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WIPAC

Full company profile

uuid003cjqn

Namestring
WIPAC
Legal namestring
Wisconsin IceCube Particle Astrophysics Center
Websiteurl
wipac.wisc.edu
Company typeenum
Private
Founded yearint
1987
Operating statusenum
Operating
Ownership categoryenum
Headcount rangeband
51–100
akta.pro rankint
HeadquartersMadison, United States
HQ citystring
Madison
HQ countrystring
United States
HQ regionstring
North America
Markets served

Serves global market

Offices6 records

Each record includes

City, Country, Type, Description, Source

Keyword5 values
neutrino astrophysics research, cosmic ray detection, particle astrophysics observatory, gamma ray astronomy, astroparticle physics experiments
Industry3 codes
1International Science, Technology & Space Cooperation Organizations
CodeBPADAAAKPrimaryYes
2In-Core & Ex-Core Instrumentation (Neutron Flux, Temperature, Pressure, Vibration)
CodeEUAKADALPrimaryNo
3Nonproliferation Technology & Detection (radiation portal monitors, RPMs, spectroscopy, forensics)
CodeEUAKAJAGPrimaryNo
NAICS code3 codes
  • Space Research and Technology927
  • Space Research and Technology92711
  • Geophysical Surveying and Mapping Services54136
SIC code1 code
  • Laboratory Analytical Instruments3826
Product category
Astroparticle Physics Research
GTM motion1 record

Each record includes

Type, Description, Source

Revenue model1 record
1Government Research Grants
TypeGrants Donations
Description

As a university research center within UW-Madison's Office of the Vice Chancellor for Research, WIPAC primarily operates through federal funding, particularly from the National Science Foundation (NSF). The IceCube project was built under NSF MREFC grant with ongoing maintenance and operations support from NSF's Division of Polar Programs and Physics Division.

wipac.wisc.edu
Marketing channels5 records

Each record includes

Title, Type, Stage, Description, Source

Distribution channels5 records

Each record includes

Title, Type, Scope, Target buyer, Description, Source

Cost components5 values
Personnel, Technology or R&D, Infrastructure, Operations, Others
GTM typeB2B
B2B
Offering typeServices
Services
Core offering1 text field

WIPAC operates the IceCube Neutrino Observatory, a cubic-kilometer particle detector at the South Pole, and several other astrophysics experiments (ARA, HAWC, CTAO, RNO-G, SWGO). It operates scientific infrastructure, conducts research in neutrino astrophysics and high-energy particle physics, and provides data access, computing resources, and collaboration opportunities to international research institutions.

Differentiator
Functional benefit
Problem solved
Quantifiable outcome1 of 3 values shown
  • First detection of cosmic neutrinos from outside the solar system (2013)
+2 more records
Product overview1 text field

WIPAC operates a portfolio of neutrino and cosmic ray detector systems and related scientific infrastructure. The core product is the IceCube Neutrino Observatory, a cubic-kilometer particle detector at the South Pole. Supporting products include the ARA radio array (also at the South Pole), HAWC gamma-ray observatory in Mexico, and CTAO in development. RNO-G and SWGO represent next-generation extensions. WIPAC also offers DECO, a citizen science smartphone app, and Project Hercules educational video game. The theoretical astrophysics program provides research integration across all detectors.

Product and service9 records
1IceCube Neutrino Observatory
CategoryScientific Observatory
Description

A cubic-kilometer particle detector at the South Pole that records neutrino interactions from the most violent astrophysical sources. Uses 5,160 digital optical modules embedded in Antarctic ice, covering an energy range from 10 GeV to PeV through its main detector and DeepCore extension.

2ARA (Askaryan Radio Array)
CategoryScientific Observatory
Description

A radio detector array at the South Pole designed for detection of ultra-high-energy cosmic neutrinos using radio pulses produced by interactions in Antarctic ice. Functions as R&D device for IceCube-Gen2 radio detector, targeting the cosmogenic neutrino flux above 10^17 eV.

3HAWC (High-Altitude Water Cherenkov Observatory)
CategoryScientific Observatory
Description

A TeV-energy-scale gamma-ray observatory located at 4,100 meters altitude in Mexico. Surveys the Northern Hemisphere sky for steady and transient high-energy gamma rays to determine the origins of Galactic cosmic rays.

