National Deep Submergence Facility:! Alvin, Jason & Sentry!

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National Deep Submergence Facility:! Alvin, Jason & Sentry!

Background The National Deep Submergence Facility (or NDSF) manages and operates the U.S. submersible Alvin, the remotely operated vehicle Jason/Medea, and the autonomous underwater vehicle Sentry. All are capable of reaching 6000 meters (DSV Alvin cannot yet until battery technology improves). These deep submergence vehicles are renowned for advancing deep sea research, e.g. the discovery of hydrothermal vents. However, the NDSF and its vehicles also play a major role in interdisciplinary oceanography, from studying the relationship between nearshore and deeper water processes to assessing the impact of anthropogenic activities (such as mapping the fate of oil released after the Deepwater Horizon accident). History has shown that NDSF vehicles have frequently played a major role in advancing oceanographic research.

Iden%fy essen%al equip. and facili%es (HOV ALVIN) Proposal planning build science team budget reality check (ROV JASON) Special planning considera:ons (AUV SENTRY) Award no:fica:on SUBMIT PROPOSAL AND Ship:me request form Pre-cruise phone call / mee:ng vehicle requirements Cruise planning ac:vi:es/ instrument tes:ng Deadlines for info to operator Packing/ final prep. ac:vi:es Expedi:on ac:vi:es Post-cruise assessment (for NSF) preliminary cruise report is due for ac:vi:es in foreign waters NDSF debrief FINAL cruise report DUE Data mgmt. compliance Pre-award All planning ac:vi:es should begin ~4 months before proposal submission --- 1 st proposed cruise should be ~12 to 24 months away (RAPID proposals excepted) ~5-6 months azer proposal submission ~6 months before cruise Post-award ~5 months before cruise ~3 months before cruise ~1 month before cruise Expedi:on 1 month azer cruise Post-expedi:on ~2 months azer cruise 2 years azer expedi:on data due per agency guide-lines

DeSSC new user Program (Grant Writing) Proposal contains many items. We will discuss the major items for the actual science. Project summary (1 page) contains 3 items: Overview, Intellectual Merit and Broader Impacts Proposal (15 page limit) - Self-contained general plan of work including broader impacts References Biosketch (2 page limit per PI) Budget (per year and total) / Justification (3 page limit) Current and pending support Facilities (PI s University; used to assess adequacy of resources available) Supplementary Documentation ship time request form is here New NSF budget requirements were initiated in January, 2015 Project Summary Intellectual Merit of proposed research should indicate Hypothesis Driven Research Example: title Pyrite nanoparticles are a kinetically stable iron source to the ocean 1) To demonstrate that hot waters, with varying Fe and H 2 S concentrations from hydrothermal vents around the world, contain significant quantities of nanoparticulate pyrite (FeS 2 ), which incorporates other metals, and of other nanoparticulate metal sulfide phases (e.g.; CuFeS 2,CuS, Cu 2 S). 2) To document that nanoparticulate FeS 2 is resistant to oxidation and thus able to be transported long distances from the vent source.

Broader Impacts resulting from proposed activity: Enhancing the field through transformative science, and benefits to education and outreach. Example: Research on the existence and stability of metal sulfide nanoparticles from hydrothermal vents is lacking and is a necessary first step to understand the importance of vent-derived Fe and other materials for ocean biogeochemistry. The persistence of nanoparticles in the deep ocean beyond plumes and to remote areas of the ocean likely has major impact on the chemical budgets of Fe and other metals (Cu, Zn, Ni, Co), which are potential limiting micronutrients and are used in enzyme systems by biological organisms. FeS 2 nanoparticle stability, mobility and eventual decomposition will have important implications for primary and bacterial production in the oceans as well as the oceanic budgets of these and other non essential metals, which form sulfides (e.g.; Pb, Cd, Hg). The PI will train one Ph.D. graduate student. The PI is committed to active involvement in numerous educational and public outreach activities and will have K-12 teachers involved with the project including one participating on the cruise as in past work. Outreach activities include a 15 minute highlights HD video of the field program, a web site that will discuss the work and a study program in local Delaware environments with local high school students using their own school built ROV.

The idea for the proposal is key! DeSSC new user Program (Grant Writing) When developing the proposal. Will it be? Individual PI (you alone which is rare) or Collaborative (Good to work with someone with experience if you have no prior experience) Need to know what data (real time) and samples are required to be successful in attaining objectives. What assets are necessary from NDSF to obtain them? More than one asset needed? (e.g., Alvin / Sentry are autonomous) (Jason tethered to a ship) How do you determine the asset? E.g., water depth working range [6000 meters; less than 4500 meters (Alvin s present rating)] hours on bottom needed (Alvin 6 hours per day; JasonII days; Sentry 1 to 2 days) type of work [multi-beam, biological sampling, (geo)chemical sampling, etc. and combinations] How many dive days are needed to accomplish the work? Figure weather days; technical issues! You may not get the asset at the time of the year you desire. Ship time request form is submitted as SD in the proposal. If NDSF does not have the ancillary equipment (sampling gear, sensors, etc.)? What to do? User supplied! Find someone who has the equipment, sensors and collaborate. Borrow. Develop it yourself (OTIC?).

Telepresence enabled research In recent years high bandwidth telecommunications have been used, particularly in ocean exploration, to bring the immediacy of discovery to the widest possible community. The oceanographic fleet is being downsized and the new Ocean class ships (Sally Ride and Neil Armstrong) will have less berths for scientists (24 instead of 32). Up to 10 berths are required for ROV Jason II leaving 14 berths for scientists. Thus, not all people involved with a project may be able to be aboard ship. Two-way telecommunication requires more funds to insure that the proper high bandwidth telecommunication system is available for HD video and communication so scientists in the research team back at the lab can see the research and discoveries in real time, and then actively participate in decision making regarding field research priorities. This will enhance the intellectual capacity to achieve the desired end-products for the project. Costs for Telepresence can be substantial and have to be added to the cost of the research grant. Discuss with NSF program Director and Brian Midson before submission. Ocean Sciences Meeting 2016 session ED001: "Accessing the Deep Ocean From Higher Ground: New Advances in Telepresence-Enabled Research

Budget (per year and total) / Justification (3 page limit) For preparation, need start/end dates of project Who will do the work (when and where)? give specifics for each team member Faculty salary no more than 2 months summer salary allowed per year under GPG basic guidelines with the exception of certain specific program solicitations. Grad Assistants high or low tuition, percentage of effort and length of time Professionals/Technicians names if known, percentage of effort Undergraduates/wage payroll need hourly rate and number of hours Equipment needed to do the research that the PI does not have at present. Supplies & Expenses: laboratory, shipboard, also some NDSF assets charge for steel weights (Alvin). Shipping Costs! Agent costs! Outreach costs! Travel: domestic & foreign to meet the ship, conferences, etc. Justification no more than 3 pages allowed 1. Breakout of large expenses in categories, ie: materials/supplies, travel, equipment, etc. 2. Include budget notes for fringe benefits, tuition (if applicable), and F&A rates

Ship time request form I

Ship time request form II NDSF assets normally need 4 days for MOB and 4 days for DEMOB. Good idea to add these in anyway. MUST do it for use of ships without NDSF assets.

Post Cruise Assessment Form (PCAR)

Post Cruise Assessment Form (PCAR) II

NSF Reports Annual Reports on nsf.gov discuss many topics accomplishments goals met problems outreach personnel etc. Final Annual Report Final Outcomes report for public dissemination