Core facilities in the Division provide researchers and students access to state-of-the-art instrumentation, technologies, and specialized scientific services.
| DESCRIPTION | DIRECTOR | LOCATION | |
|---|---|---|---|
| 3D Printing Laboratory | The 3D Printing Laboratory at The University of Alabama is open to all students, faculty, and staff who have 3D printing needs related to university activities. The laboratory supports campus users in the areas of solid modeling, scanning of objects, and printing of parts. The laboratory is equipped with, and supports, software packages including: AutoCAD, SolidWorks, and many freeware modeling packages. Lab also has an Artec handheld scanner and access to a desktop MakerBot Digitizer as well as a Leica ScanStation to capture building scale objects. The primary mission of the 3D Printing Laboratory is to turn digital solid models into physical parts. The lab currently has six printers including a Stratasys Dimension 1200es, an Objet 30 Pro, a 3D Systems 460 plus and a Spectrum 510 full color powder printer, a desktop MakerBot Replicator2, and desktop Bits from Bytes 3D touch. The 3D Printing Laboratory is staffed by student workers during normal business hours. | Dr. Andrew Graettinger | 160 Hardaway Hall |
| Advanced Composite Materials Labratory | Includes facilities for manufacturing, characterization and modeling of advanced composites and nanostructured materials. Compression molding hot press, filament winder, pultrusion equipment, single and twin-screw extruders, and resin infusion vacuum pumps are available for manufacturing thermoset, thermoplastic and nanocomposites film, plates and structural components as well as nanostructured aerogels for thermal insulation applications. Nanoparticle dispersion equipment such as ultrasonic bath, tip sonication and mechanical high shear mixer are also available for processing polymer nanocomposites. Fracture analysis and microstructural studies are carried out using available optical, scanning and transmission electron microscopes as well as x-ray diffraction (central analytical facility). An in-house FEA code (NOVA-3D) for predicting long term environmental durability of polymer and polymer composites is also available. | Dr. Smit Roy | |
| Advanced Materials Testing Labratory | Features multiple servo-hydraulic testing frames ranging in load capacity from 50 lbs to 250,000 lbs. The equipment is capable of fatigue testing materials and small structures in axial tension/compression, multiaxial tension-torsion, and combined bending and torsion. Related equipment includes an induction coil heating unit for thermo-mechanical fatigue, a high temperature isothermal furnace and a moderate temperature isothermal test chamber for material testing. The Mechanical Testing Laboratory in the North Engineering Research Center contains a full suite of electromechanical and servohydraulic load frames capable of load capacities ranging from 100 to 10,000 kN at temperatures up 1600°C. The lab also houses a Gleeble 1600 thermomechanical simulator, split Hopkinson bbar, and a full nano- and micro-mechanical test lab with indentation and wear test capabilities. | Dr. Mark Barkey and Dr. Mark Weaver | |
| Alabama Analytical Research Center | The Alabama Analytical Research Center is a shared user facility. It houses major instruments for use by research groups, either from UA and other institutions across the Southeast. It trains students to be productive, hands-on users of the instruments. The major instruments include: Cameca LEAP 5000 atom probe, Apreo FEG source scanning electron microscope, JEOL 7000 FEG source scanning electron microscope, JEOL 8600 electron microprobe, FEI Tecnai F-20 transmission electron microscope, FEI Quanta 3D dual beam FIB, Tescan FEG source dual-beam FIB, Kratos Ultra DLD Auger/X-ray photoelectron spectrometer, and Bruker D8 Advance powder X-ray diffractometer with GAADS. | Greg Thompson | Tom Bevill Energy, Mineral, and Materials Science Research Building |
| Analytical Geochemistry Lab | This lab houses an inductively-coupled plasma optical emission spectrometer (ICP-OES) and an inductively-coupled plasma mass spectrometer (ICP-MS) for elementala analysis in a wide range of samples. | Dr. Rona Donahoe | The Tom Bevill Energy, Mineral, and Material Science Research Building |
