{"id":1111,"date":"2017-11-14T03:59:54","date_gmt":"2017-11-14T03:59:54","guid":{"rendered":"https:\/\/www.numfocus.org\/?page_id=1111"},"modified":"2025-12-17T14:23:09","modified_gmt":"2025-12-17T20:23:09","slug":"affiliated-projects","status":"publish","type":"page","link":"https:\/\/numfocus.org\/sponsored-projects\/affiliated-projects","title":{"rendered":"Affiliated Projects | AiiDA, bqplot, Conda, + more"},"content":{"rendered":"<p>[et_pb_section fb_built=&#8221;1&#8243; fullwidth=&#8221;on&#8221; module_class=&#8221;header-page&#8221; _builder_version=&#8221;4.21.0&#8243; background_image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2017\/12\/projects-header-1800.jpg&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_fullwidth_header title=&#8221;Affiliated Projects&#8221; _builder_version=&#8221;4.21.0&#8243; title_font=&#8221;|600|||||||&#8221; title_font_size=&#8221;36px&#8221; background_color=&#8221;rgba(255, 255, 255, 0)&#8221; use_background_color_gradient=&#8221;on&#8221; background_color_gradient_direction=&#8221;90deg&#8221; background_color_gradient_stops=&#8221;rgba(255,255,255,0.8) 40%|rgba(0,0,0,0) 60%&#8221; background_color_gradient_overlays_image=&#8221;on&#8221; background_color_gradient_start=&#8221;rgba(255,255,255,0.8)&#8221; background_color_gradient_start_position=&#8221;40%&#8221; background_color_gradient_end=&#8221;rgba(0,0,0,0)&#8221; background_color_gradient_end_position=&#8221;60%&#8221; background_layout=&#8221;light&#8221; module_alignment=&#8221;center&#8221; custom_padding=&#8221;110px||110px|&#8221; global_colors_info=&#8221;{}&#8221; button_one_text_size__hover_enabled=&#8221;off&#8221; button_one_text_size__hover=&#8221;null&#8221; button_two_text_size__hover_enabled=&#8221;off&#8221; button_two_text_size__hover=&#8221;null&#8221; button_one_text_color__hover_enabled=&#8221;off&#8221; button_one_text_color__hover=&#8221;null&#8221; button_two_text_color__hover_enabled=&#8221;off&#8221; button_two_text_color__hover=&#8221;null&#8221; button_one_border_width__hover_enabled=&#8221;off&#8221; button_one_border_width__hover=&#8221;null&#8221; button_two_border_width__hover_enabled=&#8221;off&#8221; button_two_border_width__hover=&#8221;null&#8221; button_one_border_color__hover_enabled=&#8221;off&#8221; button_one_border_color__hover=&#8221;null&#8221; button_two_border_color__hover_enabled=&#8221;off&#8221; button_two_border_color__hover=&#8221;null&#8221; button_one_border_radius__hover_enabled=&#8221;off&#8221; button_one_border_radius__hover=&#8221;null&#8221; button_two_border_radius__hover_enabled=&#8221;off&#8221; button_two_border_radius__hover=&#8221;null&#8221; button_one_letter_spacing__hover_enabled=&#8221;off&#8221; button_one_letter_spacing__hover=&#8221;null&#8221; button_two_letter_spacing__hover_enabled=&#8221;off&#8221; button_two_letter_spacing__hover=&#8221;null&#8221; button_one_bg_color__hover_enabled=&#8221;off&#8221; button_one_bg_color__hover=&#8221;null&#8221; button_two_bg_color__hover_enabled=&#8221;off&#8221; button_two_bg_color__hover=&#8221;null&#8221;][\/et_pb_fullwidth_header][\/et_pb_section][et_pb_section fb_built=&#8221;1&#8243; module_id=&#8221;affiliated-projects&#8221; _builder_version=&#8221;4.16&#8243; collapsed=&#8221;off&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_row _builder_version=&#8221;4.21.0&#8243; background_size=&#8221;initial&#8221; background_position=&#8221;top_left&#8221; background_repeat=&#8221;repeat&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;4_4&#8243; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;|||&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_text _builder_version=&#8221;4.21.0&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span style=\"font-weight: 400;\">NumFOCUS Affiliated Projects benefit from their association with NumFOCUS through access to community, certain funding opportunities, and promotion of the project through our network. <\/span>NumFOCUS Affiliated Projects are <strong>scientifically oriented<\/strong>, <strong>open<\/strong>, and <strong>kind<\/strong>. (<a href=\"https:\/\/numfocus.org\/projects-overview#requirements\">What does that mean?<\/a>) Affiliated Projects are <em><span style=\"text-decoration: underline;\">not<\/span> <a href=\"https:\/\/numfocus.org\/projects-overview#fsa\">fiscally sponsored<\/a><\/em> by NumFOCUS.<\/p>\n<p>Affiliated Projects enjoy a number of <a href=\"https:\/\/numfocus.org\/projects-overview\">benefits<\/a>. If your project is interested in becoming a NumFOCUS Affiliated Project, <a href=\"https:\/\/numfocus.org\/projects-overview\">click here to learn more.<\/a><\/p>\n<p>[\/et_pb_text][et_pb_button button_url=&#8221;https:\/\/numfocus.org\/projects-overview#apply&#8221; button_text=&#8221;How to Apply&#8221; button_alignment=&#8221;center&#8221; _builder_version=&#8221;4.16&#8243; background_layout=&#8221;dark&#8221; global_colors_info=&#8221;{}&#8221;]<br \/>\n[\/et_pb_button][et_pb_toggle title=&#8221;Application Dates&#8221; admin_label=&#8221;Application Dates&#8221; _builder_version=&#8221;4.21.0&#8243; _module_preset=&#8221;default&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<div class=\"et_pb_row et_pb_row_22\">\n<div class=\"et_pb_column et_pb_column_4_4 et_pb_column_29 et_pb_css_mix_blend_mode_passthrough et-last-child\">\n<div id=\"dates\" class=\"et_pb_module et_pb_text et_pb_text_13 et_pb_text_align_left et_pb_bg_layout_light\">\n<div class=\"et_pb_text_inner\">\n<h4><strong>Project Applications are accepted on a quarterly basis.<\/strong><\/h4>\n<p class=\"p1\"><span class=\"s1\"><b>Application rounds will close on the following yearly dates:<\/b><\/span><\/p>\n<p class=\"p1\"><span class=\"s1\">January 15 (Round 1)<br \/><\/span><span class=\"s1\">April 15 (Round 2)<br \/><\/span><span class=\"s1\">July 15 (Round 3)<br \/><\/span>October 15 (Round 4)<\/p>\n<p class=\"p1\"><span class=\"s1\"><b>Notifications will be sent on or before:<\/b><\/span><\/p>\n<p class=\"p1\"><span class=\"s1\">February 28 (Round 1)<br \/><\/span><span class=\"s1\">May 31 (Round 2)<br \/><\/span><span class=\"s1\">August 31 (Round 3)<br \/><\/span><span class=\"s1\">November 30 (Round 4)<\/span><\/p>\n<p>For questions or additional information about our Fiscal Sponsorship or Affiliation programs, please email us at <a href=\"mailto:admin@numfocus.org\">admin@numfocus.org<\/a>.<\/p>\n<\/div>\n<\/div>\n<\/div>\n<\/div>\n<p>[\/et_pb_toggle][et_pb_text _builder_version=&#8221;4.21.0&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>In an effort to include more community input and involvement in our work, NumFOCUS has formed a committee around the selection process for our Affiliated Projects. This committee will be responsible for evaluating applications from open source projects for Affiliated Project status with NumFOCUS and working with applicant projects throughout the review process.<\/p>\n<p>[\/et_pb_text][et_pb_toggle title=&#8221;Affiliated Project Selection Committee Members&#8221; admin_label=&#8221;Affiliated Project Selection Committee Members&#8221; _builder_version=&#8221;4.27.2&#8243; _module_preset=&#8221;default&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>&nbsp;<\/p>\n<table style=\"border-collapse: collapse; width: 100%; height: 748px;\" border=\"1\">\n<tbody>\n<tr style=\"height: 393px;\">\n<td style=\"width: 25%; height: 393px;\">\n<p><img decoding=\"async\" class=\"wp-image-5451 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2021\/06\/profile_photo_2021_square_500x500.png\" alt=\"\" width=\"250\" height=\"250\" \/><\/p>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Florian Roscheck<\/h4>\n<h4 style=\"text-align: center;\">Vice President<\/h4>\n<h4 style=\"text-align: center;\"><span style=\"text-decoration: underline;\"><a href=\"https:\/\/www.linkedin.com\/in\/florianroscheck\/\">LinkedIn<\/a><\/span> | <a href=\"https:\/\/github.com\/flrs\"><span style=\"text-decoration: underline;\">GitHub<\/span><\/a><\/h4>\n<\/td>\n<td style=\"width: 25%; height: 393px;\">\n<h4><img decoding=\"async\" class=\"wp-image-5455 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2021\/06\/Paul-Anzel.png\" alt=\"\" width=\"250\" height=\"250\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Paul Anzel<\/h4>\n<h4 style=\"text-align: center;\">Secretary<\/h4>\n<p>&nbsp;<\/p>\n<\/td>\n<\/tr>\n<tr style=\"height: 325px;\">\n<td style=\"width: 25%; height: 325px;\">\n<p><img decoding=\"async\" class=\"wp-image-7967 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2024\/10\/Filipe-P.-A.-Fernandes-2.jpg\" alt=\"\" width=\"250\" height=\"250\" \/><\/p>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Filipe Fernandes<\/h4>\n<\/td>\n<td style=\"width: 25%; height: 325px;\">\n<p><img decoding=\"async\" class=\"wp-image-5456 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2021\/06\/Rocco-Meli.png\" alt=\"\" width=\"250\" height=\"250\" \/><\/p>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Rocco Meli<\/h4>\n<\/td>\n<\/tr>\n<tr style=\"height: 10px;\">\n<td style=\"width: 25%; height: 10px;\">\n<h4><img decoding=\"async\" class=\"wp-image-5459 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2021\/06\/Vyas-Ramasubramani.png\" alt=\"\" width=\"250\" height=\"250\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Vyas Ramasubramani<\/h4>\n<\/td>\n<td style=\"width: 25%; height: 10px;\">\n<h4><img decoding=\"async\" class=\"wp-image-7968 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2024\/10\/Andre_Garcia_FotoNova.jpg\" alt=\"\" width=\"250\" height=\"250\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Andre Leon Sampaio Gradvohl<\/h4>\n<\/td>\n<\/tr>\n<tr style=\"height: 0px;\">\n<td style=\"width: 25%; height: 0px;\">\n<h4><img decoding=\"async\" class=\"wp-image-7969 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2024\/10\/Richard_Gowers_240911.jpeg\" alt=\"\" width=\"250\" height=\"250\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Richard Gowers<\/h4>\n<\/td>\n<td style=\"width: 25%; height: 0px;\">\n<h4><img decoding=\"async\" class=\"wp-image-502 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2017\/10\/membership-icon-3-180.png\" alt=\"\" width=\"250\" height=\"250\" srcset=\"https:\/\/numfocus.org\/wp-content\/uploads\/2017\/10\/membership-icon-3-180.png 180w, https:\/\/numfocus.org\/wp-content\/uploads\/2017\/10\/membership-icon-3-180-150x150.png 150w\" sizes=\"(max-width: 250px) 100vw, 250px\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Christopher Siefert<\/h4>\n<\/td>\n<\/tr>\n<tr style=\"height: 0px;\">\n<td style=\"width: 25%; height: 0px;\">\n<h4><img decoding=\"async\" class=\"wp-image-7970 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2024\/10\/Mert_Bozkir_240911.jpeg\" alt=\"\" width=\"250\" height=\"250\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Mert Bozkir<\/h4>\n<\/td>\n<td style=\"width: 25%; height: 0px;\">\n<h4><img decoding=\"async\" class=\"wp-image-7971 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2024\/10\/Florian_Rathgeber_240911.png\" alt=\"\" width=\"250\" height=\"250\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Florian Rathgeber<\/h4>\n<h4 style=\"text-align: center;\"><span style=\"text-decoration: underline;\"><a href=\"https:\/\/github.com\/kynan\">GitHub<\/a><\/span><\/h4>\n<\/td>\n<\/tr>\n<tr style=\"height: 0px;\">\n<td style=\"width: 25%; height: 0px;\">\n<h4><img decoding=\"async\" class=\"wp-image-7972 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2024\/10\/Sathvik_Bhagavan.jpg\" alt=\"\" width=\"250\" height=\"250\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Sathvik Bhagavan<\/h4>\n<h4 style=\"text-align: center;\"><span style=\"text-decoration: underline;\"><a href=\"https:\/\/github.com\/sathvikbhagavan\">GitHub<\/a><\/span><\/h4>\n<\/td>\n<td style=\"width: 25%; height: 0px;\">\n<h4><img decoding=\"async\" class=\"wp-image-7973 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2024\/10\/Venkateshprasad_Bhat_vkb-headshot.jpg\" alt=\"\" width=\"250\" height=\"250\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Venkateshprasad Bhat<\/h4>\n<h4 style=\"text-align: center;\"><span style=\"text-decoration: underline;\"><a href=\"https:\/\/github.com\/ven-k\">GitHub<\/a><\/span><\/h4>\n<\/td>\n<\/tr>\n<tr style=\"height: 0px;\">\n<td style=\"width: 25%; height: 0px;\">\n<h4><img decoding=\"async\" class=\"wp-image-7974 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2024\/10\/Steven-Kell_240911.png\" alt=\"\" width=\"250\" height=\"250\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Steven Kell<\/h4>\n<h4 style=\"text-align: center;\"><span style=\"text-decoration: underline;\"><a href=\"https:\/\/github.com\/StevenKell\">GitHub<\/a><\/span><\/h4>\n<\/td>\n<td style=\"width: 25%; height: 0px;\">\n<h4><img decoding=\"async\" class=\"wp-image-7975 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2024\/10\/StefanKrastanov-head2022-512pxsquare.jpg\" alt=\"\" width=\"250\" height=\"250\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Stefan Krastanov<\/h4>\n<h4 style=\"text-align: center;\"><span style=\"text-decoration: underline;\"><a href=\"https:\/\/github.com\/Krastanov\">GitHub<\/a><\/span><\/h4>\n<\/td>\n<\/tr>\n<tr style=\"height: 0px;\">\n<td style=\"width: 25%; height: 0px;\">\n<h4><img decoding=\"async\" class=\"wp-image-7976 aligncenter\" src=\"https:\/\/numfocus.org\/wp-content\/uploads\/2024\/10\/Saransh_Chopra_240911.jpg\" alt=\"\" width=\"250\" height=\"282\" \/><\/h4>\n<h4>\u00a0<\/h4>\n<h4 style=\"text-align: center;\">Saransh Chopra<\/h4>\n<h4 style=\"text-align: center;\"><span style=\"text-decoration: underline;\"><a href=\"https:\/\/github.com\/Saransh-cpp\">GitHub<\/a><\/span><\/h4>\n<\/td>\n<td style=\"width: 25%; height: 0px;\">\u00a0<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Aesara&#8221; url=&#8221;https:\/\/aesara.readthedocs.io\/en\/latest\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/03\/Aesara300x300.png&#8221; admin_label=&#8221;Aesara&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Aesara is a Python library that allows one to define, optimize, and efficiently evaluate mathematical expressions involving multi-dimensional arrays.