<?xml version="1.0" encoding="UTF-8" ?>
<VOEvent role="prediction"
	ivorn="ivo://sot.lmsal.com/VOEvent#2015-08-30T18:11:00Z"
	version="1.11"
	xmlns="http://www.ivoa.net/xml/VOEvent/v1.11"
	xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
	xmlns:lmsal="http://sot.lmsal.com/lmsal"
	xmlns:crd="urn:nvo-coords"
	xsi:schemaLocation="http://www.ivoa.net/xml/VOEvent/VOEvent-v1.1.xsd">


	<Who>
		<!-- Data pertaining to curation: observer, telescope, instrument, planner, tohbans, ... -->
		<Date>2015-08-31T19:59:20.000Z</Date>    <!-- Time VOEvent was generated. -->
		<PublisherID>http://sot.lmsal.com</PublisherID>

		<Contact>
			<Name>Ted Tarbell</Name>
			<Institution>LMSAL</Institution>
			<Communication>
				<Uri>http://lmsal.com</Uri>
				<AddressLine>3251 Hanover Rd, O/ADBS, B/252, Palo Alto, CA, 94304</AddressLine>
				<Telephone>+1-650-424-2400</Telephone>
				<Email>tarbell@lmsal.com</Email>
			</Communication>		</Contact>

		<lmsal:Telescope>Hinode</lmsal:Telescope>
		<lmsal:Instrument>SOTSP</lmsal:Instrument>
		<lmsal:Tohbans>Arikawa</lmsal:Tohbans>
		<lmsal:ChiefPlanner>Lee</lmsal:ChiefPlanner>
		<lmsal:ChiefObserver>Derosa (RCO)</lmsal:ChiefObserver>
	</Who>


	<What>
		<!-- Data pertaining to what was observed, measured, ...   Some of these tags might move into Who section. -->
		<lmsal:obsId></lmsal:obsId>
		<lmsal:OBS_NUM>288</lmsal:OBS_NUM>
		<lmsal:JOP_ID>288</lmsal:JOP_ID>
		<lmsal:JOP></lmsal:JOP>
		<lmsal:JOIN_SB>null</lmsal:JOIN_SB>    <!-- S=SOT, X=XRT, E=EIS, SX=SOT+XRT, EX=EIS+XRT -->
		<lmsal:OBSTITLE>HOP288 (w/BBSO) AR12403</lmsal:OBSTITLE>
		<lmsal:SCI_OBJ>AR</lmsal:SCI_OBJ>     <!--  Scientific objectives -->
		<lmsal:SCI_OBS>AR</lmsal:SCI_OBS>     <!-- Objects being observed -->
		<lmsal:NOAA_NUM>12403</lmsal:NOAA_NUM>
		<lmsal:TARGET>Active Region</lmsal:TARGET>
		<lmsal:slotNumber>6</lmsal:slotNumber>
	</What>


	<WhereWhen>
		<!-- Space and Time Coordinates. -->
		<ObservatoryLocation ID="Hinode" />

		<ObservationLocation>
			<lmsal:xCen>900</lmsal:xCen>		<!-- xcen and ycen from FITS -->
			<lmsal:yCen>-291</lmsal:yCen>
			<lmsal:xFov>0</lmsal:xFov>
			<lmsal:yFov>0</lmsal:yFov>
			<crd:AstroCoords coord_system_id="UTC-HGS-TOPO">
				<crd:Time>
					<crd:TimeInterval>2015-08-30T18:11:00.000Z 2015-08-30T20:05:05.000Z</crd:TimeInterval>
				</crd:Time>
				<crd:Position3D>900 -291</crd:Position3D>
			</crd:AstroCoords>
		</ObservationLocation>

		<Group name="saaIntervals">
			<Param name="saaInterval" value="2015-08-31T22:57:00Z 2015-08-31T23:17:00Z" />
		</Group>
	</WhereWhen>


	<Why>
		<!-- Why was observation performed.  Initial scientific assessment, hypothesized mechanisms, classifications, ... -->
		<Concept>
			<lmsal:Goal>Solar flare observations</lmsal:Goal>
			<lmsal:Purpose>Fast map 40&quot;x120&quot; 1-side repeats</lmsal:Purpose>
		</Concept>

		<Description>
			Solar flare is one of the most energetic phenomena in the solar atmosphere. Its spectrum provides us valuable information to study the heating process. In particular, line emission from the chromosphere can provide critical diagnostics of plasma heating processes. The H-alpha and Ca lines which represent typical chromospheric lines are the most observed and studied spectral lines. Although the He I 10830 and;#197; line is much weaker than the H-alpha, it is still an important line in the spectroscopy of solar active phenomena. The hot iron lines reflect the hot plasma in the transition region and corona. Many authors have studied the formation of these lines. Energy release in solar flares in general results in particle acceleration, plasma heating, and plasma wave generation. Most of the released energy is transported by the accelerated particles downward along magnetic field lines and deposited in the dense chromosphere by Coulomb collisions with ambient plasma in the so-called thick target model (e.g., Brown 1971; Petrosian 1973; Lin and; Hudson 1976). Some energy may be transported by thermal conduction from directly heated coronal plasma (e.g., Zarro and; Lemen 1988; Battaglia et al. 2009), and possibly by plasma waves. Spectroscopic observations can provide useful diagnostics and help constrain mechanisms of energy release and particle acceleration, a fundamental question for solar flares. We plan to observe with NST, IRIS and Hinode cooperatively to get a comprehensive view ranging from the chromosphere to the corona. Our observation proposal for BBSO/NST during August 27-31 has been accepted. We will also propose for IRIS observation.
		</Description>
	</Why>

</VOEvent>