| Athletic Training Research Lab | The ATRL specializes in clinical outcomes research in the field of athletic training with the ultimate goal of improving athletic performance while decreasing the risk of injury in athletes of all ages. The ATRL is equipped with diagnostic ultrasound, high-speed video cameras, GoPro cameras, dynamometers, inclinometers, palpation meter, vernier calipers and therapeutic exercise equipment. | Lizzie Hibberd | Moore Hall 0003 |
| Atomic Absorbance Spectrometer | Atomic absorbance spectrometer capable of quantifying concentration of specific elements based on the specific flame emission of the element. | Dr. Laura Busenlehner | Shelby Hall 3002 |
| Bilog Instrumentation | Biolog machine (measures skin conductance and interbeat interval data) | Dr. Nicole Powell | James B. McMillan Building 101 |
| BioPac Psychophysiology Systems and Brain Vision EEG Amplifiers | Two BioPac psychophysiology systems and two Brain Vision EEG amplifiers (along with associated electrodes and batteries) | Dr. Alexandra Tullett | Gordan Palmer Hall 416 |
| Bio Tek ELx50 Microplate Instrumentation | BioTek ELx50 Microplate strip washer, Microplate reader | Dr. Andrea Glenn | Gordan Palmer Hall 359B |
| Bio Tek Multiwell Plate Reader | The BioTek muliwell plate reader can read absorbance or fluorescnece intensity in standard 96-1500 multi-well plates. | Marco Bonizzoni | Shelby Hall 2061 |
| Center for Green Manufacturing | FT-IR w/ATR, Shimadzu HPLC, Cary UV-Vis, laser light scattering, and instrumentation for viscosity (Cambridge Viscosity VISCOLab 3000), density (Anton Paar Density Meter DMA 500), water content determinations (Mettler Toledo C20 Coulometric Karl Fisher Titrator), TA Instruments Digital Scanning Calorimetry, TA Instruments Thermal Gravimetric Analyses w/ Dycor mass spectrometer accessory, as well as state-of-the-art X-ray diffraction (Siemens CCD area detector-equipped single crystal diffractometer with low temperature capabilities). | Dr. Robin D. Rogers | Shelby Hall |
| Child Development Research Center (CDRC) | A state-of-the-art, 64,000 square foot research facility equipped with the latest multi-media research technology, seven large research suites, and eight research rooms with adjoining observation booths. Components include diagnostics, clinical treatment, prescribed interventions, demonstrated education, and empirical research contributing to the associated bodies of knowledge. The CDRC offers opportunities for CHES faculty and researchers across the University, state, region, and nation to conduct interdisciplinary research relating to children and families. Programs serve the childcare needs of families with young children, supply a demonstration center for University of Alabama students with a variety of majors, and provide training resources for parents and for child care workers in several Alabama counties. The CDRC houses the Children’s Program, an NAEYC accredited laboratory school enrolling up to 120 students ages two months to five years; as well as Child Development Resources, west central Alabama′s resource for information about the well-being of young children, including management of a child care subsidy program, training for professional child care providers, child care resource and referral information, and parenting education and support programs. Other programs that are housed in the CDRC include: Parenting Assistance Line (PAL), a service of the University of Alabama to provide helpful information on parenting issues to Alabama citizens via toll-free phone or written information Capstone Family Therapy Clinic, a University and community service helping to resolve personal problems and to train graduate students specializing in marriage and family therapy Pediatric Development Research Laboratory, a lab centered on research in children′s development from birth to 18 years of age and focused on mother/infant relationships Child Life and Children’s Development, a lab examining the psychosocial issues affecting children and families in the medical setting Capstone Family Therapy Clinic, a state-of-the-art facility for training therapists at the M.S. level. The clinic is staffed by individuals holding advanced degrees in Marriage & Family Therapy. | Dr. Carroll Tingle | Child Development Research Center |
