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Words words words.
-Sam R.
Welcome to Menlo's Math and Science Help Center. Read our overview or jump right in.
I want to:
So you need help? You came to the right place. If you want to learn, submit a request via the 'Learn' tab. If you want to teach, enter information via the 'Teach' tab. We'll pair you with a tutor (?).
We believe that the best learning happens in one-on-one tutoring environments. Our entire goal here is to match you with one specific tutor.
Since this website is still a work in progress, I need help finding bugs. To motivate you to explore the site, I've hidden a few easter eggs. Try to find them all.


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This is a walk-through as to how to save your work.
Before starting this tutorial you should first get acquainted with the basics of the "Tread3D" editor; the screen and the various commands that are available.
As in the "MAKING A BRUSH" tutorial start "Tread3D" and make a very basic brush.
Your screen should look like the one below.
Click on the "Files" menu and scroll down to "Save as".
A new window will now appear.
The "Save As" window should look like the one below.
Now just type in the name you want it to be; in our case lets call it "tutorial".
Your screen should look like the one below.
In addition to using the "Drop down menu" you could have used the "Save" button.
Remember this will not allow you to control the file name.
Thats all there is to it.
What you have done is saved your work as a ".trd2" file.
You will notice that you could have saved your work as a ".map" file under the "Export Map File" tab.
This is very useful when sharing work or making prefabs.
A note of caution; to make things easier in the future add a sub-folder or a group of sub-folders inside the Tread3D folder and give them a name related to the work you are doing. Now save all your work inside these new folders.
(This is just good housekeeping)


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Template based on deep research on the most popular travel booking websites such as booking.com, tripadvisor, yahoo travel, expedia, priceline, hotels.com, kayak, orbitz, etc. This guys can’t be wrong. You should definitely give it a shot :)
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travel, expedia, priceline, hotels.com, travelocity, kayak, orbitz, etc. This guys can’t be wrong.
You should definitely give it a shot :)
Template based on deep research on the most popular travel booking websites such as booking.com, tripadvisor, yahoo
travel, expedia, priceline, hotels.com, travelocity, kayak, orbitz, etc. This guys can’t be wrong.
You should definitely give it a shot :)
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Template based on deep research on the most popular travel booking websites such as booking.com, tripadvisor, yahoo
travel, expedia, priceline, hotels.com,travelocity, kayak, orbitz, etc. This guys can’t be wrong.
You should definitely give it a shot :)
Template based on deep research on the most popular travel booking websites such as booking.com, tripadvisor, yahoo travel, expedia, priceline, hotels.com, kayak, orbitz, etc. This guys can’t be wrong. You should definitely give it a shot :)
Template based on deep research on the most popular travel booking websites such as booking.com, tripadvisor, yahoo travel, expedia, priceline, hotels.com, kayak, orbitz, etc. This guys can’t be wrong. You should definitely give it a shot :)
Template based on deep research on the most popular travel booking websites such as booking.com, tripadvisor, yahoo travel, expedia..
Template based on deep research on the most popular travel booking websites such as booking.com, tripadvisor, yahoo travel, expedia..
Template based on deep research on the most popular travel booking websites such as booking.com, tripadvisor, yahoo travel, expedia..
Template based on deep research on the most popular travel booking websites such as booking.com, tripadvisor, yahoo travel, expedia, priceline, hotels.com, travelocity, kayak, orbitz, etc. This guys can’t be wrong. You should definitely give it a shot :) ed on deep research on the most popular travel booking websites such as booking.com, tripadvisor, yahoo travel, expedia.
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Nov 1, 2014 at 9:46am UTC
how to check the if rectangle is a square or not?
Nov 1, 2014 at 9:56am UTC
Check if the side lengths are the same.
Nov 1, 2014 at 9:57am UTC
All it's sides have equal length.
Nov 1, 2014 at 2:50pm UTC
that i know but how to do the coding for that
Nov 1, 2014 at 3:01pm UTC
if (width==height) cout << "square\n";
How do you define your rectangle?
Nov 2, 2014 at 4:09am UTC
deleted:]
Last edited on Nov 2, 2014 at 3:21pm UTC
Nov 2, 2014 at 9:19am UTC
A square is a rectangle but a rectangle is not necessary a square.
Nov 2, 2014 at 2:23pm UTC
What kind of rectangle?
Are you using a 2D graphic engine?
Or is it just a console app?
And do you know the coordinates of the rectangle and the width/height of it?


Newark Narratives
Welcome to my website where I will be showing you some beautiful buildings
in Newark, NJ.
Some history and pictures of the buildings will be included as well.
Welcome to my website where I will be showing you some beautiful buildings
in Newark, NJ.
Some history and pictures of the buildings will be included as well.
Starting with my favorite building in Newark, this cathedral basilica
is a giant 260 feet tall church that was proposed in 1859 by James Roosevelt
Bayley, the bishop of Newark.
The original design was inspired by an English-Irish Gothic Revival church,
but later was modified to take the characteristics of a French Gothic Revival
church. Due to the many upgrades that it had undergone from the time of
its conception to now, the official date of commencement was on October
19, 1954 by Thomas Aloysius Boland, Archbishop of Newark at the time. In
its entirety, the construction of the church rounded out at 95 full years
of construction and design implementations.
A building that I'm sure you have seen many times is the Krueger-Scott
Mansion on MLK Boulevard which was also known as High Street at the time
of construction in 1888.
The mansion holds 40 rooms supplemented by a 700-seat auditorium and although
built by Gottfried Krueger in 1888, was sold to Louise Scott for $85,000
in 1958.
On the first floor of the mansion, Scott held her beauty school classes
in the lobby area while keeping anything above her own private residence.
You could say she was living luxuriously!
The Essex County Courthouse is located right next to all three campuses
of University Heights. Built in 1904, this gigantic monument to justice
was erected by Cass Gilbert
The building features artwork from some of the most well known artists
of the American Renaissance period.
The 100% bronze statue created by Gutzon Borglum dedicated by Ted Roosevelt
himself on Memorial Day 1911.
The John Ballantine House faces Washington Park on Washington Street where
the three-story masonry structure stands proudly. It is built out of an
original Philadelphia pressed brick topped with a truncated hip roof. The
entrance is supported by giant stone portico with rounded arches that are
supported by 100% pure granite columns.
Built in 1884, the design can be attributed to George Edward Harney to
serve as the home of Jeannette Boyed and John Holme Ballantine. The ladder
of which was the son of Peter Ballantine, the founder of Ballantine Brewery.
The house has since been designated as a national landmark and therefore
has been maintained well to be used as a museum.
The Grace Episcopal Church is located on Broad Street where it has stood
tall for almost 200 years. Dating back to the year it was built in 1837,
it was built on Ascension Day and chartered by Bishop George Washington
Doane. The building itself was designed by Richard Upjohn, a British born
master mechanic of his time who resided in Boston, Massachusetts at the
time of conception. He is also the architect for a very well known church:
The Holy Trinity Church in New York.
The bell atop the tower is still fully functioning, though it has not
been rung in decades. It was usually rung for solemn times in American
history. One most notable time that is was rung was during and after the
battle of Fort Sumter, where the American Army surrendered due to being
bombarded too heavily in Charleston, South Carolina.


Co-Presidents (Fall 2020)
Shoumik Chowdhury (SY 2021)
Shoumik is a senior Mathematics and Physics major in Saybrook. He is broadly interested in quantum information science, and works on both applied theoretical and experimental research. Outside of physics, though, he enjoys reading novels, woodworking, and listening to music, as well as meeting new people (and sharing memes with them)!
Email<EMAIL_ADDRESS>Laura Zhou (BF 2022)
Laura is a junior in Benjamin Franklin College. She's majoring in physics, and potentially as well in electrical engineering. Her research interests lie broadly in AMO and quantum information. In her free time, you can find her drawing, reading manga, and hopelessly trying to develop a green thumb.
Email<EMAIL_ADDRESS>Board Members
Amanda Butler (JE 2022)
Amanda is a junior double majoring in Physics and Astronomy. She’s really excited to join the SPS board for this upcoming year, and looks forward to finding new ways of connecting Yale’s awesome physics resources with the greater campus community. During the few moments when she’s not doing p-sets, you can find Amanda cooking an unnecessary number of egg dishes, procrastinating via playlists, napping, or spontaneously beatboxing in the middle of conversations.
Giovanna Truong (MY 2023)
Outreach Co-Chair Giovanna is a sophomore this year. She is a juggler and a cartoonist, and she met everyone in the Physics Department through her work in the Yale Daily News. She is also a proud/the only member of Harris Labs Midwest. She loves, in addition to learning physics and talking to people, printing at the JE Press — but she would love it more if she could find any umlauts!
Olivia Aspegren (BF 2023)
Olivia is a sophomore in Benjamin Franklin College, majoring in Mathematics and Physics. She’s from Palo Alto, California, where few people actually own a winter jacket. Outside of physics, Olivia plays on Yale’s Club Tennis team, and enjoys running, reading science fiction and eating cookie dough in Franklin’s buttery.
Shantanu Jha (SY 2021)
Shantanu is a senior in Saybrook studying Math and Physics, with a particular affinity for quantum computation. He has research experience in terahertz telecommunication with quantum cascade lasers, quantum information theory, deep learning and superconducting circuit quantum computing. Outside of the lab, he enjoys woodworking, riddles, and all manner of media entertainment (from anime to international film).
David Saunders (HC 2023)
David is a sophomore from Toronto, Ontario planning on majoring in Astrophysics and potentially Film Studies. David is a Hopper College Aide and a part of the YUAA. In his free time, he loves writing, watching movies, stargazing, and playing basketball with his friends in Hopper!
Dawson Thomas (ES 2023)
Dawson is a rising sophomore in Ezra Stiles College (Go Moose!). He is a prospective physics or physics and mathematics major. He's from the Atlanta, GA area, which is where he will be doing his online classes this fall. In his spare time, his hobbies include music, hiking, and reading. He's super excited to serve as your SPS co-outreach chair, and he's aiming to increase involvement from younger classes and to help SPS share the joy of physics with our broader communities. Feel free to reach out with ideas and suggestions! He's looking forward to making the absolute most of this unique semester with y'all!
Jessie Chen
Jessie is a sophomore in Davenport majoring in physics and computer science. Her research interest broadly includes quantum information and particle physics. Outside of physics, you can find Jessie taking random photographs, reading and proposing crazy ideas about our universe and what to eat for dessert, or settling a feud with her little brother on PUBG.
Vuong Mai (MC 2021)
Vuong is a senior majoring in Physics & Geology, and she'd love to ramble to anyone interested in hearing about the joint geophysics program. This summer, she's gotten the chance to do some gardening, make playlists, paint, and spend time in the great outdoors. This year, Vuong will be working on her thesis in the Paleomag Lab, as well as continuing her summer project relating to geophysical inverse problems. She looks forward to getting to know everyone in the SPS this year!
Yiming Zhang (BF 2022)
Yiming is a junior in Franklin majoring in physics. He is currently a student researcher at Jack Harris lab, where he works on non-hermitian physics and quantum optomechanics. Outside physics, you can find Yiming singing as a tenor in the Yale Glee Club, taking random staged photographs, or attempting to recreate delicacies from his hometown in northwest China.


