Courses
2023
Introduction to Deep Learning and
Applications in Physics and Astronomy
FCAG - UNLP, Sept 25 - 28
Lecturers: Clecio R. de Bom & Luciana Dias (CBPF, Brazil)
The aim of this course is to give a general and practical introduction to Deep Learning tools and data treatment with a focus on Astronomy and physics examples. We plan 4 classes, and in addition, we plan to offer time for tutoring and hands-on.
To be approved in this course, the student will have 30 days from Oct 5 to present a report with an application of AI techniques presented in the course. All students will also make a 5-10 minutes video describing the project and results. We will organize a virtual meeting on a date to be determined for presentation of the videos and discussion of all projects.
Postdocs as well as PhD and undergraduate students of Astronomy, Geophysics and Meteorology are welcome to attend this course. Researchers are also welcome to attend but priority will be given to postdocs and students.
If you are interested in attending this course, please contact Dr. Analía Smith Castelli (asmith@fcaglp.unlp.edu.ar).
Program
Monday Sept 25 (Planetarium) (Video)
2:30 PM. Lecture 1: Introduction to Artificial Intelligence and Deep Neural Networks
3:30 PM. Lab1: Introduction to python and Jupyter notebooks, collab and neural Networks
4:30 PM. Coffee
Tuesday Sept 26 (Planetarium) (Video sin sonido)
2:30 PM. Lecture 2: Data preparation and training (PDF)
3:30 PM. Lab2: Data exploration and preprocessing
4:30 PM. Coffee
Wednesday Sept 27 (Planetarium) (Video)
2:30 PM. Lecture 3: Regression & Classification with Deep Learning (PDF)
3:30 PM. Lab3a: Classification
4:30 PM. Coffee
Thursday Sept 28 (Planetarium) (Video)
2:30 PM. Lecture 4: Uncertainty and Segmentation
3:30 PM. Lab4a: Segmentation
4:30 PM. Coffee
Friday Sept 29 – Wednesday Oct 4 (IALP meeting room)
2:30 PM - 4:30 PM. Projects Discussion
Software y Requerimientos Informáticos
Se utilizará Google Colab por lo que no se requiere de la descarga de ningun software específico, por el momento. Para las clases prácticas se recomienda contar con laptop, aunque no es imprescindible. Se planea que el material de las clases teóricas y prácticas se haga disponible a través de esta página.
2022
Introduction to Machine Learning in Astronomy
FCAG - UNLP, Nov 28 - Dec 7
Lecturers: Laerte Sodré Jr. & Vitor Cernic (IAG-USP, Brazil)
The objective of this course is to give a general and practical introduction to data science in Astronomy, with focus on machine learning tools. We want to give some context on statistical techniques used by astronomers and present machine learning procedures useful for the analysis in astronomy. We plan 4 classes, with one hour of "theory" and one hour of applications using Python.
To be approved in this course, after the classes the student will have 10 days to present a report with an application of ML techniques. All students will also make a 5-10 minutes video describing the project and results. We will organize a virtual meeting on a date to be determined for presentation of the videos and discussion of all projects.
Postdocs as well as PhD and undergraduate students of Astronomy, Geophysics and Meteorology are welcome to attend this course. Researchers are also welcome to attend but priority will be given to postdocs and students.
If you are interested in attending this course, please contact Dr. Analía Smith Castelli (asmith@fcaglp.unlp.edu.ar).
Program
Monday Nov 28 (Planetarium) (Video)
2:00 PM. Lecture 1: Introduction to Statistics for Data Analysis in Astronomy (PDF)
3:00 PM. Lab1: Introduction to python and Jupyter notebooks descriptive statistics
4:00 PM. Coffee
Wednesday Nov 30 (Planetarium) (Video)
9:30 AM. Coffee
10:00 AM. Lecture 2: Machine Learning: general concepts (PDF)
11:00 AM. Lab2: Data exploration with non-parametric techniques
Thursday Dec 1 (Planetarium) (Video)
2:00 PM. Lecture 3: Regression & Classification (PDF)
3:00 PM. Lab3: Tools for regression and classification; applications on real data the workflow of ML
4:00 PM. Coffee
Friday Dec 2 (Planetarium) (Video)
2:00 PM. Lecture 4: Deep Learning
3:00 PM. Lab4: Neural networks with the Keras/TensorFlow package and Google Colab
4:00 PM. Coffee
Monday Dec 5 - Tuesday Dec 6 - Wednesday Dec 7 (IALP meeting room)
2:00 PM - 4:00 PM. Projects Discussion
Software
Si no se dispone de conda, primero instalarlo (si ya se encuentra instalado, continuar con las instrucciones (*) a partir de conda create...):
Descargar desde https://docs.conda.io/en/latest/miniconda.html#latest-miniconda-installer-links la versión apropiada para su sistema operativo.
