A CHICKEN COOP

Abstract

The present invention relates to a chicken coop designed to enhance poultry farming through advanced automation and IOT connectivity. Powered by a solar panel (101) and battery backup, the chicken coop operates autonomously, with automated feeding and watering systems (105), an environmental control fan (103), and lighting bulb (104) to ensure optimal conditions. Real-time health monitoring sensors provide data on each chicken’s vital signs and activity, while a camera (108) enables remote observation via a mobile app. An egg collector (109) and automatic cleaning system (106) streamline coop maintenance, with waste directed to a container (110) through a collecting channel (112). The chicken coop integrates predator protection through automated doors and motion sensors, while water sprinklers (114) manage cooling. Constructed from eco-friendly materials (113), the coop fosters a sustainable and humane poultry environment, supporting scalable setups for both backyard and commercial farming.

Specification

Description:TECHNICAL FIELD OF INVENTION

The present invention is related to the field of electrical engineering. More specifically, it relates to a chicken coop.

BACKGROUND OF THE INVENTION

The background information herein below relates to the present disclosure but is not necessarily prior art.

The traditional methods of poultry farming have long relied on manual labor and basic infrastructure to care for and manage chicken flocks. While these methods have been effective to a certain extent, they are often labor-intensive, time-consuming, and prone to inefficiencies that can impact both the health of the chickens and the productivity of the farm. In recent years, the advent of precision agriculture and farming technologies has introduced new possibilities for improving these processes.

Traditional chicken coops are typically simple enclosures made from wood or metal, designed to provide basic shelter and protection from predators. These coops usually include nesting boxes, roosting bars, and a manual feeding and watering system. While functional, these coops require significant daily human intervention for cleaning, feeding, egg collection, and monitoring the health of the chickens.

Some advancements have been made in the form of automated feeding systems, which dispense feed at set intervals. These systems help reduce labor but often lack the ability to adjust feeding based on real-time data about the chickens' consumption patterns or nutritional needs. Basic temperature and lighting control systems have been implemented in more advanced coops, allowing farmers to regulate the environment inside the coop. However, these systems are often rudimentary and do not integrate with other aspects of coop management, limiting their overall effectiveness.

Some modern farms have adopted health monitoring devices, such as wearable sensors for chickens that track movement and vital signs. These devices provide valuable data but are often standalone solutions that do not integrate with other coop management systems.

The limitations of existing technologies and the increasing demand for sustainable and efficient poultry farming have created a need for a more comprehensive solution. An innovative chicken coop addresses these challenges by integrating multiple advanced technologies into a single, cohesive system. This coop leverages the Internet of Things (IoT), artificial intelligence (AI), and data analytics to automate and optimize various aspects of chicken farming, from feeding and watering to health monitoring and environmental control.

By combining these technologies, the chicken coop not only reduces the labor required to manage a flock but also enhances the well-being of the chickens, improves productivity, and promotes sustainable farming practices. This invention represents a significant leap forward in the evolution of poultry farming, offering a, more efficient, and humane approach to raising chickens. Several patents and innovative products related to chicken coops highlight advancements in integrating technology into poultry farming.

Coop by an Austin-based start-up, which utilizes AI, machine learning, and IoT to monitor and manage individual chickens. This system, known as "cluck watch," provides predator alerts and environmental controls. The Coop also features cameras (108) and remote-controlled lighting, aimed at making poultry farming accessible and efficient for beginners (TechInformed) (Start-up Selfie).

The Coop sold by My Pet Chicken, which includes HD night-vision cameras (108), an automated door system, and a compostable litter tray. This coop can house up to six chickens and is designed for easy remote monitoring and management through a dedicated app. It offers features like predator detection and remote access, ensuring security and convenience for backyard chicken keepers (My Pet Chicken).

Omlet Chicken Coops, which provide remote control of coop doors, real-time notifications, and other management tools via an easy-to-use app. This design emphasizes user-friendly technology to ensure the safety and wellbeing of the flock (Omlet). These examples reflect a growing trend towards integrating advanced technologies into chicken coops to enhance safety, convenience, and efficiency in poultry management.