World Map
Force
This demo includes a map and force-undirected visualization to display commonly-blocked domains and blocking similarities by nation. Click on a country to see shared censored website data in other countries across the world.
To view the code for the demo, click here. To view the data that powers these visualizations, click here.


QS
Overview
Demos
Blog
About
☰
Internal Strategy
Find Some Ideas Here
Strategy Documents/Reports
Not sure what to do next? Consult the options below.


Coordinate
File Format
A GEOTRANS coordinate file consists of multiple sections. Each section consists of a header that specifies the coordinate system type and datum of the input coordinates, along with any required parameter values, followed by a sequence of input coordinate lines, with one set of coordinate values per line, with the individual coordinate values separated by commas, each followed by at least one space.
The header of a GEOTRANS coordinate file consists of two or more header lines, each containing a keyword or phrase which identifies the purpose of the line, followed by a colon ':', followed by a value. The list of supported keywords and phrases can be found in the GEOTRANS online help, under File Processing.
The coordinate system type for the input coordinates in the file is specified using either of the keywords COORDINATES or PROJECTION. The datum for the input coordinates in the file is specified using the keyword DATUM. Additional header lines are used to specify any additional required parameter values. The order of the header lines is arbitrary, but parameters are interpreted with respect to the most recent previously specified coordinate system type. If the same parameter keyword or phrase appears more than once, the new value replaces the earlier specified value. The header is terminated by a line containing the phrase 'END OF HEADER'.
If any required characteristic or parameter value is not specified in the input coordinate file header, a default value is assigned. The default coordinate system type is Geodetic, and the default datum is WGE (WGS 84). For each coordinate system type, the default parameter values used are the same as the default values that are displayed in the parameter fields in the GEOTRANS main window when that coordinate system type is first selected.
Additional "headers" can be included within the body of a GEOTRANS coordinate file to change the coordinate system, datum, and/or parameter values. The start of each additional header is indicated by a line containing the keyword "HEADER". This is followed by a sequence of header lines terminated by a line containing the phrase 'END OF HEADER'.
The header of a GEOTRANS coordinate file consists of two or more lines, each containing a key word or phrase which identifies the purpose of the line, followed by a colon ':', followed by a value. The key words and phrases that can be included in a GEOTRANS coordinate file header are:
- Geodetic
- GEOREF
- GARS
- Geocentric
- Local Cartesian
- MGRS
- USNG
- UTM
- UPS
- Albers Equal Area Conic
- Azimuthal Equidistant
- Bonne
- British National Grid
- Cassini
- Cylindrical Equal Area
- Eckert IV
- Eckert VI
- Equidistant Cylindrical
- Gnomonic
- Lambert Conformal Conic (1 Standard Parallel)
- Lambert Conformal Conic (2 Standard Parallel)
- Mercator
- Miller Cylindrical
- Mollweide
-
- Ney's (Modified Lambert Conformal Conic)
- Oblique Mercator
- Orthographic
- Polar Stereographic
- Polyconic
- Sinusoidal
- Stereographic
- Transverse Cylindrical Equal Area
- Transverse Mercator
- Van der Grinten
Following the header, the body of a GEOTRANS coordinate file consists of one or more coordinate lines, with each line containing a single set of coordinate values. A coordinate line consists of individual coordinate values separated by commas, each followed by at least one space. Additional spaces may be used for readability, such as to align columns of coordinate values. Input coordinates can take on several different forms, depending on the nature of the coordinate system or map projection being used, including:
In all cases, the coordinate value formats that may be used in a GEOTRANS coordinate file are exactly the same as the format that may be used when entering coordinates into GEOTRANS interactively.
If a third (i.e., height) coordinate is included with a pair of map projection coordinates in an input coordinate file, it will be passed through unchanged to the output coordinate file.
Comments can be included in a GEOTRANS coordinate file. Comments have no reliable internal structure; they are solely intended to convey additional information to human readers.
A comment line is indicated by a '#' as the first character. Comment lines that appear in a header are not echoed to the output file, as they are assumed to contain information that depends on the input coordinate reference system defined by that header . Comment lines that appear in the coordinate file body are echoed to the output file.
Trailing comments can be included in both the header and the body, with the exception of the COORDINATES line. A trailing comment is indicated by a '#' character within the line; all text on the line following the '#' character is considered to be a comment. Trailing comments are not echoed to the output file.
Blank lines can also be included in either the header or the body. Blank lines in the body are echoed to the output file, but blank lines in the header are not.
The coordinate files created by GEOTRANS are identical in format to the coordinate files that it reads. Thus, any coordinate file created by GEOTRANS may be subsequently used as an input coordinate file. The header of the output file is generated based on the output datum and coordinate reference frame type selections made in the GEOTRANS File Processing window. The number of lines in the output file header may not be identical to the number of lines in the input file header, especially if the number of parameters is different. Any comment lines in the input file header are not copied to the output file header.
Following the file header, one line in the output file is generated for each line in the input file. For each line in the input file containing coordinates, a line is written to the output file containing the corresponding converted coordinates. Conversion accuracy information, in the form of 90% circular error (CE), linear error (LE), and spherical error (SE) values, in meters, are appended to each output line in the form of a comment. If an error is encountered in converting the coordinates on a particular line, a comment line is written to the output file containing the appropriate error message. If a warning is encountered in converting the coordinates on a particular line, a comment line is written to the output file containing the appropriate warning message. The converted coordinates are then written on the next line. Any comment lines in the body of the input file are copied unchanged to the output file. Any blank lines in the body of the input file are also copied to the output file.
There is no standard naming convention for GEOTRANS coordinate files. Typically, file extensions such as '.TXT', or '.DAT' are used.
Note: The coordinates in the file processing examples,
unless otherwise noted, represent the border of
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.000000, 57.542221, 0
-20.000000, 57.548054, 0
-20.000000, 57.569443, 0
-20.000000, 57.653057, 0
-20.293333, 57.781387, 0
-20.528610, 57.515835, 0
-20.466667, 57.295555, 0
-20.000000, 57.542221, 0
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56944
-20.00000, 57.65306
-20.29333, 57.78139
-20.52861, 57.51584
-20.46667, 57.29556
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate input file containing Geodetic coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the coordinate type, datum and height type, which may be NO HEIGHT, ELLIPSOID HEIGHT, MSL-EGM96-15M-BL HEIGHT, MSL-EGM96-VG-NS HEIGHT, MSL-EGM84-10D-BL HEIGHT or MSL-EGM84-10D-NS HEIGHT. The input file lists the height type as ELLIPSOID HEIGHT and displays height values while the output file uses NO HEIGHT and does not display height values.
Input File:
COORDINATES: GEOREF
DATUM: WGE
# ELLIPSOID: WE
END OF HEADER
#
RENL3253300000
RENL3288300000
RENL3416700000
RENL3918300000
RENK4688342400
RENK3095028283
RENK1773332000
RENL3253300000
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56945
-20.00000, 57.65305
-20.29333, 57.78138
-20.52862, 57.51583
-20.46667, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate input file containing GEOREF coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the coordinate type and datum.
Input File:
COORDINATES: Global Area Reference System (GARS)
DATUM: WGE
# ELLIPSOID: WE
END OF HEADER
#
476FW37
476FW38
476FV41
476FU11
475FV47
476FW37
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-19.95833, 57.54167
-19.95833, 57.62500
-20.29167, 57.79167
-20.54167, 57.54167
-20.45833, 57.29167
-19.95833, 57.54167
The example above shows a GEOTRANS coordinate input file containing GARS coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the coordinate type and datum.
Geocentric
Input File:
COORDINATES: Geocentric
DATUM: WGE
# ELLIPSOID: WE
END OF HEADER
#
3217833,
5059210, -2167697 # CE90: 50, LE90: 20, SE90: 50
3217318,
5059537, -2167697 # CE90: 50, LE90: 20, SE90: 50
3215429,
5060738, -2167697 # CE90: 50, LE90: 20, SE90: 50
3208040, 5065425,
-2167697 # CE90: 50, LE90: 20, SE90: 50
3190724,
5063135, -2198184 # CE90: 50, LE90: 20, SE90: 50
3209277,
5040630, -2222596 # CE90: 50, LE90: 20, SE90: 50
3229930,
5030275, -2216172 # CE90: 50, LE90: 20, SE90: 50
3217833,
5059210, -2167697 # CE90: 50, LE90: 20, SE90: 50
Output File:
COORDINATES: Geodetic
DATUM: REU
# ELLIPSOID: IN
ELLIPSOID HEIGHT
END OF HEADER
# Mauritius
-19.98750, 57.54784, 32
# CE90: 73, LE90: 46, SE90: 80
-19.98750, 57.55367, 32
# CE90: 73, LE90: 46, SE90: 80
-19.98750, 57.57506, 33
# CE90: 73, LE90: 46, SE90: 80
-19.98750, 57.65867, 33
# CE90: 73, LE90: 46, SE90: 80
-20.28082, 57.78699, 28
# CE90: 73, LE90: 46, SE90: 80
-20.51611, 57.52148, 20
# CE90: 73, LE90: 46, SE90: 80
-20.45417, 57.30122, 19
# CE90: 73, LE90: 46, SE90: 80
-19.98750, 57.54784, 32
# CE90: 73, LE90: 46, SE90: 80
The example above shows a GEOTRANS coordinate input file containing Geocentric coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the coordinate type and datum. The above example also illustrates the use of circular, linear and spherical errors. The values in the input file indicate the accuracy of the input coordinates. The values in the output file indicate the accuracy of the output coordinates.
Input File:
COORDINATES: Local Cartesian
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
ORIGIN LONGITUDE: 57.53847
ORIGIN HEIGHT: 0
ORIENTATION: 0.00000
END OF HEADER
#
392, 29260, -67
1003, 29260, -68
3241, 29260, -68
11991, 29256, -79
25373, -3232, -51
-2361, -29261, -68
-25345, -22422, -90
392, 29260, -67
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.00000, 57.54222, 1
-20.00000, 57.54805, 0
-19.99999, 57.56944, 0
-19.99999, 57.65306, 0
-20.29333, 57.78139, 0
-20.52860, 57.51583, 0
-20.46666, 57.29555, 0
-20.00000, 57.54222, 1
The example above shows a GEOTRANS coordinate input file containing Local Cartesian coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the coordinate type, datum and parameters, which for Local Cartesian include the Origin Latitude, Origin Longitude, Origin Height, and Orientation.
Military Grid Reference System (MGRS)
Input File:
COORDINATES: Military Grid Reference System (MGRS)
DATUM: WGE
# ELLIPSOID: WE
END OF HEADER
#
40KEC5672088427
40KEC5733088425
40KEC5956788417
40KEC6831488386
40KEC8158755865
40KEC5377729936
40KEC3082536848
40KEC5672088427
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56944
-20.00000, 57.65305
-20.29333, 57.78139
-20.52861, 57.51583
-20.46667, 57.29556
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate input file containing MGRS coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the coordinate type and datum.
Input File:
COORDINATES:
DATUM: NAS-C
# ELLIPSOID: CC
END OF HEADER
#
19TDG2036420770
19TDG2145712247
19TDG2156313480
19TDG2156015331
19TDG2168516131
19TDG2036420770
Output File:
COORDINATES: Geodetic
DATUM: NAS-C
# ELLIPSOID: CC
NO HEIGHT
END OF HEADER
#
41.73667, -69.95761
41.66002, -69.94335
41.67114, -69.94224
41.68781, -69.94252
41.69503, -69.94112
41.73667, -69.95761
The example above shows a GEOTRANS coordinate input file containing USNG coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the coordinate type and datum.
Universal Transverse Mercator (UTM)
Input File:
COORDINATES: Universal Transverse Mercator (UTM)
DATUM: WGE
# ELLIPSOID: WE
END OF HEADER
#
40, S, 556720, 7788427
40, S, 557330, 7788425
40, S, 559567, 7788417
40, S, 568314, 7788386
40, S, 581587, 7755865
40, S, 553777, 7729936
40, S, 530825, 7736848
40, S, 556720, 7788427
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56944
-20.00000, 57.65305
-20.29333, 57.78139
-20.52861, 57.51583
-20.46667, 57.29556
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate input file containing Universal Transverse Mercator coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the coordinate type and datum.
Universal Polar Stereographic (UPS)
Note: The coordinates in this file processing example
are located on the border of
Input File:
COORDINATES: Universal Polar Stereographic (UPS)
DATUM: WGE
# ELLIPSOID: WE
END OF HEADER
#
N, 1557951, 1434204
N, 1573955, 1423287
N, 1581925, 1418551
N, 1586134, 1422078
N, 1586986, 1418015
N, 1604291, 1413337
N, 1606312, 1408223
N, 1612973, 1404030
N, 1623433, 1397366
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
83.53944, -38.00005
83.54833, -36.45502
83.55612, -35.71699
83.60388, -35.60750
83.57862, -35.36196
83.63250, -33.99999
83.60444, -33.63440
83.60584, -32.99997
83.60583, -31.99996
The example above shows a GEOTRANS coordinate input file containing Universal Polar Stereographic coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the coordinate type and datum.
Example 1:
Input File:
COORDINATES: Geodetic
DATUM: TOY-B1
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
# Mauritius
-20.000000, 57.542221, 0
# CE90: 50, LE90: 20, SE90: 50
-20.000000, 57.548054, 0
# CE90: 50, LE90: 20, SE90: 50
-20.000000, 57.569443, 0
# CE90: 50, LE90: 20, SE90: 50
-20.000000, 57.653057, 0
# CE90: 50, LE90: 20, SE90: 50
-20.293333, 57.781387, 0
# CE90: 50, LE90: 20, SE90: 50
-20.528610, 57.515835, 0
# CE90: 50, LE90: 20, SE90: 50
-20.466667, 57.295555, 0
# CE90: 50, LE90: 20, SE90: 50
-20.000000, 57.542221, 0
# CE90: 50, LE90: 20, SE90: 50
Output File:
PROJECTION: Albers Equal
Area Conic
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
STANDARD PARALLEL ONE:
-20.52861
STANDARD PARALLEL TWO:
-20.00000
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
788,
29982 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
1398,
29982 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
3637,
29982 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within valid
domain for current datum
12387,
29978 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
25768,
-2510 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
