
Boards using the SPV1040T
27 boardsBoards in 23 GitHub repositories, designed in KiCad, that use the SPV1040T by STMicroelectronics (-40℃~+125℃@(TJ) 1 2V~5.2V 300mV~5.5V 60uA 70kHz~130kHz Adjustable Boost Boost Built-in Yes TSSOP-8 DC-DC Converters ROHS). See how each wires it, with its parts, size, README and files; the SPV1040T’s symbol, footprint and pinout are on its own page.
- 2 layers29.8 × 33.7 mm

- 2 layers23 × 50 mm

- 2 layers45.1 × 20.1 mm

Circuit board design
ImperialSpaceSociety/picotracker-Lora
This is the code base and hardware design files for the Lora pico tracker to be flown around the world
55 parts14 - 2 layers31.1 × 94.2 mm

- 4 layers45 × 45 mm

- 2 layers40.1 × 40.1 mm

SOLARMINI01B
mlab-modules/SOLARMINI01
Small low-power MPPT module for photovoltaic cells.
28 parts2GPL-3.0 - 4 layers95 × 95 mm

- 2 layers100 × 42 mm

Solar MPPT with step up cutoff
m0Ssss/Solar-Squeezer-MPPT-Charger
Simple solar charger using the spv1040 MPPT IC and a DIO6605B 5v out step up
48 parts1 - 4 layers159 × 21.7 mm

- 2 layers48.4 × 34.4 mm

- 4 layers95.1 × 95.1 mm

- 4 layers29.8 × 44.7 mm

- 6 layers46 × 53.6 mm

SideSolarPowerBoard
kongr45gpen/POQUITO-panels
Solar panels with a Magnetorquer for a PocketQube
31 parts - 2 layers

- 2 layers80.8 × 70.6 mm

SOLARMINIBAT01
mlab-modules/SOLARMINIBAT01
Small low-power photovoltaic MPPT module with LTO battery
79 partsGPL-3.0 - 4 layers50 × 50 mm

Plant monitor
PimentoFr/plant-monitor
Developpement d'un capteur de potager indoor/outdoorn solaire et connecté via Sigfox
208 parts - 2 layers52 × 51.3 mm

- 2 layers95.9 × 90.2 mm

Panel connector
SFUSatClub/panel-connector
This repository uses the SFU Satellite Team's KiCad component library as a submodule. To start working on the repository:
223 parts - 2 layers45.1 × 20.1 mm

Circuit board design
ImperialSpaceSociety/picotracker-Lora
This is the code base and hardware design files for the Lora pico tracker to be flown around the world
55 parts14 - 8 layers47.8 × 47.8 mm

ExternalFaces
Kmshanley/PicoSat-Initiative
The pocket cube standard requires satellites to be 5x5x5cm and under 250 grams. Upon completion of this Wentworth PicoSat it will become one of the smallest satellites capable of high resolution imagery from LEO.
31 parts3GPL-3.0 - 4 layers46 × 50.4 mm

ExternalFaces
Kmshanley/PicoSat-Initiative
The pocket cube standard requires satellites to be 5x5x5cm and under 250 grams. Upon completion of this Wentworth PicoSat it will become one of the smallest satellites capable of high resolution imagery from LEO.
34 parts3GPL-3.0 - 4 layers40 × 40 mm

PassthroughBoardRev0 C
Kmshanley/PicoSat-Initiative
The pocket cube standard requires satellites to be 5x5x5cm and under 250 grams. Upon completion of this Wentworth PicoSat it will become one of the smallest satellites capable of high resolution imagery from LEO.
53 parts3GPL-3.0 - 4 layers50 × 50 mm

TopExternalFaceRev0
Kmshanley/PicoSat-Initiative
The pocket cube standard requires satellites to be 5x5x5cm and under 250 grams. Upon completion of this Wentworth PicoSat it will become one of the smallest satellites capable of high resolution imagery from LEO.
31 parts3GPL-3.0 - 2 layers43.7 × 46.1 mm
