Varian INOVA 600

Fitted with a triple-resonance (1H, 13C, 15N) inverse cryogenic probe, the Varian 600 has a superior proton sensitivity (signal-to-noise ratio ~4500). Owing to a high proton sensitivity, the 600 is an instrument of choice for characterization of submicrogram quantities of soluble organic compounds and the natural products via the proton-detected experiments: 1H one-dimensional spectra, 1H-1H, 1H-13C, and 1H-15N two-dimensional correlation spectra (COSY, TOCSY, NOESY, HSQC, HMBC, etc). The spectrometer is also fully equipped to carry out the biomolecular multidimensional (3D, 4D) NMR experiments and Diffusion Ordered Spectroscopy (DOSY) experiments. The Varian 600 can be found in the Chemistry Building, room R002.

Bruker AVANCE 500

This walk-up spectrometer is equipped with the broadband 5 mm BBFO SmartProbe that can automatically select, optimally tune, and match with the auto tune-match (ATM) component to any nuclei in the resonance frequency range between 15N-31P. Besides, this BBFO probe has the added ability to observe 19F with 1H decoupling and vice-versa, as well as to perform 1H-19F 2D correlation spectroscopy. The probe has a signal-to-noise ratio 730 for 1H, 550 for 19F, 300 for 13C, 180 for 31P and 40 for 15N. The Bruker AVANCE 500 is an instrument of choice for users with small quantities of a compound and for multidimensional experiments such as HSQC, HMBC or NOESY. It is used when a higher resolution NMR is necessary for chemical structure elucidation and it supports NMR studies on proteins and nucleic acids. The spectrometer is located in the Pharmacy/Biology Building, room 056.

The Department of Chemistry also houses the solution-state Bruker AVANCE III 400 MHz equipped with the two-channel console and a 5mm BBFO probe with 19F capability, and the Bruker AVANCE 300 MHz fitted with a 5mm BBO probe, both instruments have the ATM component.

Services and Rates

The solution-state 500 and 600 MHz NMR instruments are offered on a fee-for-use 24/7 basis.
The staff provides training and consultation on the use of the instruments.
The staff provides expertise on the experiment planning and data analysis.
The dedicated Network Attached Storage for NMR data transfer and archive is available.
The instruments' time and other services can be reserved at https://cider.uconn.edu/facilities/NMR. This webpage also provides additional details about the NMR Facility.

Training and Education

Only trained users can be granted access to the NMR spectrometers. The NMR Facility Staff provides training and consultation in the use of instruments under their respective supervision. A 24 hour notice is required for scheduling a hands-on training session. For specific questions regarding NMR applications and for general managerial questions, please contact the NMR Facility Director.

Research Potential

The NMR Facility directly supports and impacts research programs in the following areas:

Chemical synthesis
Analysis of Chemical Mixtures
Pharmaceutical chemistry
Molecular recognition & drug binding
Nanomaterials
Macromolecules
Protein structure-function relationships
Protein folding and design
Nucleic acid structure and reactivity
Molecular dynamics

The provided instruments are used for a wide range of problems. The most frequent involve monitoring the chemical synthesis, drug discovery and development, material science, the molecular structure determination and ligand-protein interactions. The instruments are capable of carrying out molecular diffusion measurements, identifying metabolites in mixtures, and following reaction kinetics, just to cite a few examples.

Brain Imaging Research Core (BIRC)

Mission Statement

To facilitate scientific discovery and theoretical and methodological innovation
To serve as an intellectual center for interdisciplinary basic and clinical research
To prepare graduate students and post-doctoral fellows for careers in academia and related fields
To provide undergraduate students with research experience and other educational opportunities
To disseminate scientific knowledge to the broader university community, relevant professional communities, and the general public

The UConn Brain Imaging Core is located in the David C. Phillips Communications Sciences Building (PCSB).

2 Alethia Drive
Storrs CT 06269
(860)486-3108

Two dedicated parking spaces are available for visitors in the circular lot of the David C. Phillips Communication Sciences Building. Weekdays from 7AM-5PM, please park in one of the spaces marked 'Reserved - BIRC Visitors Only'. If the reserved spots are full, park in any available spot and we will provide you with a parking pass. The David C. Phillips Communication Sciences Building is directly in front of the two parking spaces, to the right of the Human Development building.

