OBS tech compliance.docx

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Attached to
Ocean Bottom Seismometer and Low Frequency Hydrophone
Solicitation number
24-0423 KLE
Issued by
Adams County, Asotin County, Benton County, Chelan County, Clallam County, Clark County, Columbia County, Cowlitz County, Douglas County, Ferry County, Franklin County, Garfield County, Grant County, Grays Harbor County, Island County, Jefferson County, King County, Kitsap County, Kittitas County, Klickitat County, Lewis County, Lincoln County, Mason County, Okanogan County, Pacific County, Pend Oreille County, Pierce County, San Juan County, Skagit County, Skamania County, Snohomish County, Spokane County, Stevens County, Thurston County, Wahkiakum County, Walla Walla County, Whatcom County, Whitman County, Yakima County, Asotin City, Clarkston City, Clarkston Heights-Vineland CDP, West Clarkston-Highland CDP, Benton City, Chelan City, Chelan Falls CDP, Clallam Bay CDP, Lewisville CDP, Rock Island City, Pacific Beach CDP, Whidbey Island Station CDP, Mercer Island City, Pacific City, Bainbridge Island City, Kingston CDP, Kitsap Lake CDP, Kittitas City, Klickitat CDP, Okanogan City, Anderson Island CDP, Fort Lewis CDP, Fox Island CDP, Herron Island CDP, Ketron Island CDP, North Fort Lewis CDP, Raft Island CDP, Stevenson City, Hat Island CDP, Lake Stevens City, Snohomish City, Spokane City, Spokane Valley City, Puget Island CDP, Garfield Town, Yakima City, Washington

About this file

This document is a Compliance Matrix for a state and local contract opportunity issued by the University of Washington as part of the Regional Cable Assembly project. The matrix specifies the technical requirements for Ocean Bottom Seismometers and Low Frequency Hydrophones, including parameters related to broadband seismometers, accelerometers, and associated equipment. It requests offerors to provide the values and substantiation for each specification, covering areas such as sensitivity, dynamic range, frequency response, and calibration capabilities. The contract opportunity includes jurisdictions across Washington state, including counties, cities, and census-designated places. No specific response dates, award information, or contract term is provided in this document.

The matrix does not include pricing terms, set asides, or funding details. It focuses solely on the technical specifications the University of Washington is seeking for the ocean bottom sensor equipment as part of this regional infrastructure project.

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Other files

File Type Posted
UPDATED RFQQ 0423 OBS 4.23.24.pdf PDF
COSZO_OBSTech_Spec_1-00.docx.pdf PDF
RFQQ 24-0423 OBS 4.23.24.pdf PDF
OBS past performance.docx DOCX document
RFQQ 04-0423 Addendum 1.pdf PDF
RFQQ 04-0423 Addendum 2.pdf PDF

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Text version

Exhibit 1 Technology Specification Compliance Matrix

Spec I.D. (column 1) of the compliance matrix refers to the specification identifiers in the Ocean Bottom Seismometer Technical Specification document, ver 1-00. See the specifications for full descriptions of the items listed in the Parameter column. Fill in the Value column with the parameters of your proposed instrument. Please use the units specified in the Units column. Where available, cite specific references in the Substantiation column that substantiate the value listed. Links may be included. (The same reference may be cited in multiple places.) Examples of cited references may include:

· Independent research papers

· Independent test results

· Testing by the Offeror

· Engineering analysis by the Offeror

If no references are available, a statement by the Offeror may be provided in the proposal (e.g., “The communications board in the instrument supports a 10/100 Ethernet interface.”)

If no substantiation is provided, leave the cell blank.

Where possible, please include a copy of each cited reference as electronic attachment to your proposal. (These attachments do not count against the proposal page limit.) If doing so presents copyright issues, it is appropriate to provide a publicly available location (document reference, Internet URL, etc.) where the cited reference may be found.

The Compliance Matrix is shown below, for input by the offeror.

