AI-Powered Smart Home Energy Management System
A Scalable Solution from ₹1,000 to ₹1,00,000
Problem
Energy inefficiency is a common issue.
Solution Models
Offers scalable solutions across four models.
Pricing Range
Ranging from ₹1,000 to ₹1,00,000.
Join Us in Revolutionizing Home Energy Management
From basic energy tracking to AI-powered automation, our scalable models provide energy efficiency for every need. Join us in reducing energy consumption and creating smarter homes.
Call to Action: Visit https://thekidcompany.in/store/2f29120/ To start your investment now
Overview of the Four Models
₹1,000 Model: Basic Energy Tracking
  • Tracks real-time current and voltage for basic energy consumption monitoring.
  • Affordable energy monitoring using an Arduino microcontroller.
  • Ideal for beginners and small homes, providing a simple introduction to home automation.
₹10,000 Model: Solar and Smart Plug Integration
  • Integrates solar energy with a 20W panel to reduce grid dependency.
  • Remote control of appliances via smart plugs, using a Raspberry Pi for automation.
  • Suitable for small homeowners looking for basic renewable energy and smart home integration.
₹50,000 Model: Solar with Battery Storage and Automation
  • Includes a 100W solar panel and battery storage for energy independence.
  • Automates high-load appliances like air conditioners with stored solar power.
  • Best for medium-sized homes seeking more advanced energy optimization and storage.
₹1,00,000 Model: AI-Driven Home Automation
  • AI predicts and optimizes energy consumption in real-time, ensuring efficiency.
  • Allows for near-total energy independence with solar and battery systems.
  • Ideal for large homes or businesses looking for complete smart home automation.
₹1,000 Model: Basic Energy Tracking System
The ₹1,000 model is an affordable, entry-level system designed for beginners and hobbyists. It tracks energy consumption in real-time using an Arduino Uno and basic sensors, offering a simple yet effective introduction to home energy management.

1

Real-time Monitoring
The system provides real-time monitoring of current and voltage levels. This allows users to understand how much power different appliances are consuming.

2

Basic Appliance Control
A relay module allows users to switch appliances on and off remotely. This helps users manage energy consumption and reduce waste.

3

Simple Setup
The ₹1,000 model is easy to set up and configure. It's perfect for beginners who are new to home automation and energy monitoring.

