Optical Wavelength Laboratories Port Devices Driver



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3- USB Ports, 2- RS232 serial ports, Ethernet Port for Network Communication; A Dual wavelength Pharmaceutical and Research grade instrument. Choosing a Polarimeter for Pharmaceutical Laboratories. Below is an example of why Polarimeters with accuracy of ±0.02 and ±0.01 accuracy polarimeters are not suitable for pharmaceutical applications. The measured device transmission efficiency between the input port and the output ports located at 0° (direct interconnect), 30°, 60° and 90° is shown in Figure 5c and Figure 5d.

At present, the growth in information technology has increased using the current telecommunication systems. Mostly, OFC (optical fiber communication) plays an essential role in the telecommunication system development with a high speed as well as quality. Nowadays, the applications of optical fibers mainly involve in telecommunication systems and also in the Internet & LAN (local area networks) to attain high signaling rates. The optical fiber communication module mainly includes transmitter module like PS-FO-DT as well as receiver module like PS-FO-DR. The communication of fiber-optic digital data transmission & reception can be done using plastic fiber cable. This article discusses an overview of optical transmitters and receivers, its specifications.

  • Optical Wavelength Laboratories OPERATIONS GUIDE 400x USB Video Inspection Scope Model Number: VS-400-U OWL-INC.COM Revision 1.00 Optical Wavelength Laboratories (OWL) N9623 West US Hwy 12.
  • Ibo Seminar - Free download as Powerpoint Presentation (.ppt), PDF File (.pdf), Text File (.txt) or view presentation slides online.
  • Drivers can be supplied with custom current levels by requesting a product variation. For more information on the difference between the OEM and OEM(+) models, please see FAQ1124. QC Laser Drivers.

What are Optical Transmitters and Receivers?

The optical fiber communication system mainly includes a transmitter and receiver where the transmitter is located on one ending of a fiber cable & a receiver is located on the other side of the cable. Most of the systems utilize a transceiver which means a module which includes transmitter and receiver. The input of the transmitter is an electrical signal and it converts into an optical signal from LED or laser diode.


The light signal from the transmitter end is connected to the fiber cable using a connector & is broadcasted through the cable. The light signal from the fiber end can be connected to a receiver wherever a detector changes from the light to an electrical signal then it will be conditioned appropriately to use by the receiving equipment.

Transmitter

In the FOC system, the light source like an LED or laser diode is used as a transmitter. The main function of a light source like LED / Laser is to change an electrical signal into the light signal. These light sources are small semiconductor devices which efficiently converts electrical signal to light signal. These light sources require connections of power supply and modulation circuitry. All these are generally connected within one IC package. The best example of the transmitter LED is HFBR 1251. This kind of LEDs requires an external driver circuit. Here we IC 75451can be used for driving the light source.

Transmitter Specifications

  • Type of LED is DC coupled
  • Interface connectors are 2mm socket
  • The wavelength of source is 660nm
  • Supply current is a maximum of 100 mA
  • A serial port is Max232 IC Driver
  • Type of input signal is digital data
  • The LED driver is on board IC Driver
  • The interface of LED is self-locking Cap
  • Highest input voltage is +5V
  • Data rate speed is 1 Mbps
  • Supply Voltage is +15V DC
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Sources of Fiber Optic Transmitter

The fiber optic transmitter uses sources based on several criteria’s like diodes, DFB laser, FP lasers, VCSEL, etc. The main function of these sources is to changes from an electrical signal to an optical signal. All these are semiconductor devices.

Humax stb driver download. The LEDs & VCSELs are made-up on semiconductor wafers to produce light from the outside of the chip, whereas f-p laser emits from the surface of the chip as of a laser cavity formed within the center of the chip.


The outputs of LEDs have low-power outputs compare with lasers. The bandwidth of LEDs is less compare with lasers Due to the fabrication methods of LEDs & VCSELs, they are inexpensive to build. But lasers are expensive due to the laser cavity within the device.

Specifications of Different Fiber Optic Sources

The different fiber optic sources are LED, Fabry-Perot Laser, DFB Laser, and VCSEL

For LED

  • Wavelength in nm is 850, 1300
  • Power into Fiber in dBm is -30 to -10
  • Bandwidth is <250 MHz
  • Type of Fiber is MM

For Fabry-Perot Laser

Optical Wavelength Laboratories Port Devices Drivers

  • Wavelength in nm is 850, 1310 (1280-1330), 1550 (1480-1650)
  • Power into Fiber in dBm is 0 to +10
  • Bandwidth is >10 GHz
  • Types of Fibers are MM, SM

For DFB Laser

  • Wavelength in nm is 1550 (1480-1650)
  • Power into Fiber in dBm is 0 to +25
  • Bandwidth is >10 GHz
  • Type of Fiber is SM

For VCSEL

  • Wavelength in nm is 850
  • Power into Fiber in dBm is -10 to 0
  • Bandwidth is >10 GHz
  • Type of Fiber is MM

Optical Fiber

An optical fiber is the transmission medium within FOC systems. Here, optical fiber is the crystal clear and stretchy filament which transmits the light from a transmitter end to a receiver end. When the optical signal enters at the transmitter end of fiber then optical communication system transmits to the end of the receiver using the optical fiber.

Receiver

In the FOC system, a photodetector can be used as a receiver. The main function of the receiver is to change an optical data signal back to an electrical signal. This is a semiconductor photodiode in photodetector in current FOC system. This is a small device generally fabricated jointly with electrical circuitry to form an IC package to offer connections like power supply & signal amplification. The best example of the receiver photodetector is HFBR 2521. This kind of photodiode includes driver circuit so it doesn’t require an external driver circuit.

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Receiver Specifications

  • Type of photodiode is DC coupled
  • The interface connector is 2mm socket
  • The wavelength of diode ranges from 660nm to 850nm
  • The maximum current supply is 50mA
  • The speed of data rate is 5 Mbps
  • Index of fiber cladding is 1.402
  • The interface of the photodiode is the self-locking cap
  • The optical cable is plastic fiber multimode
  • Receiver driver is internal diode driver
  • The serial port is Max232 IC Driver

Thus, this is all about optical transmitters and receivers. The fiber optic source used in the transmitter is LED otherwise laser source & electronics for signal conditioning is mainly used for adding a signal into fiber. The receiver in fiber optic captures the light signal from a FOC, and decodes the binary information and transmits it into an electrical signal.

The data can be transmitted from an LED source to a transmitter through an electrical signal. After that, it takes the binary information & transmits it in the direction of a light signal. The light signal can be transmitted by means of FOC until it arrives at the receiver. Then the receiver receives a light signal to decode it back to an electrical signal to allow the binary information to be studied by the operator. A transceiver of FOC is one kind of device which unites both the transmitter & receiver functions.

Related Content
OWLTREK II SINGLEMODE OTDR
OTDR prices as low as 1795.00! limited sale !
Locate breaks and other faults in singlemode fibers within six feet up to 80 miles away! **

LIVE MODE
Live mode is an advanced feature normally found in high-end OTDRs. Live mode continuously shoots OTDR traces every few seconds, allowing users to monitor changes in the optical fiber in real-time.
In addition, when the OWLTrek II is attached to a PC, OWLView software includes a Live Viewer mode that takes the OTDR trace and expands it onto the PC display for easier viewing.
FACTORY IN AMERICA'S HEARTLAND (click)
Pricing

Part #DescriptionOTDR
Wavelength
OTDR
Dynamic Range
(Distance) *
Optional
OPM Port **
Connector StyleList price/
Special Price
(USD)
All specifications are preliminary
WTO2-S13 OWLTrek 2 1310 1310nm 28 dB
(80 miles)
No OTDR: LC
VFL: LC
1995.001795.00
WTO2-S15 OWLTrek 2 1550 1550nm 27 dB
(80 miles)
No OTDR: LC
VFL: LC
1995.001795.00
WTO2-S35 OWLTrek 2 1310/1550 1310/1550nm 28/27 dB
(80 miles)
No OTDR: LC
VFL: LC
2995.00 2695.00
OTDRs with integrated optical power meter port **(OPM specs shown below)
WTO2-S13M OWLTrek 2M 1310 1310nm 28 dB
(80 miles)
Yes; 2.5mm universal OTDR: LC
VFL: LC
2195.001995.00
WTO2-S15M OWLTrek 2M 1550 1550nm 27 dB
(80 miles)
Yes; 2.5mm universal OTDR: LC
VFL: LC
2195.001995.00
WTO2-S35M OWLTrek 2M 1310/1550 1310/1550nm 28/27 dB
(80 miles)
Yes; 2.5mm universal OTDR: LC
VFL: LC
3195.00 2895.00
FIBER RINGS (call for availability and custom configurations)
Part #LengthFiber TypeConnectorPrice
AB
FR-SM-500-SCLC 500 meters Singlemode SC/UPC LC/UPC 290.00
FR-SM-500-LCLC 500 meters Singlemode LC/UPC LC/UPC 290.00
DEAD-ZONE BOXES
Part #LengthFiber TypeConnector TypePrice
DZB-SM-1100 1100 meters Singlemode SC/UPC 375.00
LOOKING FOR A QUAD KIT OTDR? CLICK HERE FOR MORE INFORMATION
* Dynamic Range / Distance: OWLTrek II singlemode OTDRs are capable of finding breaks in singlemode optical fibers up to 80 miles to within +/- 6 feet. Additional splices and other loss producing events will limit end distance estimates. This is true for all OTDRs. However, passive singlemode Telco links are almost always less than 12 miles long. At this distance, OWLTrek II OTDRs have break finding capability of about +/- 1 meter! In fact, increased dynamic range is actually a disadvantage in almost all cases because of the increased OTDR cost (usually thousands of dollars more).
** Optional Integrated Optical Power Meter (OPM): models are available that include an integrated optical power/loss meter. Below are the specifications of the OPM port.
Photodetector:
Connector:
Fiber Type:
Calibrated Wavelengths:
Accuracy:
Resolution:
Measurement Units:
Measurement Range:
InGaAs
Universal with 2.5mm & 1.25mm adapters
Multimode/Singlemode
850, 980, 1300, 1310, 1490, 1550, 1625nm
+/- 0.15 dB
0.01 dB
dBm, dB
+5 to -50 dBm (typical; range varies with wavelength)
Customers outside the US: Prices shown are in US Dollars only. Your local price will be different due to additional duties, taxes, currency conversion, shipping/handling, and other charges related to delivering product to your country. Your local distributor can give you complete pricing in your area. Click here if you need assistance with locating a distributor in your area.


With an unbeatable combination of a small pocket-sized form factor, a high-resolution color LCD display, and some of the lowest pricing in the industry, the OWLTrek II OTDR from OWL is the WISE choice for cost-conscious buyers who only need to perform basic troubleshooting or restoration tasks on multimode optical fiber networks. All this from an OTDR that really is pocket-sized and fair priced, yet having comparable features and specifications to other OTDRs in its class.
Affordability. In a time when it is becoming increasingly difficult to justify equipping an entire technical staff with high-end equipment, companies are even more cost-conscious than before. These companies outfit a majority of their installation/repair personnel with OWLTrek II OTDRs, and set aside a few high-end “expert” devices for high-priority jobs.
Call OWL at 262-473-0643 for more information about this new and exciting development in OTDR testing, and discover why OWL is the wise choice in fiber test equipment!


(click image for larger, more detailed picture)
(quarter added to illustrate small hand-held size of OTDR)

OTDR Product Brochure
FEATURES & SPECIFICATIONS
KEY SPECIFICATIONS
  • Output wavelengths: 1310 and/or 1550nm
  • Dynamic range: 28 dB (1310nm) / 27 dB (1550nm)
  • Event Dead Zone: 2 meters (typical)
  • Attenuation Dead Zone: 5 meters (typical)
  • User-selectable Pulse Width: 1, 2, 5, 10, 20, 50, 100, 200, 500, 1000 meters
  • Distance Range: 80 miles (128 km)
  • OTDR port: LC
  • VFL port: LC
KEY OPM SPECIFICATIONS ('M' models only)
  • Detector: InGaAs
  • Connector: Universal with 2.5mm & 1.25mm adapters
  • Fiber Type: Multimode/Singlemode
  • Calibrated Wavelengths: 850, 980, 1300, 1310, 1490, 1550, 1625nm
  • Accuracy: +/- 0.15 dB
  • Resolution: 0.01 dB
  • Measurement Units: dBm, dB
  • Measurement Range: +5 to -50 dBm (typical; range varies with wavelength)
AUTOMATIC EVENT LOCATION / EVENT TABLES
Automatic event location is an advanced feature normally found only in expensive, high-end OTDRs. The OWLTrek II OTDR now brings this feature to the entry-level OTDR market.
The OWLTrek II OTDR includes an event table showing the location, type, reflectance level, and loss of each event. Users can select an event to view, and automatically zoom in on the event on the OTDR display.

NEW! With the release of firmware version 2.17, users can now view events as a graphical representation of their fiber link!
AUTOMATIC SCREEN ROTATION
The OWLTrek II OTDR may be pocket-sized, but the large 2.8” high-resolution color LCD display can show even the longest traces with ease. And, for greater viewing flexibility and trace detail, OWL has implemented state-of-the-art MEMS technology which “flips” the high-resolution color LCD display between portrait and landscape mode automatically. In landscape mode, a wider viewing area means greater viewing detail when zooming in on events.

OWLVIEW SOFTWARE
OWLView software allows the user to download stored traces from the OWLTrek II OTDR to a PC.
FEATURES INCLUDE:
  • Event analysis
  • Data storage using Telcordia GR-196 2.0 file format
  • Printed reports for hard-copy record keeping
  • Help menu with links to manuals, quick reference guides, and videos
**- factors that limit OTDR distance range include splices, interconnections, fiber quality, fiber attenuation, and other loss inducing events such as micro-bends and macro-bends
EACH UNIT INCLUDES:
  • OWLTrek II Singlemode OTDR
  • Integrated Visual Fault Locator (VFL) port
  • Hard-shell carrying case
  • USB download cable
  • Battery charger (US only)
  • USB flash drive with OWLView trace software, USB driver, product manuals, and product videos

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Documents
Product OverviewsOperations GuidesFirmware Upgrade
OWLTrek II Singlemode OTDROWLTrek II OTDR Operations Guide OWLTrek II OTDR Firmware Upgrade Page
Products ship with owner's manuals on USB flash drive (replacement fee: 35.00). Adobe Acrobat Reader (tm) is required to view these documents.
Miscellaneous
OWLView Software
USB Driver Installer (supports Windows XP, Windows Vista, and Windows 7)
(Windows 2000 is not supported)
OTDR/VFL Port Cleaning Brochure
Optical wavelength laboratories port devices driver ed

Optical Wavelength Laboratories Port Devices Driver Ed


Optical Wavelength Laboratories Port Devices Driver

VIDEOS

NumberTitleDescription
C1007VIDEO: OTDR Dead Zones & Dead Zone Boxes Explains the concept of OTDR dead zones, the effect of dead zones on OTDR measurements, and the use of dead zone boxes to counter the effects of dead zones.
M1002VIDEO: OWLTrek II OTDR Introduction Introduces OWLTrek II Series OTDRs, explaining the key features of this device.
M1003VIDEO: OWLTrek II Functions & Controls Describes the functions and controls of the OWLTrek II OTDR.
M1004VIDEO: OWL Pulse Suppressor Boxes Introducing the OWL pulse suppressor box
T1018VIDEO: Setting OWLTrek II Trace ParametersSetting Trace Parameters with the OWLTrek II OTDR
Demonstrates how to set trace parameters in the OWLTrek II OTDR.
T1019VIDEO: Analyzing OTDR TracesTrace Analysis Using the OWLTrek II OTDR
Demonstrates the use of cursors on the trace screen of the OWLTrek II OTDR, and shows proper cursor placement for common types of events when analyzing traces.
T1020VIDEO: Working with Stored TracesWorking with Stored Traces in the OWLTrek II OTDR
Demonstrates how to store, name, retrieve, and delete traces while using the OWLTrek II OTDR.
T1021VIDEO: OWLTrek II Miscellaneous SettingsOWLTrek II OTDR Miscellaneous Settings
Covers the various miscellaneous settings in the OWLTrek II OTDR.
T1022VIDEO: OWLTrek II OTDR MaintenanceOWLTrek II OTDR Maintenance
Covers maintenance and upkeep issues concerning the OWLTrek II OTDR.
T1047VIDEO: OWLTrek II OTDR -- LIVE MODEOWLTrek II OTDR -- LIVE MODE
Demonstrates how to use the LIVE mode feature in OWLTrek II OTDRs, as well as extend LIVE mode onto OWLView software for easier trace viewing.
T1049VIDEO: OWLTrek II OTDR -- VFL OperationOWLTrek II OTDR -- VFL Operation
Demonstrates how to operate the visual fault locator (VFL) port in OWLTrek II series OTDRs.
T1051VIDEO: Cleaning Optical Ports Cleaning Optical Ports on OWL Fiber Optic Test Equipment
T1052VIDEO: Optical Length Measurement Methods Methods of Measuring the Length of Optical Fibers
I1001VIDEO: OTDR Saturation Inversion Explains the issues surrounding the OWLTrek II OTDR trace to appear 'inverted', and how to overcome reflective events that cause saturation inversion.