| Child Media Lab | The Child Media Lab within the Institute for Communication & Information Research is an engaging space for researchers to observe, interact, and study the reactions and responses of children to various forms of media. The space offers gaming equipment, monitors, desktop computers, room to move, and a view from our high-end observation room, allowing kids to engage in research studies while being viewed from the one-way mirror in the observation room. | Dr. Kim Bissell | Reese Phifer Hall |
| Content Analysis Lab | The Content Analysis Lab within the Institute for Communication & Information Research allows researchers the opportunity to record and store live television content for later use in content analysis or for educational demonstrative purposes. This space and corresponding technology is located within the Public Opinion Lab. | Dr. Kim Bissell | Reese Phifer Hall |
| Core Molecular Laboratory-Department of Biological Sciences | The Core Molecular Laboratory is a shared facility housing: Packard Tri-Carb Liquid Scintillation Counter Sorvall RC6 Centrifuge Molecular Dynamics PhosPhor Imager and various other bench top equipment. | Dr. Janis O’Donnell | South Engineering Research Center 1355 |
| Department of Chemistry Analytical Facility | There are 200, 360, 500 and 600 MHz NMR spectrometers. Mass spectrometry facilities including gas chromatograph/mass spectrometer capability, Hewlett-Packard 5985-A and a VG AUTOSPEC double focusing mass spectrometer with GC and FAB inlets, VG Autospec mass spectrometer, vibrational and optical spectroscopy facilities including two FT-IR and a V-1000 Laser Raman spectrophotometer; 300 EPR, 350-U ENDOR, two 9.5 GHz ESRs, U-1000 Raman spectrometer, excimer and dye lasers, two ellipsometers, and an MCD spectrometer, imaging facilities including a scanning tunneling microscope, atomic force and magnetic force microscope, electrochemical and magnetic facilities including a Quantum Design MPMS2 SQUID magnetometer, a BAS-100 and two BAS CV-27 potentiostats with Hewlett- Packard X-Y recorders and a PAR-273 with model 96 poteniostat/galvanostats and equipment for inert atmosphere electrochemistry, and thermal analytical equipment including TGA/DSC, bomb calorimetry, and accelerated rate calorimetry. | Shelby Hall | |
| Electromechanical Systems Lab (EMSyL) | Focuses on high-power motion control and energy conversion system development and integration topics such as thrust vector control systems, flight surface control systems, renewable resource generation, and hybrid/electric vehicles. The facility houses state-of-the-art development, fabrication, prototyping, testing, and instrumentation equipment. EMSyL research focuses on system integration and components of modern electromechanical devices and systems including power electronics, electric machinery, advanced energy storage, renewable resources, system-level control, and design optimization. | Dr. Tim Haskew | |
| Electronic Health Record Center | The University Medical Center operates an Electronic Health Record. Access to this database is possible for appropriate and approved activities when collaborating with College of Community Health Science Faculty. | Amy Sherwood | |
| Elga Purelabe Flex3 Water Deionizer | Elga Purelab Flex3 water deionizer | Dr. Andrea Glenn | Gordan Palmer Hall 359B |
| Engines and Combustion Lab (ECL) | The ECL consists of 11,000 square feet of high-bay space partitioned into six test cells, four instrument rooms between the test cells, two large work rooms, a central hallway, and substantial storage space. One large test cell houses a two-roller chassis dynamometer capable of measuring power output of front, rear, or four-wheel-drive vehicles up to 14,000 pounds gross vehicle weight and up to 350 hp per axle. The other large test cell houses an AC engine dynamometer rated at 650 hp and up to 1360 ft-lbf torque. Emissions equipment includes a dilution tunnel and five-gas emissions analyzers for raw and diluted samples, plus particulates, capable of handling the exhaust of a 650 hp diesel engine at full load. Other available ECL instrumentation includes a fast-response Cambustion CLD500 NOx analyzer, fast-response TSI EEPS Particulate Spectrum and Number (PSN) analyzer, Thermo-Scientific REGA Fourier