-1965,
-28539 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
-24948,
-21700 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
788,
29982 # CE90: Unk, LE90: Unk, SE90: Unk
The example above shows a GEOTRANS coordinate
input file containing Geodetic coordinates defined relative to the TOY-B1 (
Example 2:
Input File:
PROJECTION: Albers Equal Area Conic
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
STANDARD PARALLEL ONE: -20.52861
STANDARD PARALLEL TWO: -20.00000
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
# Warning: Input Geodetic Coordinates: Location is not within valid domain for current datum
788, 29982 #
CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic Coordinates: Location is not within valid domain for current datum
1398, 29982 #
CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic Coordinates: Location is not within valid domain for current datum
3637, 29982 #
CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic Coordinates: Location is not within valid domain for current datum
12387, 29978 #
CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic Coordinates: Location is not within valid domain for current datum
25768, -2510 #
CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic Coordinates: Location is not within valid domain for current datum
-1965, -28539 #
CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic Coordinates: Location is not within valid domain for current datum
-24948, -21700
# CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic Coordinates: Location is not within valid domain for current datum
788, 29982 #
CE90: Unk, LE90: Unk, SE90: Unk
Output File:
COORDINATES: Geodetic
DATUM: TOY-B1
# ELLIPSOID: BR
NO HEIGHT
END OF HEADER
#
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
# Warning: Output Geodetic
Coordinates: Location is not within
valid domain for current datum
-20.00000,
57.54222 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
# Warning: Output Geodetic
Coordinates: Location is not within
valid domain for current datum
-20.00000,
57.54805 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
# Warning: Output Geodetic
Coordinates: Location is not within
valid domain for current datum
-20.00000,
57.56945 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
# Warning: Output Geodetic
Coordinates: Location is not within
valid domain for current datum
-20.00000,
57.65306 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
# Warning: Output Geodetic
Coordinates: Location is not within
valid domain for current datum
-20.29332,
57.78139 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
# Warning: Output Geodetic
Coordinates: Location is not within
valid domain for current datum
-20.52860,
57.51584 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
# Warning: Output Geodetic
Coordinates: Location is not within
valid domain for current datum
-20.46666,
57.29556 # CE90: Unk, LE90: Unk, SE90: Unk
# Warning: Input Geodetic
Coordinates: Location is not within
valid domain for current datum
# Warning: Output Geodetic
Coordinates: Location is not within
valid domain for current datum
-20.00000,
57.54222 # CE90: Unk, LE90: Unk, SE90: Unk
The example above shows the GEOTRANS coordinate
file output in the previous example being used as an input file, converting
Albers Equal Area Conic coordinates defined relative to WGS 84 being converted
back to Geodetic coordinates defined
relative to the TOY-B1 (TOKYO, South Korea) local datum. The input file
header defines the projection type, datum and projection parameters, which for
Albers Equal Area Conic include the
Input File:
PROJECTION: Azimuthal Equidistant
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, 29389
1001, 29389
3236, 29389
11973, 29385
25334, -3246
-2357, -29390
-25306, -22520
392, 29389
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56944
-20.00000, 57.65306
-20.29332, 57.78138
-20.52861, 57.51584
-20.46666, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Azimuthal Equidistant
coordinates and its resulting output file
containing Geodetic coordinates. The input file header defines the
projection type, datum and projection parameters, which for Azimuthal
Equidistant include the
Input File:
PROJECTION: Bonne
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, 29260
1003, 29260
3241, 29260
11991, 29256
25373, -3232
-2361, -29261
-25345, -22422
392, 29260
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-19.99999, 57.56944
-19.99999, 57.65306
-20.29333, 57.78139
-20.52860, 57.51583
-20.46666, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Bonne coordinates and its resulting output file containing Geodetic coordinates. The
input file header defines the projection type, datum and projection parameters,
which for Bonne include the
Note: The coordinates in this file processing example
are located on the border of
Input File:
COORDINATES: British National Grid (BNG)
DATUM: OGB-7
# ELLIPSOID: AA
END OF HEADER
#
England
TA
4198014582
TA
4253713645
TA
3982110347
TA
4198014582
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
53.60857, 0.14451
53.60000, 0.15249
53.57111, 0.11000
53.60857, 0.14451
The example above shows a GEOTRANS coordinate input file containing British National Grid coordinates defined relative to the OGB-7 datum and its resulting output file containing Geodetic coordinates. The input file header defines the coordinate type and datum.
Input File:
PROJECTION:
Cassini
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, 29260
1003, 29260
3241, 29260
11991, 29256
25373, -3232
-2361, -29261
-25345, -22422
392, 29260
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-19.99999, 57.56944
-20.00000, 57.65306
-20.29333, 57.78139
-20.52860, 57.51583
-20.46666, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Cassini coordinates and its resulting output file containing Geodetic coordinates. The
input file header defines the projection type, datum and projection parameters,
which for Cassini include the
Input File:
PROJECTION: Cylindrical Equal Area
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, -2310093
1001, -2310093
3236, -2310093
11971, -2310093
25378, -2342591
-2365, -2368614
-25378, -2361766
392, -2310093
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56945
-20.00000, 57.65306
-20.29334, 57.78139
-20.52861, 57.51583
-20.46667, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Cylindrical Equal Area coordinates and its resulting
output file containing Geodetic
coordinates. The input file header defines the projection type, datum
and projection parameters, which for Cylindrical Equal Area include the
Input File:
PROJECTION: Eckert IV
DATUM: WGE
# ELLIPSOID: WE
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
344, -2601149
878, -2601149
2838, -2601149
10499, -2601149
22240, -2638325
-2071, -2668113
-22230, -2660273
344, -2601149
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56944
-20.00000, 57.65306
-20.29333, 57.78138
-20.52861, 57.51584
-20.46666, 57.29556
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Eckert IV coordinates and its resulting output file containing Geodetic coordinates. The
input file header defines the projection type, datum and projection parameters,
which for Eckert IV include the
Input File:
PROJECTION:
Eckert VI
DATUM:
WGE
# ELLIPSOID: WE
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
350, -2511873
894, -2511873
2888, -2511873
10686, -2511873
22620, -2548411
-2105, -2577707
-22600, -2569995
350, -2511873
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54806
-20.00000, 57.56944
-20.00000, 57.65305
-20.29333, 57.78138
-20.52861, 57.51584
-20.46666, 57.29556
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Eckert VI coordinates and its resulting output file containing Geodetic coordinates. The
input file header defines the projection type, datum and projection parameters,
which for Eckert VI include the
Input File:
PROJECTION: Equidistant Cylindrical
DATUM: WGE
# ELLIPSOID: WE
STANDARD PARALLEL: -20.26430
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
391, -2223901
1000, -2223901
3231, -2223901
11953, -2223901
25339, -2256518
-2361, -2282680
-25339, -2275792
391, -2223901
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54806
-20.00000, 57.56944
-20.00000, 57.65306
-20.29333, 57.78138
-20.52861, 57.51584
-20.46667, 57.29556
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Equidistant Cylindrical coordinates and its resulting
output file containing Geodetic
coordinates. The input file header defines the projection type, datum
and projection parameters, which for Equidistant Cylindrical include the
Input File:
PROJECTION: Gnomonic
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, 29390
1001, 29390
3236, 29389
11973, 29386
25335, -3246
-2357, -29390
-25306, -22521
392, 29390
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-19.99999, 57.54222
-19.99999, 57.54805
-20.00000, 57.56944
-19.99999, 57.65305
-20.29332, 57.78139
-20.52861, 57.51584
-20.46667, 57.29556
-19.99999, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Gnomonic coordinates and its resulting output file containing Geodetic coordinates. The
input file header defines the projection type, datum and projection parameters,
which for Gnomonic include the
Lambert Conformal Conic (1 Standard Parallel)
Input File:
PROJECTION:
Lambert Conformal Conic (1 Standard Parallel)
DATUM:
WGE
#
ELLIPSOID: WE
ORIGIN
LATITUDE: -20.26430
SCALE
FACTOR: 1.00000
FALSE
EASTING: 0
FALSE
NORTHING: 0
END
OF HEADER
#
392,
29260
1003,
29260
3241,
29260
11991,
29256
25373,
-3232
-2361,
-29261
-25345,
-22422
392,
29260
Output
File:
COORDINATES: Geodetic
DATUM: WGE
#
ELLIPSOID: WE
NO
HEIGHT
END
OF HEADER
#
-20.00000,
57.54222
-20.00000,
57.54805
-19.99999,
57.56944
-20.00000,
57.65305
-20.29333,
57.78139
-20.52860,
57.51583
-20.46666,
57.29555
-20.00000,
57.54222
The example above shows a GEOTRANS coordinate
input file containing Lambert Conformal Conic (1 Standard Parallel) coordinates
and its resulting output file containing Geodetic coordinates. The input file
header defines the projection type, datum and projection parameters, which for
Lambert Conformal Conic (1 Standard Parallel) include the
Lambert Conformal Conic (2 Standard Parallel)
Input File:
PROJECTION: Lambert Conformal Conic (2 Standard Parallel)
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
STANDARD PARALLEL ONE: -20.52861
STANDARD PARALLEL TWO: -20.00000
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, 29260
1003, 29260
3241, 29260
11991, 29256
25373, -3232
-2361, -29261
-25345, -22422
392, 29260
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-19.99999, 57.54222
-19.99999, 57.54805
-19.99999, 57.56944
-19.99999, 57.65306
-20.29333, 57.78139
-20.52861, 57.51583
-20.46666, 57.29555
-19.99999, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Lambert Conformal Conic (2 Standard Parallel) coordinates
and its resulting output file
containing Geodetic coordinates. The input file header defines the
projection type, datum and projection parameters, which for Lambert Conformal
Conic (2 Standard Parallel) include the
Input File:
PROJECTION: Mercator
DATUM: WGE
# ELLIPSOID: WE
LATITUDE OF TRUE SCALE: -20.26430
SCALE FACTOR: 0.93848
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, -2119489
1001, -2119489
3236, -2119489
11971, -2119489
25378, -2151939
-2365, -2178011
-25378, -2171143
392, -2119489
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56945
-20.00000, 57.65306
-20.29333, 57.78139
-20.52861, 57.51583
-20.46667, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate input file containing Mercator coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the projection type, datum and projection parameters, which for Mercator include the Central Meridian, Latitude of True Scale, Scale Factor, False Easting, and False Northing.
Input File:
PROJECTION: Miller Cylindrical
DATUM: WGE
# ELLIPSOID: WE
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
417, -2253382
1066, -2253382
3444, -2253382
12741, -2253382
27011, -2287333
-2517, -2314595
-27011, -2307415
417, -2253382
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54806
-20.00000, 57.56944
-20.00000, 57.65305
-20.29333, 57.78139
-20.52861, 57.51583
-20.46667, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Miller Cylindrical coordinates and its resulting output
file containing Geodetic coordinates.
The input file header defines the projection type, datum and projection
parameters, which for Miller Cylindrical include the
Input File:
PROJECTION: Mollweide
DATUM: WGE
# ELLIPSOID: WE
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
361, -2450843
923, -2450843
2984, -2450843
11039, -2450843
23374, -2486208
-2176, -2514556
-23358, -2507094
361, -2450843
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56944
-20.00000, 57.65306
-20.29333, 57.78138
-20.52861, 57.51583
-20.46667, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Mollweide coordinates and its
resulting output file containing
Geodetic coordinates. The input file header defines the projection type,
datum and projection parameters, which for Mollweide
include the
Note: The coordinates in this file processing example
are located on the border of
Input File:
PROJECTION:
DATUM: GEO
# ELLIPSOID: IN
END OF HEADER
#
2165829, 5392600
2163793, 5390006
2155894, 5392906
2157669, 5393192
2157770, 5393486
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-46.58992, 168.51088
-46.61222, 168.48249
-46.58223, 168.38166
-46.58055, 168.40500
-46.57796, 168.40653
The example above shows a GEOTRANS coordinate input file containing New Zealand Map Grid coordinates defined relative to the GEO datum and its resulting output file containing Geodetic coordinates. The input file header defines the projection type and datum.
Ney's (Modified Lambert Conformal Conic)
Input File:
PROJECTION: Ney's (Modified Lambert Conformal Conic)
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
STANDARD PARALLEL ONE: 71.00000
# STANDARD PARALLEL TWO: 89.99972
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
566, 42140
1447, 42140
4675, 42139
17297, 42123
36471, -4697
-3384, -42008
-36354, -32251
566, 42140
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54806
-19.99999, 57.56944
-19.99999, 57.65306
-20.29333, 57.78139
-20.52860, 57.51583
-20.46666, 57.29556
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate input file containing Ney's (Modified Lambert Conformal Conic) coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the projection type, datum and projection parameters, which for Ney's (Modified Lambert Conformal Conic) include the Central Meridian, Origin Latitude, Standard Parallel One, Standard Parallel Two (is optional, but, if listed, it must be a comment), False Easting, and False Northing.
Input File:
PROJECTION: Oblique Mercator
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
LATITUDE ONE: -20.52861
LONGITUDE ONE: 57.29556
LATITUDE TWO: -20.00000
LONGITUDE TWO: 57.78139
SCALE FACTOR: 1.00000
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
333, 29260
943, 29260
3182, 29260
11932, 29256
25314, -3232
-2420, -29261
-25404, -22422
333, 29260
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54223
-20.00000, 57.54806
-19.99999, 57.56946
