
direction: input direction: input
bcm19: bcm19:
name: 'Color: Orange' name: 'couleur: orange'
direction: input direction: input
bcm20: bcm20:
name: Bear name: 'forme: ours'
direction: input direction: input
bcm21: bcm21:
name: Dot 12 name: point 12
direction: input direction: input
bcm22: bcm22:
name: Dot 15 name: point 15
direction: input direction: input
bcm23: bcm23:
name: Dot 16 name: point 16
direction: input direction: input
bcm24: bcm24:
name: Dot 19 name: point 19
direction: input direction: input
bcm25: bcm25:
name: Dot 5 name: point 5
direction: input direction: input
bcm26: bcm26:
name: Dot 11 name: point 11
direction: input direction: input
bcm27: bcm27:
name: 'Color: Red' name: 'couleur: rouge'
direction: input direction: input
--> -->
#Raspberry Pi Dots #Raspberry Pi Dots
###Dots is a Dot to Dot HAT board for the Raspberry Pi that lets you join-the-dots with BARE Conductive Paint! ###Dots est un project éducatif qui vous permet de créez un circuit en joignant les points représentés avec de la peinture électrique.
##AWAITING TRANSLATION Les points du circuit sont des contacts métalliques que la peinture connectera à la masse, créant un effect de résistance de rappel.
##EN COURS DE TRADUCTION
Every Dot on the Dots board is a "floating" metal contact just waiting to be pulled down to ground with a dab of paint. Pour lire l'état d'un contact métallique, assurez vous de déclarer la broche correspondante en tant qu'entrée et en 'pull-up', comme ceci:
To read a Dot you should set its corresponding pin as an INPUT and make sure it's pulled up like so:
```python ```python
import RPi.GPIO as GPIO import RPi.GPIO as GPIO
GPIO.setmode(GPIO.BCM ) GPIO.setmode(GPIO.BCM)
GPIO.setup(dot_pin, GPIO.IN, GPIO.PUD_UP) GPIO.setup(dot_pin, GPIO.IN, GPIO.PUD_UP)
state = GPIO.input(dot_pin) state = GPIO.input(dot_pin)
``` ```
It's good practise to only turn on the PULLUP when you actually want to read the Dot, so a method like Il est cependant recommandé de n'activer le 'pull-up' que lorsque nécessaire pour la requête, par l'intermédiaire d'une fonction telle que celle qui suit:
this is recommended for reading:
```python ```python
def is_dot_connected(dot_pin): def is_dot_connected(dot_pin):

54
src/fr/overlay/iqaudio-pi-dac.md
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name: "Pi-DAC+" name: "Pi-DAC+"
manufacturer: IQaudIO manufacturer: IQaudIO
buy: http://www.iqaudio.co.uk buy: http://www.iqaudio.co.uk
description: An I2S digital to analog audio converter HAT for the Pi description: Convertisseur numérique-analogique pour la Raspberry Pi
install: install:
'devices': 'devices':
- 'i2c' - 'i2c'
pincount: 40 pincount: 40
pin: pin:
3: '3':
mode: i2c mode: i2c
5: '5':
mode: i2c mode: i2c
12: '12':
name: I2S name: I2S
15: '15':
name: Mute/Unmute name: silence
description: Pi-AMP+ only (optional) description: pour le Pi-AMP+ (option)
16: '16':
name: Rotary Encoder name: encodeur rotatif
description: (optional) description: (option)
18: '18':
name: Rotary Encoder name: encodeur rotatif
description: (optional) description: (option)
22: '22':
name: IR Sensor name: capteur IR
description: (optional) description: (option)
35: '35':
name: I2S name: I2S
38: '38':
name: I2S name: I2S
40: '40':
name: I2S name: I2S
--> -->
#IQaudIO Pi-DAC+ #IQaudIO Pi-DAC+
##AWAITING TRANSLATION Le Pi-DAC+ permet de convertir le signal audio numérique I2S de la Raspi en analogique, à l'aide de son CDA Texas Instrument PCM5122 et sorties phono. Il comprend aussi un pre-ampli pour sortie casque Texas Instrument TPA6133A.
##EN COURS DE TRADUCTION
The Pi-DAC+ takes the digital audio signals (I2S) from the Raspberry Pi and through the La broche GPIO22 peut être utilisée pour couper le volume de l'ampli optionnel Pi-AMP+ rapidement (fonction mute/silence).
onboard Texas Instruments PCM5122 DAC delivers variable output (hardware volume
control) analog audio to the Pi-DAC+ Phono connectors. The PI-DAC+ also, via the
Texas Instruments TPA6133A headphone amp, supports the direct use of headphones via
the Pi-DAC+ 3.5mm audio jack.