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<div dir=\"ltr\">\n<div dir=\"ltr\">\n<p>The project includes an extensible graph framework suitable for rapid development of custom operators and symbolic optimizations. Additionally, it implements an extensible graph transpilation framework that currently provides compilation via C, JAX, and Numba.<\/p>\n<\/div>\n<\/div>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;AiiDA&#8221; url=&#8221;https:\/\/www.aiida.net\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/02\/AiiDA-type-logo-web.png&#8221; admin_label=&#8221;AiiDA&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>AiiDA\u00a0is a workflow manager for computational science with a strong focus on provenance, performance and extensibility.\u00a0<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<div dir=\"ltr\">\n<div dir=\"ltr\">\n<p>When executing a workflow, AiiDA records the provenance \u2212 calculations performed, codes used and data generated \u2212 in a directed acyclic graph tailored to provide full reproducibility of any given result.<\/p>\n<\/div>\n<\/div>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Asteroid&#8221; url=&#8221;https:\/\/asteroid-team.github.io\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/03\/edafeea56ddd-asteroid_logo_dark300x300.png&#8221; admin_label=&#8221;Asteroid&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">Asteroid is a Pytorch-based audio source separation toolkit that enables fast experimentation on common datasets. It comes with a source code that supports a large range of datasets and architectures, and a set of recipes to reproduce some important papers.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Awkward Array&#8221; url=&#8221;https:\/\/awkward-array.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/05\/awkward_array_logo-300&#215;300-1.png&#8221; admin_label=&#8221;Awkward Array&#8221; _builder_version=&#8221;4.21.0&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">Awkward Array is a Python library for nested, variable-sized data, including arbitrary-length lists, records, mixed types, and missing data, using NumPy-like idioms.\u00a0<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.21.0&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<div dir=\"ltr\">\n<div dir=\"ltr\">\n<p>Arrays are dynamically typed, but operations on them are compiled and fast. Their behavior coincides with NumPy when array dimensions are regular and generalizes when they&#8217;re not.<\/p>\n<\/div>\n<\/div>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;bqplot&#8221; url=&#8221;https:\/\/github.com\/bqplot\/bqplot\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/11\/Untitled-3.png&#8221; admin_label=&#8221;bqplot&#8221; _builder_version=&#8221;4.21.0&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">Bqplot is a 2-D plotting library for Jupyter. Built upon the Jupyter widgets frameworks, it implements the grammar of graphics constructs.\u00a0<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.21.0&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<div dir=\"ltr\">\n<div dir=\"ltr\">\n<p>Beyond plotting, bqplot is focused on using plots to take user inputs in a rich fashion, and using it in combination with other Jupyter interactive widgets to build applications.<\/p>\n<\/div>\n<\/div>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;CB-Geo MPM&#8221; url=&#8221;https:\/\/github.com\/cb-geo\/mpm&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/04\/CB-Geo-MPM-1.png&#8221; admin_label=&#8221;CB-Geo MPM&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">CB-Geo MPM is an HPC-enabled Material Point Method solver for large-deformation modeling. It supports isoparametric elements to model complex geometries and creates photo-realistic rendering.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Catalyst&#8221; url=&#8221;https:\/\/catalyst-team.com\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2021\/12\/catalyst-logo.png&#8221; admin_label=&#8221;Catalyst&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Catalyst is a PyTorch framework for Deep Learning Research and Development. It focuses on reproducibility, rapid experimentation, and codebase reuse so you can create something new rather than write yet another train loop.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Clawpack&#8221; url=&#8221;https:\/\/www.clawpack.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2019\/10\/Clawpack-Logo.png&#8221; admin_label=&#8221;Clawpack&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span class=\"il\">Clawpack<\/span>\u00a0(\u201cConservation Laws Package\u201d) is a collection of finite volume methods for linear and nonlinear hyperbolic systems of conservation laws.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Colour&#8221; url=&#8221;https:\/\/colour-science.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2019\/10\/colour.png&#8221; admin_label=&#8221;Colour&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><a class=\"external\" href=\"https:\/\/github.com\/colour-science\/colour\" target=\"_blank\" rel=\"noopener noreferrer nofollow\" data-saferedirecturl=\"https:\/\/www.google.com\/url?q=https:\/\/github.com\/colour-science\/colour&amp;source=gmail&amp;ust=1570031069435000&amp;usg=AFQjCNGu5E57AUh59EZgqURh_EetH5Rwdg\">Colour<\/a>\u00a0is an open-source\u00a0<a class=\"external\" href=\"https:\/\/www.python.org\/\" target=\"_blank\" rel=\"noopener noreferrer nofollow\" data-saferedirecturl=\"https:\/\/www.google.com\/url?q=https:\/\/www.python.org\/&amp;source=gmail&amp;ust=1570031069435000&amp;usg=AFQjCNFJk47dtgMnJ45MraDUrmVcWyaibQ\">Python<\/a>\u00a0package providing a comprehensive number of algorithms and datasets for colour science. It is freely available under the\u00a0<a class=\"external\" href=\"https:\/\/opensource.org\/licenses\/BSD-3-Clause\" target=\"_blank\" rel=\"noopener noreferrer nofollow\" data-saferedirecturl=\"https:\/\/www.google.com\/url?q=https:\/\/opensource.org\/licenses\/BSD-3-Clause&amp;source=gmail&amp;ust=1570031069435000&amp;usg=AFQjCNHOZ8niL041tK8WZHdJ-hJbyQt2Zg\">New BSD License<\/a>\u00a0terms.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Crystal&#8221; url=&#8221;https:\/\/crystal-lang.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/10\/Crystal_logo___stacked_version.png&#8221; admin_label=&#8221;Crystal&#8221; _builder_version=&#8221;4.23&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Crystal is a statically-typed programming language that is super performant, yet friendly to humans.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.23&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Crystal boasts an expressive and intuitive syntax, drawing inspiration from Ruby while incorporating strong static typing and C-like performance. This combination allows developers to write clean and readable code while keeping the benefits of compile-time type checking and improved performance.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;CVXPY &#8221; url=&#8221;https:\/\/www.cvxpy.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/02\/CVXPY_Logo_FINAL_CMYK_LightBG.png&#8221; admin_label=&#8221;CVXPY &#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>CVXPY is an open source Python-embedded modeling language for convex optimization problems.\u00a0<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>It lets you express your problem in a natural way that follows the math, rather than in the restrictive standard form required by solvers.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221; Cython&#8221; url=&#8221;https:\/\/cython.org\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2017\/11\/cython-logo-300.png&#8221; admin_label=&#8221; Cython&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nCython is an optimising static compiler for both the Python programming language and the extended Cython programming language (based on Pyrex). It makes writing C extensions for Python as easy as Python\u00a0itself.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Dash&#8221; url=&#8221;https:\/\/plot.ly\/dash\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2018\/01\/dash-logo-300.png&#8221; admin_label=&#8221;Dash&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nDash is a Python framework for building analytical web applications. No JavaScript required. Built on top of Plotly.js, React, and Flask, Dash ties modern UI elements like dropdowns, sliders, and graphs to your analytical Python code.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Data Retriever&#8221; url=&#8221;https:\/\/www.data-retriever.org\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2017\/11\/dataretriever-logo-300.png&#8221; admin_label=&#8221;Data Retriever&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nThe Data Retriever is a package manager for data. It downloads, cleans, and stores publicly available data, so that analysts spend less time cleaning and managing data, and more time analyzing it.\u200b<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Devito&#8221; url=&#8221;https:\/\/www.devitoproject.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/04\/Devito-Web.png&#8221; admin_label=&#8221;Devito&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">Devito is a Python package to implement optimized stencil computation (e.g., finite differences, image processing, machine learning) from high-level symbolic problem definitions.\u00a0<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Devito builds on\u00a0SymPy\u00a0and employs automated code\u00a0generation and just-in-time compilation to execute optimized computational kernels on several computer platforms,\u00a0including CPUs, GPUs, and clusters thereof.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;DyND&#8221; url=&#8221;https:\/\/libdynd.org\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2017\/11\/dynd-logo-300.png&#8221; admin_label=&#8221;DyND&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nDyND\u00a0is a C++ library for dynamic, multidimensional arrays.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nIt is inspired by NumPy, the Python array programming library at the core of the scientific Python stack, but tries to address a number of obstacles encountered by some of its users. Examples of this are support for variable-sized string, ragged array types, and convenient usage from C++. The library is in a preview development state, and can be thought of as a sandbox where features are being tried and tweaked to gain experience with them.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Effective Quadratures&#8221; url=&#8221;https:\/\/equadratures.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2021\/11\/logo_new.png&#8221; admin_label=&#8221;Effective Quadratures &#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Effective Quadratures is an open-source library for uncertainty quantification, machine learning, optimisation, numerical integration and dimension reduction \u2013 all using orthogonal polynomials.