DARTS/Astro Query System - SQL Search -

All the tables available for SQL Search and information on each table are listed in the Available Data page. Please see the User Guide for the usage of "SQL Search".

Call example

【Basic Syntax】

 SELECT {*|column, column, column,..}
 FROM table name
 [ WHERE conditions ]
 [ ORDER BY column, column,... ]
 [ LIMIT {ALL|number} ] [ OFFSET number ]
 ;

---------------------------------------------------------

This is an example query to obtain the first 10 rows of 
akari_fis_bsc_1 using radial search.

The akari_fis_bsc_1 is an catalogue, and each data has 
the coorinate position of the object. So, search the objects 
contained in the circle area you specify there.

Columns to display -> all
  Table name -> akari_fis_bsc_1
  Search condition -> radial search, 
   center position is (266.0, -28,0) and radius is 10 arcmin
  Displayed results -> from 1st to 10th

---------------------------------------------------------
Point:
  You can use functions of PgSphere(https://pgsphere.github.io/)
  on this system.

Data types:
    Point   ... spoint(coordinate, coordinate)
    Path    ... spath(spoint(), spoint(), ...)
    Circle  ... scircle(spoint(), radius)
    Polygon ... spoly(spoint(), spoint(), ...)

Operators:
    a @ b = '1' ... a contained by b
    a !@ b = '1' ... a is not contained by b
    a && b = '1' ... overlaped each other
    a !&& b = '1' ... do not overlaped each other

Ths function radians needs a parameter in degree.
  Operator '/' means division. 
  Note: integer division truncates the result.
   10.0 / 60.0 = 0.16666...
   10 / 60 = 0

---------------------------------------------------------

This is an example query to obtain the first 10 rows of 
ginga_observation_log using radial search.

The ginga_observation_log has pointing observations and 
scan observation. Each data has the coorinate of the 
observation start point and the end point, and the 
average point. So, search the pointing position contained 
in the circle area you specified, or the scan-path crossed 
over the area.

Columns to display -> all
  Table name -> ginga_observation_log
  Search condition -> radial search,
  center position is M31(10.7, 41.2) and radius is 1 degree
  Displayed results -> from 1st to 10th

---------------------------------------------------------
Point:
  You can use functions of PgSphere(https://pgsphere.github.io/)
  on this system.

Data types:
    Point   ... spoint(coordinate, coordinate)
    Path    ... spath(spoint(), spoint(), ...)
    Circle  ... scircle(spoint(), radius)
    Polygon ... spoly(spoint(), spoint(), ...)

Operators:
    a @ b  ... a contained by b
    a !@ b ... a is not contained by b
    a && b ... overlaped each other
    a !&& b ... do not overlaped each other

---------------------------------------------------------

This is an example query to obtain the data near the 
galactic center of suzaku_xis_observation_log using radial search.

The SUZAKU XIS has rectanglar field of view with 18 arcmin 
x 18 arcmin. Each data of suzaku_xis_observation_log has 
the coorinate of each corner position about field of view.
So, search the rectanglar area overlapd the circle area 
you specified.

Columns to display -> all
  Table name -> suzaku_xis_observation_log
  Search condition -> radial search,
    center position is (0.0, 0.0) with Galactic coordinates
    and radius is 1 arcmin
  Displayed results -> from 1st to 200th

---------------------------------------------------------
Point:

1. Use the column of Galactic coordinates.

2. You can use functions of PgSphere(https://pgsphere.github.io/)
   on this system.

Data types:
    Point   ... spoint(coordinate, coordinate)
    Path    ... spath(spoint(), spoint(), ...)
    Circle  ... scircle(spoint(), radius)
    Polygon ... spoly(spoint(), spoint(), ...)

Operators:
    a @ b  ... a contained by b
    a !@ b ... a is not contained by b
    a && b ... overlaped each other
    a !&& b ... do not overlaped each other

---------------------------------------------------------

This is an example query to obtain the data nearthe 
galactic center of suzaku_xis_observation_log using radial search.

