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Report Style: Bent Pipe Comm Link

This report provides link performance data for the uplink, downlink, and composite link as a function of time for a bent pipe communications system.

Data Provider:Link Information

Type: Time-varying data.

Availability: Reports | Dynamic Displays

Number of Lines: 3

Column Listing for Line 1

Column	Column Name	Element	Type	Dimension	Description
1	Time	Time	Real Number or Text	Date	Time.
2	Xmtr Power1	Xmtr Power1	Real Number	Power	The RF power output of the transmitter as measured at the input to the antenna. This is a user selectable value.
3	Xmtr Gain1	Xmtr Gain1	Real Number	Ratio	The antenna gain of the transmitter which is dependent on the antenna type selected. For transmitter models that do not have an antenna model, this is a user defined value. For the simple source transmitter, 0 dB is reported since the simple source transmitter is modeled as an isotropic radiator. When using a Multibeam Transmitter with the Beam Selection Strategy set to Aggregate Active Beams, the Xmtr Gain element represents an effective (not aggregate) gain that weighs the contribution of each beam in the link direction according to its transmitted power.
4	EIRP1	EIRP1	Real Number	Power	The effective isotropic radiated power in the link direction. This value is the product of the transmitter power and the transmitter gain in the link direction with the inclusion of user defined post transmit gains and losses.
5	Prop Loss1	Prop Loss1	Real Number	Ratio	The total propagation loss computed across all enabled propagation models.
6	Rcvd. Frequency1	Rcvd. Frequency1	Real Number	Frequency	The received frequency is the frequency that the receiver is tuned to in order to communicate with the transmitter. This frequency may be auto-tracked or entered by the user in the receiver properties.
7	Rcvd. Iso. Power1	Rcvd. Iso. Power1	Real Number	Power	Received isotropic power is the power at the receiver before the pre-receive gains/losses and the receiver antenna gain added (in dBW). It is equal to the EIRP with all the channel losses as well as the bandwidth overlap applied.
8	Flux Density1	Flux Density1	Real Number	PowerFluxDensity	The power from the desired transmitter crossing a unit area normal to the direction of wave propagation.
9	g/T1	g/T1	Real Number	GainTempRatio	G/T = (Receiver Gain)/(System Temperature at the Receiver). The ratio of the receive antenna gain G to the total system temperature T is the "figure of merit" for the receiver (in dB/K). The figure of merit is independent of the point where it is calculated. However, the gain and system temperature must be specified at the same point.
10	C/No1	C/No1	Real Number	SpectralDensity	The carrier to noise density ratio (C/No) where C is the carrier power and No = kT (Boltzmann's constant x system temperature) is the noise density. It is equivalent to C/N with a normalized Bandwidth (B=1).
11	Bandwidth1	Bandwidth1	Real Number	Frequency	Bandwidth is the Receiver Bandwidth.
12	C/N1	C/N1	Real Number	Ratio	The carrier to noise ratio (C/N) where C is the carrier power and N = kTB (Boltzmann's constant x system temperature x bandwidth) is the noise power.
13	Eb/No1	Eb/No1	Real Number	Ratio	The energy per bit to noise ratio (Eb/No) where Eb is the energy per bit and No = kT (Boltzmann's constant * system temperature).
14	BER1	BER1	Real Number	Unitless	Bit Error Rate (BER) is the probability that a bit is in error (i.e. a zero is transmitted but a one is received). The BER is the number of bits in error divided by the total number of bits sent. STK uses table lookup from a .mod file to extract a BER given an Eb/No. STK interpolates the table as necessary to determine the appropriate bit error rate for a particular bit energy level. If the bit energy is smaller than the first value in the table, the bit error rate for the first value is used. If the bit energy is larger than the last value in the table, a default bit error rate of 1.0e-30 is used to indicate no errors.