Spec I.D.
Parameter
Units
Value
Substantiation
1.1
Broadband seismometer shall produce 3 orthogonal outputs
Y/N
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1.2
Seismometer shall have analog output, differential, one output for each channel, flat response to earth velocity
Y/N
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1.3
Seismometer shall have a sensitivity at differential output of no less than 1,200 V/m/s
V/m/s
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1.4
Seismometer and associated leveling system free of parasitic resonances below 100 Hz
Y/N
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Click or tap here to enter text.
1.5
Seismometer and associated leveling system shall make broadband measurements of ground velocity at instrument noise levels at or below USGS NLNM within frequency band from ≤8.3 mHz (120 s) to 10 Hz (0.1 s)
Y/N
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Click or tap here to enter text.
1.6
Seismometer supports a dynamic range of ≥ 150 dB within frequency band 8.33 mHz to 10 Hz
dB
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Click or tap here to enter text.
1.7
Seismometer shall have a Frequency pass band with flat velocity response within 3 dB from -3 dB points of 2.8 mHz (360 s) to ≥ 20 Hz (0.02 s)
dB
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1.8
Seismometer shall have a clip level greater than output voltage
Volts
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1.9
Seismometer measures & delivers mass position outputs for all 3 components
Y/N
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1.10
Seismometer is linear from the noise floor to 100 dB above the noise floor
Y/N
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1.11
Seismometer capable of calibration via remotely injected signals while deployed
Y/N
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1.12
Seismometer has a means of leveling axes when OBS package is deployed at an angle up to 20 degrees from horizontal
deg
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1.13
Seismometer masses capable of being Auto-leveled and auto-centered, or re-leveled using a remote mass-centering command
Y/N
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1.14
Seismometer has capability to remotely command the sensor to lock or unlock masses
Y/N
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1.15
Seismometer reports case tilt with respect to the vertical
Y/N
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1.16
Seismometer has positive polarities of output signals for earth motion (up, north, east)
Y/N
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1.17
Seismometer’s magnetic susceptibility less than 0.003 m/s2/T
m/s2/T
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1.18
Temperature range over which no mass centering is required no less than ±2°C
±°C
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1.19
Manufacturer’s name, model number, serial number, factory calibration parameters sufficient to reconstruct sensitivity and transfer function retrievable from seismometer
Y/N
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Click or tap here to enter text.
2.1
Accelerometer produces 3 orthogonal outputs representing ground acceleration calibrated in units of V/m/s2
Y/N
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2.2
Accelerometer has analog output, differential, one output for each channel, and flat response to ground acceleration
Y/N
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2.3
Accelerometer makes broadband measurements of ground acceleration at instrument noise levels no more than -120 dB re. 1(m/s2)2/Hz in frequency band 0.1 Hz – 100 Hz when configured for a full-scale range of ±2g
dB
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2.4
Accelerometer is capable of being centered via a control line
Y/N
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2.5
Accelerometer has frequency pass band range from ≤ 0.075 Hz to ≥ 100 Hz.
Hz
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2.6
Accelerometer makes measurements of ground acceleration with a dynamic range of ≥150 dB within the specified frequency band.
dB
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2.7
Accelerometer is capable of full-scale range of at least ±2g.
m/s2
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2.8
Accelerometer is capable of operating when OBS package is deployed at an angle of up to 20 degrees from horizontal
deg
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2.9
Accelerometer will be aligned with the seismometer
Y/N
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2.10
Manufacturer’s name, model number, serial number, factory calibration parameters sufficient to reconstruct sensitivity and transfer function retrievable from accelerometer

Y/N

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Click or tap here to enter text.