From Route 32: Turn onto 275 East (South Eagleville Road) and follow for approximately 2 miles. At the stop light at the junction of routes 32 and 195, turn LEFT onto Route 195 (Storrs Road). Follow directions from Route 195 (below).

From Route 195: Turn onto Bolton Road (between E.O. Smith and the School of Fine Arts.) Take your second RIGHT onto Alethia Drive, and then your second LEFT into the circular parking lot. Park in one of the reserved spaces.

You can print a copy of these directions.pdf

Campus Map and Information Enter "PCSB" in the "search the map" box

Google Map Directions

Researchers: Please use the template directions for research participants.docx rather than directing them to this page.

Magnetic Resonance Imaging (MRI)

3.0 Tesla Siemens Prisma scanner is available for structural and functional MRI scanning, as well as for magnetic resonance spectroscopy (MRS). This system has 80mT/m maximum amplitude gradient hardware, and a slew rate of 200T/m/sec with a 100% duty cycle. It also includes 20- and 32-channel head and 64-channel head/neck receive array coils with parallel imaging capabilities. This system is also equipped with 32-channel spine coil, shoulder coil, hand/wrist coil, foot/ankle coil, knee coil, and 18-channel body coil. The signal quality and operating characteristics of the scanner are routinely monitored using ACR, fBIRN, and dynamic phantoms.

Mock MRI: There is also an MRI simulator in a dedicated room in the BIRC that allows for training of subjects that might have difficulty staying still in the magnet (such as children) and also for subjects that might suffer from mild claustrophobia. The mock scanner includes equipment for displaying stimuli and for monitoring and providing feedback on head motion via and will be used for orientation to the MRI environment and training and in-scanner tasks.

MRI Guide

BIRC houses a 3-Tesla Siemens Prisma scanner equipped with an eye-tracker as well as a range of head and body coils:

20-channel head/neck coil
32-channel head coil
64-channel head/neck coil
32-channel spine coil
Large and Small Shoulder coils
Large and Small Flex coils
Hand/Wrist coil
Foot/Ankle coil
Knee coil
18-channel body array coil

Product and research pulse sequences for:

Structural imaging (Siemens or MGH sequences)
Diffusion imaging (Siemens or CMRR sequences)
BOLD
Susceptibility Weighted Imaging (SWI)
Spectroscopy and chemical shift imaging (Siemens or CMRR sequences)
Simultaneous Multislice (SMS) EPI (Siemens or CMRR sequences)
Arterial Spin Labeling

Stimulus presentation and response hardware for high fidelity auditory and visual presentation:

Avotec Silent Scan audio system
Optoacoustics OptoACTIVE II audio system
Hyperion MRI Digital Projection System
Current Designs MR-compatible response pads
In-Scanner Eye Tracking (SR Research Eye Link 1000 Plus)
Presentation using a PC, Mac, or your own laptop

EEG: 256-Channel EEG System (EGI)

The BIRC houses two 256-channel EEG systems from EGI with a full range electrode caps in pediatric and adult sizes. A Net Amps 410 is available for simultaneous EEG/MRI and a Net Amps 400 GTEN system is available for out-of-scanner use. The latter is equiped with a neuromodulation package and software for high density tDCS, tACS, tRNS and tPCS. An EGI Geodesic Photogammetry System (GPS) is available for electrode localization in conjunction with EEG or tDCS studies.

EEG Guide

High-Performance Computing (HPC) facilities

The University manages HPC systems on the Storrs campus and in Farmington at UConn Health. The systems are optimized for different computational problems, with the Storrs focusing on compute-intensive workloads and the Farmington facility on data-intensive workloads. Both provide access to accelerated GPUs, parallel computing, and 1 PB of parallel file storage and 3 PB archival storage distributed across multiple datacenters. The Farmington facility has 3,000 processor cores, and the Storrs HPC cluster currently has over 11,000 CPU cores on 400 nodes. We maintain a data transfer node with Globus software for large data transfers both within and outside of the environment. Network traffic travels over Ethernet at 10Gb per second between nodes, and file data travels over InfiniBand at 56Gb or 100Gb per second, depending on the node. All UConn researchers may use the community queues, but researchers may purchase semi-dedicated nodes for high priority access. Computational applications, including containers, are installed as needed; to date, over 200 have been made available.