\u00a0<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>It is particularly useful for models \/ problems where output quantities of interest are smooth and continuous; to this extent it has found widespread applications in computational engineering models (finite elements, computational fluid dynamics, etc). It is built on the latest research within these areas and has both deterministic and randomized algorithms.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;optimagic&#8221; url=&#8221;https:\/\/estimagic.readthedocs.io\/en\/stable\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/09\/optimagic-300&#215;300-1.png&#8221; admin_label=&#8221;optimagic&#8221; _builder_version=&#8221;4.27.0&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>optimagic is a Python package for nonlinear optimization. It particularly well suited to solve difficult problems with or without constraints. Additional core functionality includes statistical inference on estimated parameters<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.21.0&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>estimagic provides a unified interface to optimization algorithms from scipy, NlOpt, Pygmo, TAO, Cyipopt, and other Python packages. Adding new optimizers is easy and the long run goal is to support almost all optimizers with Python bindings. estimagic&#8217;s interface is familiar to anyone who has used scipy&#8217;s minimize function. At the same time, it is more powerful. Compared to using the underlying libraries directly, estimagic provides a lot of additional functionality. It adds statistical inference, sensitivity analyses, logging, error handling, multistart, and diagnostic tools, such as a realtime dashboard. A wide variety of data types are supported for the parameters being optimized, including numpy arrays, pandas objects, and nested dictionaries.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;FluxML&#8221; url=&#8221;https:\/\/fluxml.ai&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2021\/12\/flux_logo.png&#8221; admin_label=&#8221;FluxML&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Flux is 100% pure-Julia stack and provides lightweight abstractions on top of Julia&#8217;s native GPU and AD support. It makes easy things easy while remaining fully hackable and fast.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Flux is written to be very generic, so that users can easily add in custom code to perform specific tasks, and interplay with machine learning models easily, be that custom types, custom numbers, arrays, recursion, control flow etc. We aim to support the full gamut of tools that the Julia language has to offer.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;FreeMoCap Project&#8221; url=&#8221;https:\/\/freemocap.org&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/10\/freemocap_logo_black_border-300&#215;300-1.png&#8221; admin_label=&#8221;FreeMoCap Project&#8221; _builder_version=&#8221;4.23&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>The Free Motion Capture Project (FreeMoCap) aims to provide research-grade markerless motion capture software to everyone for free.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.23&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>We&#8217;re building a user-friendly framework that connects an array of `bleeding edge` open-source tools from the computer vision and machine learning communities to accurately record full-body 3D movement of humans, animals, robots, and other objects. We want to make the newly emerging mind-boggling, future-shaping technologies that drive FreeMoCap&#8217;s core functionality accessible to communities of people who stand to benefit from them. We follow a \u201cUniversal Design\u201d development philosophy, with the goal of creating a system that serves the needs of a professional research scientist while remaining intuitive to a 13-year-old with no technical training and no outside assistance. A high-quality, minimal-cost motion capture system would be a transformative tool for a wide range of communities &#8211; including 3d animators, game designers, athletes, coaches, performers, scientists, engineers, clinicians, and doctors. We hope to create a system that brings new technological capacity to these groups while also building bridges between them.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Gensim&#8221; url=&#8221;https:\/\/radimrehurek.com\/gensim\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2018\/01\/gensim-circle.png&#8221; admin_label=&#8221;Gensim&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nGensim is a Python library providing scalable statistical semantics, analysis of plain-text documents for semantic structure, and retrieval of semantically similar documents.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;GeomScale&#8221; url=&#8221;https:\/\/geomscale.github.io\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2021\/01\/GeomScale-1.png&#8221; admin_label=&#8221;GeomScale&#8221; _builder_version=&#8221;4.19.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-value=\"{&quot;1&quot;:2,&quot;2&quot;:&quot;GeomScale is open-source project that lies at the intersection of data science, optimization, geometric and statistical computing. It combines cutting-edge research efforts and results with state-of-the-art open source software tools for scientific computing , with the ambition to solve both research oriented and real-life problems.&quot;}\" data-sheets-userformat=\"{&quot;2&quot;:4483,&quot;3&quot;:{&quot;1&quot;:1},&quot;4&quot;:{&quot;1&quot;:2,&quot;2&quot;:16777215},&quot;10&quot;:2,&quot;11&quot;:4,&quot;15&quot;:&quot;arial&quot;}\">GeomScale is open-source project that lies at the intersection of data science, optimization, geometric and statistical computing.\u00a0<\/span><\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.19.2&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-value=\"{&quot;1&quot;:2,&quot;2&quot;:&quot;GeomScale is open-source project that lies at the intersection of data science, optimization, geometric and statistical computing. It combines cutting-edge research efforts and results with state-of-the-art open source software tools for scientific computing , with the ambition to solve both research oriented and real-life problems.&quot;}\" data-sheets-userformat=\"{&quot;2&quot;:4483,&quot;3&quot;:{&quot;1&quot;:1},&quot;4&quot;:{&quot;1&quot;:2,&quot;2&quot;:16777215},&quot;10&quot;:2,&quot;11&quot;:4,&quot;15&quot;:&quot;arial&quot;}\">It combines cutting-edge research efforts and results with state-of-the-art open source software tools for scientific computing , with the ambition to solve both research oriented and real-life problems.<\/span><\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;GeomStats&#8221; url=&#8221;https:\/\/geomstats.ai&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/12\/geomstats_logo300x300.png&#8221; admin_label=&#8221;GeomStats&#8221; _builder_version=&#8221;4.19.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Geomstats is an open-source Python package for computations and statistics on manifolds. The package is organized into two main modules: geometry and learning.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.19.2&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\u00a0The module geometry implements concepts in differential geometry, and the module learning implements statistics and learning algorithms for data on manifolds.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;GNU Radio&#8221; url=&#8221;https:\/\/www.gnuradio.org\/&#8221; url_new_window=&#8221;on&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2021\/11\/gnuradio_logo.png&#8221; admin_label=&#8221;GNU Radio&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; custom_padding=&#8221;0px||||false|false&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">GNU Radio is a free &amp; open-source software development toolkit that provides signal processing blocks to implement software radios.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">\u00a0It can be used with readily-available low-cost external RF hardware to create software-defined radios, or without hardware in a simulation-like environment. It is widely used in research, industry, academia, government, and hobbyist environments to support both wireless communications research and real-world radio systems.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Gonum&#8221; url=&#8221;https:\/\/gonum.org&#8221; url_new_window=&#8221;on&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/07\/Gonum-Logo.png&#8221; admin_label=&#8221;Gonum&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">Gonum is a set of numeric and scientific libraries written for the Go programming language. Our primary aim was to build functionality similar to that of numpy + scipy and today we are close to achieving this goal.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Gridap&#8221; url=&#8221;https:\/\/gridap.github.io\/Gridap.jl\/stable\/&#8221; url_new_window=&#8221;on&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/10\/GridAp-Web.png&#8221; admin_label=&#8221;Gridap&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">Gridap provides a rich set of tools for the grid-based approximation of partial differential equations (PDEs) written 100% in the Julia programming language.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;HPX&#8221; url=&#8221;https:\/\/hpx.stellar-group.org&#8221; url_new_window=&#8221;on&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/10\/hpx-logo-clean.png&#8221; admin_label=&#8221;HPX&#8221; _builder_version=&#8221;4.23&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">HPX is a general-purpose C++ runtime system for parallel and distributed applications of any scale.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.23&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\u00a0It offers comprehensive APIs for concurrency and parallelism, adhering to the standards defined by the C++ Standard, while also extending support for distributed computing. In addition, HPX actively contributes to standardization efforts by implementing functionalities proposed as part of the ongoing C++ standardization process.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;igraph&#8221; url=&#8221;https:\/\/igraph.org\/&#8221; url_new_window=&#8221;on&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/12\/igraph-logo_black300x300.png&#8221; admin_label=&#8221;igraph&#8221; _builder_version=&#8221;4.19.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">igraph is a collection of network analysis tools with the emphasis on efficiency, portability and ease of use.\u00a0<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.19.2&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">igraph is open source and free. igraph can be programmed in R, Python, Mathematica and C\/C++.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;ipyvizzu&#8221; url=&#8221;https:\/\/ipyvizzu.vizzuhq.com\/latest\/&#8221; url_new_window=&#8221;on&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/10\/ipyVIZZU-logo.png&#8221; admin_label=&#8221;ipyvizzu&#8221; _builder_version=&#8221;4.23&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">ipyvizzu is a data visualization tool that empowers data scientists and analysts to employ animation as a means of storytelling with data using Python.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.23&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">\u00a0It allows users to create animated charts in Jupyter, Google Colab, Databricks, Kaggle, and Deepnote notebooks, among other platforms. Built on the open-source JavaScript\/C++ charting library Vizzu, ipyvizzu leverages a unique morphing engine developed from scratch, which uses a single set of rules to describe all charts. This feature enables seamless transitions between different chart types. There is also a presentation extension to ipyvizzu, called ipyvizzu-story, that allows live presentation of animated data stories directly from notebooks, making it easier to share findings and engage audiences. Additionally, ipyvizzu and ipyvizzu-story are now embeddable in Streamlit and available in Panel, expanding their accessibility and integration options. By harnessing the power of animation, we aim to assist data scientists in effectively sharing their insights. To explore our tools&#8217; capabilities, please visit our documentation sites (https:\/\/ipyvizzu.vizzuhq.com\/latest\/showcases\/ &amp; https:\/\/ipyvizzu-story.vizzuhq.com\/latest\/examples\/) for examples and showcases.