4

Cost-Effective Solution
The system is affordable and utilizes readily available components, making it an economical option for users starting their journey with home energy management.
₹1,000 Model: Basic Energy Tracking Code
  • The code uses an ACS712 current sensor to track the current by reading analog data from the sensor connected to the Arduino (at A0 pin).
  • It calculates the current by converting the analog sensor value into voltage and then into current using the sensor's sensitivity and an offset voltage (needed to zero the sensor output).
  • The LiquidCrystal_I2C library controls a 16x2 LCD display, where the current values (in amps) and ADC values (analog to digital converter readings) are displayed in real-time.
₹1,000 Model:LCD and Sensor Setup
#include <LiquidCrystal_I2C.h> // For LCD display LiquidCrystal_I2C lcd(0x27, 16, 2); // Initialize the LCD const int currentPin = A0; // Pin for current sensor int sensitivity = 66; // Sensitivity of the current sensor double currentValue = 0; // Variable to store current value double voltageValue = 0; // Variable to store voltage value void setup() { lcd.init(); lcd.backlight(); // Turn on the LCD backlight lcd.clear(); // Clear the LCD screen Serial.begin(9600); // Begin Serial communication for debugging lcd.setCursor(0, 0); lcd.print("Current Sensor"); lcd.setCursor(0, 1); lcd.print("with Arduino"); delay(2000); // Wait 2 seconds before starting }
₹1,000 Model:Reading Current Values
void loop() { int adcValue = analogRead(currentPin); // Read the analog value from the current sensor double adcVoltage = (adcValue / 1024.0) * 5000; // Convert ADC value to voltage (in millivolts) currentValue = ((adcVoltage - 2500) / sensitivity); // Calculate the current in amps // Display the ADC value and current on the Serial Monitor Serial.print("Raw Sensor Value = "); Serial.print(adcValue); Serial.print("\t Voltage(mV) = "); Serial.print(adcVoltage, 3); Serial.print("\t Current = "); Serial.println(currentValue, 3); delay(1000); // Wait 1 second before repeating }
₹1,000 Model:Displaying Data on the LCD
void displayCurrentOnLCD(int adcValue, double adcVoltage, double currentValue) { lcd.clear(); // Clear the LCD lcd.setCursor(0, 0); // Set cursor to the first line lcd.print("ADC Value = "); lcd.setCursor(12, 0); lcd.print(adcValue); // Display the raw ADC value delay(2000); // Wait 2 seconds lcd.setCursor(0, 0); lcd.print("Voltage (mV) = "); lcd.setCursor(13, 0); lcd.print(adcVoltage, 1); // Display the voltage in millivolts delay(2000); // Wait 2 seconds lcd.setCursor(0, 0); lcd.print("Current = "); lcd.setCursor(10, 0); lcd.print(currentValue, 2); // Display the current in amps lcd.setCursor(14, 0); lcd.print("A"); // Append unit 'A' for amps }
₹1,000 Model:Full Loop with Display Function
void loop() { int adcValue = analogRead(currentPin); // Read current sensor double adcVoltage = (adcValue / 1024.0) * 5000; // Convert to voltage currentValue = ((adcVoltage - 2500) / sensitivity); // Convert to current // Display current data on LCD displayCurrentOnLCD(adcValue, adcVoltage, currentValue); delay(1000); // Wait 1 second before next reading }
₹1,000 Model: Budget Breakdown
₹1,000 Model: Advantages
Affordable Energy Monitoring
A cost-effective solution using basic components like Arduino and sensors, making it accessible to a wide range of users.
Easy to Set Up and Use
Designed with simplicity in mind, ideal for beginners with basic electronics knowledge.
Expandable
Easily adaptable with additional sensors or modules, allowing users to enhance the system as needed.
₹1,000 Model: Target Audience
₹1,000 model
A great starting point for anyone interested in learning about home energy monitoring and Arduino programming.
Perfect for Beginners
Designed for individuals new to the subject who want to experiment with simple energy tracking and control.
Educational Use
Suitable for schools and universities for hands-on learning about energy management.
₹10,000 Model: Solar and Smart Plug Integration
Solar Energy Integration
The ₹10,000 model incorporates a 20W solar panel to generate renewable energy for your home. It allows you to reduce your reliance on the grid and save money on electricity bills.
Remote Appliance Control
Utilize smart plugs to remotely control your appliances like lights, fans, and other devices. This feature provides convenience and energy-saving opportunities.
Suitable for Small Homeowners
The ₹10,000 model is perfect for individuals or families in smaller homes seeking to integrate renewable energy and automate their energy usage.
