Data Sheet

RB-Dsp-05

FlowBotics Studio V1.1 (CD)

FlowBotics Studio uses a combination of graphical and text based programming to allow for the easy creating of robotic code and

applications. Applications are programmed by linking together functional building blocks called components. Events and data then flow

between the links as the application executes. All this happens instantly - there's no compiling, your application runs as you build it making

development an extremely rapid process. FlowBotics Studio includes the full version of the popular FlowStone software. FlowBotics Studio

interacts directly with the SSC-32 servo controller via Bluetooth (no need for the BotBoarduino), offloading all of the higher level

mathematics to the computer. There is also a visual representation of each of the five sample robots making it easy t ocalibrate all the

servos and to create walking sequences. All the tools and tutorials are available to help you build upon these samples or create your own

from scratch. Currently the software accepts custom Ruby-based code. Unlike FlowStone, FlowBotics Studio cannot be used to create stand-

alone executable programs. Sample code is available for each of the five robots outlined below.

FlowBotics Uses modules which are joined together to create more complex system

AL5D Robotic Arm

The AL5D robotic arm delivers fast, accurate, and repeatable movement. The robot features:

base rotation, single plane shoulder, elbow, wrist motion, a functional gripper, and optional wrist

rotate. The AL5D robotic arm is an affordable system with a time tested rock solid design that

will last and last. Everything needed to assemble and operate the robot is included in the kit

and accessories such as a rotating wrist or vacuum gripper are sold separately. Sample

programs include PS2 control, as well as autonomous control (forward, backward, arm demo

etc).

AL5D Robotic Arm Control in

Flowbotics Studio

SQ3 Symmetric Quadruped Robot

The SQ3 is a 3DoF per leg quadruped robot with a symmetric body design. The robot's

symmetry makes this a very unique quadruped walker. The three DOF (degree of freedom) leg

design provides the flexibility required to walk in any direction as well as body roll! The robot

uses eight HS-645MG servos along with four HS-422 servos. The SES kit includes everything

you need to make a functional robot. Sample programs include: PS2 control and autonomous

control; walking forward / backwards, sideways, rotate clockwise / counter-clockwise and

more.

SQ3 Quadruped Control in Flowbotics

Studio

MH2 Hexapod Robot

The MH2 hexapod robot is designed around a simple mechanical leg design with all metal

brackets. This leg design minimizes the number of parts required to make a two DOF (degree of

freedom) leg and allows this robot to be steered like a tank. Forward, reverse and in place

turning is supported. The robot uses standard sized Hitec servos for the legs. The combo kit

includes everything you need to make a functional robot. Sample programs include: PS2 control

and autonomous control; walking forward / backwards, sideways, rotate clockwise / counter-

clockwise and more.

MH2 Hexapod Control in Flowbotics

Studio

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RB-Dsp-05 FlowBotics Studio V1.1 (CD) FlowBotics Studio uses a combination of graphical and text based programming to allow for the easy creating of robotic code and applications. Applications are programmed by linking together functional building blocks called components. Events and data then flow between the links as the application executes. All this happens instantly - there's no compiling, your application runs as you build it making development an extremely rapid process.
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WD1 Rover The Lynxmotion Aluminum 2WD Servo Robot Kit is a robust, modifiable, and expandable chassis for your RC or autonomous robot experimentation. By utilizing plastic wheels with rubber rim, robot has excellent traction. Using our small 6V NiMH battery pack and the BotBoarduino means there is plenty of room for additional sensors and electronics. Add the IR distance sensor to the front of rear of the robot to perform basic obstacle detection.