Proteomics & Metabolomics

Jeremy has over 15 years of mass spectrometry-based research experience. After receiving a B.S. in chemistry from Messiah College in Grantham, PA, he pursued a Ph.D. in bioanalytical chemistry from the University of Virginia under the direction of Donald F. Hunt, a pioneer in the proteomics field. Following completion of his dissertation titled "Studies in Protein Post-Translational Modification using CAD and ETD Mass Spectrometry" and graduation from UVA, he joined Natalie Ahn's laboratory at the University of Colorado at Boulder for a post-doctoral research appointment focused on applying Hydrogen-Deuterium Exchange Mass Spectrometry and additional biochemical analysis to study the relationship between structure and function in various enzymes.

Jeremy served the University of Colorado at Boulder Department of Chemistry & Biochemistry as Director of the Central Analytical Laboratory and Mass Spectrometry Core Facility from 2014 - early 2017 before joining the research community at UConn.

As a member of the Center for Open Research Resources & Equipment, it is Jeremy's goal to bring his expertise and state-of-the-art mass spectrometry-based technologies to the University of Connecticut, UConn Health, and the Connecticut public and private research communities at large. Contact Jeremy directly for more information on beginning your future project.

Jen has over 10 years of coast-to-coast mass spectrometry research experience. She was first introduced to MS instrumentation at Western Washington University in Bellingham, WA, where she completed a B.S. in Biochemistry. She subsequently joined Natalie Ahn's lab at University of Colorado Boulder, where she received her Ph.D. in Biochemistry, using hydrogen-deuterium exchange mass spectrometry to study the activation and allosteric regulation of MAP kinases. She then accepted a joint postdoctoral position with the Weitzman lab at Children's Hospital of Philadelphia and the Garcia lab at University of Pennsylvania, applying proteomics to study the effects of viruses on protein interactomes, histone modifications, and ubiquitin signaling.

As a member of the Center for Open Research Resources & Equipment, it is Jen's goal to provide a creative, customized partnership between the diverse needs of the Connecticut research community and the analytical capabilities available in UConn PMF.

Sonam has over 8 years of research experience in liquid chromatography and mass spectrometry. She completed her Masters degree in Applied Microbiology at Banaras Hindu University, India. She joined Professor Kuniyoshi Shimizu’s lab in Kyushu University, Japan for her Ph.D. program where she studied small molecule bioactive compounds in wild mushrooms from her home country Nepal. She continued her research on natural product-derived small molecules as a postdoctoral researcher at Kyushu University. She then joined Professor Weiming Li’s lab at Michigan State University (MSU) as a Research Associate. Her research work at MSU focused on developing and optimizing methods for extraction and LCMS-based quantification of fish pheromones and other small molecules. She also incorporated targeted and untargeted metabolomics analysis for sea lamprey plasma and liver tissues.

Sonam joined the Proteomics and Metabolomics Facility (PMF) in January 2024 and as a member of the Center for Open Research Resources & Equipment, it is her goal to help PMF users and collaborators find the best possible way to utilize the resources at PMF to answer their research questions.

	Billable unit	UConn^†	External academic	Industry
In-gel digestion (Coomassie blue- or silver-stained)*	per band	$69	$92	$137
In-solution tryptic digestion (<25 ug)^	per sample	$69	$92	$137
In-solution tryptic digestion (>25 ug)^	per sample	$89	$113	$157
Non-trypsin endoproteinases	per vial	Reagent cost	Reagent cost	Reagent cost
Filter-Aided Sample Preparation (FASP)^	per sample	$181	$234	$347
S-Trap^	per sample	$160	$216	$320
In-vitro labeling	per sample	$90 + reagent cost	$114 + reagent cost^#	$143 + reagent cost^#
PTM enrichment	per hr	$90 + reagent cost	$114 + reagent cost^#	$143 + reagent cost^#
Offline fractionation	per sample	$83	$119	$176
Intact protein sample clean-up	per sample	$25	$34	$50
Custom sample prep (e.g. BCA protein quantification)	per hr	$90 + reagent cost	$114 + reagent cost	$143 + reagent cost

*includes destaining, reduction, alkylation, tryptic digestion, peptide extraction and clean-up