Para iniciar el instalador, desde una terminal hacer:
bash ~/Descargas/Miniconda3-py39_4.12.0-Linux-x86_64.sh
Seguir las instrucciones (si surgen dudas, elegir la opciones por defecto). Cuando pregunte si desea inicializar conda (Do you wish the installer to initialize [...]) responder que si.
Una vez finalizada la instalación continuar en una nueva terminal.
Para evitar que conda inicie con el entorno base activado, hacer:
conda config --set auto_activate_base false
(*)Luego, para crear un entorno con el software del curso:
conda create -n cursoML python=3.9 scikit-learn tensorflow matplotlib seaborn pandas joblib notebook
Y finalmente para poder usarlo:
conda activate cursoML
jupyter notebook
NOTA 1
La lista de paquetes que figuran en la instrucción conda create es la enviada por los docentes del curso. Si llegara a necesitarse algo más, se resolverá al inicio del mismo.
Para sumar paquetes al entorno creado:
conda install -n cursoML lista de paquetes
NOTA 2
Para instalar xgboost hacer:
conda activate cursoML
pip install xgboost
Consultas: juanirod@fcaglp.unlp.edu.ar
Material for Practical Sessions
Monday Nov 28
Class 0 - Introduction to Python
Class 1 - Descriptive Statistics
Wednesday Nov 30
Class 2 - Machine Learning: General Concepts
Files to be used during the class
Thursday Dec 1
Class 3 - Regression and Classification
Files to be used during the class
Friday Dec 2
Class 4 - Deep Learning
Files to be used during the class (the same as in the previous class)
Papers for ML Project
Context: Any scientific problem starts with a scientific question and the identification of one or more strategies to try to answer it, in our case by using machine learning (ML). In this course we will ask you to develop a small ML project, within a subject of your interest. Notice that in general (but not always!) ML requires lots of data to provide sensible answers, so take this into account. To help you to identify a ML project, we present bellow a list of papers that uses ML, recently posted in arXiv (September 22 - November 24; incomplete list). Notice that some of them adopt techniques that we have never worked with! We hope this helps!
List of papers:
arXiv:2012.05820 - Hybrid analytic and machine-learned baryonic property insertion into galactic dark matter haloes. Authors: Ben Moews, Romeel Davé, Sourav Mitra, Sultan Hassan, Weiguang Cui
arXiv:2107.02304 - The GIGANTES Data Set: Precision Cosmology from Voids in the Machine-Learning Era. Authors: Christina D. Kreisch, Alice Pisani, Francisco Villaescusa-Navarro, David N. Spergel, Benjamin D. Wandelt, Nico Hamaus, and Adrian E. Bayer
arXiv:2107.05771 - Deep learning reconstruction of the large scale structure of the Universe from luminosity distance observations. Authors: Cristhian García, Camilo Santa, Antonio Enea Romano
arXiv:2108.07749 - AGNet: Weighing Black Holes with Deep Learning. Authors: Joshua Yao-Yu Lin, Sneh Pandya, Devanshi Pratap, Xin Liu, Matias Carrasco Kind, Volodymyr Kindratenko
arXiv:2111.02422 - Modeling the galaxy-halo connection with machine learning. Authors: Ana Maria Delgado, Digvijay Wadekar, Boryana Hadzhiyska, Sownak Bose, Lars Hernquist, Shirley Ho
arXiv:2201.05734 - Fast and Flexible Analysis of Direct Dark Matter Search Data with Machine Learning. Authors: LUX Collaboration: D.S. Akerib, S. Alsum, H.M. Araújo, X. Bai, et al.
