PRODUCT INFORMATION Model# GC297-113 GC297-113 are designed to meet the requirements of ASTM C297; tensile testing of sandwich core materials. The test fixtures are self aligning. The test material is bonded to the face of the fixture. The fixture rotates in two directions perpendicular to the tensile load to keep the test material in the proper alignment. Reference ASTM Standard C 297, 2004, Standard Test Method for Flatwise Tensile Strength of Sandwich Constructions, Drawing is copyright ASTM International, West Conshohocken, PA, 2000. FEATURES & BENEFITS 50.8 x 50.8 mm pad Adapters or couplers available to match your test machine ASTM C297 Tensile Bond Fixture GC297-113.pdf

PRODUCT INFORMATION Model# GC297-113 GC297-113 are designed to meet the requirements of ASTM C297; tensile testing of sandwich core materials. The test fixtures are self aligning. The test material is bonded to the face of the fixture. The fixture rotates in two directions perpendicular to the tensile load to keep the test material in the proper alignment. Reference ASTM Standard C 297, 2004, Standard Test Method for Flatwise Tensile Strength of Sandwich Constructions, Drawing is copyright ASTM International, West Conshohocken, PA, 2000. FEATURES & BENEFITS 50.8 x 50.8 mm pad Adapters or couplers available to match your test machine ASTM C297 Tensile Bond Fixture GC297-113.pdf

Carbon+Unitrode-1” Dielectric/Conductivity Sensor (Side exit version shown) DESCRIPTION The Carbon+Unitrode-1” is designed for cure monitoring of carbon fiber composites like carbon fiber sheet molding compound (CF-SMC) or carbon fiber reinforced prepreg (CFRP) in presses, molds or harsh environments. Dielectric sensors normally require filters to block conductive fillers and prevent short circuiting of the electrodes. Filters, however, must be replaced manually after each test and add time, effort and cost, so it is necessary to avoid them in rapid, repetitive operations. For cure monitoring without filters, the electrode of the Carbon+Unitrode-1” has a rugged, insulating coating that allows direct contact with carbon fiber composites. The Carbon+Unitrode-1” may be mounted so the electrode is flush with a platen or mold surface, insuring no interference with the flow of material during processing. The high temperature polymer body is protected by a stainless steel sheath with a nominal 1.0” (2.54 cm) diameter. A thermocouple is positioned just below the surface to allow measurement of process temperatures. Dielectric and thermocouple signals are routed through a 10-foot (3 m) long stainless steel conduit to high temperature connectors. Sensor and cabling are rated for operation up to 220 °C and are suitable for R&D, QA/QC and