The SUZAKU XIS has rectanglar field of view with 18 arcmin 
x 18 arcmin. Each data of suzaku_xis_observation_log has the 
coorinate of each corner position about field of view. 
So, search the rectanglar area overlapd the rectanglar area 
you specified.

Columns to display -> object_name, center_galactic_lon, 
   center_galactic_lat, data_access_url
  Table name -> suzaku_xis_observation_log
  Search condition -> rectanglar search,
    0.1(deg) <= Galactic Latitude <= .0.1(deg)
    and 0.1(deg) <= Galactic Latitude <= 0.1(deg)
  Displayed results -> from 1st to 100th

---------------------------------------------------------
Point:
  You can use functions of PgSphere(https://pgsphere.github.io/)
  on this system.

Data types:
    Point   ... spoint(coordinate, coordinate)
    Path    ... spath(spoint(), spoint(), ...)
    Circle  ... scircle(spoint(), radius)
    Polygon ... spoly(spoint(), spoint(), ...)

Operators:
    a @ b  ... a contained by b
    a !@ b ... a is not contained by b
    a && b ... overlaped each other
    a !&& b ... do not overlaped each other

---------------------------------------------------------

This is an example query to obtain the first 10 rows of 
akari_fis_bsc_1 using radial search.

The akari_fis_bsc_1 is an catalogue, and each data has 
the coorinate position of the object. So, search the objects 
contained in the circle area you specify there.

Columns to display -> all
  Table name -> akari_fis_bsc_1
  Search condition -> radial search, 
   center position is (266.0, -28,0) and radius is 10 arcmin
  Displayed results -> from 1st to 10th

---------------------------------------------------------
Point:
  You can use functions of PgSphere(https://pgsphere.github.io/)
  on this system.

Data types:
    Point   ... spoint(coordinate, coordinate)
    Path    ... spath(spoint(), spoint(), ...)
    Circle  ... scircle(spoint(), radius)
    Polygon ... spoly(spoint(), spoint(), ...)

Operators:
    a @ b = '1' ... a contained by b
    a !@ b = '1' ... a is not contained by b
    a && b = '1' ... overlaped each other
    a !&& b = '1' ... do not overlaped each other

Ths function radians needs a parameter in degree.
  Operator '/' means division. 
  Note: integer division truncates the result.
   10.0 / 60.0 = 0.16666...
   10 / 60 = 0

---------------------------------------------------------

This is an example query to obtain the first 10 rows of 
ginga_observation_log using radial search.

---------------------------------------------------------
Point:
  You can use functions of PgSphere(https://pgsphere.github.io/)
  on this system.

Data types:
    Point   ... spoint(coordinate, coordinate)
    Path    ... spath(spoint(), spoint(), ...)
    Circle  ... scircle(spoint(), radius)
    Polygon ... spoly(spoint(), spoint(), ...)

Operators:
    a @ b  ... a contained by b
    a !@ b ... a is not contained by b
    a && b ... overlaped each other
    a !&& b ... do not overlaped each other

---------------------------------------------------------

This is an example query to obtain the data near the 
galactic center of suzaku_xis_observation_log using radial search.

---------------------------------------------------------
Point:

1. Use the column of Galactic coordinates.

2. You can use functions of PgSphere(https://pgsphere.github.io/)
   on this system.

Data types:
    Point   ... spoint(coordinate, coordinate)
    Path    ... spath(spoint(), spoint(), ...)
    Circle  ... scircle(spoint(), radius)
    Polygon ... spoly(spoint(), spoint(), ...)

Operators:
    a @ b  ... a contained by b
    a !@ b ... a is not contained by b
    a && b ... overlaped each other
    a !&& b ... do not overlaped each other

---------------------------------------------------------

This is an example query to obtain the data nearthe 
galactic center of suzaku_xis_observation_log using radial search.

The SUZAKU XIS has rectanglar field of view with 18 arcmin 
x 18 arcmin. Each data of suzaku_xis_observation_log has the 
coorinate of each corner position about field of view. 
So, search the rectanglar area overlapd the rectanglar area 
you specified.

