Tech Days 2014
Mirror Tech/SBIR/STTR Workshop 2014
| Tuesday – November 18th, 2014 Mirror Tech/ SBIR/ STTR Workshop 2014 | |||
| # | Presenter | Title | Org |
| SBIR Workshop and Government Technology Needs (OPEN) | |||
| 00 | Stahl | Welcome | NASA |
| 01 | Perez | Mirror Technologies for NASA Astrophysics | NASA |
| 02 | Shaklan | SBIR Topic S2 Need overview | JPL |
| 03 | Stahl | SBIR Subtopic S2.03 overview | NASA |
| 04 | Blake | SBIR Subtopic S2.04 overview | NASA |
| 05 | Lewis | New NASA SBIR Program Initiatives for Post Phase 2 | JPL |
| Future Large Aperture UVOIR Telescope (OPEN) | |||
| 06 | Clampin | Science with a Future Large Aperture UVOIR Telescope | |
| 07 | TBD | Discovery and Characterization of Candidate Planet vs Aperture, etc. | |
| 08 | Feinberg | ATLAST 10-m class architecture studies | NASA |
| 09 | Stahle | ATLAST Technology Roadmap | NASA |
| 10 | Shaklan | Segmented Telescope Stability Error Budget for Exo-Earth Direct Imaging | JPL |
| 11 | Breckinridge | Image quality and polarization in large aperture telescope systems | Caltech & UoAZ |
| AMTD-II (OPEN) | |||
| 12 | Stahl | Overview & Status | NASA |
| 13 | Stahl | Engineering Specifications | NASA |
| 14 | Matthews | Exelis 1.5m Pathfinder Mirror status | Exelis |
| 15 | Hull | Schott Extreme lightweight Zerodur mirror status | UNM/Schott |
| 16 | Eng | AMTD-II test plan and preparation | NASA |
| 17 | Arnold | Point Design Accomplishments & Status | NASA |
| JWST (OPEN) | |||
| 18 | Feinberg | Plans for Pathfinder Testing at JSC | NASA |
| 19 | Matthews | JWST Pathfinder Telescope Mirror Integration | Exelis |
| 20 | Matthews | JWST Cryo Test Equipment Status and Readiness for Pathfinder | Exelis |
| 21 | Saif | Modal testing with high speed interferometer | NASA |
| Structures (OPEN) | |||
| 22 | Michel | Fabrication of a lightweight CTE matched optical structure from Be/BeO Metal Matrix Composite | Materion |
| Space Qualifications Testing (ITAR) | |||
| 23 | McCarter | Single Crystal Silicon/Glass Frit Bonding test on MISSE I/II X-37B Experiment | McCarter |
| POSTER PAPERS | |||
| — | Qiao | Differential wavefront sensor based on binary pixelated transmission filters | Rochester Institute of Technology |
| Wednesday – November 19th, 2014 Telescope Technology (OPEN) | |||
| 24 | Loomis | Low Cost, Lightweight, 2.5 Meter Aperture, Micron Level Surface Accuracy Telescope Development | Vanguard Space Technologies |
| Optical Design (OPEN) | |||
| 25 | Reimers | New Methods for the Optical Design of Spectrometers with Freeform Surfaces | Univ. of Rochester |
| 26 | Catanzaro | Integrated opto-mechanical design and analysis | CFE Services |
| Mirror Technology (OPEN) | |||
| 27 | Goodman | T300HoneySiC – Problems Solved | Trex Enterprises |
| 28 | Jensen | Lightweight, Scalable Manufacturing of Telescope Optics | ReliaCoat Tech |
| 29 | Hardesty | Matching NiP on Be-38Al for Low Temp Mirrors | Peregrine |
| 30 | Karandikar | Metal matrix composite (MMC) optics and structure | M Cubed |
| 31 | Eng | Cryo test results of M-Cubed Technologies SiC/CNT and SiC mirrors | NASA |
| 32 | Jacoby | Cryo test results of hybrid skin SiC mirror | OPCI |
| 33 | Eng | Additive manufacturing of lightweighted metal mirrors | NASA |
| Optical Metrology Technology (OPEN) | |||
| 34 | Millerd | Success Story: Growing a NASA-Sponsored Metrology Project to Serve Many Applications and Industries | 4D Technology |
| Optical Fabrication Technology (OPEN) | |||