manufacturing applications with repetitive operations. SPECIFICATIONS Dimensions (available with side or rear exit conduit): Diameter, sensor head : 1.0” (2.54 cm) nominal Height, sensor head : 1.0” (2.54 cm) nominal Length, conduit : 10’ (3 m) nominal Diameter, active face : 0.69” (17.5 mm) Diameter, electrode : 0.50” (12.7 mm) Composition: Body : High temperature polymer Sheath/conduit : Stainless steel Cabling : Teflon insulated Operational: Temperature, maximum : 220 °C (428 °F) Frequency, mid-con mode : 0.1 Hz – 100 KHz Sensor Parameters: A/D ratio : 3 to 8 cm (depending on sample thickness) Base capacitance : ~20 pF – 25 pF (actual value may vary) Thermocouple : Type J standard, Type K avail. upon request Carbon+Unitrode-1” sensor in press platen

Enable sample cooling to as low as -190°C Systems consist of a pump, a Dewar, a lid with a stoppered port, and connecting tubing LN2-P2, LN2-P4, and LN2-P8 output options Three Dewar sizes, 2 L, 10 L, and 30 L, with easy refillable lid options Integrates with mK2000 PID controller with ±0.1% resolution FEATURES Liquid nitrogen systems provide sample cooling to as low as -190°C depending on pump power and thermal block size Systems consist of a pump, a Dewar, a lid with a stoppered port for refilling during operation, and connecting tubing Three liquid nitrogen pump output options available, LN2-P2, LN2-P4, and LN2-P8, which suction liquid nitrogen through the equipment and are controlled by the mK2000 Three Dewar sizes, 2 L, 10 L, and 30 L, with easy refillable lid options to control liquid nitrogen supply to instruments Integrates with mK2000 PID controller with ±0.1% resolution SPECIFICATIONS LN2-P2 LN2-P4 LN2-P8 STAGES HCS302 / 302G / 402 -100°C -190°C -190°C HCS321Gi -60°C -80°C -190°C HCS621G / 421V -160°C -190°C -190°C HCS622G / 422V -100°C -190°C -190°C FS1 NA -60°C -190°C CLM77K / CLM77Ki NA -190°C -190°C CHUCKS & PLATES 100mm square or round -40°C -60°C -120°C 150mm square or round -20°C -40°C -100°C 200mm square or round NA -30°C -80°C 300mm square or round NA -20°C -60°C HCC602 -120°C -170°C -190°C

AJA International사에서는 거의 모든 고객 요구 사항을 충족하기 위해 광범위한 스퍼터링 타겟 (sputtering target) 및 증착 재료 (evaporation material)를 제공합니다. 타겟과 재료는 다양한 재료와 크기, 순도로 제공됩니다. 맞춤형 프로젝트가 당사의 전문 분야이므로 검토하고 있는 재료가 목록에 없는 경우 요구 사항을 전화 또는 이메일로 문의바랍니다. Options & Materials Fabrication Options Machined Hot Pressed Vacuum Melt Standard and Custom Backing Plates Purities from 99.0% - 99.999% Metalic & Epoxy Bonding High Temp Elastomer Bonding Nanofoil Bonding Types of Materials Oxides Borides Nitrides Selenides Flourides Silicides Sulfides Carbides Alloys Pure Metals Non-Metals Material List (Partial) Nmbr. A-C C-G G-M M-S S-V V-Z 1 Ag Co80Nb12Zr8 wt% GDC MnO2 Sb2Se3 