---------------------------------------------------------
Point:
  You can use functions of PgSphere(https://pgsphere.github.io/)
  on this system.

Data types:
    Point   ... spoint(coordinate, coordinate)
    Path    ... spath(spoint(), spoint(), ...)
    Circle  ... scircle(spoint(), radius)
    Polygon ... spoly(spoint(), spoint(), ...)

Operators:
    a @ b  ... a contained by b
    a !@ b ... a is not contained by b
    a && b ... overlaped each other
    a !&& b ... do not overlaped each other

---------------------------------------------------------

SQL query

Format

total 1

Download WgetScript

No.	observation_id	object_name	center_ra	center_dec	center_ra_b1950	center_dec_b1950	center_ecliptic_lon	center_ecliptic_lat	center_galactic_lon	center_galactic_lat	roll_angle	observation_start_time_mjd	observation_start_time	observation_end_time_mjd	observation_end_time	exposure_sec	exposure	sxi_1st_mode_exposure_sec	sxi_1st_mode_exposure	sxi_2nd_mode_exposure_sec	sxi_2nd_mode_exposure	hxi1_exposure_sec	hxi1_exposure	hxi2_exposure_sec	hxi2_exposure	sgd1_exposure_sec	sgd1_exposure	sgd2_exposure_sec	sgd2_exposure	is_sxs_on	is_sxs_fovin	is_sxi_on	is_sxi_fovin	is_hxi1_on	is_hxi1_fovin	is_hxi2_on	is_hxi2_fovin	is_sgd1_on	is_sgd1_fovin	is_sgd2_on	is_sgd2_fovin	sxs_data_mode	is_sxs_adr_cycle	is_sxs_filter_fe55	is_sxs_filter_open	sxs_threshould_setting_code	sxi_1st_data_mode	sxi_1st_dataclass_threshold	sxi_2nd_data_mode	sxi_2nd_dataclass_threshold	hxi1_data_mode	hxi2_data_mode	sgd1_data_mode	sgd2_data_mode	sgd1_cc1_exposure_sec	sgd1_cc1_exposure	sgd1_cc2_exposure_sec	sgd1_cc2_exposure	sgd1_cc3_exposure_sec	sgd1_cc3_exposure	sgd2_cc1_exposure_sec	sgd2_cc1_exposure	sgd2_cc2_exposure_sec	sgd2_cc2_exposure	sgd2_cc3_exposure_sec	sgd2_cc3_exposure	hxi_code	sgd_code	sxi_code	sxs_code	gen_code	processing_date_mjd	processing_date	public_date_mjd	public_date	distribution_date_mjd	distribution_date	processing_version	caldb_version	processing_software	proposal_abstract	proposal_category	proposal_category_code	pi_name	proposal_affiliated_country	proposal_title	data_access_url	sxs_corner1_ra	sxs_corner1_dec	sxs_corner2_ra	sxs_corner2_dec	sxs_corner3_ra	sxs_corner3_dec	sxs_corner4_ra	sxs_corner4_dec	sxs_corner5_ra	sxs_corner5_dec	sxs_corner6_ra	sxs_corner6_dec	sxs_corner1_ra_b1950	sxs_corner1_dec_b1950	sxs_corner2_ra_b1950	sxs_corner2_dec_b1950	sxs_corner3_ra_b1950	sxs_corner3_dec_b1950	sxs_corner4_ra_b1950	sxs_corner4_dec_b1950	sxs_corner5_ra_b1950	sxs_corner5_dec_b1950	sxs_corner6_ra_b1950	sxs_corner6_dec_b1950	sxs_corner1_ecliptic_lon	sxs_corner1_ecliptic_lat	sxs_corner2_ecliptic_lon	