Pilot Oriented Navigation System

MasaoC·GPS-TFT-Map_PONS·kicad/mainboard/DisplayModule_PONSv7.kicad_pcb

Pilot Oriented Navigation System PCB layout, top view — open source RP2040/RP2350 board by MasaoC

About the Pilot Oriented Navigation System PCB

Pilot Oriented Navigation System is an open source RP2040/RP2350 PCB design by MasaoC, published on GitHub under the MIT license. It is a 4-layer board measuring 55.4 × 77.6 mm, with 120 components from 46 distinct parts.

Its main chip is the RP2350_80QFN, from the RP2040/RP2350 family. Other key parts include the PAM8302AADCR, W25Q128JVS, MCP73831-2-OT, TPS63031DSK and MS5611-01BA. By type, the board carries 51 resistors, 45 capacitors, 7 ICs, 4 connectors, 4 diodes and 4 inductors.

It belongs with the rf & radio and displays & leds designs in this gallery.

From the project

鳥人間コンテストに特化したGNSS誘導システム。人力飛行機のパイロットが使いやすいことを目標にした航法装置です。ハードとソフトをオープンソースで開発しています。

人力飛行機のパイロットが使いやすいことを目標とした航法装置です。琵琶湖の鳥人間コンテストに特化しています。 GPS/GNSS navigation for human-powered aircraft, specialized for the Japan International Birdman Rally at Lake Biwa, Japan.

飛んでいる間の道具であり、飛んだあとの計測器でもあります。 当日の誘導と、次の機体の設計の両方に活用できます。

SD に残るログを tools/ の解析にかけると、機体特性の分析やパイロット証言の裏付けができます (→ ツール (tools/))。実際に分かったことの例:

縦の癖 フゴイド運動の周期、操縦によるものか機体によるものか。 横の癖 2026 機体「陽還」には周期 12.5 秒のはっきりした揺れがあり、 2025 機体「白夜」には無かった。上反角とラダーの違いが癖として出ていた → 上反角や尾翼まわりの見直しへ 構造の設計荷重。** 巡航中の鉛直加速度は実測で最大 +0.18 / −0.25 G(荷重倍数 1.17 / 0.77) → 桁の設計荷重の裏取りへ

Pilot Oriented Navigation System, from the project README
From the project README

Main components on the Pilot Oriented Navigation System

Pilot Oriented Navigation System bill of materials (BOM)

120 components, 46 distinct parts.

QtyPartRefs
1
PAM8302AADCR
U1
1
W25Q128JVS
U2
1
RP2350_80QFN
U3
1
MCP73831-2-OT
U4
1
TPS63031DSK
U5
1
MS5611-01BA
U8
1
BNO085
U10
1
AO3401A
Q1
1
X322512MSB4SI
Y1
1
32.768k
Y2
1
54132-4062
J2
1
2005280040
J3
1
Micro_SD_Card_Det2
J4
1
USB_B_Micro
J6
2
SW_TS-1088
SW2, SW3
1
VBUS_LED_W
D1
2
LED_R
D2, D4
1
1N5819WS
D3
2
390
FB1, FB2
1
3.3u
L1
Show 26 more
QtyPartRefs
1
1.5u
L2
5
1u
C2, C3, C6, C12, C27
3
100u
C4, C9, C46
20
100n
C5, C11, C14, C19, C22, C24, C25, C26 +12
2
47u
C7, C13
2
220p
C8, C10
6
4.7u
C15, C18, C20, C21, C23, C31
2
33p
C16, C17
3
10u
C36, C37, C45
2
15p
C41, C42
6
1k
R1, R3, R8, R24, R25, R28
3
10k
R2, R36, R44
4
100
R4, R5, R27, R29
2
100K
R6, R33
1
10k
R7
1
1
R9
2
470
R10, R11
7
33
R12, R13, R14, R15, R16, R17, R26
3
200
R18, R30, R42
9
4.7k
R19, R20, R21, R22, R23, R40, R41, R48 +1
2
22
R31, R32
1
51K
R34
1
5K1
R35
2
4.7k
R37, R38
1
2.2k
R39
6
0
R46, R47, R50, R51, R52, R53

Pilot Oriented Navigation System design files

The KiCad project lives in the MasaoC/GPS-TFT-Map_PONS repository on GitHub; these links point at the commit this page was built from.

Pilot Oriented Navigation System: common questions

What microcontroller does the Pilot Oriented Navigation System use?

The Pilot Oriented Navigation System is built around the RP2350_80QFN, from the RP2040/RP2350 family.

How big is the Pilot Oriented Navigation System PCB?

The Pilot Oriented Navigation System measures 55.4 × 77.6 mm, has 4 copper layers and is 0.8 mm thick.

How many components are on the Pilot Oriented Navigation System?

120 components, from 46 distinct parts. The full bill of materials is listed on this page.

Where can I download the Pilot Oriented Navigation System design files?

From the MasaoC/GPS-TFT-Map_PONS repository on GitHub, which has the KiCad layout and the schematic; the links under Design files point to each one.

Can I use the Pilot Oriented Navigation System design in my own project?

Yes, under the terms of its MIT license, which MasaoC chose for the repository.

Can I test firmware for the Pilot Oriented Navigation System without the hardware?

Yes. HardLabs builds a simulation of the board from its netlist and BOM, so you can run and debug RP2040/RP2350 firmware against it before you order a PCB.

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