4CTAO (Cherenkov Telescope Array Observatory)
CategoryScientific Observatory
Description

Next-generation gamma-ray observatory using dozens of imaging atmospheric Cherenkov telescopes to detect gamma rays between 30 GeV and 100 TeV. A prototype Schwarzschild-Couder telescope is under construction on Mount Hopkins in Arizona, with WIPAC contributing camera prototype development using silicon photomultipliers.

5RNO-G (Radio Neutrino Observatory in Greenland)
CategoryScientific Observatory
Description

Radio neutrino observatory under construction at Summit Station in Greenland to search for ultra-high-energy neutrinos. Will deploy 35 stations with surface and deep (100 meters below ice surface) components to enable detection and reconstruction of neutrino events above 10 PeV.

6SWGO (Southern Wide-field Gamma-ray Observatory)
CategoryScientific Observatory
Description

Planned ground-based gamma-ray detector in the Southern Hemisphere, designed for wide field of view and nearly 100% duty cycle. To be located in Atacama Astronomical Park in Chile at 4,770 meters altitude, covering energies from hundreds of GeV to PeV scale.

7Theoretical Astrophysics Research
CategoryResearch Program
Description

Theoretical research program encompassing high-energy neutrinos, cosmic rays, gamma rays, dark matter, black holes, and extreme astrophysical environments. Includes model development and interpretation of data from IceCube, HAWC, and future observatories.

8DECO (Distributed Electronic Cosmic-Ray Observatory)
CategoryCitizen Science Application
Description

A citizen science project that allows users worldwide to detect cosmic rays and other energetic particles using their cell phones and tablets. Available on Android with iOS version in testing, with global data collection and educational resources.

9Project Hercules
CategoryEducational Tool
Description

An educational video game that enables players to explore the universe through astrophysics concepts, part of WIPAC's outreach and education initiatives.

Scale indicator9 records

Each record includes

Type, Value, Description, Source

Partnership6 partners
Strategic tierCoreTypeStrategic or Co-development PartnerAnnounced on2011-05-01
Description

The IceCube Collaboration is the primary international research partnership operating the IceCube Neutrino Observatory. WIPAC serves as the lead institution with primary responsibility for detector maintenance and operations. The collaboration includes over 450 researchers from institutions in 14+ countries. Regular collaboration meetings bring together scientists worldwide to discuss data analysis, detector operations, and future extensions.

2ARA Collaboration
Strategic tierCoreTypeStrategic or Co-development Partner
Description

Askaryan Radio Array collaboration with 11 institutions across 7 countries (5 US, 2 Europe, 3 Asia and Australia) including Chiba University, Free University of Brussels, Ohio State University, Kansas University, National Taiwan University, University College London, University of Adelaide, University of Delaware, University of Maryland, and Weizman Institute. WIPAC leads integration, testing, drilling, and installation at South Pole.

wipac.wisc.edu
3HAWC Collaboration
Strategic tierCoreTypeStrategic or Co-development Partner
Description

High-Altitude Water Cherenkov Observatory collaboration studying TeV gamma rays from high-altitude site in Mexico. WIPAC scientists work on trigger design, cosmic-ray anisotropy analysis, fast searches for flaring activity, energy estimation, and map making. Team contributed to detector construction, monitoring, and commissioning.

wipac.wisc.edu
Strategic tierCoreTypeStrategic or Co-development Partner
Description

Cherenkov Telescope Array Observatory international consortium developing next-generation gamma-ray observatory. WIPAC team is developing camera prototype with silicon photomultipliers designed to detect TeV gamma rays with precise energy and direction measurement. Justin Vandenbroucke serves as institutional leader.

Strategic tierCoreTypeStrategic or Co-development Partner
Description

Radio Neutrino Observatory in Greenland collaboration deploying 35 stations at Summit Station to search for ultra-high-energy neutrinos above 10 PeV. WIPAC team works on drill development with British Antarctic Survey, and supports installation and calibration campaigns. Building on ARA and ARIANNA experiences.

Strategic tierCoreTypeStrategic or Co-development Partner
Description

Southern Wide-field Gamma-ray Observatory collaboration developing next-generation gamma-ray detector for Southern Hemisphere. WIPAC team will develop PMT base and front-end electronics, work on timing system and electrical grounding, and contribute to scientific studies. Project in R&D phase for deployment in Chile.

Recent move6 records

Each record includes

Date, Type, Title, Description, Source

Expansion highlight5 records

Each record includes

Type, Description

Peers10 records
1CERN
TypeBroad incumbent
Description

European Organization for Nuclear Research, the largest particle physics laboratory in the world, operating the LHC and a portfolio of particle astrophysics experiments. Comparable as an international scientific collaboration operating large-scale detector infrastructure with government and member-state funding.

