Skip to main content
New

VIBRO-HBR

Related products:AI SoftwareAI AcceleratorsTechnology
  • August 16, 2026
  • 0 replies
  • 3 views

Forum|alt.badge.img

Create a highly realistic 3D engineering concept visualization of an assistive wearable navigation system for a blind person.

Show a blind adult wearing a comfortable lightweight smart haptic belt around the waist. The person is walking naturally in a realistic indoor public environment, such as a classroom, library, airport or bus station.

THE WEARABLE:
- A slim, lightweight waist belt.
- Multiple small vibration modules distributed around the belt: left, center-front, right and rear.
- A small waterproof processing/control unit attached discreetly to the belt.
- A rechargeable battery compartment.
- A small forward-facing camera mounted on the chest or shoulder strap.
- Optional small speaker/earpiece for voice instructions.
- Large tactile buttons with different shapes so the user can identify them by touch.
- The device should look comfortable, practical, lightweight and affordable, NOT like a bulky futuristic robot.

HOW IT WORKS:
Show the camera scanning the person's surroundings.
The AI analyzes the environment and recognizes:
- people
- doors
- stairs
- obstacles
- pathways
- empty chairs/seats
- important objects

Show a visual information flow:

CAMERA + SENSORS
        ↓
AI ENVIRONMENT UNDERSTANDING
        ↓
CONTEXT DECISION
        ↓
PERSONAL TACTILE LANGUAGE
        ↓
VIBRATION BELT
        ↓
USER ACTION

IMPORTANT FEATURE — PERSONAL TACTILE LANGUAGE:
The belt does not simply warn about obstacles. It communicates meaningful situations using personalized vibration patterns.

Example scene:
Show an empty chair approximately 3 meters to the person's RIGHT.

The AI identifies:
"EMPTY SEAT — RIGHT — 3 METERS"

The right side of the belt is visibly highlighted with a subtle vibration indicator.

Show an optional speech bubble:
"Empty seat on your right. Move right."

As the person moves closer:
"1 meter."

Then:
"Seat here."

Show the vibration pattern becoming shorter/stronger as the person approaches.

OTHER TACTILE SIGNALS:
LEFT → pulses on left side
RIGHT → pulses on right side
FORWARD → front pulses
STOP → strong repeated pulses
OBSTACLE → warning pattern
DOOR → door pattern
STAIRS → special staircase pattern
EMPTY SEAT → special seat pattern

PERSONALIZATION:
Show a small secondary visualization explaining that the system learns the user's preferred vibration patterns during training.

Example:
TRAINING MODE
"Left"
→ user learns vibration
"Right"
→ user learns vibration
"Stop"
→ user learns vibration
"Empty seat"
→ user learns vibration

Show that the system measures recognition accuracy and gradually adapts the tactile language to the individual user.

ENGINEERING CUTAWAY:
Also provide a second view showing the internal structure of the belt:
- vibration motors
- controller
- battery
- wireless communication module
- processing unit
- sensor connection

Show clean labels and arrows.

STYLE:
Realistic engineering prototype.
Professional medical/assistive-technology design.
Human-centered.
Comfortable wearable.
Modern but buildable with today's technology.
No holograms.
No Iron-Man technology.
No giant robot.
No unrealistic futuristic machinery.

CREATE:
1. Full-body 3D view of the person wearing the system.
2. Close-up of the belt.
3. Exploded engineering view of the belt components.
4. Environment-scanning diagram.
5. Empty-seat example showing "RIGHT → MOVE → SEAT HERE."
6. Simple system workflow diagram.

Overall message:
"See the environment → understand what matters → communicate it through a personalized sense of touch."