Column Listing for Line 2

Column	Column Name	Element	Type	Dimension	Description
1	Xmtr Power2	Xmtr Power2	Real Number	Power	The RF power output of the transmitter as measured at the input to the antenna. This is a user selectable value.
2	Xmtr Gain2	Xmtr Gain2	Real Number	Ratio	The antenna gain of the transmitter which is dependent on the antenna type selected. For transmitter models that do not have an antenna model, this is a user defined value. For the simple source transmitter, 0 dB is reported since the simple source transmitter is modeled as an isotropic radiator. When using a Multibeam Transmitter with the Beam Selection Strategy set to Aggregate Active Beams, the Xmtr Gain element represents an effective (not aggregate) gain that weighs the contribution of each beam in the link direction according to its transmitted power.
3	EIRP2	EIRP2	Real Number	Power	The effective isotropic radiated power in the link direction. This value is the product of the transmitter power and the transmitter gain in the link direction with the inclusion of user defined post transmit gains and losses.
4	Prop Loss2	Prop Loss2	Real Number	Ratio	The total propagation loss computed across all enabled propagation models.
5	Rcvd. Frequency2	Rcvd. Frequency2	Real Number	Frequency	The received frequency is the frequency that the receiver is tuned to in order to communicate with the transmitter. This frequency may be auto-tracked or entered by the user in the receiver properties.
6	Rcvd. Iso. Power2	Rcvd. Iso. Power2	Real Number	Power	Received isotropic power is the power at the receiver before the pre-receive gains/losses and the receiver antenna gain added (in dBW). It is equal to the EIRP with all the channel losses as well as the bandwidth overlap applied.
7	Flux Density2	Flux Density2	Real Number	PowerFluxDensity	The power from the desired transmitter crossing a unit area normal to the direction of wave propagation.
8	g/T2	g/T2	Real Number	GainTempRatio	G/T = (Receiver Gain)/(System Temperature at the Receiver). The ratio of the receive antenna gain G to the total system temperature T is the "figure of merit" for the receiver (in dB/K). The figure of merit is independent of the point where it is calculated. However, the gain and system temperature must be specified at the same point.
9	C/No2	C/No2	Real Number	SpectralDensity	The carrier to noise density ratio (C/No) where C is the carrier power and No = kT (Boltzmann's constant x system temperature) is the noise density. It is equivalent to C/N with a normalized Bandwidth (B=1).
10	Bandwidth2	Bandwidth2	Real Number	Frequency	Bandwidth is the Receiver Bandwidth.
11	C/N2	C/N2	Real Number	Ratio	The carrier to noise ratio (C/N) where C is the carrier power and N = kTB (Boltzmann's constant x system temperature x bandwidth) is the noise power.
12	Eb/No2	Eb/No2	Real Number	Ratio	The energy per bit to noise ratio (Eb/No) where Eb is the energy per bit and No = kT (Boltzmann's constant * system temperature).
13	BER2	BER2	Real Number	Unitless	Bit Error Rate (BER) is the probability that a bit is in error (i.e. a zero is transmitted but a one is received). The BER is the number of bits in error divided by the total number of bits sent. STK uses table lookup from a .mod file to extract a BER given an Eb/No. STK interpolates the table as necessary to determine the appropriate bit error rate for a particular bit energy level. If the bit energy is smaller than the first value in the table, the bit error rate for the first value is used. If the bit energy is larger than the last value in the table, a default bit error rate of 1.0e-30 is used to indicate no errors.

Column Listing for Line 3

Column	Column Name	Element	Type	Dimension	Description
1	IBO2	IBO2	Real Number	Ratio	In a power amplifier, Input BackOff (IBO) is a measure of how far you must reduce the input power in order to receive the desired output linearity and power.
2	OBO2	OBO2	Real Number	Ratio	Output BackOff (OBO) is the reduction in power applied to a power amplifier to minimize the effect of any intermodulation products created by modulated carriers.
3	C/No Tot.2	C/No Tot.2	Real Number	SpectralDensity	The composite value of the carrier to noise density ratio (C/No) across all hops of an analog bent pipe communications link where C is the carrier power and No = kT (Boltzmann's constant x system temperature) is the noise density. Note that C/No is equivalent to C/N with a normalized Bandwidth (B=1).
4	C/N Tot.2	C/N Tot.2	Real Number	Ratio	The composite value of the carrier to noise ratio (C/N) across all hops of an analog bent pipe communications link where C is the carrier power and N equals kTB (Boltzmann's constant x system temperature x bandwidth) is the noise power.
5	Eb/No Tot.2	Eb/No Tot.2	Real Number	Ratio	The composite value of energy per bit to noise ratio (Eb/No) across all hops of an analog bent pipe communications link where Eb is the energy per bit and No = kT (Boltzmann's constant * system temperature).
6	BER Tot.2	BER Tot.2	Real Number	Unitless	Bit Error Rate (BER) Total is the probability that a bit is in error (i.e., a zero is transmitted but a one is received) across all hops of an analog bent pipe communications link or a digital repeater communications link. The BER is the number of bits in error divided by the total number of bits sent. STK uses table lookup from a .mod file to extract a BER given an Eb/No. STK interpolates the table as necessary to determine the appropriate bit error rate for a particular bit energy level. If the bit energy is smaller than the first value in the table, the bit error rate for the first value is used. If the bit energy is larger than the last value in the table, a default bit error rate of 1.0e-30 is used to indicate no errors.