OBJECTIVE OF THE INVENTION

The primary objective of the present invention is to provide a chicken coop.

Yet another objective of the invention is to reduce manual labor and improve operational efficiency through advanced technologies.

Yet another objective of the invention is to detect early signs of illness or distress and enable timely interventions.

Yet another objective of the invention is to utilize surveillance cameras for real-time monitoring and predator deterrence.

Yet another objective of the invention is to offer a user-friendly mobile app for remote monitoring and management.

Yet another objective of the invention is to design the coop to be modular and adaptable to different flock sizes and farming contexts.



SUMMARY OF THE INVENTION

Accordingly the following invention provides a chicken coop designed to optimize poultry farming through automation and connectivity. It features a solar power system with high-efficiency panels and battery storage to ensure continuous operation. The coop integrates automated environmental control with sensors and climate control systems for optimal living conditions. An automated feeding and watering system, controlled via real-time data, ensures consistent nutrition.

Health monitoring is facilitated by wearable sensors and AI-driven analytics, providing early illness detection. Predator protection is achieved through automated doors, motion sensors, and surveillance cameras (108). The system includes automated waste management and a mobile app for remote monitoring and management. This coop enhances efficiency, animal welfare, and sustainability, offering scalable solutions for both small and large poultry operations.

BRIEF DESCRIPTION OF DRAWING:

Figure 1 of Sheet 1 illustrates the flowchart of the present invention.
Whereas,
101 denotes solar panel,
102 denotes water tank,
103 denotes fan,
104 denotes bulb,
105 denotes automatic food and water container,
106 denotes cleaning wiper,
107 denotes water sprinkles for cleaning,
108 denotes camera,
109 denotes egg collector,
110 denotes wastes container,
111 denotes plant for natural habitat,
112 denotes waste collecting channel,
113 denotes cage of ecofriendly material,
114 denotes water sprinkler for temperature control.

DETAILED DESCRIPTION OF THE INVENTION

As used in the description herein and throughout the claims that follow, the meaning of "a," "an," and "the" includes plural reference unless the context
clearly dictates otherwise. Also, as used in the description herein, the meaning of "in" includes "in" and "on" unless the context clearly dictates otherwise.

The present invention is related to a chicken coop designed to optimize poultry farming through automation and connectivity. The innovative chicken coop marks a significant advancement in poultry farming by integrating cutting-edge technologies to enhance the management, safety, and welfare of chicken flocks.

This invention leverages the Internet of Things (IoT), artificial intelligence (AI), and automation to provide a comprehensive solution for both commercial and backyard poultry keepers. Key features include automated environmental control through sensors and systems that regulate temperature, humidity, and ventilation, ensuring optimal living conditions that reduce stress and improve health and productivity.

Remote monitoring and management allow conditions to be observed via a mobile app with live video feeds from integrated cameras (108), enabling real-time observation and prompt response to issues. The coop also includes automated feeding and watering systems that dispense food and water based on scheduled intervals or real-time data about consumption patterns, ensuring proper nutrition and hydration without manual intervention.

The present invention relates to a Coop, designed to assist users in maintaining the cleanness of the coop practices through automated cleaning mechanism along with providing natural habitat environment for hens. The device includes a solar panel (101) along with battery backup for generation of electricity. The electricity devices which shall be using electricity energy are fan (103) for cooing purpose, Bulb (104) for lighting, food and water dispenser (105), cleaning wiper (106) for cleaning of floor, camera (108) for keeping watch on hens.

An egg collector (109) is made separately, the animal waste is collected in waste container (110) via waste collecting channel (112). The cage is made of eco-friendly material (113) for the living of hens, with provision of water sprinkle (114) for providing shower effect so as to reduce the temperature during summer season. The device operates on a rechargeable battery ensuring portability. The invention enhances automatic maintenance of coop with real-time guidance, adjustable features, and less involvement of human being.