TypeBroad incumbent
Description

German national particle physics laboratory operating PETRA III, FLASH, and contributing to IceCube data archiving (DESY Zeuthen). Direct technical peer given ongoing IceCube partnership; broader scope than WIPAC but overlapping in astroparticle physics.

3Kamioka Observatory (ICRR, University of Tokyo)
TypeDirect peer
Description

Hosts Super-Kamiokande and is building Hyper-Kamiokande, the leading underground neutrino and proton-decay detectors. Direct peer in neutrino astrophysics, operating a competing large-scale detector with similar scientific goals in neutrino astronomy and multi-messenger observations.

TypeDirect peer
Description

European collaboration building a cubic-kilometer scale neutrino telescope in the Mediterranean Sea, positioned as a direct technical and scientific competitor to IceCube. Most direct peer in detector category, target physics, and community, though operating in the Northern Hemisphere seawater rather than Antarctic ice.

TypeBroad incumbent
Description

US Department of Energy national laboratory operating major particle and neutrino physics experiments including DUNE and NOvA. Highly comparable as a publicly funded, mission-driven particle physics research center with large-scale detector infrastructure and international collaborations, though broader in scope than WIPAC's astroparticle focus.

TypeBroad incumbent
Description

US Department of Energy national lab with particle astrophysics and gamma-ray programs including Fermi LAT and Rubin Observatory LSST contributions. Comparable large-scale astrophysics research infrastructure with federal funding and academic-affiliated collaborations.

TypeBroad incumbent
Description

German research institute conducting theoretical and experimental particle and astroparticle physics, with major involvement in IceCube and other neutrino experiments. Comparable in astroparticle research scope and academic-led international collaboration model.

TypeDirect peer
Description

Operates the gravitational-wave observatories that pioneered multi-messenger astrophysics alongside IceCube. Direct peer as a large-scale NSF-funded observatory producing breakthrough detections and coordinating with IceCube on multi-messenger follow-up of astrophysical events.

9Pierre Auger Observatory
TypeDirect peer
Description

International collaboration operating the world's largest cosmic-ray air-shower detector in Argentina. Direct peer in astroparticle physics, studying the highest-energy cosmic rays to address questions overlapping with IceCube on cosmic ray origins and ultra-high-energy phenomena.

TypeBroad incumbent
Description

Italian national institute for nuclear physics operating multiple particle and astroparticle physics experiments including contributions to KM3NeT and other neutrino facilities. Comparable as a publicly funded multi-site research organization coordinating Italian participation in international collaborations.

Market position
Strengths5 records

Each record includes

Headline, Details, Source

Weaknesses5 records

Each record includes

Headline, Details, Source

Competitive moat6 records

Each record includes

Type, Details

Key risks6 records

Each record includes

Headline, Details, Source

Key highlights7 records

Each record includes

Headline, Details, Source

Customer concentration

Classification, Details

Named customers7 records

Each record includes

Name, Industry, Type, Use case, Source, UUID

Segment3 records

Each record includes

Title, Type, Primary, Description, Pain point addressed, Use case, Source

Ideal customer profile2 records

Each record includes

Profile, Firmographic size, Sales motion, Sales cycle length, Buying structure, Purchase trigger, Buyer persona, Geography, Industry vertical, Primary use case, Description, Pain points, Evidence proof points, Target buyer

Technology focused
Yes
API detail
Has APIbool
No

Docs URL, Description

AI maturity
App detail

Has app

Feature8 records

Each record includes

Title, Differentiator, Description, Source

Core technology
Revenue estimate
Valuation estimate
Number of profiles
Profiles8 records

Each record includes

Name, Designation, Designation category, Overview, Profile commentary, Source

No data
No data
Funding overview

Funding stage, Last funding date, Total funding USD

Funding rounds

Each record includes

Round, Amount USD, Date, Pre money valuation, Total investors, Investors, News

Investors

Each record includes

Name, Type, Date of entry, Rounds participated, Website

Funding detail is available on the Subscription and Enterprise plan.Contact sales →

M&A

Each record includes

Name, Acquisition type, Announced date, Completed date, Status, Website, News

Investment

Each record includes

Name, Round, Announced date, Lead investor, Website, News

M&A and investment is available on the Subscription and Enterprise plan.Contact sales →