Transform Infrared (FTIR) spectrometer with heated sample line, fast-response (1 ms/amu) V&F AIRSENSE mass spectrometer, Cambustion HFR400 Fast-FID hydrocarbon analyzer, Koehler Instruments K45000 distillation analyzer, and a gas chromatograph system for product-gas analysis. Laser-based diagnostic instruments available are several Particle Image Velocimetry (PIV) systems, including a time-resolved stereoscopic PIV system, a standard, low-speed PIV system, and a TSI Volumetric 3-component Velocimetry (V3V) system for 3D velocity-field measurements. Also available is a high-speed TSI Planar Laser-Induced Fluorescence (PLIF) system for time-resolved combustion species measurements. Other optical diagnostic systems include a quantitative rainbow Schlieren apparatus for whole-field scalar measurements, Schlieren, shadowgraph, and holographic interferometry systems for spray and flame imaging, a Laser-Doppler Velocimetry (LDV) system for velocity and turbulence measurements, and a Phase-Doppler Particle Analyzer (PDPA) system for point measurements of drop size/velocity. | Allen Loper | South Engineering Research Center |
| EPR Facility | This 1,300-square-foot laboratory features four state-of-the-art research instruments; X-band/Q-band CW-EPR spectrometer: Varian E-12 EPR spectrometer with 9-GHz (X-band) and 35-GHz (Q-band) microwave bridges, rotating magnetic base, rapid scan accessories, a Varian Century series EPR system with 12 inch magnet. EPR data acquisition is provided by a PC (3 GHz running Windows XP) via the platform-independent data acquisition module (PIDAM) connected to the spectrometer. X-band CW-ENDOR spectrometer: A Bruker-ESP 300-10/7 with an ESP 350-U DICE ENDOR/TRIPLE accessory and an A-500 RF power amplifier allows CW ENDOR measurements in the 0.3–35 MHz frequency range at temperatures from 100 K up to 350 K. X-band pulsed-EPR spectrometer: Bruker ELEXSYS E-580 pulsed-EPR spectrometer includes the E-560D-pulse ENDOR and E-580-pulse ELDOR accessories. This allows us to operate echo-detected EPR, 2- and 3-pulse 1D ESEEM, 2D ESEEM (HYSCORE), pulsed ENDOR, pulsed ELDOR (DEER), inversion recovery and transient EPR at 9-10 GHz. We plan to add a TRIPLE accessory to the set-up soon. The X-band cavity has optical access and temperature of the cavity is maintained with a liquid-helium cryostat. W-band CW/pulsed EPR/ENDOR spectrometer: Bruker ELEXSYS E-600 W-band (94 GHz) EPR spectrometer was acquired in 2002, and was upgraded in 2005 with an ELEXSYS E-580 pulse EPR spectrometer. The combined system is known as an E-680 W/X. This instrument was obtained through NSF MRI (W-band CW-EPR system) and the CRIF (pulsed EPR) Instrumentation Programs. At 94 GHz we can perform echo-detected EPR, 2- and 3-pulse 1D ESEEM, inversion recovery, transient EPR, and pulsed ENDOR in the frequency range from 1.5 to 400 MHz. The temperature of the cavity is maintained with a liquid-helium cryostat, and in situ irradiation of the cavity is possible using a fiber optical cable run down through the sample rod. The E-680 W/X system is controlled through a Linux workstation with Xepr, the EPR acquisition and data manipulation software. | Dr. Michael Bowman | |
| Exercise Physiology Laboratory | Primary research areas include human performance and work capacity in challenging environments, such as hot climates, and the impact of clothing on human temperature regulation; control of human temperature regulation; recovery from exercise; impact of physical activity on health and disease; measurement of physical activity in humans; and sport performance. In addition to research endeavors, The Department of Kinesiology Fitness Testing Services program provides citizens of Tuscaloosa and the surrounding areas the opportunity to better understand their fitness levels as they relate to overall physical performance and health. | Jonathan Wingo | Moore Hall |
| Eye-Tracking Equipment and Software from Applied Science Laboratories | Eye-tracking equipment and software from Applied Science Labaroties. | Dr. Beverly Roskos | Gordan Palmer Hall 179A |