2.11
Accelerometer is capable of outputting data in Z,N,E
Y/N
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2.12
Accelerometer non-linearity <0.1%
%
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2.13
Cross-axis sensitivity <1%
%
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3.1
Hydrophone measures underwater sound pressure of scalar acoustic waves in the frequency range of 1 – 1000 Hz
Hz
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3.2
Hydrophone has minimum receive sensitivity of -186 dB re 1V/ μPa without preamp (-160 dB with preamp)
dB
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Click or tap here to enter text.
3.3
Hydrophone equivalent self-noise spectral levels 10 dB below sea-state zero ocean noise sound pressure levels defined by NUSC TD7265 ambient noise curves within specified frequency range in spec. 3.1
dB
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3.4
Hydrophone has dynamic range of 80 dB above the noise floor
dB
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Click or tap here to enter text.
3.5
Hydrophone calibration has an accuracy of 1.0 dB//1 μPa
dB//1 μPa
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Click or tap here to enter text.
3.6
Hydrophone calibration has a resolution of 0.1 dB//1 μPa
dB//1 μPa
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3.7
Hydrophone is omni-directional in response, within 3 dB, over the specified frequency range in spec. 3.1
dB
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Click or tap here to enter text.
3.8
Hydrophone is connected to the OBS package with a 5m underwater-rated cable
Y/N
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4.1
Cox/Deaton/Webb type differential pressure gauge (DPG)
Y/N
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Click or tap here to enter text.
4.2
DPG has pass band of 2 Hz to 500 seconds
Hz or sec
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4.3
DPG has a nominal gain of 1 mV/PA at 1 Hz
mV/PA
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4.4
DPG noise shall not exceed 5x 10^-3 Pa2/Hz at 100s
Pa2/Hz
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4.5
DPG pre-amp shall have a bandwidth that supports the full passband of the DPG
Y/N
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4.6
DPG is connected to the OBS package with a 5m underwater-rated cable
Y/N
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Click or tap here to enter text.
5.1
Digitizer converts analog signals from broadband seismometer, strong motion seismometer, and low frequency hydrophone to digital representations of Voltage
Y/N
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5.2
Digitizer collects broadband seismic measurements with at least 24-bit resolution and with a dynamic range of ≥140 dB above the digitizer noise floor
bit, dB
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5.3
Digitizer has an input voltage range of ±20 V, differential
Volts
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5.4
Digitizer has multiple pre-amp gain settings remotely selectable
Y/N
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5.5
Digitizer is capable of acquiring broadband measurements with multiple sample rates, at least one will be ≥200 Hz
Hz
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Click or tap here to enter text.
5.6
Digitizer is capable of acquiring 3-axis analog broadband measurements, outputting at least 4 different sampling rates per axis (1, 8, 40, 200 samples/sec)
Y/N
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Click or tap here to enter text.
5.7
Digitizer is capable of acquiring 3-axis analog strong motion measurements, outputting at least 3 different sampling rates per axis (1, 8, 200 samples/sec)
Y/N
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Click or tap here to enter text.
5.8
Digitizer is capable of acquiring 1 channel of analog hydrophone measurements, outputting at least 2 different sampling rates per axis (1, 200 samples/sec)
Y/N
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Click or tap here to enter text.
5.9
Digitizer is capable of acquiring 1 channel of analog DPG measurements, outputting at least 2 different sampling rates per axis (1, 8 samples/sec)
Y/N
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5.10
Digitizer data samples on all channels running at the same sample rate taken simultaneously to within 1% of the sample interval
Y/N
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5.11
Digitizer enables broadband measurements of ground velocity at instrumental noise levels no more than USGS NLNM within a frequency band extending from ≤8.3 mHz (120 s) to 10 Hz (0.1 s)
Hz or s
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Click or tap here to enter text.
5.12
Digitizer has a linearity of -110 dB or better
dB
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5.13
Digitizer is accurate to 1 ms absolute with a free running oscillator with a max temperature sensitivity of 0.1 ppm/degree C and a max drift rate (at constant temperature) of 0.1 ppm
Y/N
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5.14
Digitizer is capable of generating sine, step, and random calibration signals, configurable to provide sensor outputs between 5% and 50% of full scale, accompanied by calibration-enable signals for the appropriate set of 3 sensor channels
Y/N
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5.15
All digitizer channels shall be derived using linear phase “brick- wall” filters with high frequency corner fc at least 80% of the Nyquist frequency and stop band amplitude (Nyquist to higher frequencies) at least 95 dB below the pass band with pass band (DC to fc) ripple of less than 5%
Y/N
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5.16 Configuration information available through the instrument interface should allow reconstruction of the complete transfer function for all active data streams; include manufacturer name, digitizer type, digitizer serial number, board serial numbers and version numbers, factory calibration parameters, including FIR filter coefficients, and A/D conversion factors for each channel