₹10,000 Model: Code
WiFi and Smart Plug Control: The code connects to a WiFi network to control smart plugs remotely. This allows appliances to be turned on or off based on energy consumption thresholds.
Solar Energy Monitoring: A solar panel is integrated into the system, and the code monitors the voltage generated by the solar panel to track energy from renewable sources.
Automated Appliance Control: Based on the energy data, the system automates appliance control through HTTP requests, turning smart plugs on or off to optimize energy use.
₹10,000 Model: WiFi Setup and LCD Initialization
#include <WiFi.h> // Required for connecting to WiFi for smart plug control #include <HTTPClient.h> // For sending HTTP requests to control smart plugs #include <LiquidCrystal_I2C.h> // For LCD display LiquidCrystal_I2C lcd(0x27, 16, 2); // Initialize the LCD const char* ssid = "Your_SSID"; // WiFi credentials const char* password = "Your_PASSWORD"; const char* smartPlugIP = "http://192.168.x.x/control"; // Smart plug IP void setup() { Serial.begin(115200); lcd.init(); lcd.backlight(); // Initialize WiFi connection for smart plug control WiFi.begin(ssid, password); while (WiFi.status() != WL_CONNECTED) { delay(1000); Serial.println("Connecting to WiFi..."); } Serial.println("Connected to WiFi"); lcd.setCursor(0, 0); lcd.print("Solar Smart Home"); delay(2000); }
₹10,000 Model:Current and Voltage Reading Setup
const int currentPin = A0; // Current sensor pin const int voltagePin = A1; // Voltage sensor pin double currentValue = 0; // Variable to store current value double voltageValue = 0; // Variable to store voltage value void loop() { readCurrent(); readVoltage(); displayDataOnLCD(); // Show data on LCD controlSmartPlug(); // Control smart plug based on energy use delay(5000); // Wait for 5 seconds before the next loop } /* Function: Read current value from current sensor */ void readCurrent() { int currentRaw = analogRead(currentPin); currentValue = (currentRaw * (5.0 / 1023.0)) - 2.5; // Convert to Amps currentValue = currentValue * 30; // Adjust for ACS712 sensor Serial.print("Current: "); Serial.println(currentValue); }
₹10,000 Model:Voltage Reading and LCD Display
/* Function: Read voltage from voltage sensor */ void readVoltage() { int voltageRaw = analogRead(voltagePin); voltageValue = (voltageRaw * (5.0 / 1023.0)) * 240; // Convert to Volts Serial.print("Voltage: "); Serial.println(voltageValue); } /* Function: Display sensor data on LCD */ void displayDataOnLCD() { lcd.clear(); lcd.setCursor(0, 0); lcd.print("Curr: "); lcd.print(currentValue, 2); lcd.print(" A"); lcd.setCursor(0, 1); lcd.print("Volt: "); lcd.print(voltageValue, 2); lcd.print(" V"); }
₹10,000 Model:Solar Power Monitoring
int solarInputPin = A3; // Solar panel input pin double solarVoltage = 0; // Variable to store solar voltage /* Function: Read solar panel voltage */ void readSolarPower() { solarVoltage = analogRead(solarInputPin) * (5.0 / 1023.0); // Convert to volts Serial.print("Solar Voltage: "); Serial.println(solarVoltage); lcd.setCursor(0, 2); lcd.print("Solar: "); lcd.print(solarVoltage, 2); lcd.print(" V"); }
₹10,000 Model:Smart Plug Control
/* Function: Control smart plug based on energy usage */ void controlSmartPlug() { HTTPClient http; if (currentValue > 10) { // Example threshold for turning off the appliance // Send request to turn off the smart plug http.begin(smartPlugIP); // Specify the URL http.addHeader("Content-Type", "application/json"); int httpResponseCode = http.POST("{\"state\":\"OFF\"}"); if (httpResponseCode > 0) { String response = http.getString(); Serial.println(response); } else { Serial.print("Error in sending POST: "); Serial.println(httpResponseCode); } http.end(); Serial.println("Smart Plug turned OFF");
₹10,000 Model:Smart Plug Control
} else { // Send request to turn on the smart plug http.begin(smartPlugIP); http.addHeader("Content-Type", "application/json"); int httpResponseCode = http.POST("{\"state\":\"ON\"}"); if (httpResponseCode > 0) { String response = http.getString(); Serial.println(response); } else { Serial.print("Error in sending POST: "); Serial.println(httpResponseCode); } http.end(); Serial.println("Smart Plug turned ON"); } }
₹10,000 Model:Putting it All Together
void loop() { readCurrent(); readVoltage(); readSolarPower(); // Read solar panel voltage displayDataOnLCD(); // Show data on LCD controlSmartPlug(); // Control smart plug based on energy use delay(5000); // Wait for 5 seconds before the next loop }
₹10,000 Model: Budget Breakdown
₹10,000 Model: Advantages