WIPAC

Astroparticle Physics Researchwipac.wisc.edu

WIPAC firmographics

Firmographics
Name
WIPAC
Legal name
Wisconsin IceCube Particle Astrophysics Center
Website
https://wipac.wisc.edu
Company type
Private
Founded year
1987
Operating status
Operating
Headcount range
51–100 employees
Ownership category
akta.pro rank

WIPAC industry classification

Industry
Product category
Astroparticle Physics Research
NAICS
Space Research and Technology (927), Space Research and Technology (92711), Geophysical Surveying and Mapping Services (54136)
SIC
Laboratory Analytical Instruments (3826)
akta.pro primary industry
International Science, Technology & Space Cooperation Organizations (BPADAAAK)
akta.pro secondary industries
In-Core & Ex-Core Instrumentation (Neutron Flux, Temperature, Pressure, Vibration) (EUAKADAL), Nonproliferation Technology & Detection (radiation portal monitors, RPMs, spectroscopy, forensics) (EUAKAJAG)

Keywords

  • Neutrino astrophysics research
  • Cosmic ray detection
  • Particle astrophysics observatory
  • Gamma ray astronomy
  • Astroparticle physics experiments

Where WIPAC is headquartered

Location

Headquarters

HQ city
Madison
HQ country
United States
HQ region
North America

Offices6 records

Markets served

WIPAC business model

Business model
GTM type
B2B
Offering type
Services
Cost components
Personnel, Technology or R&D, Infrastructure, Operations, Others

Revenue model

  1. Government Research Grants: As a university research center within UW-Madison's Office of the Vice Chancellor for Research, WIPAC primarily operates through federal funding, particularly from the National Science Foundation (NSF). The IceCube project was built under NSF MREFC grant with ongoing maintenance and operations support from NSF's Division of Polar Programs and Physics Division.

Go-to-market motion1 record

Distribution channels5 records

Marketing channels5 records

WIPAC product offering

Product offering

Core offering

WIPAC operates the IceCube Neutrino Observatory, a cubic-kilometer particle detector at the South Pole, and several other astrophysics experiments (ARA, HAWC, CTAO, RNO-G, SWGO). It operates scientific infrastructure, conducts research in neutrino astrophysics and high-energy particle physics, and provides data access, computing resources, and collaboration opportunities to international research institutions.

Product overview

WIPAC operates a portfolio of neutrino and cosmic ray detector systems and related scientific infrastructure. The core product is the IceCube Neutrino Observatory, a cubic-kilometer particle detector at the South Pole. Supporting products include the ARA radio array (also at the South Pole), HAWC gamma-ray observatory in Mexico, and CTAO in development. RNO-G and SWGO represent next-generation extensions. WIPAC also offers DECO, a citizen science smartphone app, and Project Hercules educational video game. The theoretical astrophysics program provides research integration across all detectors.

Differentiator

Problem solved

Functional benefit

Products and services

  • IceCube Neutrino Observatory A cubic-kilometer particle detector at the South Pole that records neutrino interactions from the most violent astrophysical sources. Uses 5,160 digital optical modules embedded in Antarctic ice, covering an energy range from 10 GeV to PeV through its main detector and DeepCore extension.
  • ARA (Askaryan Radio Array) A radio detector array at the South Pole designed for detection of ultra-high-energy cosmic neutrinos using radio pulses produced by interactions in Antarctic ice. Functions as R&D device for IceCube-Gen2 radio detector, targeting the cosmogenic neutrino flux above 10^17 eV.
  • HAWC (High-Altitude Water Cherenkov Observatory) A TeV-energy-scale gamma-ray observatory located at 4,100 meters altitude in Mexico. Surveys the Northern Hemisphere sky for steady and transient high-energy gamma rays to determine the origins of Galactic cosmic rays.
  • CTAO (Cherenkov Telescope Array Observatory) Next-generation gamma-ray observatory using dozens of imaging atmospheric Cherenkov telescopes to detect gamma rays between 30 GeV and 100 TeV. A prototype Schwarzschild-Couder telescope is under construction on Mount Hopkins in Arizona, with WIPAC contributing camera prototype development using silicon photomultipliers.
  • RNO-G (Radio Neutrino Observatory in Greenland) Radio neutrino observatory under construction at Summit Station in Greenland to search for ultra-high-energy neutrinos. Will deploy 35 stations with surface and deep (100 meters below ice surface) components to enable detection and reconstruction of neutrino events above 10 PeV.
  • SWGO (Southern Wide-field Gamma-ray Observatory) Planned ground-based gamma-ray detector in the Southern Hemisphere, designed for wide field of view and nearly 100% duty cycle. To be located in Atacama Astronomical Park in Chile at 4,770 meters altitude, covering energies from hundreds of GeV to PeV scale.
  • Theoretical Astrophysics Research Theoretical research program encompassing high-energy neutrinos, cosmic rays, gamma rays, dark matter, black holes, and extreme astrophysical environments. Includes model development and interpretation of data from IceCube, HAWC, and future observatories.
  • DECO (Distributed Electronic Cosmic-Ray Observatory) A citizen science project that allows users worldwide to detect cosmic rays and other energetic particles using their cell phones and tablets. Available on Android with iOS version in testing, with global data collection and educational resources.
  • Project Hercules An educational video game that enables players to explore the universe through astrophysics concepts, part of WIPAC's outreach and education initiatives.