arXiv:2203.03651 - Deep learning and Bayesian inference of gravitational-wave populations: Hierarchical black-hole mergers. Authors: Matthew Mould, Davide Gerosa, Stephen R. Taylor
arXiv:2203.12702 - Modelling the galaxy-halo connection with semi-recurrent neural networks. Authors: Harry George Chittenden, Rita Tojeiro
arXiv:2203.16607 - A Self-Learning Neural Network Approach for RFI Detection and Removal in Radio Astronomy. Authors: Benjamin R. B. Saliwanchik and Anvze Slosar
arXiv:2204.10751 - Machine Learning methods to estimate observational properties of galaxy clusters in large volume cosmological N-body simulations. Authors: Daniel de Andres, Gustavo Yepes, Federico Sembolini, Gonzalo Martínez-Muñoz, Weiguang Cui, Francisco Robledo, Chia-Hsun Chuang and Elena Rasia
arXiv:2205.01677 - ASTROMER: A transformer-based embedding for the representation of light curves. Authors: C. Donoso-Oliva, I. Becker, P. Protopapas, G. Cabrera-Vives, Vishnu M., Harsh Vardhan
arXiv:2205.05307 - The AGEL Survey: Spectroscopic Confirmation of Strong Gravitational Lenses in the DES and DECaLS Fields Selected Using Convolutional Neural Networks. Authors: Kim-Vy H. Tran, Anishya Harshan, Karl Glazebrook, G. C. Keerthi Vasan, Tucker Jones, Colin Jacobs, Glenn G. Kacprzak, Tania M. Barone, Thomas E. Collett, Anshu Gupta, Astrid Henderson, Lisa J. Kewley, Sebastian Lopez, Themiya Nanayakkara, Ryan L. Sanders, and Sarah M. Sweet
arXiv:2205.05952 - A method for approximating optimal statistical significances with machine-learned likelihoods. Authors: Ernesto Arganda, Xabier Marcano, Víctor Martín Lozano, Anibal D. Medina, Andres D. Perez, Manuel Szewc, Alejandro Szynkman
arXiv:2205.08733 - Identification of Grand-design and Flocculent Spirals from SDSS using Convolutional Neural network. Authors: Suman Sarkar, Ganesh Narayanan, Arunima Banerjee, Prem Prakash
arXiv:2207.05107 - GaMPEN: A Machine-learning Framework for Estimating Bayesian Posteriors of Galaxy Morphological Parameters. Authors: Aritra Ghosh, C. Megan Urry, Amrit Rau, Laurence Perreault-Levasseur, Miles Cranmer, Kevin Schawinski, Dominic Stark, Chuan Tian, Ryan Ofman, Tonima Tasnim Ananna, Connor Auge, Nico Cappelluti, David B. Sanders, Ezequiel Treister
arXiv:2207.14324 - A Machine Learning Approach to Enhancing eROSITA Observations. Authors: John Soltis, Michelle Ntampaka, John Wu, John ZuHone, August Evrard, Arya Farahi, Matthew Ho and Daisuke Nagai
arXiv:2209.02817 - Deducing Neutron Star Equation of State Parameters Directly From Telescope Spectra with Uncertainty-Aware Machine Learning. Authors: Delaney Farrell, Pierre Baldi, Jordan Ott, Aishik Ghosh, Andrew W. Steiner, Atharva Kavitkar, Lee Lindblom, Daniel Whiteson, Fridolin Weber
arXiv:2209.03042 - Graph Neural Networks for Low-Energy Event Classification & Reconstruction in IceCube. Authors: R. Abbasi, M. Ackermann, J. Adams, N. Aggarwal, J. A. Aguilar, et al.
arXiv:2209.04430 - Investigation of a Machine learning methodology for the SKA pulsar search pipeline. Authors: Shashank Sanjay Bhat, Thiagaraj Prabu, Ben Stappers, Atul Ghalame, Snehanshu Saha, T.S.B Sudarshan, Zafiirah Hosenie
arXiv:2209.07257 - The probabilistic random forest applied to the QUBRICS survey: improving the selection of high-redshift quasars with synthetic data. Authors: Francesco Guarneri, Giorgio Calderone, Stefano Cristiani, Matteo Porru, Fabio Fontanot, Konstantina Boutsia, Guido Cupani, Andrea Grazian, Valentina D'Odorico, Michael T. Murphy, Angela Bongiorno, Ivano Saccheo, Luciano Nicastro
arXiv:2209.08940 - Gaussian Process regression for astronomical time-series. Authors: Suzanne Aigrain and Daniel Foreman-Mackey. Source code: https://github.com/dfm/araa-gps
arXiv:2209.09957 - Semi-Supervised Classification and Clustering Analysis for Variable Stars. Authors: R. Pantoja, M. Catelan, K. Pichara, P. Protopapas
arXiv:2209.10161 - The PAU Survey & Euclid: Improving broad-band photometric redshifts with multi-task learning. Authors: L. Cabayol, M. Eriksen, J. Carretero, R. Casas, F.J. Castander, E. Fernández, J. Garcia-Bellido, E. Gaztanaga, H. Hildebrandt, H. Hoekstra, B. Joachimi, R. Miquel, C.Padilla, A. Pocino, E. Sanchez, S. Serrano, I., et al.