^includes reduction, alkylation, tryptic digestion, peptide clean-up

	Billable rate	UConn^†	External Academic	Industry
Nanoflow Proteomics Applications
Experiment set-up fee for assisted proteomics analysis^#NEW	per experiment	$90	$114	$143
Intact protein mass measurement (by infusion)	per sample	$47.50	$49	$72
timsTOF HT UPLC-MS/MS analysis	per hr	$60.50	$112	$168
Orbitrap Eclipse UPLC-MS/MS analysis	per hr	$61.50	$122	$181
QE-HF UPLC-MS/MS analysis	per hr	$44.50	$93	$145
Hydrogen-Deuterium Exchange-MS (HDX-MS) assisted analysis^{COMING SOON!}	per hr	$65.50	$126	$195
Microflow Metabolomics Applications
Experiment set-up fee for user-operated metabolomics analysis^#^NEW	per reservation	$45	$57	$71.50
Experiment set-up fee for assisted metabolomics analysis^#^NEW	per experiment	$90	$114	$143
timsTOF HT UPLC-MS/MS user-operation^‡	per hr	TBA	TBA	TBA
timsTOF HT UPLC-MS/MS assisted analysis^∅	per hr	$57.50	$112	$168
Synapt G2-Si UPLC-MS/MS user-operation^‡	per hr	$21	$65	$97
Synapt G2-Si UPLC-MS/MS assisted analysis^∅	per hr	$43.50	$91	$148
Xevo G2-XS UPLC-MS/MS User-Operation^‡	per hr	$16	$49	$72
Xevo G2-XS UPLC-MS/MS assisted analysis^∅	per hr	$38.50	$66	$89

^‡User-operation requires previous instrument training performed by PMF Faculty

^∅Assistance or Full-Service provided by PMF Faculty only

^#Includes instrument calibration(s), LC solvent changes, column cleaning, QC and blank injections. For assisted runs, this includes sample transfer to injection vials and establishing sample queue(s).

Bruker timsTOF HT Mass Spectrometer

Provides unprecedented depth of proteome coverage and sensitivity via Parallel Accumulation with Serial Fragmentation (PASEF) technology and Trapped Ion Mobility Spectrometry (TIMS)-mediated gas phase separations of ions for increased selectivity prior to mass analysis
Features maximum MS and MS/MS scan rates of ~150 Hz
Capable of multiple mass spectral acquisition options that incorporate PASEF technology, including data-dependent acquisition (DDA-PASEF), data-independent acquisition (DIA-PASEF), and parallel-reaction monitoring (PRM-PASEF) modes
Directly coupled to a Thermo Scientific Dionex Ultimate 3000 RSLCnano UPLC for high resolution, reversed-phase liquid peptide separations at nanoflow rates for maximum sensitivity

Thermo Scientific Orbitrap Eclipse Tribrid Mass Spectrometer

Provides multiple mass analysis and detection modes for MS and MS/MS using an Orbitrap or dual-pressure linear ion trap
Features multiple types of gas-phase fragmentation including collision-induced dissociation (CID), higher energy C-trap dissociation (HCD), electron transfer dissociation (ETD) plus hybrid versions of these techniques: EThcD and ETciD
Equipped to perform Real-Time Search (RTS) and Synchronous Precursor Selection (SPS) MS3-based acquisition methods for multiplexed proteomics analyses that incorporate Thermo Scientific Tandem Mass Tags (TMT) reagents for peptide quantitation
Capable of multiple mass spectral acquisition options including data-dependent acquisition (DDA), data-independent acquisition (DIA), and parallel-reaction monitoring (PRM) modes
Directly coupled to a Thermo Scientific Dionex Ultimate 3000 RSLCnano UPLC for high resolution reversed-phase liquid peptide/protein separations at variable flow regimes, including nanoflow rates for maximum sensitivity

Thermo Scientific Q Exactive HF Mass Spectrometer

Provides high resolution, accurate mass determinations for MS and MS/MS analysis of proteins and peptides in complex mixtures using High-Field (HF) Orbitrap technology
Capable of multiple mass spectral acquisition options including data-dependent acquisition (DDA), data-independent acquisition (DIA), and parallel-reaction monitoring (PRM) modes
Directly coupled to a Thermo Scientific Dionex Ultimate 3000 RSLCnano UPLC for high resolution reversed-phase liquid peptide/protein separations at variable flow regimes, including nanoflow rates for maximum sensitivity

