Opto Electronics Trainer
OET-1000
Downloadable Data Sheet
From special quality of storehouse element as equipment that OET-1000 offers a basis experiment about ticklish optical communication in general subject about optical communication education optical fiber connection characteristic and transmission characteristic.
And designed so that can do a fundamental optical communication experiment that use signal conversion circuit and surrounding circuit.
The biggest advantage can to be more easy about communication method to use mineral ore because do so that can confirm state that do total reflection in optical fiber as well as can confirm cast which is displayed from actuality source of light because Laser Diode that is used to source of light used wave length of thorn area (650nm) on eye directly and approach interestingly more in this equipment.
Also, was composed so that can do optical communication trial run and infrared rays communication that use indirectness variation way using together option module from outside.
Because elect themes are composed from basis theory to an actuality experiment systematically, to educators established theory so that can master done technology be.
OET-1000 is education equipment that do interested persons or general college and in optical communication connection industry spot business truth department which make almsgiving can cultivate general knowledge about optical communication to persons in optical communication field.
Specification
|
Light Source
|
Laser Diode1 |
Wave length 650 nm, Package : RTO-SC/PC,
Ith (mA) : 12 ~ 15, Pout (dBm) - 0.1 ~ 0.5 @ 40mA |
|
Laser Diode2 |
Wave length 650 nm, Package cable length : 25cm |
|
LED(Green) LED(Red) |
|
|
Diode |
Si,Ge |
|
Detector |
Photo Diode1 |
Si type, Package : STO-SC-SC/PC, Response (mA/mW) - 0.33 ~ 0.53@ -5 Vbias Optical input 1 mW @ 650 nm |
|
Photo Diode2 |
Si type |
|
Photo Diode3 |
Si type |
|
Signal input |
Internal- Function Generator |
Frequency range : 10 Hz ~ 50 kHz, Amplitude : 0 V ~ 7 Vp-p, Wave type : Sinusoidal, Triangle, Square, Duty cycle adj, Symmetry adj. |
|
External-Analog |
Amplitude : 0 V ~ 10 Vp-p,
Frequency : Audio frequency, Digital - TTL, ECL |
|
Signal output terminal |
BNC, RCA, RS-232C |
|
Power supply |
Input : 240 Vrms, 50 Hz |
|
Output : ±5 Vdc, 1.25W (Average) |
|
Digital Volt Meter |
Display : 3 1/2 |
|
Accuracy : ±0.15 % rdg ±1 digit (Average) |
|
Optical coupler |
Multi mode (6 : 4 ratio) |
|
Speaker |
Impedance : 8ohms |
|
Audio amp |
250 mW |
|
Lens |
Lens : Double convex, Plano concave |
|
Holder : Holder & Stand |
|
Optical guide |
Plastic guide |
|
Fiber |
Plastic fiber, Glass fiber(multi-mode) |
Experiments
1. Measure the features of Si. Ge diodes
2. Measure the features of LED, which is an electricity-optical conversion device
3. Measure the features of PD, which is an electricity-optical conversion device
4. Measure the features of PD, which is an optical-electricity conversion device
5. Measure the critical angle of total reflection
6. Experiment the optics feature using lenses
7. Measure the loss due to the radius of curvature of optical fiber
8. Observe the noise of multi-mode optical fiber
9. Measure the loss due to the connection of the optical connector
10. Understand the principles of the optical coupler and measure the divergence ratio
11. Experiment to transmit random digital and analog signals
12. Measure the loss due to the length of the optical fiber
13. Compare the features of uni-mode and multi-mode optical fibers with different wide diameters
14. Experiment the transmission of optical signals using amplitude modulation
15. Experiment the transmission of optical signals using frequency modulation
16. Experiment the transmission of RS-232C signals using irED
Note : 12~13 : additional optical fiber, 14~16 : option board