VO2 2 Ag50Ti50 at% Co90Fe10 wt% Ge Mo Sb2Te3 VO5 3 Ag90Cu10 wt% CoCrHf Ge1Sb2Te4 at% Mo2C Sc W 4 Al CoCrPt Ge2Sb2Te5 at% MoO3 Se WTi 5 Al99Si1 at% CoFe GeAsTeSe3 MoS2 Si WC 6 AlCu Co10Fe90 at% GeCr MoSi2 Si N-type WO3 7 AlSi CoFe2O4 GeO2 NaNbO3 Si P-type WSi2 8 Al2O3 CoFeB GeSb Nb SiGe B doped Y 9 Al2S3 CoFeO4 GeSe2 Nb70Ti30 wt% SiGe P doped Y2O3 10 AlCu CoPt GIZO Nb90W10 at% Si3N4 Yb 11 AlN CoTaZr GZO Nb2O5 Si99Al1 at% Yb2O3 12 AlSi CoTb h-BN NbC SiC YBa2Cu3O7 13 As2Se3 Cr Hf NbN SiCr YBCO 14 As2Te3 Cr2N HfO2 NbSe2 SiO YIG 15 Au Cr2O3 HfO2In2O3ZnO NbTi SiO2 YSZ 16 AuGe Cr3C2 Ho Nd Sm Zn 17 AuPd Cr80Co20 at% Ho2O3 Ni Sm2O3 ZnAl 18 AuSn Cr90Ru10 at% IGZO NiCr SmNiO3 ZnCo 19 AZO CrO3 In NiFe Sn Zn0.7Mg0.3O at% 20 AZO (1% wt%) CrSi2 In2O3 NiV Sn50Te50 at% Zn0.85Mg0.15O at% 21 AZO (2% wt%) Cu In2O3(98%)Mo(2%) Ni2Ga3 SnAg5 at% Zn96Al4 wt% 22 B Cu (In0.7Ga0.3)Se2 Inconel (600) Ni2MnGa SnO2 Zn98.5Al1.5 wt% 23 B4C Cu2O Inconel (718) Ni2MnGa (doped Cu 2%) SnTiO3 ZnMgO2 24 Ba Cu2S InGaZnO4 Ni2MnGa (doped Fe 2%) SnZn ZnO 25 BaO Cu2ZnSnS4 Intrinsic ZnO Ni30Co70 at% Sr ZnOAl2O3 2% wt% 26 BaSrTiO CuGa Invar (Fe64Ni36 at%) Ni40Fe60 at% SrO ZnOGa 27 BaTiO3 CuO Ir Ni50Fe50 wt% SrRuO3 ZnOGa2O3 28 Bi CuO2 Ir20Mn80 at% Ni70Co30 at% SrTiO3 ZnOSnO2 29 Bi2O3 Dy2O3 IrMn Ni80.51Fe19.49 at% Steel ZnOSnO2SiO2 30 Bi4Ti3O12 Er IrO2 Ni80.51Fe19.49 wt% Ta ZnS 31 BiFeO3 Er2O3 ITO NiCoCrAlY Ta20C80 at% ZnSAl (99.9/0.1 wt%) 32 BiFeO3 5% Cr doped at% Eu IZO NiCr Ta2O5 ZnSAl (99/1 wt%) 33 BiSe3 Eu2O3 La NiCrSi Ta2O5Er (99/1 atm%) ZnSCdS 34 BiVO4 Fe La7Sr3Mn3 NiFe at% TaC ZnSe 35 BN FeMn La2O3 NiFe wt% TaN ZnTe 36 C FePt LaB6 NiO TaSi2 ZnTeCu (6% at% Cu) 37 C B doped Graphite Fe20Ni80 wt% LaF3 NiS Tb Zr 38 C Pyrolytic Graphite Fe2O3 LaGaO3 NiTi Tb28Fe60Co12 at% Zr40Cu35Al15Ni10 at% 39 Ca Fe2Si LaNiO3 Os Tb2O3 ZrB2 40 CaF2 Fe3O4 Li2O Pb Tb4O7 ZrC 41 CaHfO3 Fe50Mn50 at% Li3PO4 PbF2 Te ZrN 42 CaO Fe50Pt50 wt% Li4Ti5O12 PbO Ti ZrO2 43 Cd Fe55Pt45 at% LiCoO2 PbSr2TiO7 Ti2O3 ZrO2Y2O3 44 Cd2SnO4 FeAl LiF PbTe TiAl ZrO2Y2O3 (92/8 mol%) 45 CdO FeCo LiFePO4 PbTiO3 TiB2 ZTO 46 CdS FeCoB at% LiMn2O4 PbZr(1-x)Ti(x)O(3) TiC ZTSO 47 CdSn FeCoSiB LiNiO2 PbZrO3 TiN 　 48 CdTe FeHf LSCF Pd TiNTiO2 　 49 Ce FePO4 LSCM Permendur TiO 　 50 CeO2 FePt Mg Pr TiO2 　 51 Co Ga Mg doped CuCrO2 Pr6O11 TiO2Fe (90/10 atm%) 　 52 CoNi Ga2O3 Mg2Si Pt TiO2Nb (90/10 atm%) 　 53 Co20Fe60B20 at% GaN Mg2Sn Pt90Ir10 at% TiO2Nb (95/5 wt%) 　 54 Co2Fe GaN96Ti4 at% Mg3Bi2 PZT TiSi2 　 55 Co3O4 GaTi MgB2 Re TiW 　 56 Co40Fe40B20 at% Gd MgF2 Rh V 　 57 Co5Fe50 at% Gd22Fe74.6Co3.4 at% MgO Ru V2O3 　 58 Co60Fe20B20 at% Gd2O3 Mn RuO2 V2O5 　 59 Co64Cr22Pt14 at% Gd2O3 10 mol% MnPt S VC 　 60 Co75Fe25 at% Gd30Ce70 at% MnIr Sb VN 　 Contact us for additional material needs.

