[Federal Register Volume 78, Number 25 (Wednesday, February 6, 2013)]
[Notices]
[Pages 8506-8507]
[FR Doc No: 2013-02657]

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DEPARTMENT OF ENERGY

Federal Energy Regulatory Commission

Combined Notice of Filings 2

    Take notice that the Commission received the following electric
rate filings:

    Docket Numbers: ER13-281-001
    Applicants: Star Energy Partners LLC
    Description: Star Energy Partners LLC submits Notice of Non-
Material Change in Status.
    Filed Date: 1/30/13
    Accession Number: 20130130-5166
    Comments Due: 5 p.m. ET 2/20/13

    Docket Numbers: ER13-435-001
    Applicants: New York Independent System Operator, Inc.
    Description: New York Independent System Operator, Inc. submits
NYISO Compliance Filing re: definition of the term ``blind trust'' in
the OATT to be effective 1/1/2013.
    Filed Date: 1/30/13
    Accession Number: 20130130-5223
    Comments Due: 5 p.m. ET 2/20/13

    Docket Numbers: ER13-437-001
    Applicants: New York Independent System Operator, Inc.
    Description: New York Independent System Operator, Inc. submits
NYISO Compliance Filing re: the term, ``blind trust'' in the ISO
Agreement to be effective 1/1/2013.
    Filed Date: 1/30/13
    Accession Number: 20130130-5225
    Comments Due: 5 p.m. ET 2/20/13

    Docket Numbers: ER13-772-000
    Applicants: NorthWestern Corporation
    Description: SA 576--WKN Montana II LGIA--1st Revised, Amended, 2nd
Corrected Redline to be effective N/A.
    Filed Date: 1/30/13
    Accession Number: 20130130-5124
    Comments Due: 5 p.m. ET 2/20/13

    Docket Numbers: ER13-826-000
    Applicants: RPA Energy, Inc.
    Description: RPA Energy, Inc. to be effective 3/1/2013.
    Filed Date: 1/30/13
    Accession Number: 20130130-5139
    Comments Due: 5 p.m. ET 2/20/13

    Docket Numbers: ER13-827-000
    Applicants: Carolina Power & Light Company
    Description: Service Agreement No. 328 under Carolina Power and
Light OATT to be effective 1/1/2013.
    Filed Date: 1/30/13
    Accession Number: 20130130-5140
    Comments Due: 5 p.m. ET 2/20/13

    Docket Numbers: ER13-828-000
    Applicants: EverPower Wind Holdings, Inc.
    Description: Notice of Cancellation to be effective 3/1/2013.
    Filed Date: 1/30/13
    Accession Number: 20130130-5143
    Comments Due: 5 p.m. ET 2/20/13

    Docket Numbers: ER13-829-000
    Applicants: Southwest Power Pool, Inc.
    Description: 1628R4 Western Farmers Electric Cooperative NITSA NOA
to be effective 1/1/2013.
    Filed Date: 1/30/13
    Accession Number: 20130130-5152
    Comments Due: 5 p.m. ET 2/20/13

    Docket Numbers: ER13-830-000
    Applicants: J.P. Morgan Ventures Energy Corporation
    Description: Cost-Based Rate Compliance Filing to be effective 4/1/
2013.
    Filed Date: 1/30/13
    Accession Number: 20130130-5158
    Comments Due: 5 p.m. ET 2/20/13

    Docket Numbers: ER13-831-000
    Applicants: Carolina Power & Light Company
    Description: Service Agreement No. 326 under Carolina Power and
Light OATT to be effective 1/1/2013 under ER13-831 Filing Type: 10
    Filed Date: 1/30/13
    Accession Number: 20130130-5165
    Comments Due: 5 p.m. ET 2/20/13

    Take notice that the Commission received the following electric
securities filings:

    Docket Numbers: ES11-40-002
    Applicants: Entergy Services, Inc., Entergy Arkansas, Inc., Entergy
Gulf States Louisiana, L.L.C., Entergy Louisiana, LLC, Entergy
Mississippi, Inc., Entergy New Orleans, Inc., Entergy Texas, Inc.
    Description: Response to Commission Request for Additional
Information of Entergy Services, Inc.
    Filed Date: 1/22/13
    Accession Number: 20130122-5382
    Comments Due: 5 p.m. ET 2/5/13

    Take notice that the Commission received the following land
acquisition reports:

    Docket Numbers: LA12-4-000
    Applicants: AEE2, L.L.C., AES Alamitos, LLC, AES Armenia Mountain
Wind, LLC, AES Beaver Valley, L.L.C., AES Creative Resources, L.P., AES
Eastern Energy, L.P., AES Energy Storage, LLC, AES ES Westover, LLC,
AES Huntington Beach, L.L.C., AES Laurel Mountain, LLC, AES Redondo
Beach, L.L.C., Condon Wind Power, LLC, Lake Benton Power Partners, LLC,
Mountain View Power Partners, LLC Mountain View Power Partners IV, LLC,
Storm Lake Power Partners II, LLC, Indianapolis Power & Light Company,

The Dayton Power and Light Company, DPL Energy, Inc.
    Description: Report of Generation Site Acquisitions for Q4 2012 of
The AES Corporation.
    Filed Date: 1/30/13
    Accession Number: 20130130-5193
    Comments Due: 5 p.m. ET 2/20/13

    Docket Numbers: LA12-4-000
    Applicants: ArcLight Energy Marketing, LLC, Panther Creek Power
Operating, LLC, Scrubgrass Generating Company, L.P.
    Description: Quarterly Land Acquisition Report of ArcLight Energy
Marketing, LLC, et al.
    Filed Date: 1/30/13
    Accession Number: 20130130-5205
    Comments Due: 5 p.m. ET 2/20/13

    Docket Numbers: LA12-4-000
    Applicants: EC&R O&M, LLC, Munnsville Wind Farm, LLC, Pioneer Trail
Wind Farm, LLC, Settlers Trail Wind Farm, Stony Creek Wind Farm, LLC
and Wildcat Wind Farm I, LLC
    Description: Quarterly Land Acquisition Report of E.ON CRNA
Sellers.
    Filed Date: 1/30/13
    Accession Number: 20130130-5228
    Comments Due: 5 p.m. ET 2/20/13

    The filings are accessible in the Commission's eLibrary system by
clicking on the links or querying the docket number.
    Any person desiring to intervene or protest in any of the above
proceedings must file in accordance with Rules 211 and 214 of the
Commission's Regulations (18 CFR 385.211 and 385.214) on or before 5:00
p.m. Eastern time on the specified comment date. Protests may be
considered, but intervention is necessary to become a party to the
proceeding.
    eFiling is encouraged. More detailed information relating to filing
requirements, interventions, protests, service, and qualifying
facilities filings can be found at: http://www.ferc.gov/docs-filing/efiling/filing-req.pdf. For other information, call<PHONE_NUMBER>
(toll free). For TTY, call<PHONE_NUMBER>.

    Dated: January 30, 2013.
Nathaniel J. Davis, Sr.,
Deputy Secretary.
[FR Doc. 2013-02657 Filed 2-5-13; 8:45 am]
BILLING CODE 6717-01-P