-20.00000, 57.65307
-20.29333, 57.78140
-20.52860, 57.51585
-20.46666, 57.29557
-20.00000, 57.54223
The example above shows a GEOTRANS coordinate input file containing Oblique Mercator coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the projection type, datum and projection parameters, which for Oblique Mercator include the Origin Latitude, Latitude 1, Longitude 1, Latitude 2, Longitude 2, Scale Factor, False Easting, and False Northing.
Input File:
PROJECTION: Orthographic
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, 29389
1001, 29389
3236, 29389
11973, 29385
25334, -3246
-2357, -29389
-25306, -22520
392, 29389
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56944
-20.00000, 57.65306
-20.29332, 57.78138
-20.52860, 57.51584
-20.46666, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Orthographic coordinates and its resulting output file containing Geodetic coordinates. The
input file header defines the projection type, datum and projection parameters,
which for Orthographic include the
Note: The coordinates in this file processing example
are located on the border of
Input File:
PROJECTION: Polar Stereographic
DATUM: WGE
# ELLIPSOID: WE
LONGITUDE DOWN FROM POLE: -40.00000
LATITUDE OF TRUE SCALE: 73.00000
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
24659, -706133
43628, -704239
52632, -702768
53574, -697446
60990, -711259
56786, -699971
72790, -692551
77548, -695128
85222, -694075
97322, -692482
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
83.53944, -37.99998
83.54833, -36.45502
83.55611, -35.71698
83.60389, -35.60748
83.47278, -35.09891
83.57861, -35.36197
83.63250, -34.00000
83.60444, -33.63444
83.60584, -32.99998
83.60584, -32.00000
The example above shows a GEOTRANS coordinate input file containing Polar Stereographic coordinates and its resulting output file containing Geodetic coordinates. The input file header defines the projection type, datum and projection parameters, which for Polar Stereographic include the Longitude Down From Pole, Latitude of True Scale, False Easting, and False Northing.
Input File:
PROJECTION: Polyconic
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, 29260
1003, 29260
3241, 29260
11991, 29256
25373, -3232
-2361, -29261
-25345, -22422
392, 29260
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-19.99999, 57.56944
-20.00000, 57.65306
-20.29333, 57.78139
-20.52860, 57.51583
-20.46666, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Polyconic coordinates and its
resulting output file containing
Geodetic coordinates. The input file header defines the projection type,
datum and projection parameters, which for Polyconic
include the
Input File:
PROJECTION: Sinusoidal
DATUM: WGE
# ELLIPSOID: WE
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, -2212366
1003, -2212366
3241, -2212366
11991, -2212366
25373, -2244840
-2361, -2270887
-25345, -2264030
392, -2212366
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56944
-20.00000, 57.65306
-20.29333, 57.78139
-20.52861, 57.51583
-20.46667, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Sinusoidal coordinates and its resulting output file containing Geodetic coordinates. The
input file header defines the projection type, datum and projection parameters,
which for Sinusoidal include the
Input File:
PROJECTION: Stereographic
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, 29389
1001, 29389
3236, 29389
11973, 29385
25334, -3246
-2357, -29390
-25306, -22520
392, 29389
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56944
-20.00000, 57.65306
-20.29332, 57.78138
-20.52861, 57.51584
-20.46666, 57.29556
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Stereographic coordinates and its resulting output file containing Geodetic coordinates. The
input file header defines the projection type, datum and projection parameters,
which for Stereographic include the
Transverse Cylindrical Equal Area
Input File:
PROJECTION: Transverse Cylindrical Equal Area
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
SCALE FACTOR: 1.00000
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, 29260
1003, 29260
3241, 29260
11991, 29256
25373, -3232
-2361, -29261
-25345, -22422
392, 29260
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-19.99999, 57.56944
-20.00000, 57.65306
-20.29333, 57.78139
-20.52860, 57.51583
-20.46666, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Transverse Cylindrical Equal Area coordinates and its
resulting output file containing
Geodetic coordinates. The input file header defines the projection type,
datum and projection parameters, which for Transverse Cylindrical Equal Area
include the
Input File:
PROJECTION: Transverse Mercator
DATUM: WGE
# ELLIPSOID: WE
ORIGIN LATITUDE: -20.26430
SCALE FACTOR: 1.00000
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
392, 29260
1003, 29260
3241, 29260
11991, 29256
25373, -3232
-2361, -29261
-25345, -22422
392, 29260
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-19.99999, 57.56944
-20.00000, 57.65306
-20.29333, 57.78139
-20.52860, 57.51583
-20.46666, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Transverse Mercator coordinates and its resulting output
file containing Geodetic coordinates.
The input file header defines the projection type, datum and projection
parameters, which for Transverse Mercator include the
Input File:
PROJECTION:
Van der Grinten
DATUM:
WGE
# ELLIPSOID: WE
FALSE EASTING: 0
FALSE NORTHING: 0
END OF HEADER
#
412, -2252056
1052, -2252056
3400, -2252056
12580, -2252056
26659, -2285953
-2483, -2313169
-26653, -2306002
412, -2252056
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
-20.00000, 57.54222
-20.00000, 57.54805
-20.00000, 57.56944
-20.00000, 57.65306
-20.29333, 57.78139
-20.52861, 57.51584
-20.46667, 57.29555
-20.00000, 57.54222
The example above shows a GEOTRANS coordinate
input file containing Van der Grinten
coordinates and its resulting output file
containing Geodetic coordinates. The input file header defines the
projection type, datum and projection parameters, which for Van der Grinten include the
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.000000, 57.542221, 0
-20.000000, 57.548054, 0
-20.000000, 57.569443, 0
-20.000000, 57.653057, 0
-20.293333, 57.781387, 0
-20.528610, 57.515835, 0
-20.466667, 57.295555, 0
-20.000000, 57.542221, 0
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
20/0/0.0S, 57/32/32.0E, 0
20/0/0.0S, 57/32/53.0E, 0
20/0/0.0S, 57/34/10.0E, 0
20/0/0.0S, 57/39/11.0E, 0
20/17/36.0S, 57/46/53.0E, 0
20/31/43.0S, 57/30/57.0E, 0
20/28/0.0S, 57/17/44.0E, 0
20/0/0.0S, 57/32/32.0E, 0
The
example above shows a GEOTRANS coordinate input file and its resulting output
file containing Geodetic coordinates formatted with the following options: Geodetic
Units Degrees/Minutes/Seconds, Geodetic Separator DD/MM/SS, Sign /
Hemisphere N/S, E/W, Longitude Range {-180, 180}, and Precision 1m 0.1
Second.
Degrees:Minutes:
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.000000, 57.542221, 0
-20.000000, 57.548054, 0
-20.000000, 57.569443, 0
-20.000000, 57.653057, 0
-20.293333, 57.781387, 0
-20.528610, 57.515835, 0
-20.466667, 57.295555, 0
-20.000000, 57.542221, 0
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
20:0.000S, 57:32.533E, 0
20:0.000S, 57:32.883E, 0
20:0.000S, 57:34.167E, 0
20:0.000S, 57:39.183E, 0
20:17.600S, 57:46.883E, 0
20:31.717S, 57:30.950E, 0
20:28.000S, 57:17.733E, 0
20:0.000S, 57:32.533E, 0
The
example above shows a GEOTRANS coordinate input file and its resulting output
file containing Geodetic coordinates formatted with the following options: Geodetic
Units Degrees/Minutes, Geodetic Separator DD:MM:SS, Sign / Hemisphere
N/S, E/W, Longitude Range {-180, 180}, and Precision 1m 0.1 Second.
Degrees Minutes Seconds:
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.000000, 57.542221, 0
-20.000000, 57.548054, 0
-20.000000, 57.569443, 0
-20.000000, 57.653057, 0
-20.293333, 57.781387, 0
-20.528610, 57.515835, 0
-20.466667, 57.295555, 0
-20.000000, 57.542221, 0
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
20 0 0.0S, 57 32 32.0E, 0
20 0 0.0S, 57 32 53.0E, 0
20 0 0.0S, 57 34 10.0E, 0
20 0 0.0S, 57 39 11.0E, 0
20 17 36.0S, 57 46 53.0E, 0
20 31 43.0S, 57 30 57.0E, 0
20 28 0.0S, 57 17 44.0E, 0
20 0 0.0S, 57 32 32.0E, 0
The example above shows a GEOTRANS coordinate input file and its resulting output file containing Geodetic coordinates formatted with the following options: Geodetic Units Degrees/Minutes/Seconds, Geodetic Separator DD MM SS, Sign / Hemisphere N/S, E/W, Longitude Range {-180, 180}, and Precision 1m 0.1 Second.
Degrees Minutes Seconds with 1 Degree
Precision:
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
NO HEIGHT
END OF HEADER
#
83.53944, -37.99998
83.54833, -36.45502
83.55611, -35.71698
83.60389, -35.60748
83.47278, -35.09891
83.57861, -35.36197
83.63250, -34.00000
83.60444, -33.63444
83.60584, -32.99998
83.60584, -32.00000
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
# Greenland
84N, 322E, 0
84N, 324E, 0
84N, 324E, 0
84N, 324E, 0
83N, 325E, 0
84N, 325E, 0
84N, 326E, 0
84N, 326E, 0
84N, 327E, 0
84N, 328E, 0
The
example above shows a GEOTRANS coordinate input file and its resulting output
file containing Geodetic coordinates formatted with the following options: Geodetic
Units Degrees, Geodetic Separator DD MM SS, Sign / Hemisphere N/S, E/W,
Longitude Range {0, 360}, and Precision 100,000m 1 Degree.
Degrees Minutes Seconds with 10 Minute
Precision:
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.000000, 57.542221, 0
-20.000000, 57.548054, 0
-20.000000, 57.569443, 0
-20.000000, 57.653057, 0
-20.293333, 57.781387, 0
-20.528610, 57.515835, 0
-20.466667, 57.295555, 0
-20.000000, 57.542221, 0
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
20.0S, 57.5E, 0
20.0S, 57.5E, 0
20.0S, 57.6E, 0
20.0S, 57.7E, 0
20.3S, 57.8E, 0
20.5S, 57.5E, 0
20.5S, 57.3E, 0
20.0S, 57.5E, 0
The
example above shows a GEOTRANS coordinate input file and its resulting output
file containing Geodetic coordinates formatted with the following options: Geodetic
Units Degrees, Geodetic Separator DD MM SS, Sign / Hemisphere N/S, E/W,
Longitude Range {-180, 180}, and Precision 10,000m 10 Minutes.
Degrees with 1 Minute Precision:
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.000000, 57.542221, 0
-20.000000, 57.548054, 0
-20.000000, 57.569443, 0
-20.000000, 57.653057, 0
-20.293333, 57.781387, 0
-20.528610, 57.515835, 0
-20.466667, 57.295555, 0
-20.000000, 57.542221, 0
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
20.00S, 57.54E, 0
20.00S, 57.55E, 0
20.00S, 57.57E, 0
20.00S, 57.65E, 0
20.29S, 57.78E, 0
20.53S, 57.52E, 0
20.47S, 57.30E, 0
20.00S, 57.54E, 0
The
example above shows a GEOTRANS coordinate input file and its resulting output
file containing Geodetic coordinates formatted with the following options: Geodetic
Units Degrees, Geodetic Separator DD MM SS, Sign / Hemisphere N/S, E/W,
Longitude Range {-180, 180}, and Precision 1,000m 1 Minute.
Degrees with 10 Second Precision:
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.000000, 57.542221, 0
-20.000000, 57.548054, 0
-20.000000, 57.569443, 0
-20.000000, 57.653057, 0
-20.293333, 57.781387, 0
-20.528610, 57.515835, 0
-20.466667, 57.295555, 0
-20.000000, 57.542221, 0
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
20.000S, 57.542E, 0
20.000S, 57.548E, 0
20.000S, 57.569E, 0
20.000S, 57.653E, 0
20.293S, 57.781E, 0
20.529S, 57.516E, 0
20.467S, 57.296E, 0
20.000S, 57.542E, 0
The
example above shows a GEOTRANS coordinate input file and its resulting output
file containing Geodetic coordinates formatted with the following options: Geodetic
Units Degrees, Geodetic Separator DD MM SS, Sign / Hemisphere N/S, E/W,
Longitude Range {-180, 180}, and Precision 100m 10 Seconds.
Degrees with 1 Second Precision:
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.000000, 57.542221, 0
-20.000000, 57.548054, 0
-20.000000, 57.569443, 0
-20.000000, 57.653057, 0
-20.293333, 57.781387, 0
-20.528610, 57.515835, 0
-20.466667, 57.295555, 0
-20.000000, 57.542221, 0
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
20.0000S, 57.5422E, 0
20.0000S, 57.5481E, 0
20.0000S, 57.5694E, 0
20.0000S, 57.6531E, 0
20.2933S, 57.7814E, 0
20.5286S, 57.5158E, 0
20.4667S, 57.2956E, 0
20.0000S, 57.5422E, 0
The
example above shows a GEOTRANS coordinate input file and its resulting output
file containing Geodetic coordinates formatted with the following options: Geodetic
Units Degrees, Geodetic Separator DD MM SS, Sign / Hemisphere N/S, E/W,
Longitude Range {-180, 180}, and Precision 10m 1 Second.
Degrees with 0.01 Second Precision:
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.000000, 57.542221, 0
-20.000000, 57.548054, 0
-20.000000, 57.569443, 0
-20.000000, 57.653057, 0
-20.293333, 57.781387, 0
-20.528610, 57.515835, 0
-20.466667, 57.295555, 0
-20.000000, 57.542221, 0
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
20.000000S, 57.542221E, 0.0
20.000000S, 57.548054E, 0.0
20.000000S, 57.569443E, 0.0
20.000000S, 57.653057E, 0.0
20.293333S, 57.781387E, 0.0
20.528610S, 57.515835E, 0.0
20.466667S, 57.295555E, 0.0
20.000000S, 57.542221E, 0.0
The
example above shows a GEOTRANS coordinate input file and its resulting output
file containing Geodetic coordinates formatted with the following options: Geodetic
Units Degrees, Geodetic Separator DD MM SS, Sign / Hemisphere N/S, E/W,
Longitude Range {-180, 180}, and Precision 0.1m 0.01 Second.
Degrees with 0.001 Second Precision:
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.000000, 57.542221, 0
-20.000000, 57.548054, 0
-20.000000, 57.569443, 0
-20.000000, 57.653057, 0
-20.293333, 57.781387, 0
-20.528610, 57.515835, 0
-20.466667, 57.295555, 0
-20.000000, 57.542221, 0
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
20.0000000S, 57.5422210E, 0.00
20.0000000S, 57.5480540E, 0.00
20.0000000S, 57.5694430E, 0.00
20.0000000S, 57.6530570E, 0.00
20.2933330S, 57.7813870E, 0.00
20.5286100S, 57.5158350E, 0.00
20.4666670S, 57.2955550E, 0.00
20.0000000S, 57.5422210E, 0.00
The
example above shows a GEOTRANS coordinate input file and its resulting output
file containing Geodetic coordinates formatted with the following options: Geodetic
Units Degrees, Geodetic Separator DD MM SS, Sign / Hemisphere N/S, E/W,
Longitude Range {-180, 180}, and Precision 0.01m 0.001 Second.
Degrees with 0.0001 Second Precision:
Input File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
-20.000000, 57.542221, 0
-20.000000, 57.548054, 0
-20.000000, 57.569443, 0
-20.000000, 57.653057, 0
-20.293333, 57.781387, 0
-20.528610, 57.515835, 0
-20.466667, 57.295555, 0
-20.000000, 57.542221, 0
Output File:
COORDINATES: Geodetic
DATUM: WGE
# ELLIPSOID: WE
ELLIPSOID HEIGHT
END OF HEADER
#
20.00000000S, 57.54222100E, 0.000
20.00000000S, 57.54805400E, 0.000
20.00000000S, 57.56944300E, 0.000
20.00000000S, 57.65305700E, 0.000
20.29333300S, 57.78138700E, 0.000
20.52861000S, 57.51583500E, 0.000
20.46666700S, 57.29555500E, 0.000
20.00000000S, 57.54222100E, 0.000
The
example above shows a GEOTRANS coordinate input file and its resulting output
file containing Geodetic coordinates formatted with the following options: Geodetic
Units Degrees, Geodetic Separator DD MM SS, Sign / Hemisphere N/S, E/W,
Longitude Range {-180, 180}, and Precision 0.001m 0.0001 Second.


