Tag Archives: STM32
If you have seen the starship delivery robots by Starship Technologies, you will know how cool delivery robot can be. Pulurobotics have released a set of low-cost opensource robots that are capable of carrying heavy loads and can be reconfigured to do several tasks.
Application robots are robots that can be configured to do several tasks. The Finish based company Pulurobotics have launched the Pulu set of robots called Pulurobots. Just like the way we have the Starship robot and other delivery robot, Pulurobots are low cost (low cost as compared to other robots), load bearing (can carry a payload of over 100kg), and are autonomous robots. Pulurobot can be used as – a delivery boy, a recycle bin, a nightguard, telepresence, shopping carrier, and many more.
The Affordable autonomous open source mobile robot is set to be published at Fosdem 2018, at the ULB Solbosch Campus in Belgium on Sunday 4th February 2018. At the heart of pulurobots is the Raspberry Pi, it needs one Raspberry Pi for navigation and communication with RobotBoard but can feed up to five Raspberries if you need more power or multiple Operating Systems to your application. The robot does Simultaneous Localization and Mapping (SLAM), charges automatically and fulfills the definition of an autonomous mobile robot.
Pulurobot was built from the ground up and doesn’t use ROS (Robots Operating System), even though it is compatible with it. Pulurobot comes in three models:
- Pulurobot S
- Pulurobot M
- Pulurobot L
The Pulurobot S is the smallest version of the robot family with a footprint of about 400 x 300mm, Pulurobot S is capable of carrying over 50Kg of load, tested with 58Kg. Based on the same software and controller board that powers the other robots, Pulurobot S is ideal for applications that require small spaces or offices and a perfect fit for homes.
Pulurobot M is a medium size agile robot and comes in size of 650mm x 470mm with height 230mm and 304mm from the ground. It is powered by 2 pcs of 300W 24V BLDC wheel hub motor, uses LIDAR for navigating and mapping, 4 x 3D TOF (Timer of Flight) cameras and sonar sensors for obstacles. Pulurobot M is capable of carrying over 90 Kg of load, tested with about 118Kg and found no mechanical problems. It is meant to be an application platform. If you need more batteries for your application, you can stack it onto the robot. Inside the robot is a space for 240Wh 18650 battery array, but can easily accommodate around 1KWh on the chassis.
The following are some specification of the Pulurobot M:
- Controller board
- MCU – STM32 microcontroller for sensor management & low-level navigation
- SBC – Slot for Raspberry Pi 2 or 3 for running mapping (SLAM)
- Connectivity – WiFi and/or 3G/4G
- Sensor – MEMS gyroscope, accelerometer, compass
- Motor controllers – 4pcs BLDC motor controllers, 700W peak, to support four-wheel drive computation
- Power Supply – 5V/10A
- Charger – 100W Lithium-ion charger
- 2D 360 degree LIDAR
- Low-cost off-the-shelf 3D Time-of-Flight camera (SoftKinetic DepthSense) for mapping close obstacles
- Riveted, laser-cut aluminum chassis
- Robust suspension: always four wheels on the ground
- Two-wheel drive, BLDC hub motors (similar to hoverboards)
- Supports at 90kg when moving, mechanical structure can withstand a lot more
- Battery – 18650-based lithium ion battery
- Charging – Can find and mount to its charger automatically
Pulurobot L is the largest of all the Pulurobot series and is expected to carry around 300Kg load. Pulurbot is currently not yet available, still on the drawing board. Pulurobot L will find applications in industries.
While most of the robots are still under development and labeled to be open source, they haven’t yet released their SW-HW design to the public domain yet. It is quite possible that their design could be available after the publication on 4th of February. The Pulu S is available and will be available for pre-order for 999.00 EUR only during the Fosdem event, the Pulu M is available for purchase at about 3000 EUR, with delivery taking about 2 months.
Pulurobots could be a game changer in the robotics industries and could help foster more innovation, with the hope of bringing down the cost of building small but yet powerful robots in the future.
In this Arduino Tutorial, we are going to take a first look at the STM32 Arduino Compatible Board. This board is powerful and inexpensive. Let’s see what it has to offer!
STM32 Arduino Tutorial – How to use the STM32F103C8T6 board with the Arduino IDE – [Link]
@ instructables.com build an alternative board to Arduino using STM 32 series of mcus.
We love the Arduino board and it’s prototyping platform . It makes the complete prototyping process smooth and enjoying with the help of it’s add on such as Arduino IDE and a huge community support.But sooner or later you will find that the specifications provided by the arduino boards is not enough . And then the problem arises about which board should we use so that our desires are fulfilled.Also How easy is to use a non arduino board . After a good research I found that the STM 32 is perfect fit.
STM32 Arduino compatible board – [Link]
Ethan Zonca has designed a programming adapter for use with STM32 programmer.
After making the switch from AVR to STM32 microcontrollers, I redesigned my old 6-pin ICSP pogo-programming adapter for SWD. The new design allows programming with pogo pins or a small pin header soldered to the pogo pads for debugging, all with the same cable. The footprint uses surface mount pads only, so it can be placed on even the most compact board layouts.
Open-Source SWD Programming Adapter – [Link]
by Martin Cooke @ elektormagazine.com
STMicroelectronics has extended its range of STM32 Nucleo development boards with scalable, small-form-factor variants to support the 32-pin members of its STM32 microcontroller family. The STM32 Nucleo-32 boards come with support from a choice of IDEs and access to mbed online resources. The STM32 Nucleo open platform is said to enable affordable prototyping using STM32 MCUs combined with a range of hardware plug-ins using Arduino Nano connectors.
Developers can also take full advantage of the STM32 software libraries as well as STM32Cube tools to facilitate software development and port designs from one STM32 variant to another. The STM32 Nucleo boards include the ST-LINK debugger/programmer, which enables drag-and-drop flash programming, so there is no need for a separate debug probe. Since the STM32 Nucleo boards are mbed-enabled, developers can make use of the mbed online tools and collaboration infrastructure at the mbed website.
STM extend Nucleo range – [Link]