species stage stage. sequenceival. bystage. fraction nat. mort. m fish. mort. f fraction. vulnerable species. used DCTM_ ARP. xls ( life. history02) notes. survival. rate notes. nat. mortnotes. fish. mort notes. fraction. vulnerable DCTM_ ARP. xls ( life. history02) species alpha. cm. to. gm alpha. mm. to. gm beta. mm. to. gm notes DCTM_ ARP. xls ( lbs. from. mm03) species stage tage. sequenctotal. len. mm weight. g weight. lbs species. used notes. mnote. length note. weight dummy dummy  999  999  999  999.00 dummy dummydummy dummy anchovies1 egg 1 0.0006 0.0006 . northern. anchovy . Represents wCalculated as V= Pi x diameter^ 3/ 6, assuming 1c anchovies1 larvae 2 0.0007 0.0007 . northern. anchovy . Represents wCalculated as 10% greater than egg weight. anchovies1 juvenile 3 6.0055 6.0055 . northern. anchovy . Represents wCalculated using 83 mm ( 1 increment greater th anchovies1 age01 4 18.5 18.5 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies1 age02 5 24.0 24.0 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies1 age03 6 27.6 27.6 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies1 age04 7 31.0 31.0 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies1 age05 8 34.6 34.6 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies1 age06 9 35.8 35.8 . northern. anchovy FishBaRepresents w# 25876, p. C 12, Table C 6 anchovies2 egg 1 0.0006 0.0006 . northern. anchovy . Represents wCalculated as V= Pi x diameter^ 3/ 6, assuming 1c anchovies2 larvae. 3mm 2 0.000686 0.000686 . northern. anchovy . Represents wAssumed to be 10% greater than egg weight. anchovies2 larvae. 4mm 3 0.000784 0.000784 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 5mm 4 0.001514 0.001514 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 6mm 5 0.002593 0.002593 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 7mm 6 0.004085 0.004085 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 8mm 7 0.006058 0.006058 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 9mm 8 0.008574 0.008574 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 10mm 9 0.011700 0.011700 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 11mm 10 0.015499 0.015499 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 12mm 11 0.020034 0.020034 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 13mm 12 0.025370 0.025370 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 14mm 13 0.031569 0.031569 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 15mm 14 0.038695 0.038695 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 16mm 15 0.046810 0.046810 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 17mm 16 0.055977 0.055977 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 18mm 17 0.066258 0.066258 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 19mm 18 0.077716 0.077716 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 20mm 19 0.090412 0.090412 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 21mm 20 0.104408 0.104408 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 22mm 21 0.119766 0.119766 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 23mm 22 0.136547 0.136547 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 24mm 23 0.154814 0.154814 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 25mm 24 0.174626 0.174626 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 26mm 25 0.196046 0.196046 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 27mm 26 0.219134 0.219134 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 28mm 27 0.243951 0.243951 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 29mm 28 0.270558 0.270558 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 30mm 29 0.299015 0.299015 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 31mm 30 0.329384 0.329384 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 32mm 31 0.361725 0.361725 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 33mm 32 0.396097 0.396097 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 34mm 33 0.432562 0.432562 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 35mm 34 0.471180 0.471180 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 36mm 35 0.512010 0.512010 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 37mm 36 0.555112 0.555112 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 38mm 37 0.600548 0.600548 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 39mm 38 0.648375 0.648375 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 40mm 39 0.698655 0.698655 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 41mm 40 0.751447 0.751447 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 larvae. 