This section is Your income and regular money
{% if thirdparty %}Does {firstname} get another pension?
{% else %}Benefits you need to tell us about
{% endif %}We will only ask you benefits that will affect the outcome of your claim
Select all that apply
Select all that apply
Select all that apply
Select all that apply


Composit Views
Composit views are lists of available values that can then be used to
get lists of eprint ids. These are the lists typically found in the
“Browse” page of EPrints.
- ‘/{REPO_ID}/year’ returns a list of years that eprint records
cover
- ‘/{REPO_ID}/year/{YEAR}’ returns a list of eprint ids related to
year
- ‘/{REPO_ID}/person’ returns a list of objects with a person id
attribute s and relationship that are in eprint records. E.g.
‘{“peron_id”: “Doe-J”: “is_a”: [ “creator”, “contributor” ]}’
- ‘/{REPO_ID}/person/{PERSON_ID}’ returns a list of eprint ids related
to person id, maybe related as creator, editor, contributor, advisor or
committee member.
- ‘/{REPO_ID}/collection’ returns a list of collection id
- ‘/{REPO_ID}/collection/{COLLECTION}’ returns a list eprint ids
associated with the collection id
- ‘/{REPO_ID}/type’ returns a list of document types in
repository
- ‘/{REPO_ID}/type/{TYPE}’ returns a list eprint id associated with
document types in repository
- ‘/{REPO_ID}/publications’ returns a list of publications
- ‘/{REPO_ID}/publications/{PUBLICATION}’ returns a list eprint id of
publications
- ‘/{REPO_ID}/publisher’ returns a list of publisher
- ‘/{REPO_ID}/publisher/{PUBLISHER}’ returns a list eprint id of
publisher