The Pi Dac uses GPIO22 to mute/unmute the Pi-AMP+. De même la broche GPIO25 peut être utilisée pour la lecture d'un capteur IR, et les broches GPIO23/24 pour celle d'un encodeur rotatif. Ces composants sont des options à souder sur la carte en elle-même.
You can use GPIO25 to connect an IR sensor and GPIO23/24 for a rotary encoder. Both of Note: Les broches réservées à ces options peuvent être utilisées pour d'autres applications du moment qu'elles n'ont pas été activées programmatiquement pour leur fonction Pi-DAC.
these parts are optional, but are broken out on the Pi-DAC+ for convenient access.
Note: pins reserved for the rotary encoder and IR sensor can be used for other purposes if those add-ons have not been fitted and enabled by software.

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src/fr/overlay/piborg-ledborg.md
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@ -1,40 +1,39 @@
<!-- <!--
--- ---
name: PiBorg LEDBorg name: PiBorg LedBorg
description: A single RGB LED for your Raspberry Pi manufacturer: PiBorg
description: une carte LED RGB pour la Raspberry Pi
url: https://www.piborg.org/ledborg-new/install
buy: https://www.piborg.org/ledborg buy: https://www.piborg.org/ledborg
pincount: 26
pin: pin:
'11': '11':
name: Red LED name: LED rouge
direction: output direction: output
active: high active: high
description: PiBorg Red LED description: LED rouge de la PiBorg
'13': '13':
name: Green LED name: LED verte
direction: input direction: input
active: high active: high
description: PiBorg Green LED description: LED verte de la PiBorg
'15': '15':
name: Blue LED name: LED bleue
direction: output direction: output
active: high active: high
description: PiBorg Blue LED description: LED bleue de la PiBorg
--> -->
###The PiBorg LedBorg is an ultra-bright RGB LED board for the Raspberry Pi. ###La carte PiBorg LedBorg ajoute une LED tricolore RGB à votre Raspberry Pi.
##AWAITING TRANSLATION La carte LedBorg prend en charge la gestion de la LED. Cependant, si vous désirez contrôler le gamut de couleurs de manière plus précise, vous pouvez vous tourner vers WiringPi et son softPwn.
##EN COURS DE TRADUCTION
PiBorg has its own driver, so you don't need to drive it manually. Pour ce faire, sachez que les broches WiringPi concernées sont les suivantes:
If you want a much, much wider range of colours, though, you can drive it manually using softPwm in WiringPi. The pin assignments for this are as follows: WiringPi broche 0: LED rouge
WiringPi broche 2: LED verte
WiringPi pin 0: Red LED WiringPi broche 3: LED bleue
WiringPi pin 2: Green LED
WiringPi pin 3: Blue LED
This is easy using WiringPi in Python:
Voici un exemple WiringPi sous Python:
```python ```python
import wiringpi2 as wiringpi import wiringpi2 as wiringpi
@ -44,8 +43,8 @@ wiringpi.softPwmCreate(0,0,100)
wiringpi.softPwmCreate(2,0,100) wiringpi.softPwmCreate(2,0,100)
wiringpi.softPwmCreate(3,0,100) wiringpi.softPwmCreate(3,0,100)
# Purple! # Pour du violet:
wiringpi.softPwmWrite(3,100) # Full Blue wiringpi.softPwmWrite(0,100) # max rouge
wiringpi.softPwmWrite(0,100) # Full Red wiringpi.softPwmWrite(3,100) # max bleu
wiringpi.softPWMWrite(2,0) # No Green wiringpi.softPWMWrite(2,0) # pas de vert
``` ```

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src/fr/overlay/pibrella.md
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@ -3,76 +3,73 @@
name: Pibrella name: Pibrella
manufacturer: Pimoroni Vs Cyntech manufacturer: Pimoroni Vs Cyntech
url: https://github.com/pimoroni/pibrella url: https://github.com/pimoroni/pibrella
description: An all-in-one light, sound, input and output add-on board. description: carte multi-usage avec son, lumière, entrées et sorties
pincount: 26 pincount: 26
pin: pin:
'7': '7':
name: Green LED name: LED verte
direction: output direction: output
active: high active: high
'11': '11':
name: Yellow LED name: LED jaune
direction: output direction: output
active: high active: high
'12': '12':
name: Buzzer name: buzzer piezo
direction: output direction: output
active: high active: high
'13': '13':
name: Red LED name: LED rouge
direction: output direction: output
active: high active: high
'15': '15':
name: Output A name: sortie A
direction: output direction: output
active: high active: high
'16': '16':
name: Output B name: sortie B
direction: output direction: output
active: high active: high
'18': '18':
name: Output C name: sortie C
direction: output direction: output
active: high active: high
'19': '19':
name: Input D name: sortie D
direction: output direction: output
active: high active: high
'21': '21':
name: Input A name: entrée A
direction: input direction: input
active: high active: high
'22': '22':
name: Output D name: entrée D
direction: output direction: output
active: high active: high
'23': '23':
name: Button name: bouton
direction: input direction: input
active: high active: high
'24': '24':
name: Input C name: entrée C
direction: input direction: input
active: high active: high
'26': '26':
name: Input B name: entrée B
direction: input direction: input
active: high active: high
--> -->
#Pibrella #Pibrella
##AWAITING TRANSLATION La Pibrella est une carte à usage multiple avec son, lumière, entrées et sorties. Elle monopolise un nombre élevé de broches GPIO tout en laissant cependant les bus série, SPI et i2c libres.
