application of wool monitering system and managment

application of wool monitering system

1. INDEX S.NO. TITLE 1. what is wool. 2. Process involved in the formation of Wool Fleece to Fabric 3. Challenges Faced in Monitoring Wool from Farm to Fabric 4. Technologies Used for Monitoring Wool 5. B enefits of Monitoring Wool in the Development Process 6. Successful Case Studies of Monitoring Wool in Application Development 7. Potential Areas for Future Development and Improvement 8. Literature Review 9. Conclusion and Key Takeaways 10. REFERENCES

2. What is WOOL ? Wool  is the natural  fibre  obtained from  sheep  and other  mammals , especially  goats ,  rabbits , and  camelids . It is composed of protein substance –Keratin. Wool composed of Hydrogen, Nitrogen, Carbon and Sulphur. Wool is used in variety of textile and can be found woven or knitted. Shearing of wool is an expensive process. The chief wool producing countries are such as UK, Australia, South Africa and New zealand .

3. Process involved in the formation of Wool Fleece to Fabric

4. 3 1 Ensuring Quality Monitor wool at every stage to ensure the highest quality standards are met . 2 Supply Chain Transparency Monitoring allows for better traceability and transparency in the wool supply chain. 3 Sustainability Monitoring helps identify sustainable practices and promotes ethical sourcing. Introduction to Monitoring Wool

5. Challenges Faced in Monitoring Wool from Farm to Fabric Data Collection Collecting accurate and reliable data from multiple sources can be challenging. Quality Control Maintaining consistent quality throughout the production process is essential. Communication Ensuring effective communication between all stakeholders is crucial for successful monitoring.

6. Technologies Used for Monitoring Wool RFID Technology Track and monitor wool using RFID tags for seamless data collection. Big Data Analytics Analyze large volumes of data to gain valuable insights in the wool production process. Machine Learning Utilize machine learning algorithms to predict and optimize wool production.

7. Benefits of Monitoring Wool in the Development Process Improved Quality Identify and resolve quality issues early in the process, leading to better end products. Cost Efficiency Optimize resources and reduce wastage by monitoring and streamlining the production process. Consumer Confidence Assure consumers of the quality and ethical sourcing of wool products through transparent monitoring.

8. Successful Case Studies of Monitoring Wool in Application Development 1 Sheep Farming Monitor sheep health and nutrition to enhance wool quality and yield. 2 Processing Implement real-time monitoring during wool processing to minimize defects and improve efficiency. 3 Sustainable Practices Track and verify sustainable wool production methods to meet increasing consumer demands.

9. Potential Areas for Future Development and Improvement 1 Automation Explore opportunities for automation to streamline monitoring processes and reduce manual labor. 2 Integration Integrate monitoring systems with existing supply chain and data management technologies. 3 Blockchain Consider utilizing blockchain technology for enhanced transparency and data security in wool monitoring.

10. AUTHOR TECH TECH USED KEY FINDING DISADVANTAGE J. L. Schoeneman , and D. Sorokowski , "Authenticated tracking and monitoring system (ATMS) tracking shipments from an Australian uranium mine." pp. 231-240. 2021 ATMS Wireless sensor packets, INMARSAT satellite communication Monitors status , security,and safety of shipment  Though Inmarsat is one of the top of line choices in remote and portable satellite communication, it is lacking in one main area. W. L. Wang, Y. J. Liu, and S. J. Wang, "A RFID-enabled Tracking System in Wire Bond Station of an IC packaging assemble line." pp. 170-175 . 2019 RFID Radio waves,tags contain radio wireless transceiver and battery Real time product information and history Tags might get easily damaged, unavailability of technologies provider, high cost of some tags, and some of them rely on battery power N. Tao, "Vehicular GPS Monitor System Based on GPRS Network." pp. 277-280 . 2019 GPS GPS receiver,satellites,numbered mobile communication network Real time tracking of location,direction,speed and time GPS signals are affected by buildings, trees, and extreme weather, rely on battery power A. Shamsuzzoha , R. Addo-Tenkorang , D. Phuong, and P. Helo , "Logistics tracking: An implementation issue for delivery network." pp. 1-10 . 2015 GPRS Mobile connection GSM networks,GPS system Provide high transmission efficiency,doesn’t require an additional network Uses mobile connection (GSM), can’t provide condition of package , the performance affected by the quality of the coverage M. A. Adarsh , K. Adithya , and A. Nimbal , "FPGA Implementation of Space-Based AIS." pp. 1-5. [23] X. Jianping , L. Shiping , Z. Dejing , L. Xiling , and Z. Jun, "Research and integration of marine embedded AIS information terminal." pp. 3586- 3589 . 2014 AIS VHF frequency range Produce large amounts of data on vessel location Depends on users input, mostly used for ship tracking Wong, and Reshetnikov , "Hybrid tracking technology." pp. 195-200 . 2014 IR Small tags Easy to implement, easily packaged for waterproofing and environmental conditions, can accommodate a high data rate and its capability of moderating the distance IR line-of-sight characteristics require consideration of the transmitter and receiver position and direction, its security is very low, which can lead to the transmission to be blocked and the transmission range may be reduced under certain lighting conditions .  

11. Conclusion and Key Takeaways Enhanced Quality Control Implementing monitoring in wool development ensures high-quality standards are met consistently. Sustainability and Transparency Monitoring promotes sustainable practices and provides transparency throughout the supply chain. Data-Driven Decision Making Analyze data collected during monitoring to make informed decisions and improve overall performance.

12. 1. J. L. Schoeneman , and D. Sorokowski , "Authenticated tracking and monitoring system (ATMS) tracking shipments from an Australian uranium mine." pp. 231-240. 2. W. L. Wang, Y. J. Liu, and S. J. Wang, "A RFID-enabled Tracking System in Wire Bond Station of an IC packaging assemble line." pp. 170-175. 3. N. Tao, "Vehicular GPS Monitor System Based on GPRS Network." pp. 277 280. 4. A. Shamsuzzoha , R. Addo-Tenkorang , D. Phuong, and P. Helo , "Logistics tracking: An implementation issue for delivery network." pp. 1-10. 5. M. A. Adarsh , K. Adithya , and A. Nimbal , "FPGA Implementation of Space-Based AIS." pp. 1-5. [23] X. Jianping , L. Shiping , Z. Dejing , L. Xiling , and Z. Jun, "Research and integration of marine embedded AIS information terminal." pp. 3586- 3589. 6. Wong, and Reshetnikov , "Hybrid tracking technology." pp. 195-200. REFERENCES :