Waters Synapt G2-Si Mass Spectrometer

Provides high resolution, accurate mass determinations for MS and MS/MS analysis of proteins and peptides in complex mixtures using High-Field (HF) Orbitrap technology
Capable of multiple mass spectral acquisition options including data-dependent acquisition (DDA), data-independent acquisition (DIA), and parallel-reaction monitoring (PRM) modes
Directly coupled to a Thermo Scientific Dionex Ultimate 3000 RSLCnano UPLC for high resolution reversed-phase liquid peptide/protein separations at variable flow regimes, including nanoflow rates for maximum sensitivity

Statistical Consulting Services (SCS)

Hourly Rates

Our initial intake meetings are free of charge. Our internal fees are as follows:

$75/hour | Grad Students - Set up or consulting time

$95/hour | Post-Doc - Set up or consulting time

$120/hour | Director - Set up or consulting time

External clients should contact Timothy E. Moore (timothy.e.moore@uconn.edu) for more fee information.

Submitting data

Although our consultants can help with correctly formatting data, we highly recommend that clients attempt to have their data appropriately formatted prior to submission to our service. More information about formatting data.pdf and using OpenRefine to clean up data. Examples of wide and long data formats (we recommend one of these be used for submission).

Project Scope

The majority of projects taken on by the SCS are what we call short-term consultations, with a total duration of no more than 15 student hours worth of work. Consultations anticipated to require substantially more than roughly 15 hours of work may be recommended for collaborative consulting. Evaluation of such recommendations typically will include a discussion of co-authorship on resulting end-products.

Policies on Acknowledgement of Statistical Consulting and Collaboration

For projects which lead to presentations, projects, or publications it is expected that appropriate authorship will be discussed for those statisticians substantively involved. When the scope of the work is limited to less than 15 hours, but nevertheless is used in a presentation, project, or publication, we would appreciate an appropriate citation or acknowledgment. For example, clients may include "We acknowledge the help of [NAME] of UConn's Statistical Consulting Services under the guidance of Dr [NAME]” as a footnote accompanying grant support and related projects."¹ If you have any questions regarding our acknowledgement policy, please contact Timothy E. Moore at timothy.e.moore@uconn.edu.

¹This policy is intended to allow clients maximum flexibility in seeking out and benefiting from our statistical consulting work while, at the same time, promoting best practice regarding academic intellectual property. For more information, we direct clients to the American Statistical Association’s guide to working with a statistical consultant (ASA_brochure.pdf).

Faculty, staff and students at UConn have access to a wide variety of statistical software. These statistical tools provide varied levels of support for data exploration, analysis and visualization.

Licensed Software

Open Source Software

UConn Anywhere

UConn affiliates can also access software online through UConn Anywhere:

"As an alternative to downloading and installing applications directly onto your computer, you can access the select university-licensed software on your devices through UConn AnyWare."

Access UConn Anywhere via software.uconn.edu/uconn-software-online.

SCS Spring 2025 Consulting Team

The SCS is staffed by late-career Ph.D. students from UConn's Department of Statistics. These students come from diverse backgrounds and have a wide variety of skills and interests. This allows the SCS to offer analytical support on a wide range of research topics, and provide assistance on a number commonly encountered statistical issues, such as, missing data imputation, generalized linear and non-linear mixed effects models, time series analysis, variable selection, and many more!

Mechanical & Electronic Services (MES)

Place your clean, broken glassware into a sturdy cardboard box along with a sheet containing the PI name, contact name, phone number, email, and any specific instructions for our glassblower Daryl Smith (daryl.smith@yale.edu). Please use bubble wrap or paper to make sure the boxes can be transported by car without further damage to your glassware.

The boxes will be picked up at regular intervals and repaired glassware will be placed back on the shelf when completed. Users will be notified when the glassware was repaired and/or is back.

Users may also drop off their glassware at the Mechanical or Electrical COR²E facilities in Thomson Hall on the Depot campus (at 30 Ahern Lane).

Please contact Daryl directly to discuss any special projects.

Flow Cytometry

Cytek Aurora CS

The Cytek Aurora CS redefines cell sorting with full-spectrum flow cytometry technology. The Aurora CS offers unparalleled flexibility in panel design and the ability to resolve complex populations with exceptional clarity. Equipped with up to 5 lasers and capable of detecting over 64 parameters, this advanced sorter supports high-speed, high-purity sorting. It is equipped to sort up to 6 separate populations simultaneously, into tubes or plates. With intuitive software, a customizable optical array, and minimal compensation requirements, the Aurora CS is ideal for any sorting need.