| 35 | Walker | Advances in active edge control, as applied to 1.4m hexagonal mirror segments | Zeeko Ltd. |
| 36 | Mohring | Fabrication of Freeform Optics and Conic Mirror Mandrels | OptiPro |
| 37 | DeFisher | Optical Characterization of Complex Freeform Surfaces | OptiPro |
| 38 | Medicus | Smoothing mid-spatial frequency errors on free-form surfaces | Optimax |
| 39 | Shore | Rapid fabrication of advanced optics: 1 foot2 per hour | Loxham Precision |
| 40 | Han | Mirror polishing technology with Tool Influence Function for SiC | KASI/NOAO |
| 41 | Alberts | Abrasive waterjet milling for mirror pockets | Ormond |
| Deformable Mirror Technology (OPEN) | |||
| 42 | Ryan | State of the art in MEMS deformable mirrors | Boston Micromachines |
| 43 | Helmbrecht | MEMS Deformable Mirror Development for Space-Based Exoplanet Detection | Iris AO |
| 44 | Helmbrecht | MEMS Deformable Mirror Development for Laser Applications | Iris AO |
| Deformable Mirror Technology (ITAR) | |||
| 45 | Helmbrecht | Space Qualification of a MEMS Deformable Mirror | Iris AO |
| 46 | Wu | Driver ASICs for Advanced Deformable Mirrors | Microscale |
| Thursday – November 20th, 2014 Optical Coating Technology (OPEN) | |||
| 47 | Quijada | Recent Progress on 2012 SAT for UVOIR Coatings | NASA |
| 48 | Bala | FUV to NIR mirror coatings development status | JPL |
| 49 | Sheikh | Low-Stress Silicon Cladding for Surface Finishing Large UVOIR Mirrors | ZeCoat |
| 50 | Sheikh | Broadband Reflective Coating Process for Large FUVOIR Mirrors | ZeCoat |
| 51 | Carnahan | Nanostructured optical black coatings | NanoLab |
| Design Tools (ITAR) | |||
| 52 | Brooks | Thermal induced wavefront error model of space telescope mirrors | NASA |
| 53 | Arnold | Mechanical Model Tool Accomplishments & Status | NASA |
| Future Large Aperture UVOIR Telescope (FOUO) | |||
| 54 | Jackman | SLS: Payload Accommodation, Launch Environment and potential 2018-2022 Flight Opportunities | NASA |
| 55 | Stahl | SLS Enable Space Telescope Concepts | NASA |
| 56 | Polidan | Ideas for Secondary SLS Payload Missions | Northrop-Grumman |
| 57 | Oschmann | Utilizing Excess SLS Payload Capability | BATC |
| Telescope Technology (FOUO) | |||
| 58 | Styer | Prototype and Test Trex CVC SiC Secondary, Tertiary, and Quaternary Mirrors Plus Mount a Primary Mirror/Secondary Mirror Subassembly to an Invar Warm Stop for the SM-3 Thermally Insensitive Telescope | Trex Enterprises Corp. |
| Telescope Technology (ITAR) | |||
| 59 | Breckinridge | Evolvable space telescope: first stage: bow-tie – a 4 by 12 meter space aperture | Northrop Grumman & Breckinridge Assoc. |
| 60 | Lillie | Key Technologies for an Evolvable Space Telescope | Northrop Grumman & Breckinridge Assoc. |
| 61 | MacEwen | Evolvable space telescope: step-wise evolution technology needs | Reviresco LLC |
| 62 | Zamel | Critical Technologies for Future Large Telescopes | Northrop Grumman |
| 63 | Van Halle | Deployable One Meter Optical Telescope for Small Spacecraft Using AFRL Composite Tape Technologies | MMA Design LLC |
| Image Processing (ITAR) | |||
| 64 | Catanzaro | Wavefront Coding Techniques to Relax Opto-Mechanical Tolerances in Reflective Space Optics | CFE Services |
| Mirror Technology (ITAR) | |||
| 65 | Mooney | Replication of Lightweight ULE Mirrors | Exelis |
| 66 | Martin | Double Replication of CFRP Optical Mirrors | CMA |
| 67 | Goodman | RadHard SiC Mirror for Missile Defense | Trex Enterprises Corp. |
| 68 | Maji | Large Diffractive Optic – Opportunities and Tradeoffs | Univ. of New Mexico |