##EN COURS DE TRADUCTION
The all-in-one light, sound, input and output add-on board from Pimoroni vs Cyntech uses lots of IO on the Pi but leaves both Serial and I2C free leaving plenty of room for expansion if you get creative. Pour l'installation et mise en route exécutez simplement les commandes ci-dessous et suivez les instructions présentées à l'écran:
Pibrella is easy to use, first you should install the module using LXTerminal/Command Line:
```bash ```bash
curl -sS get.pimoroni.com/pibrella | bash curl -sS get.pimoroni.com/pibrella | bash
``` ```
Then import it into your Python script and start tinkering: Puis, sous Python, en guise de test que tout fonctionne bien:
```bash ```bash
import pibrella import pibrella

18
src/fr/overlay/piglow.md
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@ -5,16 +5,22 @@ manufacturer: Pimoroni
url: https://github.com/pimoroni/piglow url: https://github.com/pimoroni/piglow
github: https://github.com/pimoroni/piglow github: https://github.com/pimoroni/piglow
buy: http://shop.pimoroni.com/products/piglow buy: http://shop.pimoroni.com/products/piglow
description: Simply 18 LEDs in a spiral pattern controllable in Python. description: une spirale de LED contrôlable depuis Python.
pincount: 26 pincount: 26
pin: pin:
'1': {}
'2': {}
'3': '3':
mode: i2c mode: i2c
'5': '5':
mode: i2c mode: i2c
'14': {}
'17': {}
--> -->
#PiGlow #PiGlow
La Piglow est une carte petit format pour la Raspberry Pi composée de 18 LEDs contrôlables individuellement.
Le circuit intégré responsable de la gestion des LEDs est le SN3218, un microchip PWM 8-bit à 18 canaux. Il communique avec la Raspi par le bus I2C, à l'adresse 0x54 plus précisément. Les LEDs peuvent se voir attribuer une valeur comprise entre 0 et 255.