sxs_corner2_ecliptic_lat	sxs_corner3_ecliptic_lon	sxs_corner3_ecliptic_lat	sxs_corner4_ecliptic_lon	sxs_corner4_ecliptic_lat	sxs_corner5_ecliptic_lon	sxs_corner5_ecliptic_lat	sxs_corner6_ecliptic_lon	sxs_corner6_ecliptic_lat	sxs_corner1_galactic_lon	sxs_corner1_galactic_lat	sxs_corner2_galactic_lon	sxs_corner2_galactic_lat	sxs_corner3_galactic_lon	sxs_corner3_galactic_lat	sxs_corner4_galactic_lon	sxs_corner4_galactic_lat	sxs_corner5_galactic_lon	sxs_corner5_galactic_lat	sxs_corner6_galactic_lon	sxs_corner6_galactic_lat	sxi_corner1_ra	sxi_corner1_dec	sxi_corner2_ra	sxi_corner2_dec	sxi_corner3_ra	sxi_corner3_dec	sxi_corner4_ra	sxi_corner4_dec	sxi_corner1_ra_b1950	sxi_corner1_dec_b1950	sxi_corner2_ra_b1950	sxi_corner2_dec_b1950	sxi_corner3_ra_b1950	sxi_corner3_dec_b1950	sxi_corner4_ra_b1950	sxi_corner4_dec_b1950	sxi_corner1_ecliptic_lon	sxi_corner1_ecliptic_lat	sxi_corner2_ecliptic_lon	sxi_corner2_ecliptic_lat	sxi_corner3_ecliptic_lon	sxi_corner3_ecliptic_lat	sxi_corner4_ecliptic_lon	sxi_corner4_ecliptic_lat	sxi_corner1_galactic_lon	sxi_corner1_galactic_lat	sxi_corner2_galactic_lon	sxi_corner2_galactic_lat	sxi_corner3_galactic_lon	sxi_corner3_galactic_lat	sxi_corner4_galactic_lon	sxi_corner4_galactic_lat	hxi1_corner1_ra	hxi1_corner1_dec	hxi1_corner2_ra	hxi1_corner2_dec	hxi1_corner3_ra	hxi1_corner3_dec	hxi1_corner4_ra	hxi1_corner4_dec	hxi1_corner1_ra_b1950	hxi1_corner1_dec_b1950	hxi1_corner2_ra_b1950	hxi1_corner2_dec_b1950	hxi1_corner3_ra_b1950	hxi1_corner3_dec_b1950	hxi1_corner4_ra_b1950	hxi1_corner4_dec_b1950	hxi1_corner1_ecliptic_lon	hxi1_corner1_ecliptic_lat	hxi1_corner2_ecliptic_lon	hxi1_corner2_ecliptic_lat	hxi1_corner3_ecliptic_lon	hxi1_corner3_ecliptic_lat	hxi1_corner4_ecliptic_lon	hxi1_corner4_ecliptic_lat	hxi1_corner1_galactic_lon	hxi1_corner1_galactic_lat	hxi1_corner2_galactic_lon	hxi1_corner2_galactic_lat	hxi1_corner3_galactic_lon	hxi1_corner3_galactic_lat	hxi1_corner4_galactic_lon	hxi1_corner4_galactic_lat	hxi2_corner1_ra	hxi2_corner1_dec	hxi2_corner2_ra	hxi2_corner2_dec	hxi2_corner3_ra	hxi2_corner3_dec	hxi2_corner4_ra	hxi2_corner4_dec	hxi2_corner1_ra_b1950	hxi2_corner1_dec_b1950	hxi2_corner2_ra_b1950	hxi2_corner2_dec_b1950	hxi2_corner3_ra_b1950	hxi2_corner3_dec_b1950	hxi2_corner4_ra_b1950	hxi2_corner4_dec_b1950	hxi2_corner1_ecliptic_lon	hxi2_corner1_ecliptic_lat	hxi2_corner2_ecliptic_lon	hxi2_corner2_ecliptic_lat	hxi2_corner3_ecliptic_lon	hxi2_corner3_ecliptic_lat	hxi2_corner4_ecliptic_lon	hxi2_corner4_ecliptic_lat	hxi2_corner1_galactic_lon	hxi2_corner1_galactic_lat	hxi2_corner2_galactic_lon	hxi2_corner2_galactic_lat	hxi2_corner3_galactic_lon	hxi2_corner3_galactic_lat	hxi2_corner4_galactic_lon	hxi2_corner4_galactic_lat