1

Renewable Energy Integration
The ₹10,000 model includes a solar panel, enabling users to harness renewable energy. This reduces dependence on the grid and helps lower energy bills.

2

Remote Appliance Control
The model incorporates smart plugs. Users can remotely control appliances, adding convenience and enabling energy optimization.

3

Scalability
The system can be easily expanded with additional smart devices or sensors. This makes it adaptable for future upgrades and more complex automation tasks.
₹10,000 Model: Target Audience
Small Homeowners
This model is perfect for those who want to integrate renewable energy into their homes through solar panels. It provides a simple way to monitor and control their appliances.
Tech Enthusiasts
This model is designed to appeal to individuals who are interested in exploring smart home automation. Users can control appliances remotely through the smart plugs and the sensors.
Environmentally Conscious Users
This model allows users to reduce their dependence on grid electricity through solar panels. It's ideal for those who want to reduce their carbon footprint.
₹50,000 Model: Solar and Battery Storage with Automation
The ₹50,000 model takes energy management to the next level, combining solar power, battery storage, and smart home automation. This system empowers medium-sized homes to optimize energy use, embrace renewable energy, and reduce dependence on the grid.
100W Solar Panels
This model uses high-efficiency solar panels to generate clean, renewable energy, reducing carbon footprint and contributing to a greener future.
Battery Storage
The battery storage system captures excess solar energy, allowing homeowners to utilize it during peak demand hours or power outages, ensuring energy independence.
Smart Appliance Control
Users can remotely control and automate energy-intensive appliances like air conditioners, optimizing energy consumption and promoting cost savings.
₹50,000 Model: Solar and Battery Integration Code
"This code integrates solar energy generation, battery storage monitoring, and smart appliance automation. It ensures that appliances are controlled based on available energy, optimizing usage and reducing dependency on the grid."
Solar Power Monitoring
Tracks the real-time voltage produced by solar panels.
Battery Storage Management
Monitors battery voltage to determine energy availability.
Smart Appliance Control
Automates high-load appliances through smart switches based on battery and solar energy levels.
₹50,000 Model: Solar Power and Battery Storage Initialization
#include <LiquidCrystal_I2C.h> // For LCD display #include <WiFi.h> // For WiFi connection to control smart switches #include <HTTPClient.h> // For sending HTTP requests to smart switches LiquidCrystal_I2C lcd(0x27, 16, 2); // Initialize the LCD const int solarPin = A0; // Pin for solar panel voltage input const int batteryPin = A1; // Pin for battery voltage input const char* ssid = "Your_SSID"; // WiFi credentials const char* password = "Your_PASSWORD"; const char* smartSwitchIP = "http://192.168.x.x/switch"; // IP of smart switch
₹50,000 Model: Solar Power and Battery Storage Initialization
double solarVoltage = 0; // To store solar panel voltage double batteryVoltage = 0; // To store battery voltage void setup() { lcd.init(); lcd.backlight(); Serial.begin(115200); lcd.setCursor(0, 0); lcd.print("Smart Solar Home"); delay(2000); // Connect to WiFi WiFi.begin(ssid, password); while (WiFi.status() != WL_CONNECTED) { delay(1000); Serial.println("Connecting to WiFi..."); } Serial.println("Connected to WiFi"); }
₹50,000 Model: Solar and Battery Voltage Monitoring
void loop() { // Read voltages from solar panel and battery solarVoltage = readVoltage(solarPin, 100); batteryVoltage = readVoltage(batteryPin, 12); // Display readings and control smart switch displayPowerDataOnLCD(); controlSmartSwitch(); delay(5000); // Wait 5 seconds before repeating }
₹50,000 Model: Solar and Battery Voltage Monitoring
/* Function: Read voltage from a specified pin */ double readVoltage(int pin, double scaleFactor) { int rawValue = analogRead(pin); double voltage = (rawValue * (5.0 / 1023.0)) * scaleFactor; Serial.println(voltage); return voltage; } /* Function: Display solar and battery voltages on the LCD */ void displayPowerDataOnLCD() { lcd.clear(); lcd.print("Solar V: "); lcd.print(solarVoltage, 2); lcd.setCursor(0, 1); lcd.print("Battery V: "); lcd.print(batteryVoltage, 2); }
₹50,000 Model: Displaying Data on the LCD
/* Function: Display power data on LCD */ void displayPowerDataOnLCD() { lcd.clear(); lcd.setCursor(0, 0); lcd.print("Solar V: "); lcd.print(solarVoltage, 2); // Display solar voltage on the LCD lcd.setCursor(0, 1); lcd.print("Battery V: "); lcd.print(batteryVoltage, 2); // Display battery voltage on the LCD }
₹50,000 Model: Smart Switch Control Based on Battery Level
/* Function: Control smart switch based on energy status */ void controlSmartSwitch() { HTTPClient http; String switchState = batteryVoltage > 11.5 ? "ON" : "OFF"; // Condition to turn on/off http.begin(smartSwitchIP); http.addHeader("Content-Type", "application/json"); int httpResponseCode = http.POST("{\"state\":\"" + switchState + "\"}"); if (httpResponseCode > 0) { Serial.println("Smart switch turned " + switchState); } else { Serial.print("Error turning " + switchState + ": "); Serial.println(httpResponseCode); } http.end(); }
₹50,000 Model: Full Code in the Loop
void loop() { readSolarVoltage(); // Monitor solar panel readBatteryVoltage(); // Monitor battery status displayPowerDataOnLCD(); // Show values on LCD controlSmartSwitch(); // Control appliances based on energy status delay(5000); // 5-second delay between readings }
₹50,000 Model: Budget Breakdown
₹50,000 Model: Advantages
Renewable Energy
100W solar panels reduce grid reliance and promote sustainability.
Battery Backup
Integrated battery storage provides power during outages or at night.
Automated Control
Smart switches optimize energy use for high-load appliances.
₹50,000 Model: Target Audience
Homeowners Seeking Energy Independence
Reduce reliance on the grid and enjoy the benefits of renewable energy.