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Magpylib&#8221; url=&#8221;https:\/\/magpylib.readthedocs.io\/en\/stable\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/12\/Magpylib-47c77acdf6a7-logo_bird-300&#215;300-1.png&#8221; admin_label=&#8221;Magpylib&#8221; _builder_version=&#8221;4.23.1&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">Magpylib is a Python package for calculating 3D static magnetic fields of permanent magnets, currents and other sources.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.23.1&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">The computation is based on analytical expressions and therefore extremely fast. A user friendly API combined with graphic output enables convenient positioning of sources and observers.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Manim&#8221; url=&#8221;https:\/\/www.manim.community&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2021\/12\/Manim-Logo.png&#8221; admin_label=&#8221;Manim&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">Manim is a community-maintained Python library for creating (mathematical) animations. With its simple, yet versatile interface, everyone is able to produce insightful visualizations.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">For example, it allows linking mathematical formulas to colours and shapes, thus bringing them to life and making them easy to grasp. While the core focus is on animations in mathematics, physics and computer science, Manim has also been used to create animations in the context of biology, chemistry, and even music theory.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Micro-Manager&#8221; url=&#8221;https:\/\/micro-manager.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/03\/Micro-Manager_logo300x300.png&#8221; admin_label=&#8221;Micro-Manager&#8221; _builder_version=&#8221;4.20.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Micro-Manager is an open-source software for control and automation of microscope hardware.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.20.2&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">It provides a generic API for hardware control of common microscope components (e.g. a camera) that can be configured to work with a large array of specific devices (e.g. a camera made by Thorlabs). There are several different sub-projects in different repos&#8211; the hardware control layer (MMCoreAndDevices), the GUI (Micro-Manager), a python package for scripting (Pycro-Manager), etc.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Mesa: Agent-Based Modeling In Python&#8221; url=&#8221;https:\/\/mesa.readthedocs.io\/en\/latest\/&#8221; url_new_window=&#8221;on&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/03\/1d57e11183d3-mesa_logo.png&#8221; admin_label=&#8221;Mesa: Agent-Based Modeling In Python&#8221; _builder_version=&#8221;4.17.1&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">Mesa is an Apache2 licensed agent-based modeling (or ABM) framework in Python.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;MFEM&#8221; url=&#8221;https:\/\/mfem.org\/&#8221; url_new_window=&#8221;on&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/03\/d746bdb430c6-mfem_logo300x300.png&#8221; admin_label=&#8221;MFEM&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">MFEM is a free, lightweight, scalable C++ library for finite element methods. Its goal is to enable high-performance scalable finite element discretization research and application development on a wide variety of platforms, ranging from laptops to supercomputers.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Neo&#8221; url=&#8221;https:\/\/neo.readthedocs.io\/en\/latest\/&#8221; url_new_window=&#8221;on&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/10\/neologo-300&#215;300-1.png&#8221; admin_label=&#8221;Neo&#8221; _builder_version=&#8221;4.23&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p class=\"p1\">Neo is a Python package for working with electrophysiology data. It implements a hierarchical data model well adapted to intracellular and extracellular electrophysiology and EEG data.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;NetKet&#8221; url=&#8221;https:\/\/www.netket.org&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/12\/NetKet-logo300x300.png&#8221; admin_label=&#8221;NetKet&#8221; _builder_version=&#8221;4.19.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>NetKet is a Toolbox to apply Machine-Learning techniques to Quantum Physics problems.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nWith a few annotations, array-oriented and math-heavy Python code can be just-in-time compiled to native machine instructions, similar in performance to C, C++ and Fortran, without having to switch languages or Python interpreters.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Numba&#8221; url=&#8221;https:\/\/numba.pydata.org\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2017\/11\/numba-logo-300.png&#8221; admin_label=&#8221;Numba&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nNumba gives you the power to speed up your applications with high performance functions written directly in Python.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nWith a few annotations, array-oriented and math-heavy Python code can be just-in-time compiled to native machine instructions, similar in performance to C, C++ and Fortran, without having to switch languages or Python interpreters.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;ObsPy&#8221; url=&#8221;https:\/\/obspy.org&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2019\/12\/obspy_logo_no_text_highres.png&#8221; admin_label=&#8221;Obspy&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; locked=&#8221;off&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>ObsPy is an open-source project dedicated to provide a Python framework<br \/>for processing seismological data.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; locked=&#8221;off&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>The goal of the ObsPy project is to facilitate rapid application<br \/>development for seismology.<\/p>\n<p>\u00a0It provides parsers for common file formats, clients to access data<br \/>centers and seismological signal processing routines which allow the<br \/>manipulation of seismological time series (see Beyreuther et al. 2010,<br \/>Megies et al. 2011, Krischer et al. 2015).<\/p>\n<p>&nbsp;<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Orange&#8221; url=&#8221;https:\/\/orange.biolab.si\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2017\/11\/orange-logo-300.png&#8221; admin_label=&#8221;Orange&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nOpen source data visualization and data analysis for novice and expert. Interactive workflows with a large toolbox.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Polars&#8221; url=&#8221;https:\/\/www.pola.rs\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/08\/polars-logo-dark300x300.png&#8221; admin_label=&#8221;polars&#8221; _builder_version=&#8221;4.22.1&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Fast multi-threaded, hybrid-out-of-core query engine focussing on DataFrame front-ends. Among the host languages are Python, Rust, NodeJS, R and SQL.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;poliastro&#8221; url=&#8221;https:\/\/docs.poliastro.space\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/10\/poliastro.png&#8221; admin_label=&#8221;poliastro&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>poliastro is an open source (MIT) collection of Python functions useful in Astrodynamics and Orbital Mechanics, focusing on interplanetary applications. It provides a simple and intuitive API and handles physical quantities with units.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;pomegranate&#8221; url=&#8221;https:\/\/pomegranate.readthedocs.io\/en\/latest\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2017\/11\/pomegranate-logo-300.png&#8221; admin_label=&#8221;pomegranate&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\npomegranate is a Python module for fast and flexible probabilistic modeling inspired by the design of scikit-learn.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nA primary focus of pomegranate is to abstract away the intricacies of a model from its definition, allowing users to easily prototype with complex models and training strategies. Its modular implementation allows for probability distributions to be swapped in or out for each other with ease and for models to be stacked within each other, yielding such delights as a mixture of Bayesian networks or a Gaussian mixture model Bayes classifier.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Project Optuna &#8221; url=&#8221;https:\/\/optuna.org&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/02\/Project_Optuna.png&#8221; admin_label=&#8221;Project Optuna&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p dir=\"ltr\">Project Optuna develops tools for optimizing deep learning and other tasks that use hyperparameters. Project Optuna is comprised of Optuna and Chainer.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p dir=\"ltr\">Optuna is an open source hyperparameter optimization framework to automate hyperparameter search. Optuna provides eager search spaces for automated search for optimal hyperparameters using Python conditionals, loops, and syntax, state-of-the-art algorithms to efficiently search large spaces and prune unpromising trials for faster results, and easy parallelization for hyperparameter searches over multiple threads or processes without modifying code.<\/p>\n<p dir=\"ltr\">Chainer is a powerful, flexible, and intuitive deep learning framework, and other tools to automate machine learning in development as well, as part of its mission to simplify machine learning.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;PSL&#8221; url=&#8221;https:\/\/www.pslmodels.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2019\/09\/PSL-Logo-Transparent.png&#8221; admin_label=&#8221;PSL (Policy Simulation Library)&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; z_index_tablet=&#8221;500&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>The Policy Simulation Library (PSL) is a collection of models and other software for public-policy decisionmaking. PSL is developed by independent projects that meet standards for transparency and accessibility.\u00a0<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>The PSL community encourages collaborative contribution and makes the tools it develops accessible to a diverse group of users.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;pvlib&#8221; url=&#8221;https:\/\/pvlib-python.readthedocs.io\/en\/stable\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2019\/04\/pvlib_logo_horiz-300&#215;300.png&#8221; admin_label=&#8221;pvlib&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; z_index_tablet=&#8221;500&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>pvlib python provides a set of functions and classes for simulating the performance of photovoltaic energy systems.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;pyhf&#8221; url=&#8221;https:\/\/pyhf.readthedocs.io\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/06\/pyhf-logo-redraw300x300.png&#8221; admin_label=&#8221;pyhf&#8221; _builder_version=&#8221;4.21.0&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; custom_padding=&#8221;||||false|false&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p data-pm-slice=\"1 1 []\">pyhf is a pure-Python library for the building and serialization of statistical models used commonly in high energy particle physics.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.20.2&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\u00a0It also supports statistical inference powered by n-dimensional array library computational backends, including machine learning libraries that allow for exploitation of automatic differentiation and hardware acceleration for speeding up model fitting.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;pyiron&#8221; url=&#8221;https:\/\/pyiron.org&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2021\/01\/pyiron.png&#8221; admin_label=&#8221;pyiron&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p data-pm-slice=\"1 1 []\">pyiron is an integrated development environment (IDE) for computational materials science. It enables scientists to upscale their workflows from rapid prototyping to high-performance computing.