arXiv:2209.10333 - A Deep Learning Approach to Infer Galaxy Cluster Masses from Planck Compton-y parameter maps. Authors: Daniel de Andres, Weiguang Cui, Florian Ruppin, Marco De Petris, Gustavo Yepes, Giulia Gianfagna, Ichraf Lahouli, Gianmarco Aversano, Romain Dupuis, Mahmoud Jarraya, and Jesús Vega-Ferrero
arXiv:2209.11146 - MLGWSC-1: The first Machine Learning Gravitational-Wave Search Mock Data Challenge. Authors: Marlin B. Sch\"afer, Ondvrej Zelenka, Alexander H. Nitz, He Wang, Shichao Wu, Zong-Kuan Guo, Zhoujian Cao, Zhixiang Ren, Paraskevi Nousi, Nikolaos Stergioulas, Panagiotis Iosif, Alexandra E. Koloniari, Anastasios Tefas, Nikolaos Passalis, Francesco Salemi, Gabriele Vedovato, Sergey Klimenko, Tanmaya Mishra, Bernd Br\"ugmann, Elena Cuoco, E. A. Huerta, Chris Messenger, Frank Ohme
arXiv:2209.11248 - Comparing simulated Milky Way satellite galaxies with observations using unsupervised clustering. Authors: Li-Hsin Chen, Tilman Hartwig, Ralf S. Klessen, and Simon C. O. Glover
arXiv:2209.12194 - Machine learning technique for morphological classification of galaxies from the SDSS. III. Image-based inference of detailed features. Authors: V. Khramtsov, I.B. Vavilova, D.V. Dobrycheva, M.Yu. Vasylenko, O.V. Melnyk, A.A. Elyiv, V.S. Akhmetov, A.M. Dmytrenko
arXiv:2209.12799 - Machine learning constraints on deviations from general relativity from the large scale structure of the Universe. Authors: George Alestas, Lavrentios Kazantzidis and Savvas Nesseris
arXiv:2209.13592 - DVGAN: Stabilize Wasserstein GAN training for time-domain Gravitational Wave physics. Authors: Tom Dooney, Stefano Bromuri, Lyana Curier
arXiv:2209.13603 - Scalable and Equivariant Spherical CNNs by Discrete-Continuous (DISCO) Convolutions. Authors: Jeremy Ocampo, Matthew A. Price, Jason D. McEwen
arXiv:2209.14113 - Improving ANAIS-112 sensitivity to DAMA/LIBRA signal with machine learning techniques. Authors: I. Coarasa, J. Apilluelo, J. Amaré, S. Cebrián, D. Cintas, E. García, M. Martínez, M. A. Oliván, Y. Ortigoza, A. Ortiz de Solórzano, T. Pardo, J. Puimedón, A. Salinas, M. L. Sarsa, P. Villar
arXiv:2209.14226 - Radio source-component association for the LOFAR Two-metre Sky Survey with region-based convolutional neural networks. Authors: Rafa\"el I.J. Mostert, Kenneth J. Duncan, Lara Alegre, Huub J.A. R\"ottgering, Wendy L. Williams, Philip N. Best, Martin J. Hardcastle, Raffaella Morganti
arXiv:2209.14323 - Neural Stellar Population Synthesis Emulator for the DESI PROVABGS. Authors: K. J. Kwon, ChangHoon Hahn and Justin Alsing.
