Visionary AI leader with a decade of experience translating research into commercial success. Expertise in real-time and scalable multi-modal AI solutions for precision-critical applications. Proven ability to lead cross-functional teams and deliver end-to-end project execution.
Leadership: | AI Strategy & Vision, Technical Leadership, Cross-Functional Team Leadership, Project Management, Scaling AI Solutions, Mentoring, Research & Development | |
Core Expertise: | Deep Learning, Computer Vision, MLOps & AI Infrastructure, Semantic Segmentation, Object Detection & Tracking, Depth Estimation, Video Event Detection, Sensor Fusion, 3D Scene Reconstruction, Localization & Pathplanning | |
AI/ML Technologies: | PyTorch, TensorRT, TensorFlow, TFLite, ONNX, Scikit-learn, NumPy, MLflow, vLLM, LangChain, vector DBs | |
Multimedia Frameworks: | OpenCV, FFmpeg, DeepStream, GStreamer | |
Deployment: | gRPC, FastAPI, Docker, Cloud Infrastructure (Azure, AWS, DigitalOcean), CI/CD Pipelines | |
Languages: | Python, C/C++, R, SQL | |
DS & Analytics: | Statistical Modeling, Optimization, Numerical Methods, Data Analysis, Data Visualization | |
Hardware: | Industrial Cameras, Optics, LiDARs, Depth Cameras, IMUs, DL Accelerators, Sensor Fusion |
10/2020 - present, Head of AI Sportlight Technology
AI-Driven Analytics for Elite Sports (EPL, SPL, NBA, NHL, and others)
08/2017 - 08/2020, Leading Computer Vision R&D Constanta/OSAI
Led the research, development, and deployment of cutting-edge Computer Vision systems for real-time sports analytics, transforming data capture and analysis for tennis, basketball, billiards, and esports. Spearheaded projects that replaced human scouting with automated, highly accurate CV solutions, driving significant cost savings and enhancing data quality for betting, coaching, and broadcast applications.
10/2014 - 07/2017 Junior Researcher Academic Research Institute
Developed and analyzed stable finite-difference schemes for modeling transient heat and mass transfer in three-dimensional geometries using C/C++. Contributed to six peer-reviewed scientific publications and presented findings at three conferences.
Falaleev N., Chen R. Enhancing Soccer Camera Calibration Through Keypoint Exploitation, // MMSports ‘24: Proceedings of the 7th ACM International Workshop on Multimedia Content Analysis in Sports, 2024, pp. 65-73, DOI: 10.1145/3689061.3689074, GitHub repo.
Cioppa A., Giancola S., …, Falaleev N., et al. SoccerNet 2023 challenges results, // Sports Engineering, V. 27, 2024, DOI: 10.1007/s12283-024-00466-4, ArXiv:2309.06006.
Voeikov R., Falaleev N., Baikulov R. TTNet: Real-time temporal and spatial video analysis of table tennis. // The IEEE/CVF Conference on Computer Vision and Pattern Recognition (CVPR) Workshops, 2020, pp. 884-885, DOI: 10.1109/CVPRW50498.2020.00450, ArXiv:2004.09927.