Environmentally Conscious Users
Embrace sustainable energy solutions and reduce your carbon footprint.
Tech Enthusiasts
Control and monitor your home's energy consumption with intelligent automation.
₹1,00,000 Model: AI-Driven Smart Home Energy System
The ₹1,00,000 model is a high-end, AI-powered smart home energy management system designed for large homes or businesses. It integrates solar power, battery storage, and AI-driven automation to optimize energy usage, offering a future-proof solution for energy independence.
AI-Driven Automation
Predicts and optimizes energy consumption in real-time, automatically adjusting appliance usage and energy generation to minimize energy waste.
Solar Power Integration
Equipped with 200W solar panels to generate clean and renewable energy, reducing reliance on the grid and promoting sustainability.
Battery Storage
Stores excess solar energy in a 1.5kWh LiFePO4 battery for use during peak hours or outages, ensuring a reliable power supply even when the grid is unavailable.
₹1,00,000 Model: AI-Driven Automation Code
This code for the ₹1,00,000 model integrates multiple key functionalities designed to create an AI-driven smart home energy management system. The system focuses on renewable energy utilization, real-time monitoring, and intelligent automation to maximize energy efficiency and reduce reliance on the grid.
Solar and Battery Monitoring
The system continuously monitors solar panel voltage and battery storage, ensuring real-time tracking of renewable energy production and consumption.
AI-Driven Smart Appliance Control
The code uses AI to optimize appliance usage based on energy levels, powering on high-load devices when batteries are full and switching them off to conserve power when low.
WiFi Integration for Smart Home Automation
The code connects to WiFi to control smart switches, enabling remote and automated appliance management based on real-time energy conditions.
Real-Time Data Display
The system displays solar panel voltage and battery status on an LCD, allowing users to monitor home energy at a glance.
₹1,00,000 Model:AI-Driven Energy Optimization and Solar Integration
#include <LiquidCrystal_I2C.h> #include <WiFi.h> #include <HTTPClient.h> // LCD and sensor setup LiquidCrystal_I2C lcd(0x27, 16, 2); const int solarPin = A0; const int batteryPin = A1; double solarVoltage = 0; double batteryVoltage = 0;
₹1,00,000 Model:AI-Driven Energy Optimization and Solar Integration
// WiFi setup const char* ssid = "Your_SSID"; const char* password = "Your_PASSWORD"; const char* smartSwitchIP = "http://192.168.x.x/switch"; // Example IP for smart switch void setup() { lcd.init(); lcd.backlight(); Serial.begin(115200); // WiFi connection WiFi.begin(ssid, password); while (WiFi.status() != WL_CONNECTED) { delay(1000); Serial.println("Connecting to WiFi..."); } Serial.println("Connected to WiFi"); lcd.setCursor(0, 0); lcd.print("AI Solar System"); delay(2000); }
₹1,00,000 Model:Voltage Monitoring and Display
void loop() { // Read voltages from solar panel and battery solarVoltage = readVoltage(solarPin, 100); // Solar panel scaling factor batteryVoltage = readVoltage(batteryPin, 12); // Battery scaling factor // Display the readings on the LCD displayPowerDataOnLCD(); // AI-driven smart switch control based on energy status controlSmartSwitch(); delay(5000); } /* Function: Read voltage from a specified pin */ double readVoltage(int pin, double scaleFactor) { int rawValue = analogRead(pin); return (rawValue * (5.0 / 1023.0)) * scaleFactor; }
₹1,00,000 Model:AI-Based Smart Switch Control
/* Function: Control smart switch using AI-based prediction */ void controlSmartSwitch() { HTTPClient http; // Example AI logic to predict energy demand if (batteryVoltage > 11.5) { // Predicts high energy availability, turns on appliances http.begin(smartSwitchIP); http.addHeader("Content-Type", "application/json"); int httpResponseCode = http.POST("{\"state\":\"ON\"}");
₹1,00,000 Model:AI-Based Smart Switch Control
if (httpResponseCode > 0) { Serial.println("Smart switch turned ON"); } else { Serial.print("Error turning ON: "); Serial.println(httpResponseCode); } http.end(); } else { // Predicts low energy availability, turns off appliances http.begin(smartSwitchIP); http.addHeader("Content-Type", "application/json"); int httpResponseCode = http.POST("{\"state\":\"OFF\"}"); if (httpResponseCode > 0) { Serial.println("Smart switch turned OFF"); } else { Serial.print("Error turning OFF: "); Serial.println(httpResponseCode); } http.end(); } }
₹1,00,000 Model:Real-Time Data Display on LCD
/* Function: Display solar and battery voltages on LCD */ void displayPowerDataOnLCD() { lcd.clear(); lcd.setCursor(0, 0); lcd.print("Solar V: "); lcd.print(solarVoltage, 2); // Display solar voltage lcd.setCursor(0, 1); lcd.print("Battery V: "); lcd.print(batteryVoltage, 2); // Display battery voltage }
₹1,00,000 Model:Full System Integration
void loop() { solarVoltage = readVoltage(solarPin, 100); batteryVoltage = readVoltage(batteryPin, 12); displayPowerDataOnLCD(); controlSmartSwitch(); // Use AI to control appliances delay(5000); }
₹1,00,000 Model: Budget Breakdown
₹1,00,000 AI-Powered Smart Home Model:Advantages
The ₹1,00,000 model offers cutting-edge energy efficiency, automation, and renewable energy integration, making it a comprehensive solution for smart home management.
AI-Driven Optimization
It uses advanced AI algorithms to predict and optimize energy usage, ensuring maximum efficiency and reduced energy wastage.
Energy Independence
The combination of solar power generation and battery storage allows the home to be less reliant on grid electricity, promoting sustainability and lowering electricity bills.
₹1,00,000 AI-Powered Smart Home Model:Advantages
Smart Appliance Control
It automates and remotely controls high-power appliances based on energy availability, leading to better energy management and comfort.
Real-Time Monitoring
Provides real-time data on energy production and consumption via an LCD display, enabling homeowners to track and manage energy use effectively.
Target Audience: Who Benefits from the ₹1,00,000 Model?

