Meet the Founder

Jash

Founder & Chief Visionary of APEX.IOT

I am a 14-year-old entrepreneur with an engineering mind. Driven by a lifelong passion for automation and intelligent systems, I founded APEX.IOT to bridge the gap between imagination and physical reality. With a background rooted in advanced technology and a relentless drive for innovation, I specialize in the engineering of integrated physical computing environments and infrastructure solutions.

I focus on designing clean physical microcontrollers, robust layout frameworks, and low-latency cloud nodes aimed at industrial system automations. I believe that the future belongs to seamless human-robot collaboration. Under my leadership, APEX.IOT focuses on developing smarter, more efficient tech solutions designed to solve real-world complexities. When I'm not mapping out the future of IoT, I can be found exploring next-gen tech trends.

"We aren't just building robots; we are engineering the fabric of tomorrow."

Our Origin

When I was just 8 years old, I loved to disassemble broken battery-operated toys, salvage their motors, and build my own custom toy cars. Initially, they could only move forward in a straight line without any remote control or steering. This spark of curiosity made me wonder: "Why can't I make my own fully functional RC car?"

That question led me down a rabbit hole of research where I fell in love with robotics. I began mastering individual components like PIR sensors, ultrasonic sensors, and relay modules. I quickly realized that a robot functions much like the human body: the microcontroller acts as the brain, the battery acts as the heart, wires serve as blood vessels, and sensors act as sense organs.

The name APEX.IOT represents this vision: Apex signifies reaching the highest absolute point of innovation, and IOT represents the interconnected web of things.

Our Aim: Fabric of Tomorrow

At APEX.IOT, we don’t just build technology; we design the future of human capability. My ultimate aim as the founder is to shatter the boundaries between complex robotics and everyday utility, creating an interconnected world where intelligent automation works seamlessly alongside human ingenuity.

Projects Overview

Bloomed Projects

Project Alpha
Ultrasonic Sensor Servo Motor Arduino Uno

Contact Less Automatic Dustbin

An elegant automation project designed to maximize sanitary hygiene by eliminating physical contact. The system leverages an ultrasonic array to map spatial proximity and flags a micro-servo drive to actuate the canopy dynamically.


SYSTEM OPERATIONAL ENGINE

01
Distance Measurement: HC-SR04 sensor broadcasts ultrasonic echo bursts to capture target object entry cross-sections.
02
Data Processing: MCU monitors time of flight vectors ($t$) and triggers accurate spatial positioning: $d = \frac{t \times 0.0343}{2}$.
03
Action Trigger & Hold: Crossing the < 20 cm path threshold outputs a PWM sequence swinging the servo to 90° for 3-5 seconds.
04
Mechanism Reversion: Once coordinates clear the sensory view profile, the system smoothly resets the servo back to 0°.
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Project Beta
Arduino Uno RF Module (2.4GHz) L298N Driver DC Motors

Bluetooth Controlled Car

A radio-controlled vehicular platform driven by an ATmega328P core. The system interprets incoming signals via an RF receiver and maps inputs to a heavy-duty H-bridge driver circuit, regulating current for independent high-torque steering blocks.


SYSTEM OPERATIONAL ENGINE

01
Signal Transmission: Modulates wireless joystick coordinates directly over a secure 2.4GHz RF radio channel link network instantly.
02
MCU Decoding: Received packets are parsed into directional matrix indexes and raw velocity parameter profiles.
03
Gate Driver Control: Feeds high-frequency PWM duty cycles into dual-channel L298N modules, stepping up lower operational logic currents.
04
Kinematic Steering: Executes differential speed rotation handling maneuvers to spin or swing the custom lightweight car chassis setup instantly.
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Project Gamma
ESP32 Soil Moisture Sensor Drip Emitters Mini Water Pump

Automatic Plant Watering System

An automated setup engineered to deliver optimal volumetric fluid dosage parameters without manual intervention. Popular for indoor smart gardens to prevent under- or over-watering sequences efficiently.


SYSTEM OPERATIONAL ENGINE

01
Soil Sensing Loop: Substrate probes constantly monitor volumetric moisture coefficients down in the root environment grids.
02
Processing Logic: A smart chip microcontroller captures analog levels, determining if data drops underneath hardcoded limits.
03
Action Irrigation Trigger: Switches on a low-voltage micro pump or opens a valve network until safe data limits are successfully hit again.
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Upcoming Projects

Project Alpha
ESP32 MQTT

Smart Agri Grid

Autonomous network infrastructure monitoring and modifying crop environments based on instantaneous soil chemistry analysis.

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Project Beta
Raspberry Pi OpenCV

Robotic ARM

This project outlines the design and development of a programmable, multi-jointed robotic manipulator. Built using an Raspberry Pi microcontroller and 3D-printed structural components, it automates highly precise, repetitive tasks like "pick and place" with human-like dexterity.

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Project Gamma
STM32 FreeRTOS CAN-bus

Industrial Node Overseer

High-reliability real-time tracking array filtering heavy machinery vibrations and temperature differentials across harsh manufacturing configurations.

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Instagram Feed

Instagram Post - Automatic Dustbin Setup
Instagram Reel - Bluetooth Car Test
Instagram Reel - Plant Watering Grid

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