• Home
  • Search
  • ALICE Software: Machine learning & computer vision for automatic label extraction
  • Cite Icon4
  • https://doi.org/10.3897/biss.6.91443Copy DOI Icon

ALICE Software: Machine learning & computer vision for automatic label extraction

Show More
  • Abstract
  • PDF
  • Literature Map
  • References
  • Citations
  • Similar Papers
Abstract

Insects make up over 70% of the world's known species (Resh and Carde 2009). This is well represented in collections across the world, with the Natural History Museum's pinned insect collection alone making up nearly 37% of the museum's remarkable 80 million specimen collection. Thus, this extraordinary dataset is a major focus of digitisation efforts here at the Museum. While hardware developments have seen digitisation processes significantly improve and speed up (Blagoderov et al. 2017), we now concentrate on the latest software and explore whether machine learning can lend a bigger hand in accelerating our digitisation of pinned insects. Traditionally, the digitisation of pinned specimens involves the removal of labels (as well as any supplementary specimen miscellanies) prior to photographing the specimen. In order to document labels, this process is typically followed by additional photographs of labels as the label documentation is often obstructed by their stacking on a pin, the specimen and additional specimen material, or the pin itself. However, these steps not only slow down the process of digitisation but also increase the risk of specimen damage. This encouraged the team at the Natural History Museum to develop a novel setup that would bypass the need for removing labels during digitisation. This led to the development of ALICE (Angled Label Image Capture and Extraction) (Dupont and Price 2019). ALICE is a multi-camera setup designed to capture images of angled specimens, which allows users to get a full picture of a specimen in a collection, including that of the label and the text within. Specifically, ALICE involves four cameras angled at different viewpoints in order to capture label information, as well as two additional cameras providing a lateral and dorsal view of the specimen. By viewing all the images taken from one specimen simultaneously, we can obtain a full account of the labels and of the specimen, despite any obstructions. This setup notably accelerates parts of the digitisation process, sometimes by up to 7 times (Price et al. 2019). Furthermore, ALICE presents the opportunity to incorporate machine learning and computer vision techniques to create a software that automates the process of transcribing the information contained on labels. Automatically transcribing text (whether typed or handwritten) from label images, leads to the topic of Optical Character Recognition (OCR). Regardless of any obstructions to the labels, standard OCR methods will often fail at detecting text from these angled specimens if no preprocessing is done. This was emphasised in Bieniecki et al. (2007), which showed that some standard OCR algorithms were highly sensitive to geometric distortions such as bad angles. Therefore, in our latest ALICE software, we take on a 5-step approach that segments labels and merges them together using machine learning and computer vision, before turning to standard OCR tools to transcribe texts. Our 5-step framework is described as follows: Label segmentation with Convolutional Neural Networks (CNNs), Label corner approximation, Perspective transformation of label, followed by image registration with a given template, Label-image merging using an averaging technique, OCR on merged label. Label segmentation with Convolutional Neural Networks (CNNs), Label corner approximation, Perspective transformation of label, followed by image registration with a given template, Label-image merging using an averaging technique, OCR on merged label. While ALICE aims to reveal specimen labels using a multi-camera setup, we ask ourselves whether an alternative approach can also be taken. This takes us to the next phase of our digitisation acceleration research on smarter cameras with cobots (collaborative robots) and the associated software. We explore the potential of a single camera setup that is capable of zooming into labels. Where intelligence was incorporated post-processing with ALICE, using cobots, we can incorporate machine learning and computer vision techniques in-situ, in order to extract label information. This all forms the focus of our presentation.

Loading PDF

Similar Papers
  • Research Article
  • Citations22

Convolutional neural network with joint stepwise character/word modeling based system for scene text recognition

  • Mar 17, 2021
  • Multimedia Tools and Applications
  • Riadh Harizi +3
  • PDF
  • Research Article
  • Citations64

Cursive Text Recognition in Natural Scene Images Using Deep Convolutional Recurrent Neural Network

  • Jan 01, 2022
  • IEEE Access
  • Asghar Ali Chandio +3
  • Conference Article
  • Citations28

A Vision Based Method for Automatic Evaluation of Germination Rate of Rice Seeds

  • Apr 01, 2018
  • Thuy Thi Nguyen +4
  • Conference Article
  • Citations2

An Empirical Review for Character Recognition in Video Frames using Text Detection Algorithms

  • Jan 19, 2023
  • Nagendra Babu Rajaboina +2
  • Research Article

Handwritten Kannada Character Recognition Utilizing CNN, KNN and SVM

  • May 10, 2025
  • International Journal on Science and Technology
  • Ranu A - +4
  • Conference Article
  • Citations6

Vietnamese Scene Text Detection and Recognition using Deep Learning: An Empirical Study

  • Jul 29, 2022
  • Nhat Truong Pham +5
  • Research Article
  • Citations1

SCCM: A Novel Hybrid Framework for Dual Biometric Authentication for Identity Enhancement

  • Jul 15, 2025
  • International Research Journal of Multidisciplinary Technovation
  • Saurav Verma +2
  • Research Article

Cognitive Technologies: Machine Learning, Artificial Intelligence, and Convolutional Neural Networks in Computer Vision

  • Mar 10, 2025
  • Westcliff International Journal of Applied Research
  • Hajar El Qasemy
  • Research Article
  • Citations2

Emotion detection in text data: a comparative study of machine learning algorithms

  • Aug 22, 2025
  • Brazilian Journal of Biometrics
  • Ikrama Dayyabu Hayatu +4
  • Research Article
  • Citations1

Lip Reading using Deep Learning

  • Jun 29, 2024
  • INTERANTIONAL JOURNAL OF SCIENTIFIC RESEARCH IN ENGINEERING AND MANAGEMENT
  • Robin Anburaj B
  • Research Article

Application of improved bp algorithm in handwritten english text recognition system

  • Nov 23, 2022
  • IET Conference Proceedings
  • J Peng
  • Research Article

Offline Handwritten Character Recognition for Igbo Alphabets Using Convolutional Neural Networks

  • Jun 30, 2025
  • Advances in Multidisciplinary & Scientific Research Journal Publication
  • Woods N.C +1
  • Research Article
  • Citations6

Computer vision and machine learning for image recognition: A review of the convolutional neural network (CNN) model

  • Jan 01, 2021
  • Asian Journal of Multidimensional Research
  • Ajay Rana +1
  • Book Chapter
  • Citations5

Robust Model for Chinese License Plate Character Recognition Using Deep Learning Techniques

  • Jun 14, 2019
  • Amr Abdussalam +4
  • Book Chapter

Deep Learning for Character Recognition

  • Jan 01, 2021
  • B R Kavitha +2
Cactus Communications logo

Copyright 2026 Cactus Communications. All rights reserved.