Olivia Dem'adas
Chief of Clan Dem'adas
OUT OF CHARACTER INFORMATION
Intent: To make a custom Starship Sensor System for use by the Outer Rim Coalition
Image Source: NA
Canon Link: NA
Primary Source: Subspace Transceiver, Subspace Radio Antenna, Sonic Probe, Sonar Mapper, Stellar Navigation Sensor, Navigational Sensor, Realspace, Subspace, Hyperspace, Radionics,
PRODUCTION INFORMATION
Manufacturer: Outer Rim Coalition / Pantoran Assembly
Model: SUDAR Pulse-wave Transceiver "Subspace Detection And Ranging"
Affiliation: Outer Rim Coalition / Pantoran Assembly / Closed Market
Modularity: Limited
Production: Minor
Material:
Classification: Ship-based Sensor System
SPECIAL FEATURES
Strengths:
The SUDAR Pulse-wave Transceiver is a sensor system hat utilizes subspace communications technology in active and passive detection modes to locate ships in realspace. In its most simplest form, SUDAR technology utilizes a form of conical, directable subspace antenna to detect activity from another ship's subspace transceiver array and infer the general planar direction of the detected ship. When operated passively, this sensor listens for subspace communications transmitted by another ship in order to detect the location of said ship. When operated actively, the SUDAR Transceiver produces a pulse of high energy wavelength in subspace. This pulse of wavelength is directed in a conical path by the transmitter's iris. When this wavelength impacts the subspace antenna/transceiver of another ship, the high intensity of this wavelength pulse produces a momentary but intense disruptions to the operation of these devices. More importantly, a small portion of this wavelength pulse is refracted off of the subspace antenna/transceiver and travels back along the same path towards the Subspace Antenna of the SUDAR Transceiver. Once a return signal has been detected, a computer tied to the transceiver is then able to accurately infer the distance between the host ship and the detected ship by measuring the time delay between emitting the initial pulse and receiving the return signal. The computer is also able to analyse subtle red-shifts and blue-shifts in the frequency of the return signal to identify if a detected ship was moving further away from the sensor or moving closer to the sensor at the time when the pulse-wave impacted and reflected off of the detected ship's subspace antenna/transceiver.
Pulse-wave Transceivers include an external sensor emitter/receiver that take the form of a large, conical dish that surrounds a central pulse emitter (superconductive wire wrapped around a solid metal core) and can be widened to produce and receive readings over a larger area, or narrowed to produce and receive readings over a smaller area. As this sensor system is only able to measure the intensity and time-delay of a signal, the computer tied to this sensor is only able to determine the number of contacts, the relative distance each contact is to the transmitting ship, and that each contact exists 'somewhere' within the conical area over which the pulse-wave was projected. Because of this, a ship will typically include multiple Pulse-wave Transceivers that cover all 360-degrees of the ship's X, Y, and Z axis. During active scanning, each emitter will produce a pulse and listen for return signals at its maximum conical degree. Should an unexpected signal be detected, additional pulses will be produced in narrower and narrower degrees of coverage as the ship's sensor operators attempt to narrow down the location of a given signal. During this searching process, multiple Transceivers will be focused upon a given quadrant to prevent a loss of contact.
For additional accuracy, three or more ships can share sensor data with one another and run triangulation software to better identify the location of an unexpected signature. The further apart these ships are, the greater accuracy with which they can locate an object through triangulation.
Intent: To make a custom Starship Sensor System for use by the Outer Rim Coalition
Image Source: NA
Canon Link: NA
Primary Source: Subspace Transceiver, Subspace Radio Antenna, Sonic Probe, Sonar Mapper, Stellar Navigation Sensor, Navigational Sensor, Realspace, Subspace, Hyperspace, Radionics,
PRODUCTION INFORMATION
Manufacturer: Outer Rim Coalition / Pantoran Assembly
Model: SUDAR Pulse-wave Transceiver "Subspace Detection And Ranging"
Affiliation: Outer Rim Coalition / Pantoran Assembly / Closed Market
Modularity: Limited
Production: Minor
Material:
- Alusteel
Classification: Ship-based Sensor System
SPECIAL FEATURES
Strengths:
- Uses Subspace Transceivers and Subspace Physics to locate ships in realspace
- Can be used for wide-area and narrow-area detection
- As most Subspace Receivers are omnidirectional, most ships picking up Pulse-Wave transmissions will not be able to identify the location or distance from which the signal came
- Unaffected by physical barriers such as planets and asteroids
- Unable to infer the size of a detected ship
- When engaged in passive scanning, only "direction" can be inferred, not "distance"
- Requires detection of multiple repeated signals in order to get an accurate-ish understanding of a detected ship's location
- Detecting ships is harder and scans are less accurate the further away the detected ship is from the ship with the SUDAR Transceiver
- Energy Pulses emitted during active scanning interfere with Subspace Communications
- Energy Pulses emitted during active scanning are easily identified as a form of Com Transmission
The SUDAR Pulse-wave Transceiver is a sensor system hat utilizes subspace communications technology in active and passive detection modes to locate ships in realspace. In its most simplest form, SUDAR technology utilizes a form of conical, directable subspace antenna to detect activity from another ship's subspace transceiver array and infer the general planar direction of the detected ship. When operated passively, this sensor listens for subspace communications transmitted by another ship in order to detect the location of said ship. When operated actively, the SUDAR Transceiver produces a pulse of high energy wavelength in subspace. This pulse of wavelength is directed in a conical path by the transmitter's iris. When this wavelength impacts the subspace antenna/transceiver of another ship, the high intensity of this wavelength pulse produces a momentary but intense disruptions to the operation of these devices. More importantly, a small portion of this wavelength pulse is refracted off of the subspace antenna/transceiver and travels back along the same path towards the Subspace Antenna of the SUDAR Transceiver. Once a return signal has been detected, a computer tied to the transceiver is then able to accurately infer the distance between the host ship and the detected ship by measuring the time delay between emitting the initial pulse and receiving the return signal. The computer is also able to analyse subtle red-shifts and blue-shifts in the frequency of the return signal to identify if a detected ship was moving further away from the sensor or moving closer to the sensor at the time when the pulse-wave impacted and reflected off of the detected ship's subspace antenna/transceiver.
Pulse-wave Transceivers include an external sensor emitter/receiver that take the form of a large, conical dish that surrounds a central pulse emitter (superconductive wire wrapped around a solid metal core) and can be widened to produce and receive readings over a larger area, or narrowed to produce and receive readings over a smaller area. As this sensor system is only able to measure the intensity and time-delay of a signal, the computer tied to this sensor is only able to determine the number of contacts, the relative distance each contact is to the transmitting ship, and that each contact exists 'somewhere' within the conical area over which the pulse-wave was projected. Because of this, a ship will typically include multiple Pulse-wave Transceivers that cover all 360-degrees of the ship's X, Y, and Z axis. During active scanning, each emitter will produce a pulse and listen for return signals at its maximum conical degree. Should an unexpected signal be detected, additional pulses will be produced in narrower and narrower degrees of coverage as the ship's sensor operators attempt to narrow down the location of a given signal. During this searching process, multiple Transceivers will be focused upon a given quadrant to prevent a loss of contact.
For additional accuracy, three or more ships can share sensor data with one another and run triangulation software to better identify the location of an unexpected signature. The further apart these ships are, the greater accuracy with which they can locate an object through triangulation.