Uploaded June 2025 | Updated September 2026, 2 days ago
Using an Arduino plus the throttle circuitry to control the motor driver …
↓↓↓ Complete description, time index and links below ↓↓↓
In the previous video we’ve cobbled together the throttle control circuit on a breadboard, wrote some Arduino code for it, and tested the whole thing (link below). The next step is to connect it to the motor driver and see what’s happening.
Before we really start we build a temporary head for the outboard and a breakout board for a wire-to-board connector plus a piezo buzzer. Then we test the whole thing, making the propeller spin. Unfortunately the piezo buzzer is not working.
00:00 Intro – time to make the Arduino spin the propeller
00:32 Woodworking – temporary head for the outboard
06:36 Soldering –connector & piezo buzzer breakout board
08:44 Piezo buzzer – sound test using a function generator
09:19 Test 1 – safe power on, but the buzzer isn’t working
12:02 Test 2 – controlling the motor via the Arduino Nano
16:49 Wrap-up – next is solving the piezo mystery, bye
Full Fly-by-Wire Electric Outboard youtube.com/playlist?list=PLwq-2MnM58FKvpYgFXgNCjlKo14L0KI16
Full Fly-by-Wire Electric Outboard (3): Throttle Circuit & Code Prototype youtu.be/md_40aFueLc
Full Fly-by-Wire Electric Outboard (5): Current Sensor Prototype & Test youtu.be/WFx8FaHXTOU
#flybywire #electricoutboard #haswing #trollingmotor #outboardmotor #outboard #robertssmorgasbord
Using an Arduino plus the throttle circuitry to control the motor driver …
↓↓↓ Complete description, time index and links below ↓↓↓
In the previous video we’ve cobbled together the throttle control circuit on a breadboard, wrote some Arduino code for it, and tested the whole thing (link below). The next step is to connect it to the motor driver and see what’s happening.
Before we really start we build a temporary head for the outboard and a breakout board for a wire-to-board connector plus a piezo buzzer. Then we test the whole thing, making the propeller spin. Unfortunately the piezo buzzer is not working.
00:00 Intro – time to make the Arduino spin the propeller
00:32 Woodworking – temporary head for the outboard
06:36 Soldering –connector & piezo buzzer breakout board
08:44 Piezo buzzer – sound test using a function generator
09:19 Test 1 – safe power on, but the buzzer isn’t working
12:02 Test 2 – controlling the motor via the Arduino Nano
16:49 Wrap-up – next is solving the piezo mystery, bye
Full Fly-by-Wire Electric Outboard youtube.com/playlist?list=PLwq-2MnM58FKvpYgFXgNCjlKo14L0KI16
Full Fly-by-Wire Electric Outboard (3): Throttle Circuit & Code Prototype youtu.be/md_40aFueLc
Full Fly-by-Wire Electric Outboard (5): Current Sensor Prototype & Test youtu.be/WFx8FaHXTOU
#flybywire #electricoutboard #haswing #trollingmotor #outboardmotor #outboard #robertssmorgasbord

![Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (13)
Covering the parameters ORTH_B1B2, ORTH_SEL and FILTER …
↓↓↓ Complete description, time index and links below ↓↓↓
In the previous video we’ve successfully used the SEL_SMISM and SMISM parameters, but couldn’t make sense of the FHYST parameter (link below). Well, there’s no rest for the wicked, so let’s churn through the next parameters.
First we revisit the orthogonality parameters, focusing on ORTH_B1B2. But in the following experiment ORTH_B1B2, like ORTH_XY before, seems to do absolutely nothing. Finally we have a look at the FILTER parameter and it actually works.
00:00 Intro – we’ll start with ORTH_B1B2 and go from there
00:45 ORTH_[SEL|XY|B1B2] – recap focused on ORTH_B1B2
03:53 Experimenting 1 – effect of ORTH_B1B2 (there’s none)
07:08 FILTER – according to the datasheet
09:03 Experimenting 2 – FILTER works as expected
13:01 Preview – 3D, KALPHA, KBETA, KT and FHYST (again)
16:10 Wrap up – some math and geometry ahead, bye
Tutorials https://www.youtube.com/playlist?list=PLwq-2MnM58FKn3920rc1V0qoTsQDheTIw
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Basics https://youtu.be/XAbHbonRWEk
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (1) https://youtu.be/w1Tx66HK83Q
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (2) https://youtu.be/HDymx1VU_a8
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (3) https://youtu.be/6rkxCzaH1hQ
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (4) https://youtu.be/8s34R9XDqzk
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (5) https://youtu.be/MrlVVu7uIHg
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (6) https://youtu.be/5g_6NYy5Qcg
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (7) https://youtu.be/0tTG7peMkSI
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (8) https://youtu.be/xaL3Or_DVjI
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (9) https://youtu.be/JhSwvkAOEUc
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (10) https://youtu.be/YmZj0D8PAvE
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (11) https://youtu.be/HtG6XRlLfJg
Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (12) https://youtu.be/lx8CAS7Sqfo
My code https://drive.google.com/drive/folders/1CLvym6ytoPLXkoji6DU-rJKnTpFYmiu6?usp=sharing
Melexis MLX90636 Datasheet https://media.melexis.com/-/media/files/documents/datasheets/mlx90363-datasheet-melexis.pdf
Getting Started Guide for MLX90363 | Melexis https://media.melexis.com/-/media/files/documents/application-notes/mlx90363-getting-started-guide-application-note-melexis.pdf?la=en
#arduino #magnetometer #microcontroller #spi #tutorials #tutorial #how-to #robertssmorgasbord Melexis MLX90363 Triaxis® Magnetometer & Arduino MCU – The Details (13)](https://i.ytimg.com/vi/zKj6MQiQBz4/mqdefault.jpg)