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1724422 Vol 10 · Issue 4 Download Paper

ResQ ID: A Reproducible Face and Ear Retrieval Prototype for Disaster Identification Assistance

Dr. A. Parivazhagan Mallu Sree Harika Kota Koushik Reddy Chala Venkata Srinivas Chinthakayala Sriram

Subject area: Science,Engineering and Technology  ·  Area of research: Machine Learning, Computer Vision

Abstract

ResQ-ID is a reproducible local prototype for retrieving possible missing-person identities from face and ear photographs while retaining human decision authority. The implementation combines YuNet and pretrained SFace, a histogram of oriented gradients (HOG) ear descriptor, exact cosine retrieval, and a FastAPI service with SQLite persistence. Separate component experiments use 400 real Olivetti face images and 600 AMI right-ear images. Three image-disjoint gallery, validation, and test partitions include unseen identities; thresholds are selected only on validation probes. Mean rank-1 retrieval is 96.67% for SFace and 57.92% for HOG ears, while correct accepted identification is 81.11% and 35.83%. Fixed-threshold tests reveal substantial sensitivity to occlusion. The recorded software suite passes 31 checks; 30 loopback ear-query trials have median latency 18.68 ms in a ten-case registry. The datasets contain different subjects, so no paired fusion advantage is demonstrated. These findings establish a transparent component baseline; disaster-field reliability and deployment readiness remain unvalidated.

Keywords

biometric retrieval; face recognition; ear recognition; open-set identification; human verification; reproducible evaluation; disaster assistance

References

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[7] Gonzalez E, Alvarez L, Mazorra L. AMI Ear Database. Universidad de Las Palmas de Gran Canaria. Available from: https://ctim.ulpgc.es/research_works/ami_ear_database/ [Accessed 4 October 2026].

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How to cite this paper

Dr. A. Parivazhagan, Mallu Sree Harika, Kota Koushik Reddy, Chala Venkata Srinivas, Chinthakayala Sriram "ResQ ID: A Reproducible Face and Ear Retrieval Prototype for Disaster Identification Assistance" Iconic Research And Engineering Journals Volume 10 Issue 4 2026 Page 3967-3977
Dr. A. Parivazhagan, Mallu Sree Harika, Kota Koushik Reddy, Chala Venkata Srinivas, Chinthakayala Sriram "ResQ ID: A Reproducible Face and Ear Retrieval Prototype for Disaster Identification Assistance" Iconic Research And Engineering Journals, vol. 10, no. 4, Oct. 2026
Dr. A. Parivazhagan, Mallu Sree Harika, Kota Koushik Reddy, Chala Venkata Srinivas, Chinthakayala Sriram (2026). ResQ ID: A Reproducible Face and Ear Retrieval Prototype for Disaster Identification Assistance. Iconic Research And Engineering Journals, 10(4).
Dr. A. Parivazhagan, Mallu Sree Harika, Kota Koushik Reddy, Chala Venkata Srinivas, Chinthakayala Sriram "ResQ ID: A Reproducible Face and Ear Retrieval Prototype for Disaster Identification Assistance" Iconic Research And Engineering Journals, vol. 10, no. 4, Oct. 2026.
@article{1724422,
      author = {Dr. A. Parivazhagan, Mallu Sree Harika, Kota Koushik Reddy, Chala Venkata Srinivas, Chinthakayala Sriram},
      title = {ResQ ID: A Reproducible Face and Ear Retrieval Prototype for Disaster Identification Assistance},
      journal = {Iconic Research And Engineering Journals},
      year = {2026},
      volume = {10},
      number = {4},
      pages = {3967-3977},
      issn = {2456-8880},
      url = {https://www.irejournals.com/formatedpaper/1724422.pdf},
      abstract = {ResQ-ID is a reproducible local prototype for retrieving possible missing-person identities from face and ear photographs while retaining human decision authority. The implementation combines YuNet and pretrained SFace, a histogram of oriented gradients (HOG) ear descriptor, exact cosine retrieval, and a FastAPI service with SQLite persistence. Separate component experiments use 400 real Olivetti face images and 600 AMI right-ear images. Three image-disjoint gallery, validation, and test partitions include unseen identities; thresholds are selected only on validation probes. Mean rank-1 retrieval is 96.67% for SFace and 57.92% for HOG ears, while correct accepted identification is 81.11% and 35.83%. Fixed-threshold tests reveal substantial sensitivity to occlusion. The recorded software suite passes 31 checks; 30 loopback ear-query trials have median latency 18.68 ms in a ten-case registry. The datasets contain different subjects, so no paired fusion advantage is demonstrated. These findings establish a transparent component baseline; disaster-field reliability and deployment readiness remain unvalidated.},
      keywords = {biometric retrieval; face recognition; ear recognition; open-set identification; human verification; reproducible evaluation; disaster assistance},
      month = {October},
  }