| Focus Group Lab | The Focus Group Lab within the Institute for Communication & Information Research offers researchers the chance to develop, learn, and grow their initiatives through a centralized location. Featuring a conference room style table, individuals can gather and discuss certain ideas and concepts in a casual and comfortable way. With special cameras and access to our high-end observation room, scholars can understand and develop their research through the input of others. The focus group lab is functional for very small groups or groups up to 12 people. The ICIR also offers focus group facilitators if needed. | Dr. Kim Bissell | Reese Phifer Hall |
| Food and Nutrition Research Lab | Specializes in investigating the influence of antioxidants consumed within the food matrix on inflammation and insulin sensitivity as well as the influence of environmental contaminants on nutrient retention in food. As such, our lab is outfitted with the capacity to run numerous antioxidant testing methods including the proposed oxygen radical absorbance capacity testing of lipophilic and hydrophilic antioxidants in biological samples. This method utilizes a FLUOstar OPTIMA microplate reader (BMG Labtech) with measurement principles utilizing fluorescence, time-resolved fluorescence, absorbance, and luminescence. As an analytical lab, we are equipped with ultra-low temperature storage freezers, centrifuges (ultra and micro), analytical balances, water baths, and other small equipment instrumental in sample preparation and analysis of food and biological samples. Due to the importance of temperature-control during storage of all biological samples, it should also be pointed out that the Research Lab is on a back-up generator system for electricity in the case of a power outage. Lastly, the research lab is also equipped with a computer dedicated to running the UA’s licensed version of the Nutrition Data System for Research (NDSR). A secondary computer is dedicated to running all statistical programs proposed for use in this study. | Dr. Kristi Crowe | |
| Geological Science Stable Isotope Lab | This lab houses Thermo Delta+ and Thermo Delta V gas-source isotope ratio mass spectrometers. Peripheral sampling devices include a Costech Elemental Analyzer, Thermo TC/EA, Thermo GasBench. Common acid bath extraction line. Offline-sample preparation equipment includes a multi-purpose vacuum extraction line, two computer -controlled micromilling systems, and all required micro-balances. | Paul Aharon and Fred Andrus | Tom Bevill Building |
| Geological Sciences X-Ray Diffraction and XRF Labs | This lab contains a Bruker D-8 XRD with autosampler, and a Phillips XRF. | Jim Donahoe | Tom Bevill Building |
| Grinbath All-In-One EyeGuiude Tracker | Grinbath All-In-One EyeGuide Eye Tracker | Dr. Andrea Glenn | Gordon Palmer Hall 408 |
| Health Communications Lab | This Communication & Information Sciences lab utililzes the research facilities associated with the Institute for Communication & Information Research including the Child Media Lab, the Psychophysiology Lab, the Content Analysis Lab, and the Survey Lab. The lab teams faculty and student researchers interested in examining the intersection of media, communication, and health. | Dr. Kim Bissell | Reese Phifer |
| Hydrogeology Labs | These labs contain the following tools primarily for the analysis of water: Accelerated Solvent Extractor Gas Chromatograph-Mass Spectrometer Gas Chromatograph (FID and Electron Capture Detectors), High Performance Liquid Chromatograph (HPLC), UV-Vis Spectrophotometer, Fluorescence Spectrophotometer. | Geoff Tick and Yuehan Lu | Tom Bevill Building |
| Integrative Center for Athletic and Sport Technology (I-CAST) | The technical focus of I-CAST provides the possibility of rapid innovation that generates intellectual property that can reach the marketplace quickly, and not just for athletics. The technologies developed through I-CAST could potentially impact a wide variety of other applications and uses. The center is set up to respond to ideas from physician, trainers and athletes needs quickly, and typical projects will involve at least two people, one representing the athletic or sports application and one representing the primary technology area used in the application | Dr. Tim Haskew | |
| Infrared Spectroscopy | JASCO infrared spectrometer with reflectance attachment. | Ken Belmore | Shelby Hall 2060 |
| Johnson Molecular Systematics Laboratory | Two ABI Genetic Analyzers, an Eppendorf Vacufuge Concentrator, several thermal cyclers and other support equipment. | Phil Harris | Mary Harmon Bryant Hall 401A |
