EXECUTIVE SUMMARY
Intersect360 Research surveyed the High Performance Computing (HPC) user community on their software usage for HPC. The complete study analyzes users’ current operating systems, middleware, developer tools, and primary applications across 11 different application domains, including:
- the overall mix of in-house, open-source, and commercial software
- the mix of public cloud versus on-premises computing, by application
- scalability and performance on various processing elements, by application domain
- the overall adoption of machine learning.
Our goal in this analysis is to provide an in-depth analysis of how HPC software trends. Intersect360 Research surveyed members of the HPC user community worldwide across industry, government, and academia. The survey was conducted in the fourth quarter of 2021 and received responses from 238 qualified sites, yielding tens of thousands of data points for analysis with respect to HPC software.
Intersect360 Research defines HPC as the use of servers, clusters, and supercomputers—plus associated software, tools, components, storage, and services—for scientific, engineering, or analytical tasks that are particularly intensive in computation, memory usage, or data management. Intersect360 Research reports available in this HPC Technology Survey report series include the following segmentations:
- Operating Systems and Middleware: including operating systems, HPC job management tools, workflow and workload management tools, and software for cluster management, monitoring, and provisioning
- Compilers and Developer Tools: including languages, compilers, and programming environments for HPC software development
- AI Adoption: including machine learning frameworks and current levels of organizational AI engagement
- Primary Application Software: 11 distinct reports covering applications used, typical and maximum job scalability, affinity to cloud computing, and impressions of performance by processor type, for 11 application domains, as follows:
- Primary Application Software—Biosciences: including pharmaceuticals, biochemistry, genomics, agricultural engineering, cryo-EM, etc.
- Primary Application Software—Business Analytics
- Primary Application Software—Chemistry
- Primary Application Software—Computational Fluid Dynamics (CFD)
- Primary Application Software—Engineering: including computer-aided engineering (CAE), finite element analysis (FEA), noise-vibration-harshness testing (NVH), materials science, etc.
- Primary Application Software—Finance: including banking, trading, pricing, risk management and value-at-risk (VaR), econometric modeling, insurance, etc.
- Primary Application Software—Geophysics: including seismic modeling, reservoir simulation, geology, etc.
- Primary Application Software—Physics: including pharmaceuticals, biochemistry, genomics, agricultural engineering, cryo-EM, etc.
- Primary Application Software—Scientific Research: including general fields of scientific inquiry not covered elsewhere
- Primary Application Software—Visualization
- Primary Application Software—Weather and Climate Modeling: including earth science and ocean modeling
This report provides a detailed examination of compilers and developer tools used in HPC, including the languages that represent both active development and maintenance of HPC applications. The report is divided into sections: compilers, MPI mechanisms, and workflow tools and integrated development environments (IDEs), and other tools and frameworks for development. For each, respondents selected from common packages, listed based on their presence in previous surveys, or wrote in additional packages not listed. Intersect360 Research clients are encouraged to review the data and insights in this report in planning their future developments for all HPC technologies and services.
TABLE OF CONTENTS 4
INTRODUCTION 6
Methodology 6
What Is HPC? 8
PROGRAMMING LANGUAGES 9
Figure 1: Proportion of Commercial, In-House, and Open-Source Software by Sector 9
Figure 2: Proportion of Commercial, In-House, and Open-Source Software Across Survey Population, 2010 vs. Today 10
Figure 3: Percentage of Respondents Reporting Active Development vs Maintenance of Programming Languages 11
Table 1: Percentage of Respondents Reporting Active Development vs Maintenance of Programming Languages: All Respondents 12
Table 2: Programming Languages by Sector: Commercial/Industrial 12
Table 3: Programming Languages by Sector: Academic and Not-for-Profit Research 13
Table 4: Programming Languages by Sector: Government 13
DEVELOPMENT TOOLS 14
Compilers 14
Table 5: Usage of Compilers 14
MPI Mechanisms 15
Table 6: Usage of MPI Mechanisms 15
HPC Workflow Development Tools, IDEs 16
Table 7: Usage of HPC Workflow Tools 16
Additional HPC Development Tools and Frameworks 17
Figure 4: Additional Tools for Development in HPC Environments 17
CONCLUSIONS 18
APPENDIX A: SURVEY DEMOGRAPHICS 19
Figure A1: Economic Sector of Respondent Organization 19
Figure A2: Number of Employees for Respondent Site and Organization 19
Figure A3: Annual HPC Budget for Respondent Site and Organization 20
Figure A4: Role of Survey Respondent in Organization 20
Figure A5: HPC Software Purchasing Responsibility of Respondent 21