RANGE B NTIA

0311-EX-PL-2016 Text Documents

Georgia Institute of Technology

2016-06-21ELS_178461

NTIA
Space
record
data
form

NTIA
requires
the
following
data
for
space
related
experiments
using
government
shared
spectrum.

For

each
transmit
frequency,
please
provide
the
data
for
both
ends
of
the
transmit-‐receive
link.

Use
Part
A

to
describe
the
satellite
to
ground
information.

Part
B
is
for
all
ground
to
space
transmit
links.

Part
A:
Space
to
Earth
Downlink
Data

Satellite
Transmitter
Data

Transmit
Frequency:
437.475
MHz

Satellite
Name:

RANGE-‐B

Data
Field
Data
Answer
Description/Comments

Polarization
(XAP)
XAP
=
J
POLARIZATIONS
INCLUDE
:

H
=
HORIZONTAL,

V
=
VERTICAL,

S
=
HORIZONTAL
AND
VERTICAL,

L
=
LEFT
HAND
CIRCULAR,

R
=
RIGHT
HAND
CIRCULAR,

T
=
RIGHT
AND
LEFT
HAND
CIRCULAR,

J
=
LINEAR
POLARIZATION

Orientation
(XAZ)
XAZ
=
EC
NB=
NARROWBEAM

EC
=
EARTH
COVERAGE

Antenna
ANTENNA
GAIN__1.4
dBi________

(NTIA
format
(XAD),
EXAMPLE,
XAD01
16G030B)

Dimension
(XAD)
BEAMWIDTH
____360______

XAD
=
XAD01
02G360B

Type
of
satellite
Type
=
Nongeostationary
Choose
either:

Geostationary
or

(State
=
SP)
Nongeostationary

(City
=
geo
or

non)

For
Geostationary
Longitude
=

IF
ANY
SATELLITES
ARE
GEOSTATIONARY,
REPORT

ITS
LATITUDE
AS
000000N
(XLA
AND/OR
RLA)
AND

REPORT
ITS
LONGITUDE
(XLG
AND/OR
RLG).

For
INCLINATION
ANGLE____97.4_________,

IF
ANY
SATELLITES
ARE
NONGEOSTATIONARY,

REPORT
ITS
INCLINATION
ANGLE,
APOGEE

Nongeostationary
APOGEE
IN
KILOMETERS___500_______,
IN
KILOMETERS,
PERIGEE
IN
KILOMETERS,

(Orbital
Data)
PERIGEE
IN
KILOMETERS___500_______,

ORBITAL
PERIOD
IN
HOURS
AND
FRACTIONS
OF

HOURS
IN
DECIMAL,
THE
NUMBER
OF
SATELLITES

ORBITAL
PERIOD
IN
HOURS
__1____AND

IN
THE
SYSTEM,
THEN
T01,
EXAMPLE,

FRACTIONS
OF
HOURS
IN
REM04

DECIMAL__0.53___,

*ORB,98.0IN00510AP00510PE001.58H01NRT01,

AND
FOR
SPACE-‐TO-‐SPACE

THE
NUMBER
OF
SATELLITES
IN
THE
COMMUNICATIONS
WITH
ANOTHER

SYSTEM____2_______,

NONGEOSTATIONARY
SATELLITE
ADD
AN

ADDITIONAL

*ORB
FOR
IT
ENDING
IN
R01,
EXAMPLE,
REM05

ORB
=
*ORB,72.9IN03209AP00655PE013.46H01NRR01

ORB,97.4IN00500AP00500PE001.53H02N

RT01

ORB,97.4IN00500AP00500PE001.53H02N
RTR01

Earth
Station
Data
(Receiver)

State
(RSC)
RSC
=
GA

City
Name
(RAL)
RAL
=
Atlanta

Latitude
Lat
=

334619

(DDMMSS)

Longitude
Lon
=
842346

(DDDMMSS)

Antenna
RAP
=
T
POLARIZATIONS
INCLUDE
:

H
=
HORIZONTAL,

Polarization
(RAP)
V
=
VERTICAL,

S
=
HORIZONTAL
AND
VERTICAL,

L
=
LEFT
HAND
CIRCULAR,

R
=
RIGHT
HAND
CIRCULAR,

T
=
RIGHT
AND
LEFT
HAND
CIRCULAR,

J
=
LINEAR
POLARIZATION

Antenna
Azimuth
RAZ
=
RAZ01
V00
THE
EARTH
STATION
RECEIVER
ANTENNA

AZIMUTH
(RAZ),
THE
MINIMUM
ANGLE
OF

(RAZ)
ELEVATION,
V00
TO
V90,
EXAMPLE,
RAZ01
V00

Antenna
ANTENNA
GAIN______18.9________,

EXAMPLE
ASSUMING
NONGEOSTATIONARY,

RAD01

16G030B000-‐360A00357H006

Dimensions
(RAD)
BEAMWIDTH_____21________,

AZIMUTHAL
RANGE___360_________,

THE
SITE
ELEVATION
ABOVE
MEAN
SEA

LEVEL
IN
METERS
____340______

THE
ANTENNA
HEIGHT
ABOVE
TERRAIN

IN
METERS
_____10_________

RAD
=

RAD01
19G021B000-‐360A00340H010

FCC
notes:

1.
Use
S-‐Note
S945.

2. REM
AGN,
Cubesat,
RANGE-‐B

Part
B:

Ground
Stations,
Earth
to
Space
link
data:

Earth
Station
Transmitter
Data

Transmit
Frequency:

437.475
MHz

State
(XSC)
XSC
=
GA

City
Name
(XAL)
XAL
=
Atlanta

Latitude
Lat
=
334619

(DDMMSS)

Longitude
Lon
=
842346

(DDDMMSS)

Antenna
XAP
=
T
POLARIZATIONS
INCLUDE
:

H
=
HORIZONTAL,

Polarization
(XAP)
V
=
VERTICAL,

S
=
HORIZONTAL
AND
VERTICAL,

L
=
LEFT
HAND
CIRCULAR,

R
=
RIGHT
HAND
CIRCULAR,

T
=
RIGHT
AND
LEFT
HAND
CIRCULAR,

J
=
LINEAR
POLARIZATION

Antenna
Azimuth
XAZ
=
V00
to
V90
THE
EARTH
STATION
Transmitter
ANTENNA

AZIMUTH
(XAZ),
THE
MINIMUM
ANGLE
OF

(XAZ)
ELEVATION,
V00
TO
V90,
EXAMPLE,
XAZ01
V00

Antenna
ANTENNA
GAIN_____18.9
dBi_______,

EXAMPLE
ASSUMING
NONGEOSTATIONARY,

XAD01

16G030B000-‐360A00357H006

Dimensions
(XAD)
BEAMWIDTH____21________,

AZIMUTHAL
RANGE____360______,

THE
SITE
ELEVATION
ABOVE
MEAN
SEA

LEVEL
IN
METERS
____340_______

THE
ANTENNA
HEIGHT
ABOVE
TERRAIN

IN
METERS
______10________

XAD
=

XAD01
19G021B000-‐360A00340H010

Satellite
Receive
Specifications

Polarization
(RAP)
RAP
=
T
POLARIZATIONS
INCLUDE
:

H
=
HORIZONTAL,

V
=
VERTICAL,

S
=
HORIZONTAL
AND
VERTICAL,

L
=
LEFT
HAND
CIRCULAR,

R
=
RIGHT
HAND
CIRCULAR,

T
=
RIGHT
AND
LEFT
HAND
CIRCULAR,

J
=
LINEAR
POLARIZATION

Azimuth
(RAZ)
RAZ
=

RAZ01
V00

STATION
RECEIVER
ANTENNA
AZIMUTH
(XAZ),

THE
MINIMUM
ANGLE
OF

ELEVATION,
V00
TO
V90,
EXAMPLE,
RAZ01
V00

Dimension
(RAD)
ANTENNA
GAIN____1.4
dBi_____

(NTIA
format
(RAD),
EXAMPLE,
RAD01
16G030B)

BEAMWIDTH
___360_________

RAD
=
RAD01
02G360B

Type
of
satellite
Type
=
Nongeostationary
Choose
either:

Geostationary
or

(State
=
SP)
Nongeostationary

City
=
G/No

For
Geostationary
Longitude
=

IF
ANY
SATELLITES
ARE
GEOSTATIONARY,
REPORT

ITS
LATITUDE
AS
000000N
(XLA
AND/OR
RLA)
AND

REPORT
ITS
LONGITUDE
(XLG
AND/OR
RLG).

For
INCLINATION
ANGLE_____97.4________,

IF
ANY
SATELLITES
ARE
NONGEOSTATIONARY,

REPORT
ITS
INCLINATION
ANGLE,
APOGEE

Nongeostationary
APOGEE
IN
KILOMETERS_____500_____,
IN
KILOMETERS,
PERIGEE
IN
KILOMETERS,

(Orbital
Data)
PERIGEE
IN
KILOMETERS_____500_____,

ORBITAL
PERIOD
IN
HOURS
AND
FRACTIONS
OF

HOURS
IN
DECIMAL,
THE
NUMBER
OF
SATELLITES

ORBITAL
PERIOD
IN
HOURS
___1___AND

IN
THE
SYSTEM,
THEN
T01,
EXAMPLE,

FRACTIONS
OF
HOURS
IN
REM04

DECIMAL__0.53____,

*ORB,98.0IN00510AP00510PE001.58H01NRT01,

AND
FOR
SPACE-‐TO-‐SPACE

THE
NUMBER
OF
SATELLITES
IN
THE
COMMUNICATIONS
WITH
ANOTHER

SYSTEM_____2______,

NONGEOSTATIONARY
SATELLITE
ADD
AN

ADDITIONAL

*ORB
FOR
IT
ENDING
IN
R01,
EXAMPLE,
REM05

*ORB,72.9IN03209AP00655PE013.46H01NRR01

ORB,97.4IN00500AP00500PE001.53H02N

RT01

ORB,97.4IN00500AP00500PE001.53H02N
RTR01

Document Created: 0440-04-24 00:00:00
Document Modified: 0440-04-24 00:00:00

© 2024 FCC.report
This site is not affiliated with or endorsed by the FCC