Y/N

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6.1
Broadband seismometer and strong motion sensors co-located in same housing
Y/N
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6.2
Broadband seismometer and strong motion sensors co-oriented
Y/N
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6.3
OBS instrument operate at full functionality at water depth of 3500 meters
m
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6.4
All parts of instrument in contact with sea water are non-corrosive and constructed from titanium or non-metallic materials
Y/N
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6.5
Instruments are capable of operating in water salinities from 0 to 40 on the PSS
Y/N
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6.6
Instruments are capable of operating in water temperatures from -2 to 35°C
degC
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6.7
Instruments are capable of ROV deployment, recovery, and redeployment without impairment of performance of any components
Y/N
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6.8
Instruments are capable of being stored without damage or degradation between -20 and 50°C for periods of up to twelve (12) months
degC
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6.9
Instrument output unaffected by reasonable changes in magnetic field
Y/N
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7.1
Instruments powered by two wire (+VDC, -VDC) voltages floating free of the housing
Volts
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7.2
Instruments operate from a supply voltage of 48 VDC ± 5%
Y/N
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7.3
Instrument electronics capable of operating in the presence of ± 50 VDC potential between power conductors and the pressure case
Y/N
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7.4
Interface between broadband seismometer and the digitizer shall be differential
Y/N
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7.5
Interface between strong motion accelerometer and the digitizer shall be differential
Y/N
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7.6
OBS shall ground all circuitry internally with no electrical connection to the seawater
Y/N
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7.7
All instrument electronics and electrical connections shall be isolated from seawater by > 100 MΩ
MOhm
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7.8 OBS capable of utilizing a 2-wire EIA-485 1 PPS signal with 20 µs pulse length, synchronizing on the rising edge

Y/N

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7.9
OBS shall be compatible with an MHDXL-12-TI connector (UW provided) in order to interface with the RCA system
Y/N
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8.1
Instruments shall recover from sudden loss of power in a known state and with full functionality
Y/N
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8.2
Instruments designed for deployed operations of at least 15 years
Y/N
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8.3
Instruments have external alignment heading markings visible to ROV during deployment
Y/N
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8.4
Instrument shall have a user interface to remotely monitor and control all sensor and data telemetry
Y/N
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8.5
Instrument calibrations shall be good to 1% and have a gain stability of 1% between calibrations
Y/N
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8.6
OBS shall be capable of providing state of health monitoring with parameters including at a minimum: mass position, internal temperature and voltages, external power sources, external power source history, and battery voltages. Parameters shall be available in continuous telemetry packets for ease of monitoring without special requests
Y/N
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9.1
Instrument shall provide 10/100 BaseT Ethernet Interface
Y/N
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9.2
Instruments support error corrected standard IP communications protocol
Y/N
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9.3
Instruments support user-settable static IP address or DHCP configurations
Y/N
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9.4
Instruments shall be capable of being remotely accessed and controlled via the communication interface
Y/N
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9.5
OBS shall allow the user to remotely set all parameters necessary for full and robust control of the system including sample rates, recording modes, sensor control signals (specified separately under “Control Functions”)
Y/N
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9.6
OBS supports real-time data output
Y/N
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9.7
OBS support miniSEED data output format
Y/N
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9.8
All data stored on instrument shall be remotely accessible over the communication interface
Y/N
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9.9
OBS shall buffer data for at least 1 hour during a remote communications outage and shall backfill data when reconnected
hr
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10.1

Instrument shall time-stamp data with an accuracy of 1µs with respect to its internal clock µs

10.2
Instrument shall time-stamp data with jitter of ≤ 1 µs
µs
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10.3
Internal clock of the instrument shall be synchronized to a timing accuracy of 1µs with respect to supplied 1 PPS differential signal in combination with an external NTP server or NMEA time of day message strings
Y/N
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10.4
Instrument shall be capable of transmitting data with a latency of 1 second or less from the time of the first measurement in the data packet
s
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10.5
Instrument shall be capable of detecting and reporting when clock synchronization has been lost and of automatically resynchronizing
Y/N
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10.6
Data-logger will provide timing info, such as state of locking to external time signal, etc
Y/N
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11.1
To the greatest extent practical, instruments should be compatible with applicable national and international standards, including those of the IEEE, ANSI, and IEC.
Y/N
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11.2
Instruments in their shipping containers shall be capable of transport without damage or degradation during shipping conditions defined by ASTM D4169 truck assurance level 1
Y/N
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11.3
Instrument transportation cases shall have external labels specifying safe handling precautions.
Y/N
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11.4
Instruments shall be marked indelibly on an exterior surface. Marking shall include manufacturer’s part number, and unit serial number(s).
Y/N
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11.5
Instruments capable of being marked indelibly by OOI without damage to the instrument or housing
Y/N
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