Pour l'installation et mise en route exécutez simplement les commandes ci-dessous et suivez les instructions présentées à l'écran:
```bash
curl -sS get.pimoroni.com/piglow | bash
```

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src/fr/overlay/rtk-000-001.md
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@ -1,60 +1,48 @@
<!-- <!--
--- ---
name: Ryanteck Motor Controller Board name: Contrôleur moteur Ryanteck
manufacturer: Ryanteck manufacturer: Ryanteck
url: https://ryanteck.uk/add-ons/6-ryanteck-rpi-motor-controller-board-0635648607160.html url: https://ryanteck.uk/add-ons/6-ryanteck-rpi-motor-controller-board-0635648607160.html
buy: https://ryanteck.uk/add-ons/6-ryanteck-rpi-motor-controller-board-0635648607160.html buy: https://ryanteck.uk/add-ons/6-ryanteck-rpi-motor-controller-board-0635648607160.html
pincount: 26 pincount: 26
pin: pin:
'11': '11':
name: Motor 1 A name: moteur 1 A
direction: output direction: output
active: high active: high
'12': '12':
name: Motor 1 B name: moteur 1 B
direction: output direction: output
active: high active: high
'15': '15':
name: Motor 2 A name: moteur 2 A
direction: output direction: output
active: high active: high
'16': '16':
name: Motor 2 B name: moteur 2 B
direction: output direction: output
active: high active: high
--> -->
#Ryanteck Motor Controller Board #Contrôleur moteur Ryanteck RTK-000-001
###A quick and easy way to start driving motors on your Raspberry Pi ###Contrôler un moteur connecté au RTK-000-001 depuis votre Raspberry Pi est aisé:
##AWAITING TRANSLATION
##EN COURS DE TRADUCTION
```python ```python
##Simple motor script for the RTK-000-001
import RPi.GPIO as GPIO import RPi.GPIO as GPIO
import time import time
#Set to broadcom pin numbers
GPIO.setmode(GPIO.BCM)
#Motor 1 = Pins 17 and 18 GPIO.setmode(GPIO.BCM)
#Motor 2 = Pins 22 and 23
GPIO.setup(17, GPIO.OUT) GPIO.setup(17, GPIO.OUT)
GPIO.setup(18, GPIO.OUT) GPIO.setup(18, GPIO.OUT)
#Now loop forever turning one direction for 5 seconds, then the other
while (True): while (True):
#Sleep 1 second then turn 17 on
GPIO.output(18, 0) GPIO.output(18, 0)
time.sleep(1) time.sleep(1)
GPIO.output(17, 1); GPIO.output(17, 1);
time.sleep(5); time.sleep(5);
#And now the other way round
GPIO.output(17, 0) GPIO.output(17, 0)
time.sleep(1); time.sleep(1);
GPIO.output(18, 1); GPIO.output(18, 1);
time.sleep(5); time.sleep(5);
#And loop back around
#And final cleanup
GPIO.cleanup() GPIO.cleanup()
``` ```

18
src/fr/overlay/skywriter-hat.md
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@ -5,7 +5,7 @@ manufacturer: Pimoroni
url: https://github.com/pimoroni/skywriter-hat url: https://github.com/pimoroni/skywriter-hat
github: https://github.com/pimoroni/skywriter-hat github: https://github.com/pimoroni/skywriter-hat
buy: http://shop.pimoroni.com/products/skywriter-hat buy: http://shop.pimoroni.com/products/skywriter-hat
description: A 3D positional and gesture sensor. description: un capteur de mouvements 3D
install: install:
'apt': 'apt':
- 'python-smbus' - 'python-smbus'
@ -22,24 +22,18 @@ pin:
'5': '5':
mode: i2c mode: i2c
'11': '11':
name: Reset name: reset
'13': '13':
name: Transfer name: transfer
--> -->
#Skywriter HAT #Skywriter HAT
##AWAITING TRANSLATION Le Skywriter est capable de détecter la position de vos doigts dans l'espace défini en 3 dimensions au dessus de son capteur. Il transfère les coordonnées X, Y et Z à votre Raspi, qui sont dès lors disponibles pour effectuer l'opération désirée au sein de votre script.
##EN COURS DE TRADUCTION
Skywriter HAT senses your finger's position above it in 3 dimensions, outputting an X, Y, Z axis En analysant ces données dans le temps il est aussi possible de reconnaître toutes sortes de gestes et de les traiter de manière appropriée.
which you can use in your Python scripts.
It also recognises gestures, including swipes and more. Pour l'installation et mise en route exécutez simplement les commandes ci-dessous et suivez les instructions présentées à l'écran:
To get the HAT set up and ready to go you can use the one-line product installer:
```bash ```bash
curl -sS get.pimoroni.com/skywriter | bash curl -sS get.pimoroni.com/skywriter | bash
``` ```
And follow the instructions!

36
src/fr/overlay/traffic-hat.md
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@ -4,52 +4,48 @@ name: Traffic HAT
manufacturer: Ryanteck LTD. manufacturer: Ryanteck LTD.
url: http://www.ryanteck.uk/store/traffichat url: http://www.ryanteck.uk/store/traffichat
buy: http://www.ryanteck.uk/store/traffichat buy: http://www.ryanteck.uk/store/traffichat
description: A quick and easy way to learn the basics of GPIO on a budget. All in description: carte multi-usage avec buzzer, LED et bouton
a nice HAT.