arXiv:2209.15112 - Machine-learning classification of astronomical sources: estimating F1-score in the absence of ground truth. Authors: A. Humphrey, W. Kuberski, J. Bialek, N. Perrakis, W. Cools, N. Nuyttens, H. Elakhrass, P.A.C. Cunha
arXiv:2210.00632 - A deep learning approach for focal-plane wavefront sensing using vortex phase diversity. Authors: M. Quesnel, G. Orban de Xivry, G. Louppe, O. Absil
arXiv:2210.00869 - Explainable classification of astronomical uncertain time series. Authors: Michael Franklin Mbouopda, Emille E O Ishida, Engelbert Mephu Nguifo, Emmanuel Gangler
arXiv:2210.01431 - Machine Learning based search for Cataclysmic Variables within Gaia Science Alerts. Authors: D. Mistry, C. M. Copperwheat, M. J. Darnley, I. Olier
arXiv:2210.01666 - Neural Network Based Point Spread Function Deconvolution For Astronomical Applications. Authors: Hong Wang, Sreevarsha Sreejith, Yuewei Lin, Nesar Ramachandra, Anvze Slosar and Shinjae Yoo
arXiv:2210.01813 - The DAWES review 10: The impact of deep learning for the analysis of galaxy surveys. Authors: Marc Huertas-Company and Francois Lanusse
arXiv:2210.01827 - An Interpretable Machine Learning Framework for Modeling High-Resolution Spectroscopic Data. Authors: Michael A. Gully-Santiago and Caroline V. Morley
arXiv:2210.04143 - Strong Gravitational Lensing Parameter Estimation with Vision Transformer. Authors: Kuan-Wei Huang, Geoff Chih-Fan Chen, Po-Wen Chang, Sheng-Chieh Lin, Chia-Jung Hsu, Vishal Thengane, Joshua Yao-Yu Lin
arXiv:2210.04168 - Galaxy Spin Classification I: Z-wise vs S-wise Spirals With Chirality Equivariant Residual Network. Authors: He Jia, Hong-Ming Zhu, Ue-Li Pen
arXiv:2210.04228 - Deep learning method in testing the cosmic distance duality relation. Authors: Li Tang, Hai-Nan Lin, Liang Liu
arXiv:2210.04588 - A convolutional neural network to distinguish glitches from minute-long gravitational wave transients. Authors: Vincent Boudart
arXiv:2210.04896 - Discovering Ca II Absorption Lines With a Neural Network. Authors: Iona Xia, Jian Ge, Kevin Willis and Yinan Zhao
arXiv:2210.05686 - Neural Importance Sampling for Rapid and Reliable Gravitational-Wave Inference. Authors: Maximilian Dax, Stephen R. Green, Jonathan Gair, Michael P\"urrer, Jonas Wildberger, Jakob H. Macke, Alessandra Buonanno, Bernhard Sch\"olkopf
arXiv:2210.06170 - Contrastive Neural Ratio Estimation. Authors: Benjamin Kurt Miller, Christoph Weniger, Patrick Forré
arXiv:2210.07391 - CMB Delensing with Neural Network Based Lensing Reconstruction in the Presence of Primordial Tensor Perturbations. Authors: Chen Heinrich, Trey Driskell and Chris Heinrich
arXiv:2210.08382 - Machine-Learning Love: classifying the equation of state of neutron stars with Transformers. Authors: Gon\c{c}alo Gon\c{c}alves, Márcio Ferreira, Jo\~ao Aveiro, Antonio Onofre, Felipe F. Freitas, Constan\c{c}a Providencia, José A. Font
arXiv:2210.10052 - Data-driven Cosmology from Three-dimensional Light Cones. Authors: Yun-Ting Cheng, Benjamin D. Wandelt, Tzu-Ching Chang, Olivier Dore
arXiv:2210.10793 - LeMoN: Lens Modelling with Neural networks -- I. Automated modelling of strong gravitational lenses with Bayesian Neural Networks. Authors: Fabrizio Gentile, Crescenzo Tortora, Giovanni Covone, León V.E. Koopmans, Rui Li, Laura Leuzzi and Nicola R. Napolitano
arXiv:2210.10802 - Identification of Galaxy-Galaxy Strong Lens Candidates in the DECam Local Volume Exploration Survey Using Machine Learning. Authors: E. Zaborowski, A. Drlica-Wagner, F. Ashmead, J. F. Wu, R. Morgan, C. R. Bom, et al.