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;PyLops&#8221; url=&#8221;https:\/\/pylops.readthedocs.io&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2021\/06\/pylops_logo.png&#8221; admin_label=&#8221;PyLops&#8221; _builder_version=&#8221;4.20.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; custom_padding=&#8221;||||false|false&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p data-pm-slice=\"1 1 []\">PyLops is a Python library which facilitates solving large-scale inverse problems.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>It provides many commonly used linear operators (e.g. convolution, wavelet transform, etc.) as matrix-free objects, and leverages them within iterative algorithms to solve ill-conditioned problems. Its high-level, expressive interface resembles the underlying mathematical formulation. Finally, it supports fully interchangeable CPU and GPU backends that are compatible with other native Python libraries such as NumPy and CuPy.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; z_index_tablet=&#8221;500&#8243; box_shadow_horizontal_tablet=&#8221;0px&#8221; box_shadow_vertical_tablet=&#8221;0px&#8221; box_shadow_blur_tablet=&#8221;40px&#8221; box_shadow_spread_tablet=&#8221;0px&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;pyMOR&#8221; url=&#8221;https:\/\/pymor.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/03\/pymor_logo300x300.png&#8221; admin_label=&#8221;pyMOR&#8221; _builder_version=&#8221;4.22.1&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; custom_padding=&#8221;||||false|false&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p data-pm-slice=\"1 1 []\">pyMOR is a software library for building model order reduction applications with the Python programming language.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.20.2&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Implemented algorithms include reduced basis methods for parametric linear and non-linear problems, as well as system-theoretic methods such as balanced truncation or IRKA (Iterative Rational Krylov Algorithm). All algorithms in pyMOR are formulated in terms of abstract interfaces for seamless integration with external PDE (Partial Differential Equation) solver packages. Moreover, pure Python implementations of FEM (Finite Element Method) and FVM (Finite Volume Method) discretizations using the NumPy\/SciPy scientific computing stack are provided for getting started quickly.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;PySAL&#8221; url=&#8221;https:\/\/pysal.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2019\/06\/pysal-logo.png&#8221; admin_label=&#8221;PySAL&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; z_index_tablet=&#8221;500&#8243; body_link_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_link_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_link_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ul_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ol_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_quote_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_blur_strength_tablet=&#8221;1px&#8221; box_shadow_horizontal_tablet=&#8221;0px&#8221; box_shadow_vertical_tablet=&#8221;0px&#8221; box_shadow_blur_tablet=&#8221;40px&#8221; box_shadow_spread_tablet=&#8221;0px&#8221; box_shadow_horizontal_image_tablet=&#8221;0px&#8221; box_shadow_vertical_image_tablet=&#8221;0px&#8221; box_shadow_blur_image_tablet=&#8221;40px&#8221; box_shadow_spread_image_tablet=&#8221;0px&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>PySAL is an open source cross-platform library for geospatial data science with an emphasis on vector data written in Python. It supports the development of high level applications for spatial analysis.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Python-graphblas&#8221; url=&#8221;https:\/\/python-graphblas.readthedocs.io\/en\/stable\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/10\/Python-graphblas-300&#215;300-1.png&#8221; admin_label=&#8221;Python-graphblas&#8221; _builder_version=&#8221;4.23&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Python-graphblas is a foundation-layer library for sparse linear algebra.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.23&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\u00a0Providing a Pythonic interface to compiled implementations of the GraphBLAS standard. It also provides I\/O connectors to efficiently convert to and from common PyData primitives (numpy array, scipy.sparse array, NetworkX graph).<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Python(X,Y)&#8221; url=&#8221;https:\/\/python-xy.github.io\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2017\/11\/pythonxy-logo-300.png&#8221; admin_label=&#8221;Python (X,Y)&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nFree scientific and engineering development software used for numerical computations, and analysis and visualization of data using the Python programming\u00a0language<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Python Satellite Data Analysis Toolkit (pysat)&#8221; url=&#8221;https:\/\/pysat.readthedocs.io\/en\/latest\/index.html&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/03\/pysat300x300.png&#8221; admin_label=&#8221;Python Satellite Data Analysis Toolkit (pysat)&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>pysat implements the general process of space science data analysis, from beginning to end, in an instrument-independent manner.\u00a0<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>This toolkit uses an Instrument object that enables systematic but versatile analysis of science data from a variety of platforms within a single easy-to-use interface, abstracting away all of the tedious file, data handling, and processing issues. Basic functions such as downloading, loading, and cleaning are included for all supported instruments\/data sets. While incubated in a space science environment, pysat is capable of processing the world&#8217;s data.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;PyTorch-Ignite&#8221; url=&#8221;https:\/\/pytorch-ignite.ai\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/10\/Pytorch.png&#8221; admin_label=&#8221;PyTorch-Ignite&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-value=\"{&quot;1&quot;:2,&quot;2&quot;:&quot;PyTorch-Ignite is a high-level library to help with training neural networks in PyTorch&quot;}\" data-sheets-userformat=\"{&quot;2&quot;:10557,&quot;3&quot;:{&quot;1&quot;:0,&quot;3&quot;:1},&quot;5&quot;:{&quot;1&quot;:[{&quot;1&quot;:2,&quot;2&quot;:0,&quot;5&quot;:{&quot;1&quot;:2,&quot;2&quot;:0}},{&quot;1&quot;:0,&quot;2&quot;:0,&quot;3&quot;:3},{&quot;1&quot;:1,&quot;2&quot;:0,&quot;4&quot;:1}]},&quot;6&quot;:{&quot;1&quot;:[{&quot;1&quot;:2,&quot;2&quot;:0,&quot;5&quot;:{&quot;1&quot;:2,&quot;2&quot;:0}},{&quot;1&quot;:0,&quot;2&quot;:0,&quot;3&quot;:3},{&quot;1&quot;:1,&quot;2&quot;:0,&quot;4&quot;:1}]},&quot;7&quot;:{&quot;1&quot;:[{&quot;1&quot;:2,&quot;2&quot;:0,&quot;5&quot;:{&quot;1&quot;:2,&quot;2&quot;:0}},{&quot;1&quot;:0,&quot;2&quot;:0,&quot;3&quot;:3},{&quot;1&quot;:1,&quot;2&quot;:0,&quot;4&quot;:1}]},&quot;8&quot;:{&quot;1&quot;:[{&quot;1&quot;:2,&quot;2&quot;:0,&quot;5&quot;:{&quot;1&quot;:2,&quot;2&quot;:0}},{&quot;1&quot;:0,&quot;2&quot;:0,&quot;3&quot;:3},{&quot;1&quot;:1,&quot;2&quot;:0,&quot;4&quot;:1}]},&quot;11&quot;:3,&quot;14&quot;:{&quot;1&quot;:3,&quot;3&quot;:1},&quot;16&quot;:11}\">PyTorch-Ignite is a high-level library to help with training neural networks in PyTorch<\/span><\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;PyVista&#8221; url=&#8221;https:\/\/docs.pyvista.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/12\/pyvista_logo-300&#215;300-1.png&#8221; admin_label=&#8221;PyVista&#8221; _builder_version=&#8221;4.23.1&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>PyVista is a helper module for the Visualization Toolkit (VTK) that takes a different approach on interfacing with VTK through NumPy and direct array access.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.19.2&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>This package provides a Pythonic, well-documented interface exposing VTK\u2019s powerful visualization backend to facilitate rapid prototyping, analysis, and visual integration of spatially referenced datasets.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;QuTiP&#8221; url=&#8221;https:\/\/qutip.org\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2018\/05\/qutip_logo300x300.png&#8221; admin_label=&#8221;QuTiP&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>QuTiP is a software for simulating quantum systems. QuTiP aims to provide tools for user-friendly and efficient numerical simulations of open quantum systems.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nIt can be used to simulate a wide range of physical phenomenon in areas such as quantum optics, trapped ions, superconducting circuits and quantum nanomechanical resonators. In addition, it contains a number of other modules to simplify the numerical simulation and study of many topics in quantum physics such as quantum optimal control, quantum information, and computing.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Radis&#8221; url=&#8221;https:\/\/radis.github.io\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2021\/12\/Radis-Logo.png&#8221; admin_label=&#8221;Radis&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Radis is an open-source library to compute molecular spectra. It is used for in-the-lab emission and absorption spectroscopy diagnostics, and exoplanet research.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Radis is specifically designed to resolve millions of lines within seconds, and is compatible with the main spectroscopic databases (HITRAN, HITEMP, ExoMol). It also has some radiative-transfer capabilities, and non-LTE calculations.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;scikit-bio&#8221; url=&#8221;https:\/\/scikit-bio.org\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2017\/11\/scikitbio-logo-300.png&#8221; admin_label=&#8221;scikit-bio&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nscikit-bio is an open-source, BSD-licensed, python package providing data structures, algorithms, and educational resources for bioinformatics.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;signac&#8221; url=&#8221;https:\/\/signac.io\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/01\/signac_logo_docs_dark.png&#8221; admin_label=&#8221;signac&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; z_index_tablet=&#8221;500&#8243; header_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; header_text_shadow_vertical_length_tablet=&#8221;0px&#8221; header_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_link_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_link_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_link_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ul_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ol_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_quote_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_blur_strength_tablet=&#8221;1px&#8221; box_shadow_horizontal_tablet=&#8221;0px&#8221; box_shadow_vertical_tablet=&#8221;0px&#8221; box_shadow_blur_tablet=&#8221;40px&#8221; box_shadow_spread_tablet=&#8221;0px&#8221; box_shadow_horizontal_image_tablet=&#8221;0px&#8221; box_shadow_vertical_image_tablet=&#8221;0px&#8221; box_shadow_blur_image_tablet=&#8221;40px&#8221; box_shadow_spread_image_tablet=&#8221;0px&#8221; text_shadow_horizontal_length_tablet=&#8221;0px&#8221; text_shadow_vertical_length_tablet=&#8221;0px&#8221; text_shadow_blur_strength_tablet=&#8221;1px&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>The signac framework is a complete solution for managing workflows operating on file-based data designed to scale to HPC systems.