Health monitoring systems track activity levels, weight, and vital signs using wearable sensors, analyzing data to detect early signs of illness or distress, which helps reduce mortality rates. Predator protection is enhanced with automated doors, motion-activated alarms, and cameras (108), offering security both day and night. Sustainability is emphasized with energy-efficient components, eco-friendly materials, and automated waste management systems that maintain a clean environment while reducing the risk of disease and minimizing labor for cleaning.

The coop is user-friendly, designed for intuitive use, and offers step-by-step guidance through the mobile app, even for individuals with no prior farming experience. Benefits include improved chicken welfare through optimized living conditions and health monitoring, labor savings due to automation, enhanced security against predators, and sustainable farming practices that promote resource efficiency.

Additionally, the coop's scalability makes it suitable for various flock sizes, accommodating both small backyard setups and larger commercial operations. This chicken coop provides a modern, efficient, and humane approach to poultry farming, combining traditional practices with the latest technological advancements to meet the evolving needs of poultry farmers. The innovative chicken coop integrates various advanced technologies to automate and optimize poultry management.

Solar Power System: - Solar panels (101) on the roof capture solar energy and convert it into electricity, powering the entire system and ensuring an eco-friendly, sustainable operation. Excess energy generated during the day is stored in batteries, providing reliable power for nighttime and cloudy day operations, maintaining uninterrupted functionality of all automated systems.

Automated Environmental Control: - Sensors within the coop monitor temperature, humidity, and ventilation, continuously collecting data on environmental conditions. The automated climate control system uses this data to adjust fans (103), heaters, and vents, maintaining optimal conditions for the chickens, which reduces stress and promotes better health and productivity.

Feeding and Watering System: - Automated feeders and waterers dispense food and water at scheduled intervals or based on real-time consumption data, ensuring consistent nutrition and hydration without manual intervention. Sensors track feed and water levels, alerting the system to refill as needed, maintaining adequate supplies and reducing wastage.

Health Monitoring: - Wearable sensors on chickens monitor activity levels, weight, and vital signs, collecting continuous health data. AI algorithms analyze this data to detect early signs of illness or distress, sending alerts to the farmer via a mobile app for timely interventions.

Predator Protection: - Automated doors open and close based on ambient light levels or user commands, keeping chickens safely enclosed at night and allowing them to roam freely during the day. Motion sensors detect unusual activity around the coop, triggering alarms to deter potential predators. Surveillance cameras (108) provide real-time video feeds for remote monitoring.

Waste Management: - Automated waste management systems periodically clean the coop, removing manure and other waste materials, maintaining a hygienic environment and reducing disease risk. Collected waste is processed in a compost system, converting it into fertilizer for agricultural use, promoting sustainable farming practices.

Remote Monitoring and Management: A dedicated mobile app enables remote monitoring and management of the coop, providing real-time data on environmental conditions, feed and water levels, chicken health, and security status. Notifications and alerts are sent for anomalies or required actions, such as refilling feeders, adjusting environmental controls, or addressing health issues, ensuring prompt responses.

The system includes a water tank connected to automated water sprinklers for cleaning and temperature control within the coop. An automated feeding and watering system dispenses food and water at scheduled intervals or based on real-time consumption data, ensuring consistent nutrition and hydration for the chickens without manual intervention. A fan controls air circulation and temperature, activating based on environmental conditions to prevent heat stress, while an adjustable bulb provides lighting to simulate natural light cycles, promoting optimal laying conditions.

An automatic cleaning wiper on the coop floor periodically removes waste, aided by a waste collecting channel that directs debris to a container for composting. A solar power system with a solar panel captures solar energy and stores it in batteries, enabling sustainable operation of all connected systems, including the fan, bulb, feeding and watering system, and cleaning wiper, making the coop eco-friendly and independent of external power.

A camera provides real-time video monitoring and connects to a remote mobile application, allowing users to view and manage the coop environment and monitor flock health remotely. An egg collector automates the collection of eggs, minimizing manual labor and ensuring secure storage. A plant integrated within the coop creates a natural habitat to enhance the chickens' well-being, and an eco-friendly cage structure provides a safe and sustainable enclosure.

