JOY TECHNOLOGY CO.,LTD

Products

Interactive teaching nano smart whiteboard touch screen drawing writing machine

teaching nano blackboard-6

University Multimedia Classroom Upgrade Guide: Nano Blackboard & Virtual Lab Integration
1. Background & Needs
Higher education is evolving toward virtual-physical integration, but traditional multimedia classrooms face three challenges:
1.Fragmented devices: Separate projectors/whiteboards/PCs
2.Lab limitations: High-risk/cost experiments (e.g., nuclear simulations) are impractical
3.Poor interaction: Lecture-based
The Nano Blackboard, as an all-in-one smart terminal, bridges this gap through deep integration with virtual labs.
2. Integration Design
2.1 Hardware Architecture
"1+2+X" model:
1 Core: 86" Nano Blackboard (4K touch + OPS PC)
2 Extensions:
VR Lab Terminal: HTC Vive Pro 2 (master-controlled by blackboard)
Data Hub: Supports Arduino/Python hardware programming
X Peripherals: 3D printers, oscilloscopes, etc.

Feedback

2.2 Software Platform

Module	Function	Application Example
Virtual Lab	200+ discipline-specific simulations	Chemical molecular visualization
Code Editor	Python/C++/MATLAB support	Algorithm verification
Data Dashboard	Real-time experiment analytics	Physics parameter tracking

3. Key Technologies

3.1 Multi-Channel Rendering

Blackboard as main control interface

VR headset for first-person experiment view

Student tablets for third-person guidance

3.2 Touch-Lab Interaction

Gesture Mapping: Drawing circuits → auto-generates SPICE models

Haptic Feedback: Simulates tissue elasticity during dissections

3.3 Safety Controls

Role-Based Access: Professor/TA/student tiers

Activity Logging: Full operation recording (ISO 17025 compliant)

4. Implementation

4.1 Environment Preparation

1.Remove legacy projectors (saves 60% space)

2.Deploy gigabit fiber network (latency <5ms)

3.Install magnetic equipment rails

4.2 System Configuration

Touch Calibration: 25-point precision mode

VR Positioning: Lighthouse 2.0 base stations

LMS Integration: API connectivity with campus systems

5. Case Studies

5.1 Tsinghua Materials Science

Course: 《Crystal Structure Analysis》

Innovations:

3D lattice manipulation via blackboard

Synchronized XRD data visualization

Outcome: 70% faster experiment setup

5.2 MIT Collaboration

Cross-Border Labs: China-US particle collision experiments

Breakthroughs:

Real-time touch-command translation (CN→EN)

Blockchain-based experiment certification

6. Performance Metrics

KPI	Pre-Upgrade	Post-Upgrade	Improvement
Device Usage	48%	92%	91.7%↑
Experiments	63/year	218/year	246%↑
Satisfaction	76/100	94/100	23.7%↑