RFID tags in INTERROGATION ZONE PLAN

RFID tags have a memory of 64bits-1kilobyte memory that is non-volatile. The information that can be stored in the tag uses EEPROM memory in most cases, and the durability depends on the manufacturer. Tags can withstand temperatures from the range of -25 degrees Celsius to 70 degrees Celsius. They can withstand high pressure, and in most parts, they are not affected by X-rays. Mostly tags have the same characteristics but differ slightly depending on manufacturers. Implementing RFID tags need to be done carefully to ensure it is done successfully. One has to come up with a strategy for implementation. Project scoping is the first step where one defines the objectives and reviews the shortcomings of RFID. After project scoping, one has to gather information on the existing strategy in the firm and analyze it. One then needs to proceed to design the new system by picking the requirements, select the software and hardware, and finally develop the actual process. The next step is prototype testing, which includes debugging and system adaptation. Then the system is implemented by training the employees and deploying it, which is followed by continuous monitoring to improve the strategy.

In the case of Fugenagen, installing RFID tags in the products would help in keeping track of product location and records of goods produced. Using active tags would be preferred over passive tags since they save on power. Installing a signal with ultra-high-frequency which can be used anywhere on the globe to locate product movement all over the world. The best type of interrogators to use in this case should be mobile interrogators and should be mobile phones and PDAs (Preradovic & Karmakar, 2012). This type of interrogators are minimal, proven, and have advanced functionality. Therefore, they are highly recommended for industrial use.

 

	Antenna
			Rectifier RF into DC to power memory

 

 

RFID tag

Network connection

Computer

RX

TX

Memory

Loop antenna

Transmit data back to the reader

The system consists of a tag and a reader. The reader has a transmitter, receiver, and the antenna. The RFID tag and reader communicate through the backscatter reflection, which is similar to a radar system (Garbati, Perret, & Siragusa, 2018). The design has high frequencies ranging from 860-960 MHz, which results in the RFID receiver with high performance. The tag is excellent in moving objects. A transponder is put in each item and then passed near a tag reader. The tag readers are connected to a central database system that scans and identifies the different IDs, which in turn determine the good. It is quite cheap and uninterruptable.

The RFID will optimize workflow and avoid theft or product loss during transportation and when in storage (Fahim & ElBatt, 2016). After the system is put in place, the organization should follow up by comparing the data read on the tag by doing it manually. Also, collecting feedback from several firms where the system is installed. Calculating the cost would be essential to evaluate the amount saved. In case there are errors, they should be corrected to ensure all the data captured is right. The employees may have a hard time adapting to the new systems but teaching them and also employing technical stuff will come in handy. The fir should have adequate risk management skills to deal with unforeseen issues such as power failure, data loss, or machine failure. The system has been slow due to overloading by data being input. The management has decided to purchase an external storage device that will supplement the internal storage, and some of the files transferred.

 

 

References

Fahim, A., & ElBatt, T. (2016). Multi-reader RFID tag identification using bit tracking (MRTI-BT). 2016 IEEE International Conference on RFID (RFID). doi:10.1109/rfid.2016.7488019

Garbati, M., Perret, E., & Siragusa, R. (2018). UWB Chipless RFID Reading System Independent of Tag Orientation. Chipless RFID Reader Design for Ultra-Wideband Technology, 133-157. doi:10.1016/b978-1-78548-292-2.50006-9

A Memory Efficient Anti-Collision Protocol to Identify Memoryless RFID Tags. (2014). Journal of Information Processing Systems. doi:10.3745/jips.03.0010

Preradovic, S., & Karmakar, N. C. (2012). Chipless RFID Tag-Reader System. Multiresonator-Based Chipless RFID, 127-155. doi:10.1007/978-1-4614-2095-8_7

 

 

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RFID tags in INTERROGATION ZONE PLAN essay Brook Writers.