Quantifiable outcome

  • First detection of cosmic neutrinos from outside the solar system (2013)
  • +2 more outcomes

Companies that use WIPAC

Customer profile

Named customers7 records

Segments3 records

Ideal customer profiles2 records

WIPAC technology and API

Technology

Technology focussed Yes

API detail

Has API
No
API docs
API detail

Core technology

AI maturity

App detail

Feature8 records

WIPAC partnerships and signals

Strategic signal

Partnerships

Six partnerships are on record, tiered core.

  • IceCube CollaborationcoreStrategic or Co-development Partner · 1 May 2011The IceCube Collaboration is the primary international research partnership operating the IceCube Neutrino Observatory. WIPAC serves as the lead institution with primary responsibility for detector maintenance and operations. The collaboration includes over 450 researchers from institutions in 14+ countries. Regular collaboration meetings bring together scientists worldwide to discuss data analysis, detector operations, and future extensions.
  • ARA CollaborationcoreStrategic or Co-development PartnerAskaryan Radio Array collaboration with 11 institutions across 7 countries (5 US, 2 Europe, 3 Asia and Australia) including Chiba University, Free University of Brussels, Ohio State University, Kansas University, National Taiwan University, University College London, University of Adelaide, University of Delaware, University of Maryland, and Weizman Institute. WIPAC leads integration, testing, drilling, and installation at South Pole.
  • HAWC CollaborationcoreStrategic or Co-development PartnerHigh-Altitude Water Cherenkov Observatory collaboration studying TeV gamma rays from high-altitude site in Mexico. WIPAC scientists work on trigger design, cosmic-ray anisotropy analysis, fast searches for flaring activity, energy estimation, and map making. Team contributed to detector construction, monitoring, and commissioning.
  • CTAO ConsortiumcoreStrategic or Co-development PartnerCherenkov Telescope Array Observatory international consortium developing next-generation gamma-ray observatory. WIPAC team is developing camera prototype with silicon photomultipliers designed to detect TeV gamma rays with precise energy and direction measurement. Justin Vandenbroucke serves as institutional leader.
  • RNO-G CollaborationcoreStrategic or Co-development PartnerRadio Neutrino Observatory in Greenland collaboration deploying 35 stations at Summit Station to search for ultra-high-energy neutrinos above 10 PeV. WIPAC team works on drill development with British Antarctic Survey, and supports installation and calibration campaigns. Building on ARA and ARIANNA experiences.
  • SWGO CollaborationcoreStrategic or Co-development PartnerSouthern Wide-field Gamma-ray Observatory collaboration developing next-generation gamma-ray detector for Southern Hemisphere. WIPAC team will develop PMT base and front-end electronics, work on timing system and electrical grounding, and contribute to scientific studies. Project in R&D phase for deployment in Chile.