Tech-Savvy Homeowners
Tech-savvy homeowners who embrace cutting-edge AI and home automation systems will appreciate the sophisticated capabilities of this model.

Sustainability Advocates
Individuals passionate about renewable energy and reducing their carbon footprint will find this model's solar power and AI-driven energy optimization features highly appealing.

Luxury Homeowners
Luxury homeowners seeking high-end, premium smart home solutions for large properties will benefit from the system's comprehensive automation and energy efficiency.

Businesses & Commercial Spaces
Small to medium-sized enterprises aiming to reduce operational costs with energy-efficient solutions will appreciate the system's ability to monitor and optimize energy usage.
Feature and Pricing Comparison: ₹1,000 to ₹1,00,000 Smart Home Models
Each model represents a different level of smart home integration, from basic energy tracking to AI-driven automation.
Technical Specification Comparison: From ₹1,000 to ₹1,00,000 Models
This table provides a side-by-side technical comparison of the energy storage, power rating, appliance integration, and smart features across all four models.
Conclusion: Driving Energy Efficiency with Smart Home Models
Affordable Solutions
The ₹1,000 and ₹10,000 models are perfect for smaller homes, allowing for basic energy tracking and smart plug integration.
Advanced Energy Management
The ₹50,000 and ₹1,00,000 models provide advanced automation, renewable energy integration, and AI-powered optimization for energy independence.
Sustainability
Solar energy and AI-driven systems contribute to a greener planet by reducing reliance on fossil fuels.
Scalability
Each model builds on the previous one, providing scalable solutions that grow with your home’s energy needs.
Conclusion: Join Us in Revolutionizing Home Energy Management
From basic energy tracking to AI-powered automation, our scalable models provide energy efficiency for every need. Join us in reducing energy consumption and creating smarter homes.
Call to Action: Visit https://thekidcompany.in/store/2f29120/ To start your investment now