PRELIMINARY. The dbm Optics CSA MUX application is a comprehensive test for DeMultiplexers.

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Application Note 2004-015B MUX/DeMux Application Parameter Details Overview PRELIMINARY This application note describes the details of dbm CSA DeMux Application parameter alternatives. In addition, it gives detail on the log data file contents related to each parameter. Summary The dbm Optics CSA MUX application is a comprehensive test for DeMultiplexers. Input Parameters Parameters input by user: Parameter Name Description/Use Format Default Pick Model Number Used to select which of the saved parameter 12 character Last used definition files are used Model Number Model number printed on the top of the test 12 character Model report Device Name Device name printed on the top of the test 12 character Device report Serial Number Serial number printed on the top of the test 12 character 000000 report Operator Name Operator name printed on the bottom of the 12 character Operator1 test report Customer Name printed on the top of the test report 15 character Customer Test DUT # If there is more than one device connected to Numeric-integer 1 the CSA, determines which is tested 1<=n<=48 # of Channels Number of physical output fibers on the Numeric-integer 4 device 1<=n<=1500 1 st Determination Determines whether the 1 st frequency should be accessed from the 1 st Frequency parameter, or determined automatically from the device. This determination is done by doing a leastsquares fit of the center of all the s to the spacing, then reflected as the Auto or Manual Auto 1 st Frequency wavelegnth/frequency of the 1 st. The center of the 1 st of the device; see 1 st Determination Numeric-float (THz) 180<=n<=220 Channel spacing Expected spacing of s Numeric-float (GHz) 1<=n<=4000 Calculated Channel Center Determines the method for determining the calculated center Peak Value or db Down or Gaussian Center 190 THz 100 GHz db Down

Calculated Channel Center db down point CSA System State File Logo File Name Ripple Slope Reading spacing ITU Passband Valid Channel Definition Valid Channel Max Loss Channel Order Auto Dark Cal* If the Calculated Channel Center is set to db down, this is the number of db down used to find the span, from which the center is dtermined from the average. This is the saved measurement configuration which is used for the measurements for the data used to deriv the parameters A bitmap in?? Pixel x?? pixel format used at the top of the results report When calculating ripple slope, it is useful to specify a range to determine the slope over, to minimize the effect of noise. Since ripple slope is?il/?wl or?il/?freq, then ripple slipe reading spacing is the?freq that the slope is calcuated over For results referenced to the ITU Passband, this determines the values to be utilized in the caluclations. Values outside the center frequency +/- ½ the passband are ignored When calculating parameters, either all s will be included, or only those meeting an insertion loss criteria. If a criteria is specified, then any that does not meet the criteria is ignored for the purpose of other parameter calculations. See Valid Channel Definition: if the minimum loss of a is higher than this value, it is ignored When calculating the parameters, use either the order of s in the Device Connection setup, or use the apparent order based on the measured centers. Note that measured order eliminates the need to make sure the right fiber os on the right, but it makes it impossible to identify an impropertly marked fiber Determines whether a dark calibration is performed immediately prior to a measurement set being taken. This is only available if the Auto Dark Cal option is installed Numeric-float (db) 0.1<=n<=40 8.3 file name with extension.sst 8.3 file name, with extension.bmp Numeric-integer (GHz) 1<=n<=100 Numeric-integer (GHz) 1<=n<=1000 All Channels or Ignore Bad/Missing Chans Numeric-float (db) 0.5<=n<=40 Specified Order or Measured Order Auto or Off 3 db muxdflt.sst initlally, then last used dbmoptic.bmp 5 GHz 50 GHz Ignore Bad/Missing Chans 10 db Measured Order Auto if installed, Off if not Application Note 2004-015B Page 2 of 2

Derived Parameter Definitions Note that all the parameters labelled PDL are only available if the PDL option is installed, and if the s specified for the device have PDL turned on. Similarly, the ORL parameters are only available if the ORL option is installed, and the ORL function is turned on in Apps-ORL. SETUP PARAMETERS Parameter Code Default Name Definition Diagram Default CHAN-CTR-ITU Channel Centers: ITU? center = 1st chan?] + [#of chans]*[chan spacing]; math done in THz, GHz Chan Spacing Each center in THz and nm 1 st chan WL PASS-WDTH Pass-band Width (GHz) Input by User None Pass-band Width Zero Loss (Continued on next page) Application Note 2004-015B Page 3 of 3

INSERTION LOSS PARAMETERS Parameter Code Default Name Definition Diagram Default IL@ITU Insertion Loss @ ITU Centers (max, db) Maximum value of insertion loss measurement closest to each center of all s Off IL@ITU ITU WL IL@ITU-PSAVG Insertion Loss @ ITU Centers, Polarization Averaged (max, db) Maximum value of insertion loss measurement closest to each center of all s, measured at all polarization states and averaged Off IL@ITU-PSAVG ITU WL IL@ITU-PSMAX Insertion Loss @ ITU Centers, Polarization Maximized (max, db) Maximum value of insertion loss measurement closest to each center of all s, measured at the worst case polarization state Off IL@ITU-PSMAX ITU WL IL-IN-BND Insertion Loss in Band (max, db) Maximum value of insertion loss for all measurements within center +/- 1/2 pass-band width inclusive. IL-IN-BND? & Max IL for each PASS-BD-SLOP Pass-band slope (db/nm) Least squares line fit of insertion loss @ ITU centers PASS-BD-SLOP Application Note 2004-015B Page 4 of 4

INSERTION LOSS PARAMETERS (cont.) Parameter Code Default Name Definition Diagram Default UNIF-IN-CALC- PASS Uniformity in Calculated Pass-band The maximum maximum of all s in Calculated Passband minus the minimum maximum of all s UNIF-IN-CALC-PASS max IL in passband of each s; Max max IL, Min Max IL Calc. Pass-band RIPL-ITU-PASS Ripple in ITU passband Maximum value of ripple for all s. Ripple per chan defined as max IL minus min IL of all measurements within the passband inclusive RIPL-ITU-PASS Max IL, Min Il and Ripple per ITU Pass-band RIPL-CALC-PASS Ripple in Calculated pass-band Maximum value of ripple for all s. Ripple per chan defined as max IL minus min IL of all measurements within the calculated pass-band inclusive RIPL-CALC-PASS Max IL, Min Il and Ripple per Calc. Pass-band UNIF-@-CNTRS Uniformity @ ITU Centers The maximum center wavelength IL minus the minimum center IL of all s UNIF@CNTRS? & IL of each CT-ADJ-ITU Adjacent Channel Crosstalk in ITU pass-band Max value of any of IL of adjacent s in ITU passband minus minimum value of IL in pass-band CT-ADJ-ITU Off For each, WL, IL Adjacent power with previous and subsequent ITU Pass-band Application Note 2004-015B Page 5 of 5

INSERTION LOSS PARAMETERS (cont.) Parameter Code Default Name Definition Diagram Default CT-ADJ-CHAN Adjacent Channel Crosstalk in calculated passband Max value of any of IL of adjacent s in calculated pass-band minus minimum value of IL in passband CT-ADJ-CHAN For each, WL, IL Adjacent power with previous and subsequent Calc. Pass-band CT-Non-ADJ-ITU Non-Adjacent Channel Crosstalk in ITU pass-band Max value of any of IL of non adjacent s at edge of ITU pass-band minus minimum value of IL in passband Same as CT-ADJ-ITU, except for worst case of all s not adjacent For each, WL, IL non Adjacent power with previous and subsequent CT-Non-ADJ-CHAN Non-Adjacent Channel Crosstalk in calculated passband Max value of any of IL of non-adjacent s at edge of calculated pass-band minus minimum value of IL in pass-band Same as CT-ADJ-CHAN, except for worst case of all s not adjacent For each, WL, IL non- Adjacent power with previous and subsequent WAVELENGTH ACCURACY PARAMETERS Parameter Code Default Name Definition Diagram Default CHAN-CNTR-ERR-NM Channel Center Offset (max, nm) The maximum difference between the ITU? and the center s as computed by [calculated chan method] CHAN-CNTR-ERR-NM? error for each ITU WL CHAN-CNTR CHAN-CNTR-ERR- GHZ Channel Center Offset (max, GHz) same as CHAN-CNTR-ERR-NM same as CHAN- CNTR-ERR-NM PDCW-GHZ Polarization Dependent wavelength change (max, GHz) Max difference between calculated centers at different polarization states (1-4) PDCW-GHZ For each, the center wavelength for each polarization state Extreme Channel position at diff Pol States Application Note 2004-015B Page 6 of 6

WAVELENGTH ACCURACY PARAMETERS (cont.) Parameter Code Default Name Definition Diagram Default PDCW-NM Polarization Dependent wavelength change (max, nm) Same as PDCW-GHZ PDBW-GHZ Polarization Dependent Bandwidth change (max, GHz) Max difference between calculated bandwidth at different polarization states (1-4) Extreme Channel width at diff Pol States BW1 BW2 PDBW-NM Polarization Dependent Bandwidth change (max, nm) Same as PDBW-GHZ PDBW-GHZ=BW2-BW1 PASS-WDTH-05-ITU 0.5dB from ITU (min,ghz) between 0.5db from ITU center IL peak points on any -0.5dB wavelengths and pass-band width for each PASS-WDTH-05-PK 0.5dB from Peak between 1db from peak IL peak points on any -0.5dB wavelengths and pass-band width for each PASS-WDTH-10-ITU 1dB from ITU (min,ghz) between 0.5db from ITU center IL peak points on any -1dB wavelengths and pass-band width for each PASS-WDTH-10-PK 1dB from Peak between 1db from peak IL peak points on any -1 db wavelengths and pass-band width for each PASS-WDTH-30-ITU 3dB from ITU (min,ghz) between 3db from ITU center IL peak points on any -3dB wavelengths and pass-band width for each PASS-WDTH-30-PK 3dB from Peak between 3db from peak IL peak points on any -3dB wavelengths and pass-band width for each Application Note 2004-015B Page 7 of 7

PDL PARAMETERS Parameter Code Default Name Definition Diagram Default PDL-ITU PDL @ ITU Max PDL measurement at wavelength closest to the ITU center if PDL on WL and PDL measurement at each PDL-CW PDL @ Center Wavelength Max PDL measurement at wavelength closest to the calculated center wavelength WL and PDL at each PDL-ITU-Pass PDL in ITU passband (db) Maximum PDL measurement of any in the pass-band of ITU +/- ½ of pass-band Max PDL measurement of each, and WL of max PDL measurement for each PDL-CHAN-PASS0.5 PDL in Calculated Channel Pass-band ( 0.5dB, MAX) Maximum PDL measurement of any in the calculated 0.5 db pass-band Max PDL measurement of each, and WL of max PDL measurement for each PDL-CHAN-PASS5-1 PDL in Calculated Channel Pass-band ( 1dB, MAX) Maximum PDL measurement of any in the calculated 0.5 db pass-band Max PDL measurement of each, and WL of max PDL measurement for each 2001, 2002, 2003 dbm Optics, Inc. dbm Optics, Inc. 300 South Public Road Lafayette, CO 80026 303-464-1919 www.dbmoptics.com Application Note 2004-015B Page 8 of 8