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; z_index_tablet=&#8221;500&#8243; title_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; title_text_shadow_vertical_length_tablet=&#8221;0px&#8221; title_text_shadow_blur_strength_tablet=&#8221;1px&#8221; closed_title_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; closed_title_text_shadow_vertical_length_tablet=&#8221;0px&#8221; closed_title_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_link_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_link_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_link_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ul_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ol_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_quote_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_blur_strength_tablet=&#8221;1px&#8221; box_shadow_horizontal_tablet=&#8221;0px&#8221; box_shadow_vertical_tablet=&#8221;0px&#8221; box_shadow_blur_tablet=&#8221;40px&#8221; box_shadow_spread_tablet=&#8221;0px&#8221; text_shadow_horizontal_length_tablet=&#8221;0px&#8221; text_shadow_vertical_length_tablet=&#8221;0px&#8221; text_shadow_blur_strength_tablet=&#8221;1px&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>By using a well-defined, indexable storage layout for data and metadata, signac streamlines generation of, access to, and analysis of data through a straightforward interface that naturally scales from laptops and workstations to leadership-class supercomputers. Additionally, operations on this data can be managed, parallelized, and easily submitted on supercomputing clusters.<\/p>\n<p>The project has been published in the Journal of Computational Materials Science (DOI:10.1016\/j.commatsci.2018.<wbr \/>01.035) and the Proceedings of the SciPy 2018 conference (DOI:10.25080\/Majora-4af1f417-<wbr \/>016). It has also been presented at PyData Ann Arbor as well as eight scientific conferences in chemical engineering, materials science, and applied physics.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;SkyPy&#8221; url=&#8221;https:\/\/github.com\/skypyproject\/skypy&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/03\/Skypy_300x300.png&#8221; admin_label=&#8221;SkyPy&#8221; _builder_version=&#8221;4.23.3&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; z_index_tablet=&#8221;500&#8243; header_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; header_text_shadow_vertical_length_tablet=&#8221;0px&#8221; header_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_link_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_link_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_link_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ul_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ol_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_quote_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_blur_strength_tablet=&#8221;1px&#8221; box_shadow_horizontal_tablet=&#8221;0px&#8221; box_shadow_vertical_tablet=&#8221;0px&#8221; box_shadow_blur_tablet=&#8221;40px&#8221; box_shadow_spread_tablet=&#8221;0px&#8221; box_shadow_horizontal_image_tablet=&#8221;0px&#8221; box_shadow_vertical_image_tablet=&#8221;0px&#8221; box_shadow_blur_image_tablet=&#8221;40px&#8221; box_shadow_spread_image_tablet=&#8221;0px&#8221; text_shadow_horizontal_length_tablet=&#8221;0px&#8221; text_shadow_vertical_length_tablet=&#8221;0px&#8221; text_shadow_blur_strength_tablet=&#8221;1px&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>SkyPy is an open-source Python package for simulating the astrophysical sky. It comprises a library of physical and empirical models across a range of observables and a command-line script to run end-to-end simulations.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; z_index_tablet=&#8221;500&#8243; title_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; title_text_shadow_vertical_length_tablet=&#8221;0px&#8221; title_text_shadow_blur_strength_tablet=&#8221;1px&#8221; closed_title_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; closed_title_text_shadow_vertical_length_tablet=&#8221;0px&#8221; closed_title_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_link_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_link_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_link_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ul_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ol_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_quote_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_blur_strength_tablet=&#8221;1px&#8221; box_shadow_horizontal_tablet=&#8221;0px&#8221; box_shadow_vertical_tablet=&#8221;0px&#8221; box_shadow_blur_tablet=&#8221;40px&#8221; box_shadow_spread_tablet=&#8221;0px&#8221; text_shadow_horizontal_length_tablet=&#8221;0px&#8221; text_shadow_vertical_length_tablet=&#8221;0px&#8221; text_shadow_blur_strength_tablet=&#8221;1px&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>The library provides functions to sample realisations of sources and their associated properties from probability distributions. Simulation pipelines are constructed from these models using a YAML-based configuration syntax, while task scheduling and data dependencies are handled internally and the modular design allows users to interface with external software. SkyPy is developed and maintained by a diverse community of domain experts with a focus on software sustainability and interoperability. By fostering co-development, it provides a framework for correlated simulations of a range of cosmological probes including galaxy populations, large-scale structure, the cosmic microwave background, supernovae and gravitational waves.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Solcore&#8221; url=&#8221;https:\/\/www.solcore.solar\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/04\/Solcore-web.png&#8221; admin_label=&#8221;Solcore&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; z_index_tablet=&#8221;500&#8243; header_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; header_text_shadow_vertical_length_tablet=&#8221;0px&#8221; header_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_link_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_link_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_link_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ul_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ul_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_ol_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_ol_text_shadow_blur_strength_tablet=&#8221;1px&#8221; body_quote_text_shadow_horizontal_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_vertical_length_tablet=&#8221;0px&#8221; body_quote_text_shadow_blur_strength_tablet=&#8221;1px&#8221; box_shadow_horizontal_tablet=&#8221;0px&#8221; box_shadow_vertical_tablet=&#8221;0px&#8221; box_shadow_blur_tablet=&#8221;40px&#8221; box_shadow_spread_tablet=&#8221;0px&#8221; box_shadow_horizontal_image_tablet=&#8221;0px&#8221; box_shadow_vertical_image_tablet=&#8221;0px&#8221; box_shadow_blur_image_tablet=&#8221;40px&#8221; box_shadow_spread_image_tablet=&#8221;0px&#8221; text_shadow_horizontal_length_tablet=&#8221;0px&#8221; text_shadow_vertical_length_tablet=&#8221;0px&#8221; text_shadow_blur_strength_tablet=&#8221;1px&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Solcore is a\u00a0complete semiconductor solver able of modelling the optical and electrical properties of a wide range of solar cells, from quantum well devices to multi-junction solar cells.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Spack&#8221; url=&#8221;https:\/\/spack.io\/&#8221; image=&#8221;https:\/\/www.numfocus.org\/wp-content\/uploads\/2017\/11\/spack-logo-300.png&#8221; admin_label=&#8221;Spack&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nSpack is a flexible package manager that builds multiple versions of\u00a0packages for different configurations, platforms, and compilers.\u00a0\u00a0It was\u00a0created to deploy large-scale scientific simulations on HPC systems, but it can\u00a0deploy software on Linux and macOS machines, as well.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Statsmodels&#8221; url=&#8221;https:\/\/www.statsmodels.org\/stable\/index.html&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2020\/02\/statsmodelsweb.png&#8221; admin_label=&#8221;Statsmodels&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nStatsmodels is a Python package that provides a complement to Scipy for statistical computations including descriptive statistics and estimation of statistical\u00a0models.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\nIt features a unique combination of the advanced editing, analysis, debugging, and profiling functionality of a comprehensive development tool with the data exploration, interactive execution, deep inspection, and beautiful visualization capabilities of a scientific package. Furthermore, Spyder offers built-in integration with many popular scientific packages, including NumPy, SciPy, Pandas, IPython, QtConsole, Matplotlib, SymPy and more.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Taskflow&#8221; url=&#8221;https:\/\/taskflow.github.io\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/04\/Taskflow_logo.png&#8221; admin_label=&#8221;Taskflow&#8221; _builder_version=&#8221;4.17.3&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-value=\"{&quot;1&quot;:2,&quot;2&quot;:&quot;Parallel and heterogeneous programming with high performance and simultaneous high productivity&quot;}\" data-sheets-userformat=\"{&quot;2&quot;:4483,&quot;3&quot;:{&quot;1&quot;:1},&quot;4&quot;:{&quot;1&quot;:2,&quot;2&quot;:14545648},&quot;10&quot;:2,&quot;11&quot;:4,&quot;15&quot;:&quot;arial&quot;}\">Parallel and heterogeneous programming with high performance and simultaneous high productivity<\/span><\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;TNL &#8211; Template Numerical Library&#8221; url=&#8221;https:\/\/tnl-project.org&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2021\/12\/TNL-logo.png&#8221; admin_label=&#8221;TNL &#8211; Template Numerical Library&#8221; _builder_version=&#8221;4.16&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>TNL is an efficient C++ library providing many parallel algorithms and data structures for high-performance computing on GPUs, multicore CPUs and distributed clusters.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.16&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>\u00a0The goal is to create a unified interface that allows users to write single code that can be executed on different parallel architectures.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;The Ibis Project&#8221; url=&#8221;https:\/\/ibis-project.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/12\/The-Ibis-Project-logo300x300.png&#8221; admin_label=&#8221;The Ibis Project&#8221; _builder_version=&#8221;4.19.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Ibis provides expressive analytics at any scale. It&#8217;s an library designed to help users be more productive when interacting with analytics databases and engines.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Trixi.jl&#8221; url=&#8221;https:\/\/trixi-framework.github.io\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/10\/Trixi.jl-300&#215;300-1.png&#8221; admin_label=&#8221;Trixi.jl&#8221; _builder_version=&#8221;4.23&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Trixi.jl is a numerical simulation framework for conservation laws written in the Julia programming language.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.23&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Example applications include high-speed flows with complex shock interactions, astrophysical simulations with self-gravity, shallow water problems for flood prediction, or computational aeroacoustics. A key objective for the framework is to be useful to both scientists and students. Therefore, next to having an extensible design with a fast implementation, Trixi.jl is focused on being easy to use for new or inexperienced users, including the installation and postprocessing procedures. We thus try to utilize the advantages of Julia for rapid prototyping and efficiency to make high-performance computing more accessible for a broader scientific audience.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;WESTPA&#8221; url=&#8221;https:\/\/westpa.github.io\/westpa\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2022\/12\/WESTPA_star300x300.png&#8221; admin_label=&#8221;WESTPA&#8221; _builder_version=&#8221;4.19.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>WESTPA (The Weighted Ensemble Simulation Toolkit with Parallelization and Analysis) is a high-performance Python framework<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;aeon&#8221; url=&#8221;https:\/\/www.aeon-toolkit.org&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/03\/aeon-logo.png&#8221; admin_label=&#8221;aeon&#8221; _builder_version=&#8221;4.24.