arXiv:2210.10810 - Identifying Tidal Disruption Events with an Expansion of the FLEET Machine Learning Algorithm. Authors: Sebastian Gomez, V. Ashley Villar, Edo Berger, Suvi Gezari, Sjoert van Velzen, Matt Nicholl, Peter K. Blanchard, and Kate. D. Alexander
arXiv:2210.11236 - Optical turbulence forecast over short timescales using machine learning techniques. Authors: A. Turchi, E. Masciadri, L. Fini
arXiv:2210.11428 - Analysis of Ring Galaxies Detected Using Deep Learning with Real and Simulated Data. Authors: Harish Krishakumar and J. Bryce Kalmbach
arXiv:2210.11487 - New applications of Graph Neural Networks in Cosmology. Authors: Farida Farsian, Federico Marulli, Lauro Moscardini, Carlo Giocoli
arXiv:2210.12264 - A machine learning approach to assessing the presence of substructure in quasar host galaxies using the Hyper Suprime-Cam Subaru Strategic Program. Authors: Chris Nagele, John D. Silverman, Tilman Hartwig, Junyao Li, Connor Bottrell, Xuheng Ding, Yoshiki Toba
arXiv:2210.12791 - O-type Stars Stellar Parameter Estimation Using Recurrent Neural Networks. Authors: Miguel Flores R., Luis J. Corral, Celia R. Fierro-Santill\'an and Silvana G. Navarro
arXiv:2210.12931 - Removing Radio Frequency Interference from Auroral Kilometric Radiation with Stacked Autoencoders. Authors: Allen Chang, Mary Knapp, James LaBelle, John Swoboda, Ryan Volz, Philip J. Erickson
arXiv:2210.13473 - Mangrove: Learning Galaxy Properties from Merger Trees. Authors: Christian Kragh Jespersen, Miles Cranmer, Peter Melchior, Shirley Ho, Rachel S. Somerville, Austen Gabrielpillai
arXiv:2210.14933 - Stokes inversion techniques with neural networks: analysis of uncertainty in parameter estimation. Authors: Lukia Mistryukova, Andrey Plotnikov, Aleksandr Khizhik, Irina Knyazeva, Mikhail Hushchyn and Denis Derkach
arXiv:2210.15888 - Deep Learning Detection and Classification of Gravitational Waves from Neutron Star-Black Hole Mergers. Authors: Richard Qiu, Plamen Krastev, Kiranjyot Gill, Edo Berger
arXiv:2210.16060 - Deep network series for large-scale high-dynamic range imaging. Authors: Amir Aghabiglou, Matthieu Terris, Adrian Jackson, Yves Wiaux
arXiv:2210.16440 - ODNet: A Convolutional Neural Network for Asteroid Occultation Detection. Authors: Dorian Cazeneuve, Franck Marchis, Guillaume Blaclard, Paul A. Dalba, Victor Martin, Joé Asencioa
arXiv:2210.17470 - Deep Learning application for stellar parameters determination: II - Application to observed spectra of AFGK stars. Authors: Marwan Gebran, Frédéric Paletou, Ian Bentley, Rose Brienza, Kathleen Connick
arXiv:2211.00024 - A robust estimator of mutual information for deep learning interpretability. Authors: Davide Piras, Hiranya V. Peiris, Andrew Pontzen, Luisa Lucie-Smith, Ningyuan Guo, Brian Nord
arXiv:2211.00047 - Optimizing machine learning methods to discover strong gravitational lenses in the Deep Lens Survey. Authors: Keerthi Vasan G.C., Stephen Sheng, Tucker Jones, Chi Po Choi and James Sharpnack
arXiv:2211.00397 - Galaxy classification: a deep learning approach for classifying Sloan Digital Sky Survey images. Authors: Sarvesh Gharat and Yogesh Dandawate
arXiv:2211.00677 - Semi-Supervised Domain Adaptation for Cross-Survey Galaxy Morphology Classification and Anomaly Detection. Authors: Aleksandra Ćiprijanović and Ashia Lewis and Kevin Pedro and Sandeep Madireddy and Brian Nord and Gabriel N. Perdue and Stefan Wild
arXiv:2211.01567 - Galaxy Image Deconvolution for Weak Gravitational Lensing with Physics-informed Deep Learning. Authors: Tianao Li and Emma Alexander
arXiv:2211.02045 - Fast and robust Bayesian Inference using Gaussian Processes with GPry. Authors: Jonas El Gammal, Nils Sch\"oneberg, Jesús Torrado, Christian Fidler
