Create your algorithms
Design and test each component.
Modeloop provides the building blocks to create your algorithm and the harness to test atomic functions rapidly.Workflow
From models to final firmware.
Design algorithms visually, review every change, test their behavior and deploy to your hardware.
01 · Design
Design your components.
Bring your architecture to life on a modern visual canvas. Build every software component by wiring blocks, state machines and calibration parameters
Start designing free02 · Canvas & Text
Switch to text.
Prefer typing? Every component can be edited either graphically on the canvas or via text.
Read about MDLmain8f2c1a703 · Version Control
Review model changes
Make changes and review them. Modeloop separates behavior changes from layout-only edits to easily inspect model modifications
Explore version controlRequirements
04 · Requirements
Keep requirements with the model.
Capture model-scoped intent in a structured hierarchy. Save it as versionable format and exchange it with existing toolchains.
Manage requirements05 · Test
Test before hardware.
Define model tests, run verification workflows and inspect results while the system is still easy to change.
Test your first model
06 · Deploy
Deploy to hardware.
Connect board resources and peripherals to your components. Your firmware is now ready to be deployed.
Deploy your first modelFeatures
d(t)
y(t)
r(t)
51
blocks in one
standard library
Math
18
Logic
12
Input / Output
08
Sources
04
Tensor
03
Routing
03
Lookup
02
Processing
01
Math
Σ
×
|x|
xⁿ
∫
Integrator
lim
tan
√
d/dt
Logic
(A ∧ B) ∨ C
A
B
C
∧
AND
∨
OR
Q
Sources
u(t)
SINE
1.0 Hz
∿
sin
↗
ramp
⌜
step
▮
pulse
Maps
f(x, y)
y
x
Tensor
transpose
→
3 × 4
4 × 3
UNIT TESTING
TEST CASE
step_response
INPUTS
ref_speed
120.0
load_torque
0.0
EXPECTED OUTPUT
motor_speed
120.0
TOLERANCE
motor_speed
± 0.5
motor_speed [rpm]
0
60
120
180
t = 1.84 s
0 s
1 s
2 s
3 s
4 s
ASSERTION RESULT
eventually
motor_speed = 120 ± 0.5
SIMULATION
EXECUTION TARGETS
Same specification
01
MIL
02
SIL
Generated C
Δ 0.0002
03
PIL
Cortex-M
Δ 0.0008
MAX TARGET DELTA
< 0.001
numeric parity
Build your algorithm using elementary blocks. Compose your diagram hierarchically through subsystems.
Model your Finite State Machine (FSM) with visual states, transitions and events
Establish range boundaries for each signal and mathematically verify that the model remains valid across the entire input space.
Write unit tests and run simulations to validate the functional correctness of your model.
Run your model and inspect every signal trace in real time
Start Designing Today
No install required. Open your browser and build your first system.
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