PaymentController
public final class PaymentController
The payment controller controls the flow of a payment from start to finish. This is the entry point for a custom integration, and provides you with access to all payment related information required to build your own UI.
-
Initializes the payment controller.
Declaration
Swift
public init(delegate: PaymentControllerDelegate)
Parameters
delegate
The delegate of the payment controller.
-
The delegate of the payment controller.
Declaration
Swift
public private(set) weak var delegate: PaymentControllerDelegate!
-
The current payment session. This value is set after a payment session is returned in the delegate’s
requestPaymentSession(withToken:for: responseHandler:)
.Declaration
Swift
public private(set) var paymentSession: PaymentSession?
-
Starts the payment flow.
Declaration
Swift
public func start()
-
Cancels the payment flow.
Declaration
Swift
public func cancel()
-
Deletes a stored payment method.
Declaration
Swift
public func deleteStoredPaymentMethod(_ paymentMethod: PaymentMethod, completion: @escaping Completion<Result<Void>>)
Parameters
paymentMethod
The payment method to delete. This should be a payment method in the current payment session’s stored payment methods array.
completion
A closure invoked when the deletion is completed.


FlexNav is a fixed responsive navbar made with flexbox. Its purpose is to be easy to add to your site, simply by copying the css file and the html navigation. It's also made to be lightweight, meaning no jQuery or other unnecessary stuff. I created this navbar for my own use so that I didn't have to go through the pain of making a new responsive navbar for every site.
It's really simple to get started, all you need to do is to copy the flexnav.css and script.js file and put it into your own site. After that you copy this HTML:

FlexNav

MENU

Home

News

Contact

About

and put it at the top of your body section.
The navigation is based on a few different layers.
This is the white background of the nav that spans across the whole width of the page. It encapsulates the whole navigation.
I use this part to switch between column
and row
when displaying the navbar on different screen sizes. Column for mobiles, row for desktops. It's also where the width of the navbar is set. Right now the max-width of the navbar is 1000px, but this can be changed of course to fit your needs.
This is where the logo (right now it's just text) is located.
nav-ul
adds styling to the navigation items while hide-ul
toggles the mobile menu on and off if you click the menu button.
This navigation is a work in progress and there's still a lot of things to iron out. I still haven't done much testing of how it actually works when implementing it on a variety of sites, so use with caution. My plan is to keep making it more stable and efficient until it will be an easy Plug & Play menu usable on all sites. I'm also planning on making it easy to change the styling of the menu.


import _ from 'lodash';
import _ from 'lodash';
Helper function to correctly set up the prototype chain for subclasses.
Similar to goog.inherits
, but uses a hash of prototype properties and
class properties to be extended.
export default function extend(protoProps, staticProps) {
const parent = this;
let child;
The constructor function for the new subclass is either defined by you
(the “constructor” property in your extend
definition), or defaulted
by us to simply call the parent constructor.
if (protoProps && _.has(protoProps, 'constructor')) {
child = protoProps.constructor;
Set the prototype chain to inherit from parent
, without calling
parent
‘s constructor function and add the prototype properties.
child.prototype = _.create(parent.prototype, protoProps);
child.prototype.constructor = child;
} else {
child = class extends parent {};
Add the prototype properties.
Object.assign(child, protoProps);
}
Add static properties to the constructor function, if supplied.
_.extend(child, parent, staticProps);
Set a convenience property in case the parent’s prototype is needed later.
child.__super__ = parent.prototype;
return child;
}