| Large Scale Structures Laboratory (LSSL) | A 40-ft x 75-ft strong floor with moveable and stackable reaction blocks that can be positioned anywhere on the floor to allow maximum flexibly for test configurations. A full suite of dynamically-rated servo-hydraulic actuators dare available ranging from 35 kips to 330 kips. The lab is equipped to conduct hybrid-testing, including both seismic and wind response. A 10-ft x 10-ft x 10-ft soils pit is also housed within the LSSL. The centerpiece of the lab is a high-performance, uniaxial 12-ft x 13-ft earthquake simulation shake table with a maximum payload of 20 tons and a maximum acceleration of 1.2g. | Collin Sewell | |
| Mass Spectroscopy Facility | 1,2) Magnetic sector instruments, a VG AutoSpec and a Waters Autospec NT. The VG instrument is equipped for electron ionization (EI) with solid probe insertion. The high-resolution Waters Autospec NT is equipped with an EI source, using GC (HP6890) inlet or solid probe insertion for sample introduction; it is capable of performing elemental analysis for small organic compounds. 3) Bruker Ultraflex time-of-flight (TOF) mass spectrometer. Matrix-assisted laser desorption ionization (MALDI) is used to vaporize and ionize samples, which are generally low-volatility compounds such as biomolecules, polymers, and inorganic materials. The mass spectrometer’s PSD (post-source decay) capabilities can be used to sequence biomolecules. 4,5) Bruker HCTUltra PTM discovery system connected to an Agilent 1200 capillary LC — a spherical high-capacity quadrupole ion trap. The HCTUltra PTM instrument has electrospray ionization (ESI), atmospheric pressure chemical ionization (APCI), and nanoelectrospray sources. The MS/MS techniques of collision-induced dissociation (CID) and electron transfer dissociation (ETD) are available for obtaining structural information (including peptide sequencing). 6) Services offered by our mass-spec facility include the following: EI-MS: low resolution, nominal mass accuracy; high resolution, with internal reference (typically PFK), 5 ppm accuracy; or small volatile organic compounds (<1000 Da). GC-MS: high resolution, with internal reference (typically PFK), 5 ppm accuracy; for small volatile organic compounds (<1000 Da); house GC capillary column: DB-5, 29m´250mm´0.5mm. MALDI-MS: linear TOF, low resolution, <150 ppm external clibration, <100 ppm for internal calibration; reflector TOF, high resolution, <25 ppm external calibration, <5 ppm internal calibration; wide applications including biomolecules, polymers, aromatic compound, and inorganic material. ESI, APCI, nanoESI-MS: low resolution, mass error within 0.2 Da; for small molecules (>50 Da) or macromolecules (m/z of the multiply charged ions <3000 Da); wide applications including biomolecules, organics, and polymers. LC-MS: low resolution, mass error within 0.2 Da; house capillary LC column: Agilent ZORBAX SB-C18, 150´0.5 mm, 5mm; mostly used for peptides. | Dr. Carolyn Cassady | Shelby Hall 1076 |
| Metal Casting and Solidification Research Facility | Involves sand, die, investment and centrifugal casting of metals and alloys including gray iron, steel, aluminum, magnesium, superalloys, copper and titanium. The Foundry is equipped with three induction furnaces for melting cast iron, steel, brass, bronze, and aluminum-based alloys. The capacity of these furnaces ranges from 50lb to 200lb. The foundry also houses a vacuum induction furnace with directional solidification capabilities for melting and casting superalloys that can produce up to 25-kilogram turbine components cast into ceramic-shell molds. Molding equipment and a core machine for making both green sand and pepset-based molds and cores are also located in the Foundry, as well as a sand-testing lab. | Dr. Laurentiu Nastac | |
| MindWare Tech Mobile Hear Rate Monitors with Noldus Observer Software | MindWare tech mobile heart rate monitors with Noldus Observer software. | Dr. Kristina McDonald | Gordan Palmer Hall 277A |