11/2024 | London PyTorch Meetup | ||
Optimising Video Pipelines for Neural Network Training with PyTorch. Slides, GitHub repo. | |||
11/2024 | Computer Vision Summit London 2024 | ||
Transforming Athlete Performance with LIDAR and Video Data. Keynote presentation, 250+ attendees. | |||
11/2023 | Computer Vision Summit London 2023 | ||
Deploying unparalleled accuracy in athletes’ performance analysis with LIDAR and video data processing. Keynote presentation, 250+ attendees. | |||
06/2023 | CVPR, 9th International Workshop on Computer Vision in Sports | ||
Presentation on a DL approach to camera calibration. GitHub repo. | |||
07/2022 | GSIG Solutions Showcase: Athlete tracking: AI, computer vision, machine learning | ||
LIDAR and visual data fusion for athlete tracking. |
2023 | SoccerNet Camera Calibration Challenge 2023, CVPR | ||
Top-1. DL approach to camera calibration from football broadcast videos. The challenges was held at CVPR 2023. | |||
2018 | Quick, Draw! Doodle Recognition Challenge, Kaggle | ||
Top-4% (50/1316). Application of deep neural networks to classification of users drawings into 300+ classes with 50M train samples | |||
2018 | TGS Salt Identification Challenge, Kaggle | ||
Top-0.5% (14/3234). The deep-learning based approach helps to segment seismic images which is crucial for oil and gas company drillers. | |||
2018 | Lyft Perception Challenge, Udacity | ||
Top-3% (4/155) and the fastest neural network pipeline. The solution is based on LinkNet34 for real-time multiclass semantic segmentation. | |||
2018 | IEEE’s Signal Processing Society - Camera Model Identification, Kaggle | ||
Top-3% (15/583). The solution is based on convolutional neural networks as classifiers for camera models captured a given image. | |||
2016 | Image-Based Localization Challenge, Udacity | ||
The 3d place. A deep learning approach based on GoogLeNet inception module was applied for “localization as classification” method for localization of an autonomous vehicle. |
09/2015 - 07/2017 | Master of Science with Honours in Materials Science, Department of Materials Science | ||
Lomonosov Moscow State University (MSU), Grade: 5.0/5.0 |
09/2011 - 07/2015 | Bachelor of Science in Materials Science, Department of Materials Science | ||
Lomonosov Moscow State University (MSU) |
07/2021 - 08/2021 | Oxford Machine Learning Summer School 2021 |
Certificate |
03/2021 - 08/2021 | Intel Edge AI for IoT Developers Nanodegree |
Udacity, Certificate |
01/2020 - 06/2020 | C++ Nanodegree |
Udacity, Certificate |
11/2016 - 10/2017 | Self-Driving Car Engineer Nanodegree |
Udacity, Certificate, graduated with the first ever cohort |
11/2012 - present | >30 MOOCs in Computer and Data Sciences, Robotics, Computer Vision and Machine Learning |
Coursera, Udacity, edX and etc. |
Founded a non-commercial organization OniroAI (Github) for independent research and development in Computer Vision and Artificial Intelligence.
Nanotechnology:
Eliseev Andrei A., Kumskov A.S., Falaleev N.S., Zhigalina V.S., Eliseev Artem A., Mitrofanov A.A., Petukhov D.I., Vasiliev A.L., Kisilev N.A. Mass Transport Through Defects in Graphene Layers // Journal of Physical Chemistry C, 2017, DOI: 10.1021/acs.jpcc.7b06100
N. S. Falaleev, A.S. Kumskov, V.G. Zhigalina, I.I. Verbitskiy, A.L. Vasiliev, A. A. Makarova, D. V. Vyalikh, N.A. Kiselev, A.A. Eliseev. Capsulate structure effect on SWNTs doping in RbxAg1−xI@SWNT composites // CrystEngComm, 2017, DOI: 10.1039/c7ce00155j
Andrei A. Eliseev, Nikolay S. Falaleev, Nikolay I. Verbitskiy, Andrei A. Volykhov, Lada V. Yashina, Andrei S. Kumskov, Victoria G. Zhigalina, Alexander L. Vasiliev, Alexey V. Lukashin, Jeremy Sloan, Nikolay A. Kiselev. Size-dependent structure relations between nanotube and encapsulated nanocrystal. // ACS Nano Letters, V. 17 I. 2, 2017, P. 805–810 DOI: 10.1021/acs.nanolett.6b04031
N.A. Kiselev, A.S. Kumskov, V.G. Zhigalina, A.L. Vasiliev, J. Sloan, N.S. Falaleev, N.I. Verbitskiy, A.A. Eliseev. The structure and continuous stoichiometry change of 1DTbBrx@SWCNTs // Journal of Microscopy. V. 262, I. 1, April 2016, P. 92–101 DOI: 10.1111/jmi.12348
Lukashin A.V., Falaleev N.S., Verbitskiy N.I., Volykhov A.A., Verbitskiy I.I., Yashna L.V., Kumskov A.S., Kiselev N.A., Eliseev A.A. Quasi free-standing one-dimensional nanocrystals of PbTe grown in 1.4 nm SWNTs. // Nanosystems: physics, chemistry, mathematics. V. 6, I. 6, 2015, P. 850-856 DOI: 10.17586/2220-8054-2015-6-6-850-856