TISSUETECH:
Tissues in Action
An educational installation connecting plant histology with IoT smart-farming technology. Explore our physical 3-D root and stem model featuring acrylic vascular channels, LED meristem tips, and real-time digital sensor telemetry.
Tissues in Action: Physical Installation
Explore the tactile educational centerpiece. A physical 3-D plant stem and root structure connected directly to an active IoT monitoring suite for classrooms, science centers, and research labs.
LED Meristem Tip
Cell Division ZoneSimulated rapid apex growth using fiber-coupled LEDs displaying active cell multiplication rates.
Support Layer
Sclerenchyma Ring
Rigid high-tensile boundary
Storage Core
Parenchyma Matrix
Hydration & carbohydrate sink
Vascular Ring
Cambium Conduit
Fluid flow telemetry bus
Companion field-grade sensor kit positioned beside the stem model. Monitors environmental conditions in real time, demonstrating how plant internal transport reacts to soil moisture, canopy heat, and solar radiation.
Photosynthetic PAR
Overhead canopy array
Stem Thermals
Differential ambient gradient
Substrate Moisture
Roots capacitive probe
Telemetry Latency
Microcontroller SPI bus
Classroom & Museum Integration
Includes lesson plans connecting NGSS biology standards with smart precision irrigation systems and data science literacy.
From Cellular Biology to Precision Agriculture
Follow the physical and digital path inside our STEM exhibit prototype. See how living plant tissue mechanics map directly onto smart-farming IoT sensors, helping students connect microscopic anatomy to modern food systems.
Water molecules move inward via selective endodermal membranes governed by osmotic pressure. Our physical prototype model highlights these acrylic-milled micro-pathways alongside dual-pronged capacitive moisture sensors that track volumetric water content directly into the smart-farm telemetry dashboard.
Epidermis & Casparian Strip
FDR Soil Moisture & EC Matrix Probe
Root to Stomatal Axis
Real-time cross-section simulation showing continuous fluid and nutrient translation.
Hands-On Science Standards
Aligned with middle and high school STEM standards covering plant histology, capillary physics, and microelectronic sensing circuits.
Physical Prototype Design
3-D Acrylic Model with Live Telemetry Dashboard
Engineered with acrylic xylem tubes, LED meristem indicators, and responsive dataloggers to make complex agricultural biology visible and intuitive for any audience.
TELEMETRY CONSOLE // REAL-TIME VALIDATION
Educational Impact Metrics
Evaluating hands-on engagement across science centers, classrooms, and smart-farming demonstration stations.
Student Participants
Learners engaged directly through interactive 3-D histology and IoT sensor modules.
Partner Institutions
Science centers, academic museums, and STEM high schools hosting active exhibits.
Concept Retention Rate
Post-exhibit assessment scores evaluating xylem/phloem and smart irrigation comprehension.
AgTech Career Interest
Students demonstrating newfound interest in sustainable agriculture and biosensor systems.
Modular Footprint
120 sq ft min
Adaptive to museum galleries or school labs
Telemetry Integration
Live IoT Bus
Multi-sensor canopy & root matrix
Curricular Standards
NGSS Aligned
Plant histology & precision ag guides