| Nuclear Magnetic Resonance (NMR) Facility | Bruker spectrometers operating at 600, 500, and 360 MHz. Our NMR instruments are capable of observing all magnetic nuclei between 103Rh and 1H, and current applications involve the more common 1H, 2H, 13C, 15N, 17O, 19F and 31P nuclides as well as studies of 11B, 23Na, 27Al, 29Si, 75As, 77Se, 125Te and 205Tl nuclides. The instruments are configured to employ pulse-sequences for multi-dimensional NMR experiments. The facility is maintained by a full-time PhD spectroscopist, Dr. Ken Belmore, who is available for consultation and assistance. | Ken Belmore | Shelby Hall 1058 |
| Optical Analysis Facility-Department of Biological Sciences | The Optical Analysis Facility (OAF) is a central service laboratory within in the Department of Biological Sciences. The OAF specializes in electron and light microscopy of biological samples and soft materials. The facility provides equipment, assistance, and training for faculty, staff and students in the Department of Biological Sciences, the College of Arts and Sciences and The University of Alabama who wish to use microscopy in their research and/or teaching activities. In addition, the facility is available to other State of Alabama agencies and private companies on a consulting basis. The facility is equipped with a Hitachi 7650 Transmission Electron Microscope, Hitachi SU3500 Variable Pressure Scanning Electron Microscope, Scanning Laser Confocal Microscope, Leica RM2135 microtome, histology embedding and staining equipment, Leica EM UC6 ultramicrotome, CO2 equipped Denton DCP-1 critical point dryer, Anatech Hummer 6.6 sputtering system for metals and carbon, Nikon Eclipse TE2000-u fluorescent microscope equipped with a Zyla Camera, various compound and stereoscopes microscopes equipped with digital cameras, and supporting ancillary equipment. | Dr. Janis O’Donnell | Science and Engineering Complex Room 1306 |
| Organic Analysis Lab | Instruments include a Delta V Advantage Mass Spectrometer, Agilent Gas Chromatograph Systems, and a LabConco Cascade Freeze-Dry System. | Robert Findlay | Tom Bevill Building |
| Precision Machining Laboratory | Houses several machines including a Hardinge Cobra 42 CNC Turning Center, a Cincinnati Arrow 500 VMC CNC Milling Machine, a Tormax Model 13-5 ROMI Engine Lathe, and a Bridgeport Legend Series I Milling Machine. The lab also has a range of process monitoring capability such as a Kistler 3-axis dynamometer (9257B) for cutting force measurements, acoustic emission sensors for tool wear monitoring, as well as thermocouples for cutting tool temperatures. | Kevin Chu | |
| Psychophysiology Lab | The Psychophysiology Lab within the Institute for Communication & Information Research allows scholars to study physiological responses to mediated content through our advanced technological equipment. Located within the Focus Group Lab, individuals utilizing this lab can also have access to our high-end observation room. This lab allows for the collection of EEG and skin conductance data for one individual at a time. This lab is technologically innovative and unique to research labs serve mass communication and communication scholars. | Dr. Kim Bissell | Reese Phifer Hall |
| Public Opinion Lab | The Public Opinion Lab (POL) within the Institute for Communication & Information Research is an innovative space for gathering and exploring social media conversations, analyzing engagement, and identifying insights. With a mix of industry technology and academic tools, the POL is a space for scholars and students to do cutting-edge research in the social space. | Jameson Hayes | Reese Phifer Hall |
| Rock Preparation Facilities | The department has multiple variable speed diamond wafering saws, automatic and manual polishing systems, a wire saw, several large-scale rock saws, physical and chemical mineral separation equipment, and other related sample preparation instruments and systems. | Jim Donahoe | Tom Bevill Building |
| Simulation Lab | In collaboration with DCH, our Division of EMS Training has several multifunction manikins in simulated care facilities to mimic real world events. These have been used for research purposes such as reaction time, effects of sleep deprivation on quality of care, etc. | Glenn Davis | Druid City Hospital (DCH) |
| Statistics Research and Consulting Lab (SRCL) | Statistics Research and Consulting Lab (SRCL) | Dr. Jason Parton | |
