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Biocompostera/en

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300px-Biocompostera2.jpg
This biocomposter, unlike the others, is intelligent, this means that it has a built-in temperature and humidity sensor to measure the optimal levels of the compost, if the levels are not within the optimal parameters, the water pump integrated into the system to water the compost, managing to automate the composting process.

Composer for experimentation with biomaterials.

15px-FA_info_icon.svg.png19px-Angle_down_icon.svg.pngProject data
AuthorsCarolina Bustamante
Carolina Bustos
Andrés Lundin
Eduardo Durán
Juan de Dios Valdivieso
Status Verified
Years2021
Madeyes
OKH ManifestDownload
15px-FA_info_icon.svg.png19px-Angle_down_icon.svg.pngDevice data
Documentation homehttps://gitlab.com/fablab-u-de-chile/biocompostera
Bill of materials#List of materials
License hardwareCERN-OHL-S
CertificationsStart OSHWA certification

What is a biocompostress?

A biocomposter is a container of organic waste such as fruit shells, cuescos, biomaterials such as agar agar, organic waste in general. This to obtain a compost that is fertilizer produced from these degraded wastes in the wettest soil.

Why make a biocompostress?

In addition to using the organic waste that is generated day by day in our home, a totally free and chemical-free fertilizer fertilizer is manufactured, which can be used to nourish our plants.

Characteristics

This biocomposter has 3 accessories that allow complete composting in all its processes.

  1. Have a crusher made with 3D printing at the top that works with a crank that moves the crushers, which allow to break down the waste prior to pouring into the container, this stops decrease degradation time of organic waste being smaller pieces in size.
  2. Contains an aerator which is a tube with fins along it, located in the central part which by means of a crank rotates moving each layer of the compost to aerate them and improve the composting process.
  3. It has a door printed in 3D at the bottom to power remove composting from the last layer which is ready to be used as a subscription.
  4. Has a funnel at the bottom which serves to filter the liquid result containing all the optimal nutrients for the soil. It also has a humidity and temperature sensor to verify that the levels of these measurements are within the ideal composting parameters.

Material listing

NameMeasurementsUnits
Crusher
Nuts8mm6 units
Butts8mm6 units
18mm8 units
ScrewsM4 x 306 units
M8 x 308 units
M10 x 303 units
Bearings60064 units
Aluminum plate155 mm2 units
Stop3D printing
Biela
Bearing6081 unit
BoltM8 x 251 unit
Butts18mm2 units
ArmCNC cut
Handle3D printing
Aerator
Bearing6082 units
Screws4 x 104 units
4 x 303 units
Wood veneer270 mmCNC cut
Aluminum tube16mm x 380mm
Fins3D printing
Connector3D printing
SupportCNC cut

Moisture sensor and irrigation pump

Its purpose is to monitor temperature and humidity within the biocomposter and in turn maintain the humidity level of the compost by means of automated irrigation, this in consideration of the importance of the humidity level for the compost in its different stages.

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Optimal conditions
  • Humidity: 40 - 60%
  • Temperature: 45 ° - 70 ° C
Sensor
Printed lid3D PLA
Moisture sensorDTH 11 and DTH 22
Water pump9v
Irrigation hose4 mm
ArduinoA unit
DuPont cables
Retractable thermos2mm and 4mm
Screen16x8
Battery9v
Printed Carcasa3D PLA
Exterior
Cover3D printing
Holders3D printing, 4 units
Funnel
Filter
Transparent mica190 x 40mm
Epoxy glue
Balde5 gallons, 2 units
Rubber moldingChannel in c / diameter bucket
Door3D printing
BaseCNC cut

How to build our biocompostress?

one
Download crusher files

(Uploaded by Marek Senický, Jun 7 2014) in [one] and print the files in 3D to assemble the pieces as shown in your video.

2
Print in 3D

3D print the crank cap and stop, crank outlet cover, joints for 4x buckets, bottom cover, aerator fins, adapter and connector of the aerator tubes.

3
Cut in CNC

CNC cut the upper caps of the crusher, upper lid of the aerator, crank arm, aerator support and base of the biocomposter.

4
Screw

Screw the wooden cover with the crusher with the aluminum plate, assemble crank with the bearing and stops, assemble wooden legs with round bases.

5
Extract

Extract the base of the upper bucket and make a hole in the base of the lower bucket to place the funnel, place funnel and filter, make small holes in the upper bucket for ventilation, make a hole in the buckettop for the crank and place its lid, glue the rubber molding on the edge of the buckets.

6
Make a hole

Make a hole in the bottom bucket for the lid where the compost is removed, make holes in the bottom bucket to screw the aerator bracket, holes in the side to get interior vision.

7
Airplant

(Support, bearing, 3D printed joint, tube, 3D printing connectors and cover).

8
Join buckets with bras (3D)

Laying wooden base and finallyplace lid of the crusher or aerator.

More details

15px-FA_info_icon.svg.png19px-Angle_down_icon.svg.pngPage data
Part ofDigital Biofabrication Node
Keywordsbiocompost
SDGSDG07 Affordable and clean energy
AuthorsFABLAB University of Chile
LicenseCC-BY-SA-4.0
LocationChile
Ported fromhttps://gitlab.com/fablab-u-de-chile/biocompostera (original)
LanguageSpanish (is)
Related0 subpages, 1 pages link here
Impact5 page views (more)
CreatedApril 30, 2024 by Paola Moreno
Last modifiedAugust 19, 2024 by Felipe Schenone
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