arXiv:2211.02062 - A unique, ring-like radio source with quadrilateral structure detected with machine learning. Authors: Michelle Lochner, Lawrence Rudnick, Ian Heywood, Kenda Knowles and Stanislav S. Shabala
arXiv:2211.03796 - Astronomia ex machina: a history, primer, and outlook on neural networks in astronomy. Authors: Michael J. Smith, James E. Geach
arXiv:2211.04260 - PhotoRedshift-MML: a multimodal machine learning method for estimating photometric redshifts of quasars. Authors: Shuxin Hong, Zhiqiang Zou, A-Li Luo, Xiao Kong, Wenyu Yang and Yanli Chen
arXiv:2211.04291 - Detection is truncation: studying source populations with truncated marginal neural ratio estimation. Authors: Noemi Anau Montel, Christoph Weniger
arXiv:2211.04488 - Deblending Galaxies with Generative Adversarial Networks. Authors: Shoubaneh Hemmati, Eric Huff, Hooshang Nayyeri, Agnés Ferté, Peter Melchior, Bahram Mobasher, Jason Rhodes, Abtin Shahidi, Harry Teplitz
arXiv:2211.05000 - Emulating cosmological multifields with generative adversarial networks. Authors: Sambatra Andrianomena, Francisco Villaescusa-Navarro, Sultan Hassan
arXiv:2211.05064 - Test of Artificial Neural Networks in Likelihood-free Cosmological Constraints: A Comparison of IMNN and DAE. Authors: JieFeng Chen, YuChen Wang, Tingting Zhang, TongJie Zhang
arXiv:2211.05242 - A simulator-based autoencoder for focal plane wavefront sensing. Authors: Maxime Quesnel, Gilles Orban de Xivry, Olivier Absil, Gilles Louppe
arXiv:2211.05556 - Generating astronomical spectra from photometry with conditional diffusion models. Authors: Lars Doorenbos, Stefano Cavuoti, Giuseppe Longo, Massimo Brescia, Raphael Sznitman, Pablo Márquez-Neila
arXiv:2211.06002 - Hierarchical Clustering in Astronomy. Authors: Heng Yu and Xiaolan Hou
arXiv:2211.06393 - Using machine learning to compress the matter transfer function T(k). Authors: J. Bayron Orjuela-Quintana and Savvas Nesseris and Wilmar Cardona
arXiv:2211.06564 - Emulating cosmological growth functions with B-Splines. Authors: Ngai Pok Kwan, Chirag Modi, Yin Li, Shirley Ho
arXiv:2211.06777 - Searching for Barium Stars from the LAMOST Spectra Using the Machine Learning Method: I. Authors: Fengyue Guo, Zhongding Cheng, Xiaoming Kong, Yatao Zhang, Yude Bu, Zhenping Yi, Bing Du, Jingchang Pan
arXiv:2211.07168 - Unsupervised Galaxy Morphological Visual Representation with Deep Contrastive Learning. Authors: Shoulin Wei, Yadi Li, Wei Lu, Nan Li, Bo Liang, Wei Dai, Zhijian Zhang
arXiv:2211.07758 - Classification of local ultraluminous infrared galaxies and quasars with kernel principal component analysis. Authors: Evangelos S. Papaefthymiou, Ioannis Michos, Orestis Pavlou, Vicky Papadopoulou Lesta and Andreas Efstathiou
arXiv:2211.07807 - Hierarchical Inference of the Lensing Convergence from Photometric Catalogs with Bayesian Graph Neural Networks. Authors: Ji Won Park, Simon Birrer, Madison Ueland, Miles Cranmer, Adriano Agnello, Sebastian Wagner-Carena, Philip J. Marshall, Aaron Roodman, and the LSST Dark Energy Science Collaboration
arXiv:2211.07890 - Autoencoding Galaxy Spectra I: Architecture. Authors: Peter Melchior, Yan Liang, ChangHoon Hahn, Andy Goulding
arXiv:2111.08030 - Fast and Credible Likelihood-Free Cosmology with Truncated Marginal Neural Ratio Estimation. Authors: Alex Cole, Benjamin Kurt Miller, Samuel J. Witte, Maxwell X. Cai, Meiert W. Grootes, Francesco Nattino, Christoph Weniger
arXiv:2211.08388 - Photometric identification of compact galaxies, stars and quasars using multiple neural networks. Authors: Siddharth Chaini, Atharva Bagul, Anish Deshpande, Rishi Gondkar, Kaushal Sharma, M. Vivek, Ajit Kembhavi
arXiv:2211.08971 - Energy Reconstruction in Analysis of Cherenkov Telescopes Images in TAIGA Experiment Using Deep Learning Methods. Authors: E. O. Gres, A. P. Kryukov