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><a href=\"https:\/\/www.aeon-toolkit.org\">aeon<\/a> is an open-source scikit-learn compatible toolkit for time series tasks such as forecasting, classification, regression, clustering, anomaly detection and segmentation. It provides a broad library of time series algorithms, including efficient implementations of the latest advances in research.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Yellowbrick&#8221; url=&#8221;https:\/\/www.scikit-yb.org\/en\/latest\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2018\/11\/yellowbrick_300x300.png&#8221; admin_label=&#8221;Yellowbrick&#8221; _builder_version=&#8221;4.20.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Yellowbrick is a Python package that visualizes the data science workflow, allowing users to visually steer the feature, algorithm, and hyperparameter selection process by directly extending the Scikit-Learn API.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;XGI&#8221; url=&#8221;https:\/\/xgi.readthedocs.io&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2023\/03\/xgi300x300.png&#8221; admin_label=&#8221;XGI&#8221; _builder_version=&#8221;4.20.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>The CompleX Group Interactions (XGI) library provides data structures and algorithms for modeling and analyzing complex systems with group (higher-order) interactions, i.e. hypergraphs and simplicial complexes.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;BigBang&#8221; url=&#8221;https:\/\/github.com\/Xiangyu-Hu\/SPHinXsys&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/03\/BigBang.png&#8221; admin_label=&#8221;BigBang&#8221; _builder_version=&#8221;4.24.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>BigBang is a toolkit for studying processes of open collaboration and deliberation, especially with respect to the production of digital infrastructures, to make them more transparent and accountable. This is achieved by utilising public communication channels and documents to reveal which actors are leading, following, or left out. It enables the analysis and visualisation of relationships, discourses, time series and knowledge networks.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;PyDMD&#8221; url=&#8221;https:\/\/pydmd.github.io\/PyDMD\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/03\/PyDMD.png&#8221; admin_label=&#8221;PyDMD&#8221; _builder_version=&#8221;4.24.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>PyDMD is a Python package designed for Dynamic Mode Decomposition (DMD), a data-driven method used for analyzing and extracting spatiotemporal coherent structures from time-varying datasets. It provides a comprehensive and user-friendly interface for performing DMD analysis, making it a valuable tool for researchers, engineers, and data scientists working in various fields.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;STUMPY&#8221; url=&#8221;https:\/\/stumpy.readthedocs.io\/en\/latest\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/03\/STUMPY-Logo-300&#215;300-1.png&#8221; admin_label=&#8221;STUMPY&#8221; _builder_version=&#8221;4.24.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>STUMPY is a powerful and scalable Python library for modern time series analysis.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;skforecast&#8221; url=&#8221;https:\/\/skforecast.org&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/04\/skforcast-300&#215;300-1.png&#8221; admin_label=&#8221;skforecast&#8221; _builder_version=&#8221;4.24.3&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Skforecast is a Python library that eases using scikit-learn regressors as single and multi-step forecasters. It also works with any regressor compatible with the scikit-learn API (LightGBM, XGBoost, CatBoost, &#8230;)<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Parallel Ice Sheet Model (PISM)&#8221; url=&#8221;https:\/\/www.pism.io\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/04\/PISM-300&#215;300-1.png&#8221; admin_label=&#8221;PISM&#8221; _builder_version=&#8221;4.24.3&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>The Parallel Ice Sheet Model (PISM) is an open-source modelling framework for ice sheets and glaciers. It is parallel, thermodynamically-coupled and capable of high resolution. PISM has been\u00a0<a href=\"https:\/\/www.pism.io\/publications\/\">widely adopted as a tool for doing science<\/a>\u00a0for about twenty years now.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;FESTIM&#8221; url=&#8221;https:\/\/festim.readthedocs.io\/en\/latest\/&#8221; admin_label=&#8221;FESTIM&#8221; _builder_version=&#8221;4.25.0&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>FESTIM, a leading open-source hydrogen transport simulation tool, relies on FEniCS. Globally adopted, it serves diverse sectors like nuclear design and hydrogen aviation advancements.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Open OnDemand&#8221; url=&#8221;https:\/\/openondemand.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/06\/Open-OnDemand-300&#215;300-1.png&#8221; admin_label=&#8221;Open On Demand&#8221; _builder_version=&#8221;4.25.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Developed by the Ohio Supercomputer Center (OSC) and funded by the National Science Foundation, Open OnDemand is an open-source portal that enables web-based access to HPC services. Clients manage files and jobs, create and share apps, run GUI applications and connect via SSH, all from any device with a web browser.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Visual Python&#8221; url=&#8221;https:\/\/visualpython.ai\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/07\/Visual-Python-300&#215;300-1.png&#8221; admin_label=&#8221;Visual Python&#8221; _builder_version=&#8221;4.25.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Visual Python is a GUI-based Python code generator, developed on the Jupyter Lab, Jupyter Notebook and Google Colab as an extension. Visual Python is an open source project started for students who struggle with coding during Python classes for data science.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;GP Jax&#8221; url=&#8221;https:\/\/jaxgaussianprocesses.com\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/09\/GP-Jax-300&#215;300-1.png&#8221; admin_label=&#8221;GP Jax&#8221; _builder_version=&#8221;4.27.0&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>GPJax is a Python library that enables Bayesian inference with Gaussian processes using JAX on both CPUs and GPUs. The abstractions provided by GPJax are designed to be tightly coupled with the underlying math, providing a framework that is intuitive to researchers and practitioners alike. Support for classification, regression, and decision making\/Bayesian optimization are available thanks to work from numerous contributors.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;toqito&#8221; url=&#8221;https:\/\/toqito.readthedocs.io\/en\/latest\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/09\/toqito-logo-300&#215;300-1.png&#8221; admin_label=&#8221;toqito&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>The toqito package is an open-source library for studying various objects in quantum information, namely, states, channels, and measurements. toqito provides numerical tools to study problems about entanglement theory, nonlocal games, and other aspects of quantum information often associated with computer science.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Folium&#8221; url=&#8221;https:\/\/python-visualization.github.io\/folium&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/09\/Folium-Logo-300&#215;300-1.png&#8221; admin_label=&#8221;Folium&#8221; _builder_version=&#8221;4.27.0&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>Folium builds on the data wrangling strengths of the Python ecosystem and the mapping strengths of the Leaflet.js library. Manipulate your data in Python, then visualize it in a Leaflet map via Folium.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Snakemake&#8221; url=&#8221;https:\/\/snakemake.github.io&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2024\/10\/Snakemake-300&#215;300-1.png&#8221; admin_label=&#8221;Snakemake&#8221; _builder_version=&#8221;4.27.2&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>The Snakemake workflow management system is a framework for reproducible and scalable data analyses. Workflows are described via a human readable, Python based language.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.27.2&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>They can be seamlessly scaled to server, cluster, grid and cloud environments, without the need to modify the workflow definition. Snakemake workflows can entail a description of required software, which will be automatically deployed to any execution environment. Finally, Snakemake can automatically generate server-free, graphical, interactive reports that connect the results of a data analyisis with the code, parameters, and software used for each step, ensuring data provenance and transparency. With on average more than 11 new citations per week in 2023, and almost 950000 downloads on anaconda.org, Snakemake is extremely popular.<\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;SunPeek&#8221; url=&#8221;https:\/\/docs.sunpeek.org&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/01\/Sun-Peak-300&#215;300-1.png&#8221; admin_label=&#8221;SunPeak&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p>SunPeek is a python package and web application for assesing the operational performance of Large Solar-thermal Arrays. It implements the ISO 24194 Performance Check standard, and is intended to assist researchers and plant operators in understanding the long term performance of these systems.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Bambi&#8221; url=&#8221;https:\/\/bambinos.github.io\/bambi\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/04\/Bambi-logo-RGB-300&#215;300-1.png&#8221; content_last_edited=&#8221;off|desktop&#8221; admin_label=&#8221;Bambi&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221; content__hover_enabled=&#8221;off|desktop&#8221;]<\/p>\n<p>Bambi is a high-level interface to build, fit, and explore Bayesian statistical models.<\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Open2C&#8221; url=&#8221;https:\/\/open2c.github.io\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/04\/Open2C-logo-300&#215;300-1.png&#8221; admin_label=&#8221;Open2C&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">Open2C is a community that develops and maintains open-source tools for 3D chromosome biology and genomic data science, primarily in Python.<br \/><\/span><\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; _builder_version=&#8221;4.27.4&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">We are particularly interested in 3D genomics, and most of the tools are focused on the analysis of data obtained using Hi-C and related high-throughput technologies. We like our tools to be easy to use, flexible, and scalable in order to facilitate active development of novel analytical approaches and to make use of the latest and largest datasets.<\/span><\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Poly&#8221; url=&#8221;https:\/\/pkg.go.dev\/github.com\/bebop\/poly&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/04\/Poly-logo-300&#215;300-1.png&#8221; admin_label=&#8221;Poly&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">The aim of Poly is to provide a comprehensive software framework for engineering biology. Poly already ships a suite of parsers, optimizers, and various tools to engineer DNA and other biological sequences which we want to further expand to support more complex engineering workflows<\/span><\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;PRQL&#8221; url=&#8221;https:\/\/prql-lang.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/04\/PRQL-logo-300&#215;300-1.png&#8221; admin_label=&#8221;PRQL&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">PRQL is a modern language for transforming data \u2014 a simple, powerful, pipelined SQL replacement<\/span><\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;PUDL&#8221; url=&#8221;https:\/\/catalystcoop-pudl.readthedocs.io\/en\/nightly\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/04\/PUDL-logo-300&#215;300-1.png&#8221; content_last_edited=&#8221;off|desktop&#8221; admin_label=&#8221;PUDL&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221; content__hover_enabled=&#8221;off|desktop&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">PUDL is a data processing pipeline created by Catalyst Cooperative that cleans, integrates, and standardizes some of the most widely used public energy datasets in the US.