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January 8th, 2021
Daniela Lopez de Luise
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January 7th, 2021
Daniela Lopez de Luise
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January 7th, 2021
Daniela Lopez de Luise Autonomous Vehicle Vision (AVVision) Special Session (ICIP 2021)
Call for Papers
With a number of breakthroughs in autonomous system technology over the past decade, the race to commercialize self-driving cars has become fiercer than ever. The integration of advanced sensing, computer vision, signal/image processing, and machine/deep learning into autonomous vehicles enables them to perceive the environment intelligently and navigate safely. Autonomous driving is required to ensure safe, reliable, and efficient automated mobility in complex uncontrolled real-world environments. Various applications range from automated transportation and farming to public safety and environmental exploration. Visual perception is a critical component of autonomous driving. Enabling technologies include: a) affordable sensors that can acquire useful data under varying environmental conditions, b) reliable simultaneous localization and mapping, c) machine learning that can effectively handle varying real-world conditions and unforeseen events, as well as “machine-learning friendly” signal processing to enable more effective classification and decision making, d) hardware and software co-design for efficient real-time performance, e) resilient and robust platforms that can withstand adversarial attacks and failures, and f) end-to-end system integration of sensing, computer vision, signal/image processing and machine/deep learning. The special session will cover all these topics. Research papers are solicited in, but not limited to, the following topics:
• 3D road/environment reconstruction and understanding;
• Semantic/instance driving scene segmentation and semantic mapping;
• Self-supervised/unsupervised visual environment perception;
• Car/pedestrian/object/obstacle detection/tracking and 3D localization;
• Car/license plate/road sign detection and recognition;
• Driver status monitoring and human-car interfaces;
• Deep/machine learning and image analysis for car perception;
• Adversarial domain adaptation for autonomous driving.
Organizers
Dr. Rui Ranger Fan, UC San Diego
Prof. Ioannis Pitas, Aristotle University of Thessaloniki
Dr. Nemanja Djuric, Uber ATG
Important Dates
· Paper Submission Deadline: January 13, 2021
· Reviews Made Available to Authors: April 14, 2021
· Author Rebuttal Deadline: April 21, 2021
· Paper Acceptance Notification: May 19, 2021
· Final Paper Submission Deadline: June 16, 2021
· Author Registration Deadline: June 25, 2021
Submission
Papers must be formatted according to the instructions in the IEEE ICIP 2021 Paper Kit.
Please read the entire paper kit carefully to verify that your paper document is formatted correctly and that you have all the information you need before starting your paper submission. The paper kit contains detailed instructions on formatting your document and completing the submission process, as well as a description of how the review process works and how to prepare for your presentation at the conference if your paper is accepted.
All papers must be presented and registered to be published, according to the Non-Presented Paper (No-Show) Policy.
More details can be found at https://2021.ieeeicip.org/Papers.asp
January 7th, 2021
Daniela Lopez de Luise Dear Machine Learning and Deep Neural Networks engineers, scientists and enthusiasts,
you are welcomed to register in this Short e-course on ‘Machine Learning and Deep Neural Networks’, 17-18th February 2021: https://icarus.csd.auth.gr/cvml-short-course-machine-learning-and-deep-neural-networks/
It will take place as a two-day e-course (due to COVID-19 circumstances), hosted by the Aristotle University of Thessaloniki (AUTH), Thessaloniki, Greece, providing a series of live lectures delivered through a tele-education platform. They will be complemented with on-line video recorded lectures and lecture pdfs, to facilitate international participants having time difference issues and to enable you to study at own pace. You can also self-assess your knowledge, by filling appropriate questionnaires (one per lecture). You will be provided programming exercises to improve your programming skills.
It is part of the very successful CVML short course series that took place in the last three years.
The short e-course consists of 16 1-hour live lectures organized in two Parts (1 Part per day):
Part A lectures (8 hours) provide an in-depth presentation of Deep Neural Networks, which are at the forefront of AI advances today, starting with introduction to Machine Learning. Then the cornerstone DNN theory and technologies are presented: a) Artificial Neural Networks, Perceptron; b) Multilayer perceptron, Backpropagation; c) Deep neural networks. Both data classification and regression problems are treated. Convolutional NNs; d) Recurrent Neural Networks. Applications follow in several image analysis, computer vision and autonomous system applications, notably: a) Deep learning for object detection and b) Deep Semantic Image Segmentation. Finally, Generative Adversarial Networks are presented that promise to revolutionize the way we create media/arts, while seriously threatening our democracy with fake data creation and spread.