|
SX126x-Arduino
2.0.1
|
Go to the source code of this file.
Functions | |
| void | SX126xIoInit (void) |
| Initializes the radio I/Os pins interface. More... | |
| void | SX126xIoReInit (void) |
| Initializes the radio I/Os pins interface after deep sleep wake. More... | |
| void | SX126xIoIrqInit (DioIrqHandler dioIrq) |
| Initializes DIO IRQ handlers. More... | |
| void | SX126xIoDeInit (void) |
| De-initializes the radio I/Os pins interface. More... | |
| void | SX126xReset (void) |
| HW Reset of the radio. More... | |
| void | SX126xWaitOnBusy (void) |
| Blocking loop to wait while the Busy pin in high. More... | |
| void | SX126xWakeup (void) |
| Wakes up the radio. More... | |
| void | SX126xWriteCommand (RadioCommands_t opcode, uint8_t *buffer, uint16_t size) |
| Send a command that write data to the radio. More... | |
| void | SX126xReadCommand (RadioCommands_t opcode, uint8_t *buffer, uint16_t size) |
| Send a command that read data from the radio. More... | |
| void | SX126xWriteRegister (uint16_t address, uint8_t value) |
| Write a single byte of data to the radio memory. More... | |
| uint8_t | SX126xReadRegister (uint16_t address) |
| Read a single byte of data from the radio memory. More... | |
| void | SX126xSetRfTxPower (int8_t power) |
| Sets the radio output power. More... | |
| uint8_t | SX126xGetPaSelect (uint32_t channel) |
| Gets the board PA selection configuration. More... | |
| void | SX126xAntSwOn (void) |
| Initializes the RF Switch I/Os pins interface. More... | |
| void | SX126xAntSwOff (void) |
| De-initializes the RF Switch I/Os pins interface. More... | |
| void | SX126xRXena (void) |
| Set the RF antenna switch to receiving mode. More... | |
| void | SX126xTXena (void) |
| Set the RF antenna switch to transmitting mode. More... | |
| bool | SX126xCheckRfFrequency (uint32_t frequency) |
| Checks if the given RF frequency is supported by the hardware. More... | |
| void | SX126xGetStats (uint16_t *nb_pkt_received, uint16_t *nb_pkt_crc_error, uint16_t *nb_pkt_length_error) |
| Gets info on the number of packets received. More... | |
| void | SX126xResetStats (void) |
| Resets values read by GetStats. More... | |
Variables | |
| SX126x_t | SX126x |
| Radio hardware and global parameters. More... | |
| void SX126xIoInit | ( | void | ) |
Initializes the radio I/Os pins interface.
| void SX126xIoReInit | ( | void | ) |
Initializes the radio I/Os pins interface after deep sleep wake.
| void SX126xIoIrqInit | ( | DioIrqHandler | dioIrq | ) |
Initializes DIO IRQ handlers.
| dioIrq | Array containing the IRQ callback functions |
| void SX126xIoDeInit | ( | void | ) |
De-initializes the radio I/Os pins interface.
| void SX126xReset | ( | void | ) |
HW Reset of the radio.
| void SX126xWaitOnBusy | ( | void | ) |
Blocking loop to wait while the Busy pin in high.
| void SX126xWakeup | ( | void | ) |
Wakes up the radio.
| void SX126xWriteCommand | ( | RadioCommands_t | opcode, |
| uint8_t * | buffer, | ||
| uint16_t | size | ||
| ) |
Send a command that write data to the radio.
| opcode | Opcode of the command |
| buffer | Buffer to be send to the radio |
| size | Size of the buffer to send |
| void SX126xReadCommand | ( | RadioCommands_t | opcode, |
| uint8_t * | buffer, | ||
| uint16_t | size | ||
| ) |
Send a command that read data from the radio.
| opcode | Opcode of the command |
| buffer | Buffer holding data from the radio |
| size | Size of the buffer |
| void SX126xWriteRegister | ( | uint16_t | address, |
| uint8_t | value | ||
| ) |
Write a single byte of data to the radio memory.
| address | The address of the first byte to write in the radio |
| value | The data to be written in radio's memory |
| uint8_t SX126xReadRegister | ( | uint16_t | address | ) |
Read a single byte of data from the radio memory.
| address | The address of the first byte to write in the radio |
| value | The value of the byte at the given address in radio's memory |
| void SX126xSetRfTxPower | ( | int8_t | power | ) |
Sets the radio output power.
| power | Sets the RF output power |
| uint8_t SX126xGetPaSelect | ( | uint32_t | channel | ) |
Gets the board PA selection configuration.
| channel | Channel frequency in Hz |
| PaSelect | RegPaConfig PaSelect value |
| void SX126xAntSwOn | ( | void | ) |
Initializes the RF Switch I/Os pins interface.
| void SX126xAntSwOff | ( | void | ) |
De-initializes the RF Switch I/Os pins interface.
| void SX126xRXena | ( | void | ) |
Set the RF antenna switch to receiving mode.
| void SX126xTXena | ( | void | ) |
Set the RF antenna switch to transmitting mode.
| bool SX126xCheckRfFrequency | ( | uint32_t | frequency | ) |
Checks if the given RF frequency is supported by the hardware.
| frequency | RF frequency to be checked |
| isSupported | [true: supported, false: unsupported] |
| void SX126xGetStats | ( | uint16_t * | nb_pkt_received, |
| uint16_t * | nb_pkt_crc_error, | ||
| uint16_t * | nb_pkt_length_error | ||
| ) |
Gets info on the number of packets received.
| nb_pkt_received | Number of received packets with CRC OK |
| nb_pkt_crc_error | Number of received packets with CRC error |
| nb_pkt_length_error | Number of received packets with length error |
| void SX126xResetStats | ( | void | ) |
Resets values read by GetStats.
| SX126x_t SX126x |
Radio hardware and global parameters.
Radio hardware and global parameters


array classkit_import ( string $filename )
Note: This function cannot be used to manipulate the currently running (or chained) method.
Warning: This function is EXPERIMENTAL. The behaviour of this function, its name, and surrounding documentation may change without notice in a future release of PHP. This function should be used at your own risk.
Associative array of imported methods


End Point
Api Key
You may got the above value from Portal
Apply End Point
Token
Username
Email
Password
Login
Create user
Logout
Fetch Users
Fetch Unread Count
Conversation
Message
Talk to User
Username 1
Username 2
Username 3
Create group with above user
Fetch Converstions
Conversation ID
Go to conversation
Delete


{% extends 'base.html' %} {% block head %}
Willy List
For the fast-paced professional
What ya doing today, buddy?


The Tiaquin Hotel
Home
Suites
Activities
Sign out
booking
Restraunt
You have booked...
Cost:
All Payments can be made at the Hotel Reception area!
Submit


We give you what you want!
Sweet pizza is a small family business that has been operating over three generations starting from 1960 to date with the aim of satisfying its customers with the best pizza.
We started the business from a typical door to door services to now having different branches all over the country serving more than 3000 happy customers a week.
As a long time serving institution, we have been able to pocket alot of awards voted by our loyal customers and in the process we have been able to host some of the greatest events.
Runners up to the world luxury restaurant awards
We won the wotld resruarant awards
Our reatuarant became the winner or the 2020 irish restuarant award
Winners of the wolt award 2019
Our branches are all over the country with our main branch in Kisumu opposite kisumu polytechnic.


{% extends "kishore/auth/base.html" %} {% load i18n %} {% block auth_title %}Thanks{% endblock auth_title %} {% block auth_content %}
{% trans "Email with password reset instructions has been sent." %}


TypeUtility is a static class containing methods that aid in type
introspection and reflection.
public static function getClass(item:*):Class
Parameters
Returns
public static function getClassDescription(className:String):XML
Gets the xml description of a class through a call to the
flash.utils.describeType method. Results are cached, so only the first
call will impact performance.
Parameters
| className:String — The name of the class to describe.
|
Returns
| XML — The xml description of the class.
|
public static function getClassFromName(className:String):Class
Returns the Class object for the given class.
Parameters
| className:String — The fully qualified name of the class being looked up.
|
Returns
| Class — The Class object of the specified class, or null if wasn't found.
|
public static function getFieldType(object:*, field:String):String
Gets the type of a field as a string for a specific field on an object.
Parameters
| object:* — The object on which the field exists.
|
| |
| field:String — The name of the field whose type is being looked up.
|
Returns
| String — The fully qualified name of the type of the specified field, or
null if the field wasn't found.
|
public static function getObjectClassName(object:*):String
Returns the fully qualified name of the type
of the passed in object.
Parameters
| object:* — The object whose type is being retrieved.
|
Returns
| String — The name of the specified object's type.
|
public static function getTypeDescription(object:*):XML
Gets the xml description of an object's type through a call to the
flash.utils.describeType method. Results are cached, so only the first
call will impact performance.
Parameters
| object:* — The object to describe.
|
Returns
| XML — The xml description of the object.
|
public static function getTypeHint(object:*, field:String):String
Determine the type, specified by metadata, for a container class like an Array.
Parameters
Returns
public static function instantiate(className:String, suppressError:Boolean = false):*
Creates an instance of a type based on its name.
Parameters
| className:String — The name of the class to instantiate.
|
| |
| suppressError:Boolean (default = false )
|
Returns
| * — An instance of the class, or null if instantiation failed.
|
public static function isDynamic(object:*):Boolean
Determines if an object is an instance of a dynamic class.
Parameters
| object:* — The object to check.
|
Returns
| Boolean — True if the object is dynamic, false otherwise.
|
public static function registerInstantiator(typeName:String, instantiator:Function):void
Registers a function that will be called when the specified type needs to be
instantiated. The function should return an instance of the specified type.
Parameters
| typeName:String — The name of the type the specified function should handle.
|
| |
| instantiator:Function — The function that instantiates the specified type.
|
http://pushbuttonengine.com/


Manages the ESP's connection to the Wifi network.
More...
#include <networking.h>
|
| | Networking (String config_path, String ssid, String password, String hostname) |
| |
| void | setup () |
| |
| ObservableValue< String > * | get_hostname () |
| |
| virtual void | get_configuration (JsonObject &doc) override final |
| |
| virtual bool | set_configuration (const JsonObject &config) override final |
| |
| virtual String | get_config_schema () override |
| |
| void | reset_settings () |
| |
| | Configurable (String config_path) |
| |
| virtual void | save_configuration () |
| |
| | ValueProducer () |
| |
| virtual const WifiState & | get () const |
| |
| void | connect_to (ValueConsumer< WifiState > *consumer, uint8_t input_channel=0) |
| |
| Transform< WifiState, T2 > * | connect_to (Transform< WifiState, T2 > *consumer_producer, uint8_t input_channel=0) |
| |
| void | connectTo (ValueConsumer< WifiState > *consumer, uint8_t input_channel=0) |
| |
| Transform< WifiState, T2 > * | connectTo (Transform< WifiState, T2 > *consumer_producer, uint8_t input_channel=0) |
| |
| void | emit (WifiState new_value) |
| |
| | Observable () |
| |
| | Observable (Observable &&other) |
| | Move constructor. More...
|
| |
| void | notify () |
| |
| void | attach (std::function< void()> observer) |
| |
Manages the ESP's connection to the Wifi network.
Definition at line 28 of file networking.h.
◆ Networking()
| Networking::Networking |
( |
String |
config_path, |
|
|
String |
ssid, |
|
|
String |
password, |
|
|
String |
hostname |
|
) |
| |
◆ get_config_schema()
| String Networking::get_config_schema |
( |
| ) |
|
|
overridevirtual |
◆ get_configuration()
| void Networking::get_configuration |
( |
JsonObject & |
configObject | ) |
|
|
finaloverridevirtual |
Returns the current configuration data as a JsonObject. In general, the current state of local member variables are saved to a new object created with JsonDocument::as<JsonObject>() and returned.
Reimplemented from Configurable.
Definition at line 189 of file networking.cpp.
◆ get_hostname()
◆ reset_settings()
| void Networking::reset_settings |
( |
| ) |
|
◆ set_configuration()
| bool Networking::set_configuration |
( |
const JsonObject & |
config | ) |
|
|
finaloverridevirtual |
Sets the current state of local member variables using the data stored in config.
Reimplemented from Configurable.
Definition at line 193 of file networking.cpp.
◆ setup()
| void Networking::setup |
( |
| ) |
|
◆ setup_saved_ssid()
| void Networking::setup_saved_ssid |
( |
| ) |
|
|
protected |
◆ setup_wifi_callbacks()
| void Networking::setup_wifi_callbacks |
( |
| ) |
|
|
protected |
◆ setup_wifi_manager()
| void Networking::setup_wifi_manager |
( |
| ) |
|
|
protected |
◆ wifi_station_connected()
| void Networking::wifi_station_connected |
( |
| ) |
|
|
protected |
◆ wifi_station_disconnected()
| void Networking::wifi_station_disconnected |
( |
| ) |
|
|
protected |
The documentation for this class was generated from the following files:


Some Windows systems still allow users to query for logged in users via the NetBIOS queries. The information can be queried using the native nbtstat tool. The user name is indicated by “<03>” in the nbtstat results.
- Below is another quick and dirty Windows command line script that will scan remote systems for active Domain Admins sessions. Note: The script can be ran as a non-domain user.
- for /F %i in (ips.txt) do @echo [+] Checking %i && nbtstat -A %i 2>NUL >nbsessions.txt && FOR /F %n in (admins.txt) DO @type nbsessions.txt | findstr /I %n > NUL && echo [!] %n was found logged into %i
- You can also use the nbtscan tool which runs a little faster. It can be downloaded here. Another basic script example is below.
- for /F %i in (ips.txt) do @echo [+] Checking %i && nbtscan -f %i 2>NUL >nbsessions.txt && FOR /F %n in (admins.txt) DO @type nbsessions.txt | findstr /I %n > NUL && echo [!] %n was found logged into %i


