2022
DOI: 10.3390/s22041434
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Automated License Plate Recognition for Resource-Constrained Environments

Abstract: The incorporation of deep-learning techniques in embedded systems has enhanced the capabilities of edge computing to a great extent. However, most of these solutions rely on high-end hardware and often require a high processing capacity, which cannot be achieved with resource-constrained edge computing. This study presents a novel approach and a proof of concept for a hardware-efficient automated license plate recognition system for a constrained environment with limited resources. The proposed solution is pur… Show more

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Cited by 36 publications
(12 citation statements)
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References 69 publications
(119 reference statements)
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“…On the other hand, there is another very interesting approach that consists of deploying these systems for low-resource devices in real time, emulating real environments. For example, in [41], the authors run their tool in a CPU-based system with 8 GB of RAM, and obtain a precision of 66.1% with MobileNet SSDv2 [42] with a 27.2 FPS rate; or in [43], with metrics of detection of 90% and a recognition rate of 98.73% with just Raspberry Pi3B+ as hardware support. Going further, we can find Android-based systems such as [44] or [45], which are designed to be deployed in mobile phones and operate in real time.…”
Section: Up-to-date Solutionsmentioning
confidence: 99%
See 1 more Smart Citation
“…On the other hand, there is another very interesting approach that consists of deploying these systems for low-resource devices in real time, emulating real environments. For example, in [41], the authors run their tool in a CPU-based system with 8 GB of RAM, and obtain a precision of 66.1% with MobileNet SSDv2 [42] with a 27.2 FPS rate; or in [43], with metrics of detection of 90% and a recognition rate of 98.73% with just Raspberry Pi3B+ as hardware support. Going further, we can find Android-based systems such as [44] or [45], which are designed to be deployed in mobile phones and operate in real time.…”
Section: Up-to-date Solutionsmentioning
confidence: 99%
“…Under these circumstances, it may be better to opt for less precise but less resourceconsuming systems. For example, some ALPR systems are ready to operate through CPU instead of GPU, although they sacrifice precision; such as [41] or [43]. It is important to mention that in critical scenarios, there will always be a human controller behind the system, so these tools may deliver more false positives rather than false negatives (and the human controller will discriminate if it is right or not).…”
Section: Speed Processing and Computational Costsmentioning
confidence: 99%
“…Another method has been to use computer vision techniques to detect licence plate numbers. There are many challenges [9] to detecting vehicle licence plates covertly in remote jungle areas, such as limited visibility and lighting [10], limited connectivity, limited access to computation and energy sources [11], exposure to harsh jungle environments (e.g. humidity, water etc.)…”
Section: Vehicle Tracking Using Rfid/ble/vision Technologymentioning
confidence: 99%
“…Due to the variety of conditions and types of license plates, the capacity to automatically detect and recognize plates is one of the essential instruments employed by police department organizations worldwide. Despite common opinion, license plate isolation and classification remain a difficult challenge [4]. The majority of existing options are fundamentally constrained.…”
Section: Introductionmentioning
confidence: 99%