Stiletto Series Circular Magnetron Sputtering Sources AJA Stiletto Series Circular Magnetron Sputtering Source는 월드 클래스의 A300-XP 시리즈 UHV 소스의 유연한 기능을 유지하면서, 고진공 응용 분야를 위한 박막 연구 커뮤니티의 가장 까다로운 요구를 충족하도록 설계되었습니다. Circular Target Stiletto Source는 다음 크기로 제공됩니다: ST10: 1.0" Target Ø ST15: 1.5" Target Ø ST20: 2.0" Target Ø ST30: 3.0" Target Ø ST30-MM: 3.0" Ø Magnetic Target ST40: 4.0" Target Ø ST40-MM: 4.0" Ø Magnetic Target ST 40 / ST 20 Sources on 12" HV mounting stalks with UBQD Option ST 40-MM Source Shown with 4" Fe target on integral jacking platform for easy target exchange. Stiletto Series Rectangular Magnetron Sputtering Sources AJA Stiletto Series Rectangular Magnetron Sputtering Source는 월드 클래스의 A300-XP 시리즈 UHV 소스의 유연한 기능을 유지하면서, 고진공 애플리케이션을 위한 박막 연구 커뮤니티의 가장 까다로운 요구 사항을 충족하도록 설계되었습니다. Rectangular Target Stiletto Source는 다음 크기로 제공됩니다: ST1550: 1.5" X 5.00" Target ST1580: 1.5" X 8.00" Target ST2056: 2.0" X 5.63" Target ST2080: 2.0" X 8.00" Target (2) ST 2080 Rectangular Sources Custom Configured for Facing Target Deposition with adjustable spacing. ST 2056 Rectangular Source On 1.5" OD support for compression seal mounting. End Mounted ST1580 - For Coating Inside Tubes Coating inside tubes can be difficult since most sputter sources are too large and not end mounted. AJA has developed low profile, rectangular magnetrons for 5" and 8" long targets.with long support tubes. By inserting the source into the end of a rotating, tubular substrate and moving either the source or the substrate in a linear fashion, the inside of the tube can be uniformly coated. AJA also has custom designs for small conical target units for tubes as small as 2" in diameter. Unique Modular Magnet Array AJA's magnetron sputtering sources feature a unique "modular magnet array" which is completely isolated from the cooling water to eliminate magnet deterioration and subsequent degradation of source performance. This design permits access to the internal magnet arrangement thus allowing the same source to be: Operated as a balanced magnetron Configured for maximum target utilization Configured for high or low rate sputtering Operated in a variety of unbalanced magnetron configurations Changed for uniform or intentionally non-uniform depositions Configured for high or low electron energies as they arrive at the substrate surface Operated with thick magnetic material targets Optimized for easy magnetic target removal and replacement Typical Features Modular magnet array isolated from cooling water Magnetic material sputtering of thicker targets Easy removal of larger magnetic targets Integral gas injection and chimney system Efficient target cooling with no vacuum/water seals Clamped target mounting for optimal heat transfer RF & DC compatibility Rugged HV construction Operating pressure: (0.3 mTorr - 1.0 Torr) In-situ tilt or manual tilt for optimum uniformity Custom versions available Source/power supply/target packages available Typical Applications CD/DVD disk coatings (e.g. reflective, phase change) Semiconductor Conductive metal / Resistive metal / Insulating films Transparent electrical conductors (e.g. ITO) Optical communications applications (e.g. pump lasers) Wear resistant films Lens coatings (reflective / anti-reflective / hard / color) Precious metals (for maximum target utilization) Thin film sensors Coatings for surgical/medical implements & implants Magnetic storage media and heads (HD, GMR , TMR) Photovoltaic thin films (solar cells)