| Telemedicine Equipment | The College of Community Health Science currently operates several telemedicine units that connect to current rural partners and are capable of connecting with others. Clinical care and research activities are currently being conducted with individuals and groups using this equipment. | Dr. Lloyd Williamson | University Medical Center |
| Theater Lab | The Theater Lab within the Institute for Communication & Information Research is a lecture-style space with 24 desk space that allows researchers to distribute content, speak with participants, and display media on a larger scale for more participant viewing and engagement. This space can be used for the ICIR’s portable continuous response equipment or for town hall-type settings. | Dr. Kim Bissell | Reese Phifer Hall |
| UA Micro-Fabrication Facility (MFF) | The UA Micro-Fabrication Facility is a cleanroom facility that houses equipment for performing photolithography (Solitec 5110 Spinner, Karl Suss MA6 Mask Aligner), thin fim deposition (SFI Shamrock System, Denton Vacuum Explorer E-beam Evaporator, ST Systems PECVD), thin film etching (ST Systems Advanced Silicon Etcher, ST Systems Advanced Oxide Etcher, Intelvac Ion Mill, 4-Wave Ion Beam Etcher, Yield Engineering Systems YES-R3 Plasma Asher), and thin film metrology (Veeco Dektak V220-Si stylus profilometer, 4 Point Probe station, Zeiss Axioplan 2 optical microscope, Nanometrics Nanospec 212 Film Thickness Measurement System, Rudolph Auto-EL III ellipsometer). In addition, the facility owns a SHB Model 109 B-H looper and a magnetic annealing oven, both located in the Bevill building. | Dr. Subhadra Gupta | NERC Cleanroom |
| UV/Vis/NIR Spectrometer | Carey 14 spectrophotometer capable of obtaining absorption spectra from the UV (200 nm) through the near IR (1400 nm). | John Vincent | Shelby Hall 3042 |
| Welding and Joining Laboratory | Research in the Welding and Joining Laboratory at The University of Alabama focuses on the joining of advanced materials for aerospace and automotive applications. The Welding and Joining Lab is equipped with a Lincoln Square Wave TIG 355 Welder, a Thompson A-1 Spot Welder and a Stanat Model TA215 2-Roller Mill. The TIG 355 is used for TIG (GTAW) and stick (SMAW) welding processes within the recommended output capability of 2 to 400 amps on both AC and DC polarity. | Dr. Viola Acoff | |
| Wind and Water Tunnels | The University has a variety of Wind and Water Tunnels including a closed circuit low-speed wind tunnel, an open circuit low-speed wind tunnel, a water tunnel, and two blow-down supersonic tunnels for fluid dynamic research. Instrumentation available include volumetric 3-component velocimetry (V3V), digital particle image velocimetry (DPIV), laser Doppler velocimetry (LDV), Schlieren, high-speed photography systems for optical diagnostics, in addition to hot-wire anemometry, pressure, and load measurement capabilities. The wind speeds achievable are 5-45 m/s in the low speed wind tunnels, water tunnel has 10-50 cm/s flow velocity range, and the supersonic tunnels have Mach 1.65-4 range. Tunnels can accommodate different size test articles. The subsonic tunnel test sections vary between 12″x36″ to 29″x44″ with 6 to 16 ft long test sections. The water tunnel has a 15″ x 30″ cross section and 9 ft length. Supersonic tunnels have two distinct cross sections one 3.5″ x 3.5″ and the other 6″x 6″. Research conducted in these tunnels include: shark skin drag reduction experiments, bio-inspired UAV wing design investigation, and shock-wave boundary layer interaction research among any other topics. | Dr. John Baker | |
| W-Ray Diffraction Laboratory | Siemens CCD SMART (Area Detector) and Enraf-Nonius CAD-4 computer-controlled X-ray diffractometers. | Dr. Robin D. Rogers | |
| Youth Services Institute | The Youth Services Institute (YSI) implements multiple programs that address the needs of specialized groups of adolescents who are involved in the juvenile justice system in Alabama. In addition, YSI provides technical support to the Alabama Department of Youth Services through facilitation of the request for proposals process, annual assessments, grant writing, and other activities as requested. YSI also provides opportunities for UA students in multiple disciplines to gain experience with juvenile justice populations in their chosen field. | Jill Beck, JD | 921 Professional Plaza #106 Tuscaloosa, AL 35401 |