With the shape of a box it is very easy to align this robot to different wall and to add very stable pinless attachments to it. The goal of the video is to discuss this feature of this particular robot construction.
FIRST® LEGO® League mission requirements need to be achieved by your robot through its programs and its use of equipment. You’re allowed to hand-rescue your robot, but that does cause this penalty. Be sure to pay extra attention to the rules where they talk about “Interruptions"
(mission descriptions source https://www.first-lego-league.org/)
Let's try to integrate more of the things we have learned into a single attachment. One that could accumulate energy, conserve it and use it at the appropriate time. All this because of a Rubber Band and a Flywheel - and if you don't know what a flywheel is you should definitely watch this videos
In this series we will do a short demonstration on the FIRST LEGO League Trash Trek 2015 solutions by one of the teams. These are example solutions with good tips and tricks along with some interesting strategies and videos directly from the team
In this video we discuss part of the pinless attachments build by the ELM team. Without pinless attachment it is nearly impossible to achieve a good score at the FIRST LEGO League competition.
This is one of the very interesting attachments by the ELM team. It is using rubber bands and some rubber to precisely drop the chicken. Very interesting way. Check it out and try to learn from it.
Many teams have followed the same idea as the ELM team. To build a LEGO Mindstorms attachment for the robot and to lift the truck very lightly. In this way they could more the truck and place it in the special region. See what the ELM idea was.
Try to build the attachment following the instructions. Use it to actually solve a mission from any competition (like taking loops)
In the course section for Advance Sensor Calibration we previously showed you how to find the minimum and maximum value for a single LEGO Mindstorms Color Sensor and to store this value in an array. The program was implemented with the EV3-G software. In this tutorial we are going to find the Min and Max for all the four sensors and to store all the 8 values in an array.
The program that Nightbeast team use for their second Run in FLL Into Orbit Challange. In this run they Inserts the Tube Module into the Habitation Hub port on the west side, move all four Core Samples so they are no longer touching the axle that held them in the Core Site Model and place the Gas Core Sample completely in Base.
Transportation includes getting the correct cargo to the correct place. Sort your containers and deliver them to their destinations.
This bridge can be raised and lowered to allow transport on both the river and the road. Lower the bridge decks to prepare for the trucks to pass.
The less often you interrupt the robot outside home, the more points you keep.
The second part of the attachment is used to connect the robot with the pull-up bar. This attachment demonstrates a locking mechanism and can hold the weight of the whole robot while the robot is on the pull-up bar.
This program makes the robot move forwards, turn left, move forwards, and then turn right using Robot Inventor - LEGO MINDSTORMS App Python.
This program controls a Push/Pull attachment build from a LEGO Mindstorms Robot Inventor 51515 set. Check out the tutorial, building instructions and lesson for this attachment and how the program is used.
In this program, we demonstrate how to use the built-in Gyro sensor of the SPIKE brick to program the robot to move forward. We implemented a type of duck walking forward movement. To get a smoother movement, you can try lowering the turn angles from 95.
This program was intended for and tested on the Gazon robot