A health monitoring system with wearable sensors tracks each chicken's activity level, weight, and vital signs, sending real-time health data to a mobile app. AI analytics detect early signs of illness or distress in the flock. For security, a predator protection system includes automated doors, motion sensors to detect unusual activity, and alarms to deter potential threats, safeguarding the flock. The mobile application enables remote connectivity and control, displaying real-time data on environmental conditions, feed and water levels, chicken health, and security status, with notifications and alerts for necessary actions, facilitating remote coop management.

The coop's modular design allows for easy scalability, accommodating various flock sizes and farming setups. The system can be expanded by adding more modules as needed, ensuring flexibility and adaptability. By integrating these advanced features, the chicken coop offers a modern, efficient, and humane approach to poultry farming, enhancing productivity, reducing labor, and promoting animal welfare.

Recent advancements in agricultural technology have spurred the development of innovative solutions for poultry farming, notably the integration of technologies into traditional practices. This abstract delves into the design and implementation of a state-of-the-art chicken coop enhanced by solar panel (101) integration.

The coop is equipped with advanced sensors to monitor crucial environmental parameters such as temperature, humidity, and air quality, ensuring optimal living conditions for poultry. Automated feeding and watering systems, facilitated by IoT devices, provide precise nutrition and hydration, promoting healthier growth and minimizing resource wastage. Real-time data analytics enable remote monitoring and management, empowering farmers with actionable insights for proactive decision-making. Central to its sustainability features, the coop integrates solar panels (101) to harness renewable energy, reducing dependency on conventional power sources. This solar integration not only lowers operational costs but also contributes to environmental stewardship by reducing carbon footprint.

Furthermore, automated egg collection mechanisms streamline harvesting processes, optimizing operational efficiency and labor management. This abstract underscores the transformative impact of technologies and renewable energy integration in modern poultry farming, promising enhanced productivity, sustainability, and economic viability for farmers and stakeholders alike.

While various embodiments of the present disclosure have been illustrated and described herein, it will be clear that the disclosure is not limited to these embodiments only. Numerous modifications, changes, variations, substitutions, and equivalents will be apparent to those skilled in the art, without departing from the spirit and scope of the disclosure, as described in the claims.
, Claims:1. A chicken coop, comprising of;

a water tank (102) connected to automated water sprinklers (107, 114) to supply water for both cleaning and temperature control within the coop;

an automated feeding and watering system (105) programmed to dispense food and water at scheduled intervals or based on real-time consumption data, maintaining consistent nutrition and hydration for the chickens without manual intervention;

a fan (103) for controlling air circulation and temperature activated as per environmental conditions to prevent heat stress;

a bulb (104) for providing adjustable lighting within the coop to simulate natural light cycles and promote optimal laying conditions;

an automatic cleaning wiper (106) positioned on the coop floor, functioning periodically to maintain hygiene by removing waste, and facilitated by a waste collecting channel (112) leading to a waste container (110) for composting;

a solar power system including a solar panel (101) that captures solar energy during the day and stores it in batteries, ensuring the sustainable operation of the fan (103), bulb (104), feeding and watering system (105), cleaning wiper (106), and other connected systems, making the coop independent of external power sources and eco-friendly;

a camera (108) providing real-time video monitoring and connected to a remote mobile application for surveillance and management, enabling users to remotely view and manage the coop environment and flock health;
an egg collector (109) designed to automate the collection of eggs, minimizing manual labor and ensuring safe storage;

a plant (111) integrated within the coop to simulate a natural habitat, enhancing the chickens' environment and well-being;

a cage structure (113) made of eco-friendly materials, providing a sustainable, safe, and animal-friendly enclosure for chickens;

a health monitoring system equipped with wearable sensors to track each chicken's activity level, weight, and vital signs, sending real-time health data to a mobile app via AI analytics to detect early signs of illness and distress;

a predator protection system, including automated doors that open and close based on light levels, motion sensors to detect unusual activity, and alarms to deter potential predators ensuring the safety of the flock;

wherein a mobile application enabled for remote connectivity and control, displaying real-time data on environmental conditions, feed and water levels, chicken health, and security status, with notifications and alerts for required actions, thereby allowing remote management of the coop.

Documents