Part B lectures (8 hours) provide fan in-depth presentation of Machine Learning to complement DNNs. Unsupervised Learning (Data Clustering) is first detailed, allowing us to find structure and extract concepts/knowledge from huge high-dimensionality data. Then Supervised Learning (Data Classification) techniques are presented, notably: a) Decision surfaces (whose special case is DNNs and SVMs) and b) Distance based classification. Dimensionality reduction techniques are overviewed, allowing us to visualize high-dimensionality data found in most applications, ranging from Medicine to Financial Engineering. Kernel methods are presented that can boost performance of any linear ML operation (e.g., PCA, K-means etc). Bayesian learning provides a unified theoretical framework that can encompass many of the ML approaches. Deep Reinforcement Learning is also presented, as it is an essential element in novel Robotics/Control and other decision-making application domains. Finally, CVML programming tools (e.g., DNN frameworks, BLAS/cuBLAS, DNN and CV libraries) are overviewed, as they allow fast application of all the above knowledge in almost any application domain.
Though independent, the attendees of this short e-course will greatly benefit by attending the CVML short e-course on ‘Computer Vision and Image Processing’ 24-25th February 2021:
https://icarus.csd.auth.gr/cvml-short-course-computer-vision-image-processing/
You can use the following link for course registration:
https://icarus.csd.auth.gr/cvml-short-course-machine-learning-and-deep-neural-networks/
Lecture topics, sample lecture ppts and videos, self-assessment questionnaires and programming exercises can be found therein.
For questions, please contact: Ioanna Koroni <koroniioanna@csd.auth.gr>
The short course is organized by Prof. I. Pitas, IEEE and EURASIP fellow, Chair of the IEEE SPS Autonomous Systems Initiative, Director of the Artificial Intelligence and Information analysis Lab (AIIA Lab), Aristotle University of Thessaloniki, Greece, Coordinator of the European Horizon2020 R&D project Multidrone. He is ranked 249-top Computer Science and Electronics scientist internationally by Guide2research (2018). He is head of the EC funded AI doctoral school of Horizon2020 EU funded R&D project AI4Media (1 of the 4 in Europe). He has 32200+ citations to his work and h-index 85+.
AUTH is ranked 153/182 internationally in Computer Science/Engineering, respectively, in USNews ranking.
Relevant links:
1) Prof. I. Pitas:
https://scholar.google.gr/citations?user=lWmGADwAAAAJ&hl=el
2) Horizon2020 EU funded R&D project Aerial-Core: https://aerial-core.eu/
3) Horizon2020 EU funded R&D project Multidrone: https://multidrone.eu/
4) Horizon2020 EU funded R&D project AI4Media: https://ai4media.eu/
5) AIIA Lab: https://aiia.csd.auth.gr/
Sincerely yours
Prof. I. Pitas
Director of the Artificial Intelligence and Information analysis Lab (AIIA Lab)
Aristotle University of Thessaloniki, Greece
January 5th, 2021
Daniela Lopez de Luise Aim and Scopes
Object detection is one of the most challenging and important tasks of computer vision and is widely used in applications such as autonomous vehicle, biometrics, video surveillance, and human-machine interactions. In the past five years, significant success has been achieved with the development of deep learning, especially deep convolutional neural networks. Typical categories of advanced object detection methods are one-stage, two-stage, and anchor-free methods. Nevertheless, the performance in accuracy and efficiency is far from satisfying. On the one hand, the average precision of state-of-the-art object detection methods is very low (e.g., merely about 40% on the COCO dataset). The performance is even worse for small and occluded objects. On the another hand, to obtain precision the detection speed is very low. It is challenging to get a satisfying trade-off between the detection precision and speed. Therefore, much efforts have to be engaged to remarkably improve the performance of object detection in both precision and efficiency.
This special issue will publish papers presenting state-of-the-art methods in dealing with the challenging problems of object detection within the framework of deep learning. We invite authors to submit manuscripts that are highly related to the topics of this special issue and which have not been published before. The topics of interest include, but are not limited to:
Important Dates
Submission period: Jan. 15, 2021
First notification to authors: Mar. 1, 2021
Submission of revised papers: Apr. 15, 2021
Final notification to authors: June 15, 2021
Online publication: Jul. 1, 2021
Submission of Manuscripts
Prospective authors should write manuscripts according to the Guide for Authors of Pattern Recognition Letters available at the website . Please use article type name by: VSI:DL4PEOD.
Guest Editors
Dr. Yanwei Pang, Tianjin University, China, r/admin/tasks/pyw@tju.edu.cn” rel=”external” style=”box-sizing:border-box;margin:0px;padding:0px;vertical-align:baseline;line-height:inherit;background:0px 0px;color:rgb(0,115,152);text-decoration-line:none;word-break:break-word;overflow:hidden;border-bottom:none” target=”_blank”>pyw@tju.edu.cn, MGE
Dr. Jungong Han, Warwick University, U.K., r/admin/tasks/jungong.han@warwick.ac.uk” rel=”external” style=”box-sizing:border-box;margin:0px;padding:0px;vertical-align:baseline;line-height:inherit;background:0px 0px;color:rgb(0,115,152);text-decoration-line:none;word-break:break-word;overflow:hidden;border-bottom:none” target=”_blank”>jungong.han@warwick.ac.uk
Dr. Xin Lu, Adobe Inc., U.S.A., xinl@adobe.com
Dr. Nicola Conci, University of Trento, Italy, nicola.conci@unitn.it