Scale indicators9 records

Recent moves6 records

Expansion highlights5 records

WIPAC competitors and assessment

Company assessment

Broad incumbents

  • CERN: European Organization for Nuclear Research, the largest particle physics laboratory in the world, operating the LHC and a portfolio of particle astrophysics experiments. Comparable as an international scientific collaboration operating large-scale detector infrastructure with government and member-state funding.
  • DESY (Deutsches Elektronen-Synchrotron): German national particle physics laboratory operating PETRA III, FLASH, and contributing to IceCube data archiving (DESY Zeuthen). Direct technical peer given ongoing IceCube partnership; broader scope than WIPAC but overlapping in astroparticle physics.
  • Fermilab (Fermi National Accelerator Laboratory): US Department of Energy national laboratory operating major particle and neutrino physics experiments including DUNE and NOvA. Highly comparable as a publicly funded, mission-driven particle physics research center with large-scale detector infrastructure and international collaborations, though broader in scope than WIPAC's astroparticle focus.
  • SLAC National Accelerator Laboratory: US Department of Energy national lab with particle astrophysics and gamma-ray programs including Fermi LAT and Rubin Observatory LSST contributions. Comparable large-scale astrophysics research infrastructure with federal funding and academic-affiliated collaborations.
  • Max Planck Institute for Physics (Werner Heisenberg Institute): German research institute conducting theoretical and experimental particle and astroparticle physics, with major involvement in IceCube and other neutrino experiments. Comparable in astroparticle research scope and academic-led international collaboration model.
  • INFN (Istituto Nazionale di Fisica Nucleare): Italian national institute for nuclear physics operating multiple particle and astroparticle physics experiments including contributions to KM3NeT and other neutrino facilities. Comparable as a publicly funded multi-site research organization coordinating Italian participation in international collaborations.

Direct peers

  • Kamioka Observatory (ICRR, University of Tokyo): Hosts Super-Kamiokande and is building Hyper-Kamiokande, the leading underground neutrino and proton-decay detectors. Direct peer in neutrino astrophysics, operating a competing large-scale detector with similar scientific goals in neutrino astronomy and multi-messenger observations.
  • KM3NeT Collaboration: European collaboration building a cubic-kilometer scale neutrino telescope in the Mediterranean Sea, positioned as a direct technical and scientific competitor to IceCube. Most direct peer in detector category, target physics, and community, though operating in the Northern Hemisphere seawater rather than Antarctic ice.
  • LIGO Laboratory (Caltech / MIT): Operates the gravitational-wave observatories that pioneered multi-messenger astrophysics alongside IceCube. Direct peer as a large-scale NSF-funded observatory producing breakthrough detections and coordinating with IceCube on multi-messenger follow-up of astrophysical events.
  • Pierre Auger Observatory: International collaboration operating the world's largest cosmic-ray air-shower detector in Argentina. Direct peer in astroparticle physics, studying the highest-energy cosmic rays to address questions overlapping with IceCube on cosmic ray origins and ultra-high-energy phenomena.

Market position

Strengths5 records

Weaknesses5 records

Competitive moat6 records

Key risks6 records

Key highlights7 records

Customer concentration

WIPAC social profiles

Digital presence

WIPAC financial estimates

Financial estimate

Revenue estimate

Valuation estimate

WIPAC leadership team

Management profile

Number of profiles

Profiles8 records

WIPAC funding detail

Funding detail

Funding overview

Funding rounds

Investors

Funding detail is available on the Subscription and Enterprise plan.Contact sales →

WIPAC M&A and investment

M&A and investment

M&A

Investments

M&A and investment is available on the Subscription and Enterprise plan.Contact sales →

Frequently asked questions about WIPAC

What does WIPAC do?

WIPAC operates the IceCube Neutrino Observatory, a cubic-kilometer particle detector at the South Pole, and several other astrophysics experiments (ARA, HAWC, CTAO, RNO-G, SWGO). It operates scientific infrastructure, conducts research in neutrino astrophysics and high-energy particle physics, and provides data access, computing resources, and collaboration opportunities to international research institutions.

Is WIPAC a public or private company?

WIPAC is a private company. It is classified as state government owned and is currently operating.

When was WIPAC founded?

WIPAC was founded in 1987. It employs 51 to 100 people.

Where is WIPAC based?

WIPAC is headquartered in Madison, United States, in the North America region.

How does WIPAC make money?

One revenue line is on record: government Research Grants.

Who are WIPAC's main competitors?

Broad incumbents on record are CERN, DESY (Deutsches Elektronen-Synchrotron), Fermilab (Fermi National Accelerator Laboratory), SLAC National Accelerator Laboratory, Max Planck Institute for Physics (Werner Heisenberg Institute) and INFN (Istituto Nazionale di Fisica Nucleare). Direct peers are Kamioka Observatory (ICRR, University of Tokyo), KM3NeT Collaboration, LIGO Laboratory (Caltech / MIT) and Pierre Auger Observatory.

Does WIPAC have an API?

No public API is recorded for WIPAC.

What industry is WIPAC in?

WIPAC's product category is Astroparticle Physics Research. Its primary akta.pro industry code is BPADAAAK, International Science, Technology & Space Cooperation Organizations, with a secondary code of EUAKADAL, In-Core & Ex-Core Instrumentation (Neutron Flux, Temperature, Pressure, Vibration). Its NAICS code is 927 and its SIC code is 3826.

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