@FunctionalInterface public interface InterruptHandler
Interrupts provide a way to send signals to the current pending Promise
given a Future
composition. It is a mechanism that enables cancellations. For instance, given this composition that involves an async boundary (userService.get
) and a continuation (.map
):
Future<String> username =
userService.get(userId).map(user -> user.username);
It is possible to raise an interrupt that is received by the userService.get
Promise
:
username.raise(new TimeoutException);
The Promise
created by userService.get
can define a custom handler that performs an action in case an interrupt is received.
Promise.apply
has overloaded methods that allow the user to set the interrupt handler. This mechanism can be used to cancel requests to remote systems, as Finagle does.
The method interruptible
is a shortcut to fail the Promise
if it receives any interrupt signal:
Future<String> username =
userService.get(userId).interruptible().map(user -> user.username);
username.raise(new TimeoutException);
In this case, even if userService.get
does not handle interrupts, the Promise
is satisfied with the interrupt exception.
The interrupt propagation happens through pointers from each continuation to its parent that are created automatically by the library. In the previous example, the map
continuation has a pointer to the Promise
that is pending.
| Modifier and Type | Method and Description |
|---|---|
static InterruptHandler |
apply(Collection<? extends InterruptHandler> handlers)
Creates an interrupt handle that calls multiple handlers.
|
static InterruptHandler |
apply(InterruptHandler h1,
InterruptHandler h2)
Creates an interrupt handler that calls to other handlers.
|
void |
raise(Throwable ex)
Raises an interrupt.
|
static InterruptHandler apply(Collection<? extends InterruptHandler> handlers)
Creates an interrupt handle that calls multiple handlers.
handlers
- list of handlers to be called.static InterruptHandler apply(InterruptHandler h1, InterruptHandler h2)
Creates an interrupt handler that calls to other handlers.
h1
- first handler to be called.h2
- second handler to be called.void raise(Throwable ex)
Raises an interrupt.
ex
- the interrupt exception.Copyright © 2017. All Rights Reserved.


Crumop399.github.io
Katja's Travels - reisekatja.de.
Schematics of radios :: Schematic of programmer :: Radio. President Jackson II Handbücher. And there's no cure like travel To help you unravel The worries of living today. When the poor brain is cracking There's nothing like packing A suitcase and sailing. Технические характеристики радиостанций отечественного и импортного производства.


Pulisic keeps up scoring run for Chelsea in win over Palace
LONDON (AP) - American midfielder Christian Pulisic scored his fifth goal in three Premier League games as Chelsea beat Crystal Palace 2-0 on Saturday.
Palace’s defense survived a Chelsea onslaught at Stamford Bridge in the first half - the Blues recording 11 shots to zero for Palace at the break.
“At halftime the manager said we need to stay focused and the chances will come,” said Tammy Abraham. He broke the deadlock soon after.
Abraham read the game well to beat Palace’s offside trap in the 52nd minute and met a backheel pass from Willian before shooting low for his 10th league goal of the season.
Pulisic ensured Chelsea’s sixth consecutive league win in the 79th with a header when Michy Batshuayi’s shot was deflected and looped into the air.
“I think we deserved it in the end. We had a lot of chances,” Pulisic said. “We want to be right up there at the top so we’re just going to keep going.”
Pulisic didn’t get a Premier League start from August until Oct. 26, when he took full advantage with a hat trick against Burnley. He followed up a week later with a goal against Watford.
Chelsea manager Frank Lampard handed midfielder N’Golo Kanté his first league start since Oct. 6 in place of Jorginho, who was suspended. Kanté had injured his groin on international duty with France last month.
There was a first Premier League start for 19-year-old right-back Reece James, dropping captain César Azpilicueta to the bench. James put in a solid performance, especially against Palace winger Wilfried Zaha.
“It was a really good individual performance from Reece because Zaha is a big threat on the flanks and one-on-one,” Lampard said. “It gives me more options.”
Palace had to wait until the 86th for its only shot on target all game. Kepa Arrizabalaga in the Chelsea goal reacted well to get low and hold the slippery ball in heavy rain.
It was the 300th Premier League game as coach for Palace’s Roy Hodgson, whose team showed good early-season league form but is now on a four-game winless run.
More AP soccer: https://apnews.com/Soccer and https://twitter.com/AP_Sports
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Copyright © 2019 The Washington Times, LLC.
Please read our comment policy before commenting.


| plot_crop {knitr} | R Documentation |
The program pdfcrop
(often shipped with a LaTeX distribution) is
executed on a PDF plot file, and
magick::image_trim()
is executed for other
types of plot files.
plot_crop(x, quiet = TRUE)
x |
Filename of the plot. |
quiet |
Whether to suppress standard output from the command. |
The program pdfcrop
can crop the extra white margins when the plot
format is PDF, to make better use of the space in the output document,
otherwise we often have to struggle with graphics::par()
to set
appropriate margins. Note pdfcrop
often comes with a LaTeX
distribution such as TinyTeX, MiKTeX, or TeX Live, and you may not need to
install it separately (use Sys.which('pdfcrop')
to check it; if it not
empty, you are able to use it). Note that pdfcrop
depends on
GhostScript. You can check if GhostScript is installed via
tools::find_gs_cmd()
.
The original filename.
PDFCrop: https://www.ctan.org/pkg/pdfcrop. If you use
TinyTeX, you may install pdfcrop
with
tinytex::tlmgr_install('pdfcrop')
.


Jewish_art_will_deutsch_king_david_and__harp.jpg http://store.notesfromthetribe.com/product/jewish-art-8-5-x11-king-david-print
I’m fairly confident I could successfully guide King David’s music career.
Now, I know what you’re thinking. In today’s synthesized, super-sexualized, overhyped music industry is there really a place for spiritual harp music?
Yes.
The key is volume. The entire Beatles catalogue has 275 original compositions.
David wrote 3600. The man is a machine. The licensing alone would be more than enough. He’s also got a niche with religious music. Oh yeah and I forgot to mention his biggest fan….God.
I’m thinking we market him as ‘Kenny G meets John Mayer….with a harp.’
I’ve even got a name for his first album: ‘Yaweh or the Highway’.
Edgy.


Authors are invited to submit full papers electronically in PDF before 27
January 2007.
Submissions will be managed with EasyChair. To submit your paper:
- Create an EasyChair Login
- Follow the instructions to upload your PDF. When selecting categories,
please refer to the Call for Papers.
Submissions must be formatted according to the LNCS
guidelines and must not exceed 17
pages in length, including all supplementary material. Papers that are
not in the requested format or exceed the mandated length will be rejected
without going through the review process. Simultaneous or similar
submissions to other conferences or journals are not allowed.


{% extends 'layout.html' %} {% block body %}
{{ _('Note: Test Version') }}
{{ _('This platform brings all the School’s data into one place and makes it accessible to everyone (no programming skills required).') }}
{{ _('From here you can easily explore data that will enable you to keep track of your learning products and make the necessary adjustments to maintain peak performance. If you are preparing a business case, this platform will give you access to a wealth of information that can help tell your story to the executive management team.') }}
{{ _('Tell us what you want and need in this platform. Together, with your feedback, we can develop a catalogue that will evolve to better meet your needs. (Send your feedback here.)') }}
{{ _('If you encounter any bugs, please contact Sam Louden.') }}


{% include meta.html %}
{{ site.name }}
{{ site.description }}
Blog
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Table Name: tabWarranty Claim
| Sr | Fieldname | Type | Label | Options |
|---|---|---|---|---|
| 1 | naming_series |
Select | Series |
CI- |
| 2 | status |
Select | Status |
Open Closed Work In Progress Cancelled |
| 3 | complaint_date |
Date | Issue Date | |
| 4 | column_break0 |
Column Break | ||
| 5 | serial_no |
Link | Serial No | Serial No |
| 6 | customer |
Link | Customer | Customer |
| 7 | section_break_7 |
Section Break | ||
| 8 | complaint |
Text Editor | Issue | |
| 9 | issue_details |
Section Break | Item and Warranty Details |
fa fa-ticket |
| 10 | item_code |
Link | Item Code | Item |
| 11 | item_name |
Data | Item Name | |
| 12 | description |
Small Text | Description | |
| 13 | column_break1 |
Column Break | ||
| 14 | warranty_amc_status |
Select | Warranty / AMC Status |
Under Warranty Out of Warranty Under AMC Out of AMC |
| 15 | warranty_expiry_date |
Date | Warranty Expiry Date | |
| 16 | amc_expiry_date |
Date | AMC Expiry Date | |
| 17 | resolution_section |
Section Break | Resolution |
fa fa-thumbs-up |
| 18 | resolution_date |
Datetime | Resolution Date | |
| 19 | resolved_by |
Link | Resolved By | User |
| 20 | resolution_details |
Text | Resolution Details | |
| 21 | contact_info |
Section Break | Customer Details |
fa fa-bullhorn |
| 22 | customer_name |
Data | Customer Name | |
| 23 | contact_person |
Link | Contact Person | Contact |
| 24 | contact_display |
Small Text | Contact | |
| 25 | contact_mobile |
Data | Mobile No | |
| 26 | contact_email |
Data | Contact Email | |
| 27 | territory |
Link | Territory | Territory |
| 28 | customer_group |
Link | Customer Group | Customer Group |
| 29 | col_break4 |
Column Break | ||
| 30 | customer_address |
Link | Customer Address | Address |
| 31 | address_display |
Small Text | Address | |
| 32 | service_address |
Small Text |
Service Address
If different than customer address |
|
| 33 | more_info |
Section Break | More Information |
fa fa-file-text |
| 34 | company |
Link | Company | Company |
| 35 | col_break6 |
Column Break | ||
| 36 | complaint_raised_by |
Data | Raised By | |
| 37 | from_company |
Data | From Company | |
| 38 | amended_from |
Link | Amended From | Warranty Claim |
Inherits from erpnext.utilities.transaction_base.TransactionBase
Public API
/api/method/erpnext.support.doctype.warranty_claim.warranty_claim.make_maintenance_visit
erpnext.support.doctype.warranty_claim.warranty_claim.make_maintenance_visit (source_name, target_doc=None)
No docs