High precision temperature controller 0.001C resolution 4 calibration tables 8 sets of PID parameters SCPI via Virtual Com Port (VCP) Sample program code available in different program language FEATURES 4 sets calibration table, with up to 20 reference points in each table Programmable precision temperature control with PID algorithm for achieving precise target temperatures with minimal overshooting 24 bit analog to digital converter Dual PID outputs for both heating and cooling Programmable user-defined temperature profiles with ramp up, hold, and ramp down program steps Store up to five temperature profiles for routine work CE certified with built-in over-temperature protection User-friendly INSTEC app software with graphical display to control the controller, and to record and export temperature-time data Sample source code available to customer in LabVIEW, C#, Python, and others SPECIFICATIONS Temperature sensors & resolution ± 0.001°C with thermistor ±0.01°C with 100 Ω Platinum RTD ± 0.1°C with thermocouple Temperature stability ±0.01°C (depending on heating stage) Minimum heating and cooling rate ±0.1°C per hour Maximum heating rate Up to +200°C per minute at 100°C Host Interface Options USB2.0 (standard) VCP (RS232) Ethernet (IP) IEEE488 (GPIB) LVDC Option Optional LVDC for low EMI applications TYPICAL TEMPERATURE PROFILE

Augment environmental control of chambers to extend experimental capability Combine temperature control and relative humidity control within the same stage and the same experiment FEATURES • INSTEC's RHC01 Relative Humidity Controller is designed to augment environmental control of chambers to extend experimental capability • Combine temperature control and relative humidity control within the same stage and the same experience • Pairs seamlessly with the TS102GXY, HCS621GXY, or HS1200GXY, and many other stages with sealed chambers • Test and characterize dependence of chemical properties, surface features, sample behavior, and device function on relative humidity • Precision control of relative humidity from 4% to 91% within sealed chambers with volumes of up to 2000cc • Recycling desiccant system dries ambient air • Continuous operation possible for days, weeks, and months at a time with easy refillable water bottle • Can be used as standalone humidity generator and controller or with INSTECAPP software to record and export sensor data • Sensor Type: combined temperature and humidity digital capacitance sensor • One sensor monitors the humidity of the air delivered from the controller • Another sensor monitors the humidity of the air in the chamber and connect via a feedback loop to the controller • Does not require an expensive dry air supply • Optional inert gas regulator to minimize air and oxygen supplied to the chamber • Interactive touchscreen display to control all features SPECIFICATIONS Humidity range 4% to 91% Humidity sensor accuracy ±1.8% Humidity resolution ±0.5% Humidity stability ±0.5% Maximum ramp rate +7% per minute Humidity sensor delay 8 seconds Maximum controllable volume 2000 cm3 Maximum gas pressure 1.5 bar Temperature range 20°C to 60°C Temperature accuracy ±0.5°C at 25°C Temperature resolution 0.1°C Input power supply 110 V or 230V depending on region Dimensions 346 mm x 257 mm x 156 mm

Enable rapid cooling of sample area to near 1°C All chiller models can be used for frame cooling C300W, C500W, and C610W require the FVC9 coolant flow control system for sample cooling using the mK2000 out2 port C300W, C500W, and C610W require the FVC1 coolant flow control system for frame cooling of thermoelectric stages using the mK2000 out3 port FEATURES • Recirculating chillers with ice water compartments provide rapid cooling of sample area to near 1°C (depending on model) • All chiller models can be used for frame cooling • C300W, C500W, and C610W require the FVC9 coolant flow control system for sample cooling using the mK2000 out2 port • C300W, C500W, and C610W require the FVC1 coolant flow control system for frame cooling of thermoelectric stages using the mK2000 out3 port SPECIFICATIONS Chiller Dimensions Weight Temperature Range C100W 30cm x 18cm x 17cm 3.7 kg 20°C - 50°C C300W/C300W-R 47cm x 37cm x 27cm 14.5 kg 20°C - 50°C C500W/C500W-R 56cm x 46cm x 28cm 37 kg 1°C - 50°C C610W 89cm x 71cm x 48cm 65 kg 1°C - 50°C