1	100044010	Crab	83.6334225	22.01324138	82.88116	21.98056	84.09776	-1.2957	184.558687	-5.78476784	267.7258696	57472.51162	2016-03-25 12:16:44.298	57472.74431	2016-03-25 17:51:48.389	9735.234375	9.735234375	6662.068488	6.662068488	101.8605342	0.101860534	167910.9687	167.9109687	167910.9688	167.9109688	28951.6875	28.9516875	22001.8125	22.0018125	Y	Y	Y	Y	Y	Y	Y	Y	Y	Y	Y	Y	PX_NORMAL	N	N	Y	A75A	WINDOW1	100000b0-30;100000b1-30	WINDOW1BURST2	112004e0-100 h; 112004e1-2048 a 100 h; 120004e0-100 h ; 120004e1-2048 h	CAMERA_NORMAL2	CAMERA_NORMAL2	CC_NORMAL1	CC_NORMAL1	28951.6875	28.9516875	28951.6875	28.9516875	28951.6875	28.9516875	22001.8125	22.0018125	22001.8125	22.0018125	22001.8125	22.0018125	33300	44300	11110	31342	11310	58024.10882	2017-09-28 02:36:00	58027	2017-10-01 00:00:00	57563.94416	2016-06-24 22:39:00	03.01.006.008	gen20170208_hxi20161122_sgd170926_sxi20170405_sxs20161122	Hea_05Apr2017_V6.21_Hitomi_04Apr2017_V006	SGD alignment and area	CALIBRATION	1	Takahashi Tadayuki	SWG	COMMISSIONING PHASE OBSERVATION OF THE CRAB NEBULA AND PULSAR	https://data.darts.isas.jaxa.jp/pub/hitomi/obs/1/100044010/	83.6617	22.0326	83.6526	22.0322	83.6523	22.0407	83.606	22.0391	83.6081	21.9879	83.6636	21.9899	82.90932	22.00005	82.90023	21.99961	82.89988	22.00811	82.8536	22.00628	82.85599	21.95509	82.91146	21.95736	84.12481	-1.27752	84.11636	-1.27755	84.11646	-1.26904	84.0735	-1.26875	84.07318	-1.31998	84.12469	-1.32025	184.55635	-5.75226	184.55216	-5.7596	184.54479	-5.75529	184.52305	-5.79239	184.56757	-5.81817	184.59356	-5.77363	83.9067	22.284	83.2162	22.2579	83.2468	21.6172	83.9333	21.6431	83.15285	22.25263	82.46267	22.2232	82.49685	21.58266	83.18304	21.61187	84.36238	-1.03613	83.72276	-1.03369	83.72107	-1.67502	84.36002	-1.6775	184.46474	-5.42611	184.14262	-5.97951	184.70127	-6.30011	185.02264	-5.74714	83.67533	22.111344	83.525432	22.0472	83.594642	21.908311	83.744425	21.972392	82.92251	22.07886	82.77301	22.01399	82.84298	21.87544	82.99237	21.94024	84.14089	-1.1994	83.99924	-1.25732	84.05718	-1.39894	84.19883	-1.34101	184.4963	-5.69945	184.47596	-5.85111	184.62842	-5.87132	184.64871	-5.71966	83.745884	22.054971	83.590967	22.107899	83.533974	21.964309	83.688756	21.911434	82.99336	22.02283	82.83819	22.07501	82.78201	21.93115	82.93705	21.87902	84.20376	-1.25857	84.06264	-1.1994	84.00344	-1.34049	84.14457	-1.39967	184.57931	-5.67437	184.45716	-5.76731	184.55058	-5.88885	184.67274	-5.79589

Used SQL

SELECT * FROM hitomi_master_data WHERE observation_id = '100044010'

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