<\/span><\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; admin_label=&#8221;Toggle&#8221; _builder_version=&#8221;4.27.4&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">The data serve researchers, activists, journalists, and policy makers that might not have the technical expertise to access it in its raw form, the time to clean and prepare the data for bulk analysis, or the means to purchase it from existing commercial providers.<\/span><\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;PyData Sparse&#8221; url=&#8221;https:\/\/sparse.pydata.org\/en\/stable\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/04\/PyData-Sparse-logo-300&#215;300-1.png&#8221; admin_label=&#8221;PyData Sparse&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">N-dimensional sparse arrays for the PyData Ecosystem<\/span><\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;SPHinXsys&#8221; url=&#8221;https:\/\/www.sphinxsys.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/04\/SPHinXsys-logo-300&#215;300-1.png&#8221; admin_label=&#8221;SPHinXsys&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">SPHinXsys provides C++ APIs for physical accurate simulation and aims to model coupled industrial dynamic systems including fluid, solid, multi-body dynamics and beyond.<\/span><\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; admin_label=&#8221;Toggle&#8221; _builder_version=&#8221;4.27.4&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">The multi-physics library is based a unique, unified computational framework by which strong couplings have been achieved for all involved physics.<\/span><\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;SageMath&#8221; url=&#8221;https:\/\/www.sagemath.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/04\/SageMath-logo-300&#215;300-1.png&#8221; admin_label=&#8221;SageMath&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">SageMath is a comprehensive mathematical software system, developed since 2005.<\/span><\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; admin_label=&#8221;Toggle&#8221; _builder_version=&#8221;4.27.4&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">Its scope ranges from general untyped symbolic computation to research-level computational tools in numerous areas of mathematics. Sage makes use of hundreds of third-party, separately maintained packages written either in Python\/Cython or in other languages (C, C++, Common Lisp). The Sage library consists of about 3000 first-party Python and Cython modules.<\/span><\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;BayesFlow&#8221; url=&#8221;https:\/\/bayesflow.org\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/05\/BayesFlow-logo-300&#215;300-1.png&#8221; content_last_edited=&#8221;off|desktop&#8221; admin_label=&#8221;BayesFlow&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221; content__hover_enabled=&#8221;off|desktop&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">BayesFlow implements amortized Bayesian workflows with deep learning. This means users first train a neural network on simulated data. Then they obtain posterior inference on any real data almost instantly.<\/span><\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; admin_label=&#8221;Toggle&#8221; _builder_version=&#8221;4.27.4&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">The Python library is based on Keras3 which allows users to choose between a PyTorch, TensorFlow, or JAX backend. BayesFlow follows a modular software architecture that is built for machine learning scientists and applied domain users alike.<\/span><\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;HiGHS&#8221; url=&#8221;https:\/\/highs.dev\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/05\/HiGHS-logo-300&#215;300-1.png&#8221; admin_label=&#8221;HiGHS&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">HiGHS offers open-source high-performance linear optimization software. In the industry-standard independent benchmarks, it is seen to be the best such software in the world. It can be used through many language and application interfaces, including NumFOCUS projects SciPy and JuMP.<\/span><\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;RxInfer&#8221; url=&#8221;https:\/\/rxinfer.com\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/05\/RxInfer-logo-300&#215;300-1.png&#8221; admin_label=&#8221;RxInfer&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">RxInfer is a Julia package for fast and scalable Bayesian inference in probabilistic models. This toolbox is very suited for fast online inference in freely definable non-linear state-space models.<\/span><\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;sbi&#8221; url=&#8221;https:\/\/sbi-dev.github.io\/sbi\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/06\/sbi-logo-300&#215;300-1.png&#8221; admin_label=&#8221;sbi&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">Many areas of science and engineering make extensive use of complex, stochastic, numerical simulations to describe the structure and dynamics of the processes being investigated. A key challenge in simulation-based science is constraining these simulation models\u2019 parameters with observational data.<\/span><\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; admin_label=&#8221;Toggle&#8221; _builder_version=&#8221;4.27.4&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">Bayesian inference provides a general and powerful framework to invert the simulators, i.e. describe the parameters which are consistent both with empirical data and prior knowledge. In the case of simulators, a key quantity required for statistical inference, the likelihood of observed data given parameters, is typically intractable, rendering conventional statistical approaches inapplicable. `sbi` implements machine-learning methods that address this problem.<\/span><\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][\/et_pb_row][et_pb_row column_structure=&#8221;1_4,1_4,1_4,1_4&#8243; use_custom_gutter=&#8221;on&#8221; gutter_width=&#8221;2&#8243; make_equal=&#8221;on&#8221; _builder_version=&#8221;4.16&#8243; custom_padding=&#8221;||0px|&#8221; global_colors_info=&#8221;{}&#8221;][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Narwhals&#8221; url=&#8221;https:\/\/github.com\/narwhals-dev\/narwhals&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/06\/Narwhals-logo-300&#215;300-1.png&#8221; content_last_edited=&#8221;off|desktop&#8221; admin_label=&#8221;Narwhals&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221; content__hover_enabled=&#8221;off|desktop&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">Lightweight compatibility layer between dataframe libraries<\/span><\/p>\n<p>[\/et_pb_blurb][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;marimo&#8221; url=&#8221;https:\/\/marimo.io\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/06\/marimo-logo-300&#215;300-1.png&#8221; content_last_edited=&#8221;off|desktop&#8221; admin_label=&#8221;marimo&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221; content__hover_enabled=&#8221;off|desktop&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">marimo is a reactive Python notebook: run a cell or interact with a UI element, and marimo automatically runs dependent cells (or marks them as stale), keeping code and outputs consistent.<\/span><\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; admin_label=&#8221;Toggle&#8221; _builder_version=&#8221;4.27.4&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">marimo notebooks are stored as pure Python, executable as scripts, and deployable as apps. marimo is built from scratch, designed specifically for working with data.<\/span><\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Albumentations&#8221; url=&#8221;https:\/\/albumentations.ai\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/06\/Albumentations-logo-300&#215;300-1.png&#8221; content_last_edited=&#8221;off|desktop&#8221; admin_label=&#8221;Albumentations&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221; content__hover_enabled=&#8221;off|desktop&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">Albumentations is a fast and flexible image augmentation library that supports over 70 different transforms for object detection, segmentation and image classification tasks.<\/span><\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; admin_label=&#8221;Toggle&#8221; _builder_version=&#8221;4.27.4&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">It accelerates deep learning development by providing an efficient, hardware-optimized toolkit for data augmentation that&#8217;s readily compatible with popular ML frameworks like PyTorch and TensorFlow.<\/span><\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;Materials Project Software Foundation&#8221; url=&#8221;https:\/\/next-gen.materialsproject.org&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/07\/Materials-Project-Software-Foundation-logo-300&#215;300-1.png&#8221; content_last_edited=&#8221;off|desktop&#8221; admin_label=&#8221;Materials Project Software Foundation&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221; content__hover_enabled=&#8221;off|desktop&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">The mission of the Materials Project Software Foundation (MPSF) is to provide community-driven, inclusive, coordinated, transparent, and accountable governance of select public-facing and open-source Materials Project software packages.<\/span><\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; admin_label=&#8221;Toggle&#8221; _builder_version=&#8221;4.27.4&#8243; global_colors_info=&#8221;{}&#8221;]<\/p>\n<p><span data-sheets-root=\"1\">These software packages constitute an ecosystem of complementary codes that together form the foundation of the Materials Project Database, while also enabling numerous capabilities in materials science, high-throughput computations, and analysis of molecular simulation results. 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This effort is a result of the collaboration between Project Raijin (NSF NCAR and Pennsylvania State University) and the SEATS Project (Argonne National Laboratory, UC Davis, and Lawrence Livermore National Laboratory). The UXarray team welcomes community members to become part of this collaboration at any level of contribution.<\/span><\/p>\n<p>[\/et_pb_toggle][\/et_pb_column][et_pb_column type=&#8221;1_4&#8243; _builder_version=&#8221;4.16&#8243; background_color=&#8221;#fafafa&#8221; custom_padding=&#8221;10px|20px|30px|20px&#8221; global_colors_info=&#8221;{}&#8221; custom_padding__hover=&#8221;|||&#8221;][et_pb_blurb title=&#8221;BrainGlobe&#8221; url=&#8221;http:\/\/brainglobe.info\/&#8221; image=&#8221;https:\/\/numfocus.org\/wp-content\/uploads\/2025\/11\/BrainGlobe-300&#215;300@4x.png&#8221; content_last_edited=&#8221;off|desktop&#8221; admin_label=&#8221;BrainGlobe&#8221; _builder_version=&#8221;4.27.4&#8243; header_level=&#8221;h3&#8243; header_font=&#8221;|600|||||||&#8221; header_text_color=&#8221;#007d8a&#8221; text_orientation=&#8221;center&#8221; global_colors_info=&#8221;{}&#8221; content__hover_enabled=&#8221;off|desktop&#8221;]<\/p>\n<p>The BrainGlobe Initiative exists to facilitate the development of interoperable Python-based tools for computational neuroanatomy.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; admin_label=&#8221;Toggle&#8221; _builder_version=&#8221;4.27.5&#8243; hover_enabled=&#8221;0&#8243; global_colors_info=&#8221;{}&#8221; sticky_enabled=&#8221;0&#8243;]<\/p>\n<p>We have three main aims. 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We are also the education arm for the Pangeo initiative.<\/p>\n<p>[\/et_pb_blurb][et_pb_toggle title=&#8221;Read More&#8221; admin_label=&#8221;Toggle&#8221; _builder_version=&#8221;4.27.5&#8243; hover_enabled=&#8221;0&#8243; global_colors_info=&#8221;{}&#8221; sticky_enabled=&#8221;0&#8243;]Project Pythia is a home for Python-centered learning resources that are open-source, community-owned, geoscience-focused, and high-quality. Our educational goals include helping geoscientists make sense of huge volumes of numerical scientific data using tools that facilitate open, reproducible science, and building an inclusive community of practice. 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