pincount: 40 pincount: 40
pin: pin:
'15': '15':
name: LED1 / Green name: LED1 / vert
direction: output direction: output
active: high active: high
'16': '16':
name: LED2 / Amber name: LED2 / orange
direction: output direction: output
active: high active: high
'18': '18':
name: LED3 / Red name: LED3 / rouge
direction: output direction: output
active: high active: high
'22': '22':
name: Button name: bouton
direction: input direction: input
active: high active: high
'29': '29':
name: Buzzer name: buzzer
direction: output direction: output
active: high active: high
--> -->
#Traffic HAT #Traffic HAT
###A quick and easy way to learn the basics of GPIO on a budget. All in a nice HAT. ###Contrôler les broches GPIO du Traffic HAT depuis votre Raspberry Pi est aisé:
##AWAITING TRANSLATION
##EN COURS DE TRADUCTION
```python ```python
import RPi.GPIO as IO import RPi.GPIO as GPIO
from time import sleep from time import sleep
IO.setmode(IO.BCM) GPIO.setmode(GPIO.BCM)
#Lights #LEDs
IO.setup(22,IO.OUT) GPIO.setup(22,GPIO.OUT)
IO.setup(23,IO.OUT) GPIO.setup(23,GPIO.OUT)
IO.setup(24,IO.OUT) GPIO.setup(24,GPIO.OUT)
#Buzzer #Buzzer
IO.setup(5,IO.OUT) GPIO.setup(5,GPIO.OUT)
#Button #Bouton
IO.setup(25,IO.IN,pull_up_down=IO.PUD_UP) GPIO.setup(25,GPIO.IN,pull_up_down=GPIO.PUD_UP)
``` ```

17
src/fr/overlay/unicorn-hat.md
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@ -4,7 +4,7 @@ name: Unicorn HAT
manufacturer: Pimoroni manufacturer: Pimoroni
url: http://shop.pimoroni.com/products/unicorn-hat url: http://shop.pimoroni.com/products/unicorn-hat
buy: http://shop.pimoroni.com/products/unicorn-hat buy: http://shop.pimoroni.com/products/unicorn-hat
description: 64 blindingly bright RGB LEDs on a single HAT description: une matrice 8x8 de LEDs RGB
github: https://github.com/pimoroni/unicornhat github: https://github.com/pimoroni/unicornhat
install: install:
'apt': 'apt':
@ -18,7 +18,7 @@ install:
pincount: 40 pincount: 40
pin: pin:
'12': '12':
name: Data name: données
direction: output direction: output
mode: pwm mode: pwm
active: high active: high
@ -26,22 +26,17 @@ pin:
--> -->
#Unicorn HAT #Unicorn HAT
##AWAITING TRANSLATION l'Unicorn présente une matrice composée de 64 LEDs tricolores RGB contrôlées par une bibliothèque programmée en C, mais addressable depuis Python.
##EN COURS DE TRADUCTION
64 blindingly bright LEDs packed into a HAT and driven with an ultra-fast, C library that you can talk to Important: l'opération de l'Unicorn au travers de la broche PWM n'est pas compatible avec l'usage de la sortie analogique audio de la Raspberry Pi, et il n'est pas possible d'utiliser les deux simultanément.
from Python make Unicorn HAT PiGlow's bigger, brighter brother.
Note: Unicorn HAT uses some special PWM trickery, performed with the same hardware that lets you Pi produce sound Pour l'installation et mise en route exécutez simplement les commandes ci-dessous et suivez les instructions présentées à l'écran:
through the audio jack ( analog audio ) so you can't use both at the same time!
To get the HAT set up and ready to go you can use the one-line product installer:
```bash ```bash
curl -sS get.pimoroni.com/unicornhat | bash curl -sS get.pimoroni.com/unicornhat | bash
``` ```
Then import it into your Python script and start tinkering: Puis, sous Python, en guise de test que tout fonctionne bien:
```bash ```bash
import unicornhat import unicornhat

2
src/fr/settings.yaml
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@ -20,7 +20,7 @@ strings:
- uses_n_gpio_pins: ' {} broches GPIO actives' - uses_n_gpio_pins: ' {} broches GPIO actives'
- bcm_pin_rev1_pi: 'broche BCM {} sur Raspi Rev 1' - bcm_pin_rev1_pi: 'broche BCM {} sur Raspi Rev 1'
- physical_pin_n: 'broche physique {}' - physical_pin_n: 'broche physique {}'
- more_information: 'informations supplémentaires' - more_information: 'plus d''info'
- github_repository: 'lien GitHub' - github_repository: 'lien GitHub'
- buy_now: 'achat' - buy_now: 'achat'
overlays: overlays: