Purchase Description12S-309A-DC Rev. 2 date31 August 2011.pdf
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- Solicitation number
- FA2263-12-R-0001
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Purchase Description
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| File | Type | Posted |
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| FA2263-12-R-0001 Amendment 1.docx | DOCX document | |
| PD_Rev3_12S-309-DC_counter.docx | DOCX document | |
| DD Form 1423 and TM8601N.pdf | ||
| MLWARR5 Aug 08.pdf | ||
| Purchase Description12S-309A-DC Rev. 2 date31 August 2011.pdf | ||
| FA2263-12-R-0001 Solicitation.pdf | ||
| MLWARR5 Aug 08.doc | DOC document | |
| DD Form 1423 and TM8601N.pdf |
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1.0 SCOPE
PURCHASE DESCRIPTION
FOR
UNIVERSAL COUNTER W/RUBIDIUM
12S-309A-DC
31 August 2011 Rev 2
This section of the purchase description defines the requirements of a universal counter and rubidium frequency standard used to measure timing and frequency parameters of complex waveforms. The instrument described herein replaces the obsolete:
Fluke Universal Counter Model 6681R/676 with Options:
Opt 71 Rear Panel 0.1, 1, 5, and 10 MHz frequency outputs PM9622 Rack Flange Kit for use with supplied front handles
2.0 PERFORMANCE REQUIREMENTS
2.1 Channel A and B Specifications
2.1.1 Input Sensitivity (X1)
The input sensitivity of channels A and B shall be equal to or better than:
25 mV rms for sinewave inputs over their entire frequency spans 75 mv peak-to-peak pulse at minimum pulse width of 5 nS
2 . 1. 2 Dyn~ic Range (X1) The dynamic range of channels A and B shall be equal to or greater than:
75 mv to 5.0 V peak-to-peak, to 100 MHz, and 75 mv to 2.5 V peak-to-peak, for channel A inputs greater than 100 MHz
2.1.3 Trigger Level
2.1.3.1 Range
The trigger level range of channels A and B shall be equal to or greater than:
X1: -5 v to +5 v X10: -so v to +50 v
2.1.3.1.1 Range Setting (X1)
2.1.3.1.1.1 Auto Trigger OFF
The trigger level range with auto trigger off shall be:
Preset: To 0 VDC nominal Adjustable: From -5 VDC to +5 VDC
2.1.3.1.1.2 Auto Trigger ON
The trigger level range with auto trigger on shall be:
Preset: To nominal 50% point of input signal Adjustable: Nominally between the positive and negative peaks of the input signal.
2.1.3.2 Resolution
The trigger level resolution for channels A and B shall be equal to or better than:
X1: 10 mV X10: 100 mV
2 .1. 3. 3 Accuracy (X1) The trigger level accuracy of the instrument for channels A and B on X1 attenuation and DC coupling shall be equal to or better than:
+/-(20 mv + 0.5% of reading)
2.1.3.4 Trigger Level Digital Voltmeter
The instrument shall include a trigger level digital voltmeter, which can measure and display the trigger levels of channels A and B.
2 .1. 3. 5 Auto Trigger (X1)
2.1.3.5.1 Operation
The auto trigger function of the counter shall cause the counter to automatically select the 10% and 90% rise/fall time trigger points, 50% phase trigger points, or the operator's preset value for inputs to channels A and B.
2.1.3.5.2 Frequency Range (50% duty cycle)
The channels A and B auto trigger frequency range for a 50% duty cycle signal input shall be equal to or better than:
DC coupled: 30 Hz to 100 MHz AC coupled and 1 Megohm input impedance: 30 Hz to 100 MHz AC coupled and 50 ohms input impedance: 200 KHz to 100 MHz
2.1.3.5.3 Minimum signal
The minimum signal input for auto trigger shall not exceed 100 mV rms.
2.1.3.5.4 Duty cycle range
The auto trigger duty cycle range shall include from 10% to 90% duty cycles.
2.1.4 Coupling
The coupling shall be AC or DC switchable.
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2 .1. 5 Input Impedance
The input impedance of channels A and B shall be independently settable to 1 Megohm shunted by less than 35 pF and 50 ohms, when separate signals are applied to each channel; and 1 Megohms shunted by less than 50 pF, when connected for COMMON A input.
2.1.6 Attenuator
The instrument shall be capable of X1 and X10 signal attenuation of the input signals to channels A and B.
2.1.7 Slope
The slope of the trigger for inputs to channels A and B shall be positive and negative, independently selectable for each channel.
2.1.8 Channel Input
The instrument shall permit the operator to select the inputs to channels A and B as COMMON A or SEPARATE.
2.1.9 Maximum Operating Level
The instrument shall be capable of accepting signal inputs to channels A and B over a dynamic range of -50 VDC to +50 VDC with the appropriate attenuator setting.
2.1.10 Functions
2.1.10.1 Frequency
2.1.10.1.1 Range
The instrument shall be capable of measuring frequencies from 1 Hz to 300 MHz on channel A and from 1 Hz to 100 MHz on channel B.
2.1.10.1.2 Least Significant Digit Displayed
The LSD displayed for frequency measurements shall be equal to or better than:
(Frequency X 1 nS)/Gate Time
2.1.10.1.3 Resolution
The attainable resolution of frequency measurements shall be equal to or better than:
+/-(2 X LSD+ (1.4 X Frequency X Trigger Error)/Gate Time)
2.1.10.1.4 Accuracy
The total errors of the frequency measurements shall not exceed:
+/-(Resolution+ (Time Base Error X Frequency))
2.1.10.2 Period
2.1.10.2.1 Range
The instrument shall be capable of measuring periods from 10 nS to 1000 S.
2.1.10.2.2 Least Significant Digit Displayed
The Least Significant Digit (LSD) displayed for period measurements shall be equal to or better than:
(Period X 1 nS)/Gate Time
2.1.10.2.3 Resolution
The attainable resolution of period measurements shall be equal to or better than:
+/-(2 X LSD+ (1.4 X Period X Trigger Error)/Gate Time)
2.1.10.2.4 Accuracy
The total errors of the period measurements shall not exceed:
+/-(Resolution+ (Time Base Error X Period))
2.1.10.3 Time Interval
2.1.10.3.1 Range
The instrument shall be capable of measuring time intervals (TI) from 10 nS to 1000 s.
2.1.10.3.2 Least Significant Digit Displayed
The LSD displayed for time interval measurements shall be equal to or better than 1 nS.
2.1.10.3.3 Resolution
The resolution of time interval measurements shall be equal to or better than:
+/-(2 X LSD+ START Trigger Error+ STOP Trigger Error)
2.1.10.3.4 Accuracy
The sum of the errors in time interval measurements shall not exceed:
+/-((Resolution) + (Time Base Error X Time Interval) + (Trigger Level Timing Error)+(2 nS))
2.1.10.4 Rise and Fall Time
2.1.10.4.1 Range
The instrument shall be capable of rise time and fall time measurements over the range of 20 nS to 10 mS.
2.1.10.4.2 Minimum Pulse Height
The minimum pulse height for rise time and fall time measurements shall not exceed 500 mV peak-to-peak.
2.1.10.4.3 Minimum Width at Peak of Signal
The minimum width at peak of signal required for rise time and fall time measurements shall not exceed 20 ns.
2.1.10.4.4 Duty Cycle Range
The ~nstrument shall be capable of measuring rise time and fall time for input signals with a duty cycle range of between 20% and 80%.
2.1.10.4.5 Least Significant Digit Displayed
The LSD displayed for rise time and fall time measurements shall be equal to or better than 1 nS.
2.1.10.4.6 Resolution
The resolution of rise time and fall time measurements shall be equal to or better than:
+/-((2 X LSD) + (START Trigger Error) + (STOP Trigger Error))
2.1.10.4.7 Accuracy
The sum of the errors in rise time and fall time measurements shall not exceed:
+/-((Time Interval Accuracy)+ (Trigger Level Setting Error at 10% point)+ (Trigger Level Setting Error at 90% point))
2.1.10.4.8 Input Mode
The instrument shall automatically set to COMMON A input with 10% and 90% trigger levels.
2.1.10.5 Ratio
2.1.10.5.1 Range
The instrument shall be capable of ratio A/B measurements at frequencies up to 100 MHz.
2.1.10.5.2 Least Significant Digit Displayed
The LSD displayed for ratio measurements shall be equal to:
Ratio/(Higher Frequency X Gate Time)
2.1.10.5.3 Resolution
The resolution of ratio A/B measurements shall be equal to or better than:
+/-(LSD+ (Higher Frequency Trigger Error X Ratio)/Gate Time)
2.1.10.5.4 Accuracy
The accuracy of ratio A/B measurements shall be equal to or better than:
+/-(LSD+ (Higher Frequency Trigger Error X Ratio)/Gate Time)
2.2 Channel C Specifications
2.2.1 Sensitivity
Channel C of the instrument shall have an input sensitivity equal to or better than:
10 mV rms sine wave up to 1 GHz 100 mV rms sine wave from above 1 GHz to 1.3 GHz
2.2.2 Dynamic Range
The dynamic range of the signal inputs to channel C shall include:
10 mV to 1 v rms to 1 GHz 100 mV to 1 V rms from above 1 GHz to 1.3 GHz
2.2.3 Coupling
The input signals to channel C of the instrument shall be AC coupled.
2.2.4 Impedance
The input impedance of the input to channel c of the instrument shall be 50 ohms nominally with a VSWR of less than 3:1.
2.2.5 Damage Level
The damage level of channel C of the instrument shall exceed +/-8 V (DC + AC peak). The channel C input shall be fuse protected.
2.2.6 Functions
2 . 2 . 6 . 1 Frequency
2.2.6.1.1.Range
The channel C input of the instrument shall enable it to measure frequencies between the 200 MHz and 2.7 GHz.
2.2.6.1.2 Least Significant Digit Displayed
The LSD displayed for channel C frequency measurements shall be equal to or better than:
(Frequency X 1 nS)/Gate Time
2.2.6.1.3 Resolution
The attainable resolution of channel C frequency measurements shall be equal to or better than:
+/-(2 X LSD+ (1.4 X Frequency X Trigger Error)/Gate Time)
2.2.6.1.4 Accuracy
The total errors of the channel C frequency measurements shall not exceed:
+/-(Resolution+ (Time Base Error X Frequency))
2.2.6.2Ratio C/A
2.2.6.2.1 Range
The instrument shall be capable of Ratio C/A measurements where the input to channel A ranges from 1 to 160 MHz; and the input to channel C ranges from 100 MHZ to 2.7 GHz.
2.2.6.2.2 Least Significant. Digit Displayed
The LSD displayed for ratio measurements shall be equal to:
Ratio/(Higher Frequency X Gate Time)
2.2.6.2.3 Resolution
The resolution of ratio C/A measurements shall be equal to or better than:
+/-(LSD+ (Higher Frequency Trigger Error X Ratio)/Gate Time)
2.2.6.2.4 Accuracy
The accuracy of ratio C/A measurements shall be equal to or better than:
+/-(LSD+ (Higher Frequency Trigger Error X Ratio)/Gate Time)
2.3 Rubidium High Stability Timebase and Frequency Reference
Outputs
The instrument shall contain a rubidium high stability timebase.
2.3.1 Output Frequencies
The instrument shall provide rear panel outputs phase locked to the timebase at 10 MHZ, 5 MHZ, 1 MHz and 100 KHz.
2.3.2 Frequency Characteristics
2.3.2.1 Timebase Accuracy/Fractional Frequency Offset
The output frequency shall not change by more than 3 X 10 to the minus tenth per day after a 24 hour warm-up period and where the ambient temperature does not vary by more than +/-5 degrees C over that same period.
2 . 3 . 2 . 2 Phase Noise
The Single Side Band (SSB) phase noise in a 1 Hz Bandwidth shall be less than -140 dBc at 1000 Hz from the carrier frequency.
2. 3 . 2 . 3 Retrace
The output frequency of the unit shall be within 1 X 10 to the minus 10 of the original set frequency within a 1 hour warm-up period after 24 hours off time. The output frequency of the unit shall be within 5 X 10 to the minus 11 of the original set frequency within a 24 hour warm-up period.
2. 3. 2. 4 Output amplitude
The output amplitude available from all frequency outputs shall exceed 1 V p p into 50 n
3.0 FUNCTIONAL REQUIREMENTS
3.1 Interface Capability
The instrument shall be equipped with an IEEE-488.2-1992 interface. The interface shall incorporate all of the IEEE-488.2 Common Commands and Queries. Any function that can be entered via the front panel shall be controllable via the interface, with the exception of power on/off. In addition, any or all of the functions which can be displayed, can be queried and sent over the interface. The GPIB Address shall be selectable from a system menu.
3.2 Measuring Functions
Measuring functions must include: phase, duty factor, rise/fall time, peak voltage, frequency, period
3.3 Self-Tests
The instrument must run a self-test during every power-on or reset.
3.4 Calibration Requirements
The instrument must be capable of being calibrated with assets already in PMEL inventory. PMEL will perform the calibration.
4.0 PHYSICAL/MECHANICAL REQUIREMENTS
4.1 Dimensions
The dimensions of the mainframe'shall not exceed:
5.25 Inches Maximum (excluding feet)
20.0 Inches Maximum
Height Depth Width inch
Instrument plus rack mounting shall fit within a standard EIA 19 rack
4.2 Physical Mounting
The instrument shall be furnished with accessories necessary for mounting in a standard 19 inch Electronic Industries Association (EIA) rack.
5.0 CONTROLLER REQUIREMENTS
5.1 Firmware
When firmware or software upgrade is anticipated by the manufacturer during the lifecycle of this contract, the contractor shall contact AFMETCAL for concurrence. If AFMETCAL concurs with the proposed upgrade all previous units shall be updated to this upgrade. All firmware or software provided under this contract shall be at the same version, revision and revision date at the completion of the contract.
6.0 OPERATOR'S MANUAL
As required in the DD 1423 and the Data Item Descriptions, an Operator's Manual shall be delivered on CD with each unit and must contain instructions for using all of the functions available.
7.0 TESTING
All units will be delivered to the AFPSL for calibration testing in accordance with Com Data.
Attachment to Purchase Description 12S-309A-DC
Universal Counterw/Rubidium (P/0 PATEC)
DATA REQUIREMENTS
MANUALS: A set of operational and maintenance manuals shall be provided. As a minimum, the manuals shall include an explanation of features, performance specifications, operational instructions, theory of operation, calibration procedures, and an illustrated parts breakdown. Wherever possible, use of pictures, diagrams, schematics and mathematical formulas shall be included such that any text material may be better understood. Specifically, the calibration procedure shall include a list of required calibration equipment, by part number, connection diagrams and step-by-step instructions to follow for completing this task. In addition, a system- level manual explaining the system operation and software shall also be provided. Manuals shall be on CD/DVD-ROM in Indexed Portable Document Format (iPDF).
A validation and verification of the manuals will be required. The manual shall be in accordance with the Air Force Technical Manual Contract Requirements (TMCR) TM86-01N and Contract Data
GOVERNMENT PURPOSE LICENSE AGREEMENT (GPLA): AFMETCAL requires this agreement to protect the rights of both the government and the vendor and expedites assignment of Technical Order (TO) numbers. Included in the Technical Manual Contracts Requirement TM-86-01 is a sample of the GPLA.
Without the GPLA, the government will be unable to assign TO numbers and/or manage necessary commercial manuals. For purposes of this RFO/RFP you must state compliance with this requirement in your technical proposal. Once the contract is awarded, the GPLA will be delivered in accordance with the Delivery Schedule defined in Part B- TM Delivery Requirements in the TM-86-01. A copy of the signed statement will be published with the manual to ensure the user in the field is aware of their rights and responsibilities.
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