arXiv:2211.08990 - Recovering Galaxy Cluster Convergence from Lensed CMB with Generative Adversarial Networks. Authors: Liam Parker, Dongwon Han, Pablo Lemos Portela, Shirley Ho
arXiv:2211.09112 - Reconstruction of full sky CMB E and B modes spectra removing E-to-B leakage from partial sky using deep learning. Authors: Srikanta Pal and Rajib Saha
arXiv:2211.09126 - DIGS: Deep Inference of Galaxy Spectra with Neural Posterior Estimation. Authors: Gourav Khullar, Brian Nord, Aleksandra Ciprijanovic, Jason Poh and Fei Xu
arXiv:2211.09597 - Deep Learning-based galaxy image deconvolution. Authors: Utsav Akhaury, Jean-Luc Starck, Pascale Jablonka, Fr\'ed\'eric Courbin, Kevin Michalewicz
arXiv:2211.10305 - Neural Inference of Gaussian Processes for Time Series Data of Quasars. Authors: Egor Danilov, Aleksandra \'Ciprijanovi\'c and Brian Nord
arXiv:2211.10987 - Finding active galactic nuclei through Fink. Authors: Etienne Russeil, Emille E. O. Ishida, Roman Le Montagner, Julien Peloton, Anais Moller
arXiv:2211.11129 - H-FISTA: A hierarchical algorithm for phase retrieval with application to pulsar dynamic spectra. Authors: Stefan Oslowski, Mark A. Walker
arXiv:2211.11461 - Exhaustive Symbolic Regression. Authors: Deaglan J. Bartlett, Harry Desmond and Pedro G. Ferreira
arXiv:2211.11783 - Reconstructing and Classifying SDSS DR16 Galaxy Spectra with Machine-Learning and Dimensionality Reduction Algorithms. Authors: Felix Pat, Stéphanie Juneau, Vanessa B\"ohm, Ragadeepika Pucha, A. G. Kim, A. S. Bolton, Cleo Lepart, Dylan Green and Adam D. Myers
arXiv:2211.11784 - Quasar Factor Analysis -- An Unsupervised and Probabilistic Quasar Continuum Prediction Algorithm with Latent Factor Analysis. Authors: Zechang Sun, Yuan-Sen Ting and Zheng Cai
arXiv:2211.11792 - Unsupervised classification reveals new evolutionary pathways. Authors: M. Siudek, K. Lisiecki, M. Mezcua, K. Ma{\l}ek, A. Pollo, J. Krywult, A. Karska, Junais
arXiv:2211.12346 - Cosmology from Galaxy Redshift Surveys with PointNet. Authors: Sotiris Anagnostidis, Arne Thomsen, Tomasz Kacprzak, Tilman Tr\"oster, Luca Biggio, Alexandre Refregier, Thomas Hofmann
arXiv:2211.12444 - Can denoising diffusion probabilistic models generate realistic astrophysical fields? Authors: Nayantara Mudur, Douglas P. Finkbeiner
arXiv:2211.12553 - Using conditional variational autoencoders to generate images from atmospheric Cherenkov telescopes. Authors: Stanislav Polyakov, Alexander Kryukov, Andrey Demichev, Julia Dubenskaya, Elizaveta Gres, Anna Vlaskina
References
- Statistics, Data Mining, and Machine Learning in Astronomy, Ivezić, Connolly, VanderPlas & Gray, 2014 (https://www.astroml.org/)
- An Introduction to Statistical Learning, James, Witten, Hastie & Tibishirani, 2021 (https://www.statlearning.com/)
- Deep Learning, Goodfellow, Bengio & Courville, 2016 (https://www.deeplearningbook.org/)
- Deep Learning with Python, Chollet, 2018 (https://www.manning.com/books/deep-learning-with-python)
- Modern Statistical Methods for Astronomy: With R Applications , Feigelson & Babu, 2012
- Bayesian Methods in Cosmology, Trotta, arXiv:1701.01467, 2017
- The theory that would not die: How Bayes’ Rule Cracked the Enigma Code, Hunted Down Russian Submarines, and Emerged Triumphant from Two Centuries of Controversy, Sharon Bertsch Mcgrayne, 2011
- Bayesian Methods for Hackers: Probabilistic Programming and Bayesian Inference, Cameron Davidson-Pilon, 2015
- Probabilistic Deep Learning with TensorFlow 2, Imperial College London @ www.coursera.com
- The Dawes Review 10: The impact of deep learning for the analysis of galaxy surveys, M. Huertas-Company & F. Lanusse, arXiv:2210.01813, 2022
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