BD LSRFortessa X-20 Cell Analyzer

The BD LSRFortessa X-20 flow cytometer, equipped with the High Throughput Sampler (HTS) module, delivers high-parameter flow cytometry with exceptional speed and flexibility. It houses 5 lasers and the ability to detect up to 20 parameters simultaneously. It provides high-resolution and multiparameter analysis suited for complex cell populations. The integrated HTS system enables automated, rapid sample acquisition from 96-well plates, making it ideal for high-throughput screening and large-scale experiments. Engineered for performance, the Fortessa X-20 streamlines data collection without compromising sensitivity or data quality. Independent user status is available. Training is required to become an independent user on the Fortessa X-20. To be trained please complete the training request from. Once trained, the cytometer is available 24 hrs/7 days a week.

Cytek Cloud™

Cytek Cloud™ is a secure, web-based platform designed to streamline and enhance your flow cytometry workflow. Cytek Cloud allows users to upload, manage, and view spectral cytometry data from anywhere. With integrated analysis tools, collaboration features, and direct compatibility with Cytek instruments, it empowers teams to work more efficiently and accelerate discovery. Whether you're in the lab or working remotely, Cytek Cloud keeps your data accessible, organized, and ready for insight. Contact the facility for the instrument serial number.

https://cloud.cytekbio.com/newlogin

Services and Rates

Training and education on flow cytometry theory and facility instruments (required for all new flow users).
Un-assisted acquisition (24/7 access to Fortessa Analyzer, and Analysis Stations for independent users)
Consultations on experimental design and new strategy development
Staff-assisted flow acquisition and data analysis; Cytometric Beads Assay, etc.
Project troubleshooting, data interpretation, deep analysis and customized support
Software support, Flowjo, Diva, etc.
Staff-operated Cell Sorting (Monday-Friday, by appointment through facility director)
Contact facility director for consultation, training, sorting schedule, or any other questions.

Project Request

Training Request

Center for Applied Research in Human Development

Staff

Luke Fulton, Ph.D.

Faculty Scientific Advisers

Andrei Alexandrescu, Ph.D.

Olga Vinogradova, Ph.D.

Mark Peczuh, Ph.D.

Kyle Hadden, Ph.D.

Campus Address

Mailing Address

Instrumentation

Varian INOVA 600

Internal Rates

External Rates

Bruker AVANCE 500

Internal Rates

External Rates

Services and Rates

Training and Education

Research Potential

Mission Statement

Patients

User Portal

Contacts

General Contact

Nabin Koirala, Ph.D.

Elisa Medeiros

Campus Address

Mailing Address

Directions & Parking

The UConn Brain Imaging Core is located in the David C. Phillips Communications Sciences Building (PCSB).

Instrumentation

Magnetic Resonance Imaging (MRI)

Specifications

Training

EEG: 256-Channel EEG System (EGI)

MagVentures Transcranial Magnetic Stimulation (TMS)

Laboratory

Computing

High-Performance Computing (HPC) facilities

For Researchers

About Us

Jeremy Balsbaugh, Ph.D.

Jen Liddle, Ph.D.

Sonam Tamrakar, Ph.D.

Campus Address

Sample Shipment Address

USPS mailing address

Faculty Scientific Advisers

Spencer Nyholm, Ph.D.

Daniel Schwartz, Ph.D.

Xudong Yao, Ph.D.

I-Ping Chen, D.D.S., Ph.D.

Rates

Sample Preparation Fees

UPLC-MS & UPLC-MS/MS Analysis Fees

Training Fees

Data Analysis Fees

Instrumentation

Bruker timsTOF HT Mass Spectrometer

Thermo Scientific Orbitrap Eclipse Tribrid Mass Spectrometer

Internal Rates

External Rates

Thermo Scientific Q Exactive HF Mass Spectrometer

Internal Rates

External Rates

Waters Synapt G2-Si Mass Spectrometer

Internal Rates

External Rates

Waters Xevo G2-XS q-TOF Mass Spectrometer - with SONAR

Internal Rates

External Rates

Available Software

Consulting

SCS Collaboration

Hourly Rates

Submitting data

Project Scope

Policies on Acknowledgement of Statistical Consulting and Collaboration

Statistical Software

Project Support