59mm 41 2.198869 2.198869 . northern. anchovy . Represents wCalculated based on larval length from # 25876 anchovies2 juvenile 42 6.0055 6.0055 . northern. anchovy . Represents wCalculated using 83 mm ( 1 increment greater th anchovies2 age01 43 18.5 18.5 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies2 age02 44 24.0 24.0 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies2 age03 45 27.6 27.6 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies2 age04 46 31.0 31.0 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies2 age05 47 34.6 34.6 . northern. anchovy FishBaRepresents w# 25876, p. C 12, Table C 6 anchovies2 age06 48 35.8 35.8 . northern. anchovy FishBaRepresents w# 25876, p. C 12, Table C 6 anchovies3 egg 1 0.0006 0.0006 . northern. anchovy . Represents wCalculated as V= Pi x diameter^ 3/ 6, assuming 1c anchovies3 larvae. 6mm 2 0.002593 0.002593 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 7mm 3 0.004085 0.004085 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 9mm 4 0.008574 0.008574 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 10mm 5 0.011700 0.011700 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 11mm 6 0.015499 0.015499 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 12mm 7 0.020034 0.020034 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 13mm 8 0.025370 0.025370 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 14mm 9 0.031569 0.031569 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 15mm 10 0.038695 0.038695 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 17mm 11 0.055977 0.055977 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 19mm 12 0.077716 0.077716 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 20mm 13 0.090412 0.090412 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 21mm 14 0.104408 0.104408 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 23mm 15 0.136547 0.136547 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 26mm 16 0.196046 0.196046 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 28mm 17 0.243951 0.243951 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 29mm 18 0.270558 0.270558 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 30mm 19 0.299015 0.299015 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 31mm 20 0.329384 0.329384 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 32mm 21 0.361725 0.361725 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 38mm 22 0.600548 0.600548 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 57mm 23 1.986171 1.986171 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 62mm 24 2.545314 2.545314 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 64mm 25 2.795225 2.795225 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 65mm 26 2.926040 2.926040 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 66mm 27 3.060839 3.060839 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 67mm 28 3.199680 3.199680 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 70mm 29 3.641037 3.641037 . northern. anchovy . Represents wCalculated using larval length and L W equation DCTM_ ARP. xls ( species. growth04) species stage tage. sequenctotal. len. mm weight. g weight. lbs species. used notes. mnote. length note. weight anchovies3 larvae. 75mm 30 4.462894 4.462894 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 81mm 31 5.600369 5.600369 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 larvae. 82mm 32 5.806798 5.806798 . northern. anchovy . Represents wCalculated using larval length and L W equation anchovies3 juvenile 33 6.0055 6.0055 . northern. anchovy . Represents wCalculated using 83 mm ( 1 increment greater th anchovies3 age01 34 18.5 18.5 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies3 age02 35 24.0 24.0 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies3 age03 36 27.6 27.6 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies3 age04 37 31.0 31.0 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies3 age05 38 34.6 34.6 . northern. anchovy . Represents w# 25876, p. C 12, Table C 6 anchovies3 age06 39 35.8 35.8 . northern. anchovy FishBaRepresents w# 25876, p. C 12, Table C 6 com. shrimp egg 1 4.8825 . . bay. shrimp . Represents viCalculated as V= Pi x diameter^ 3/ 6, assuming 1c com. shrimp larvae 2 6.7 . . bay. shrimp . http:// fwie. fw. v. com. shrimp juvenile 3 27 . . bay. shrimp . http:// fwie. fw. v. com. shrimp age01 4 43.8 . . black. tailed. bay. shrimp. Interpolated b. com. shrimp age02 5 71.0 . . black. tailed. bay. shrimp# 30009# 30009 p. 4 51. forage. shrimp egg 1 4.8825 . . bay. shrimp . Represents viCalculated as V= Pi x diameter^ 3/ 6, assuming 1c forage. shrimp larvae 2 6.7 . . bay. shrimp . http:// fwie. fw. v. forage. shrimp juvenile 3 27 . . bay. shrimp . http:// fwie. fw. v. forage. shrimp age01 4 30.5 . . black. tailed. bay. shrimp. # 30009 p. 4 51. forage. shrimp age02 5 71.0 . . black. tailed. bay. shrimp# 30009# 30009 p. 4 51. cabezon egg 1 4.7621 . . cabezon . Represents viCalculated as V= Pi x diameter^ 3/ 6, assuming 1c cabezon larvae 2 25 . . cabezon . Cailliet, 2000.. cabezon juvenile 3 60 . . cabezon . O'Connell, 19. cabezon age01 4 165.0 . . cabezon . O'Connell, 19. cabezon age02 5 305.0 . . cabezon . Avg. of ages 1. cabezon age03 6 445.0 . . cabezon . O'Connell, 19. cabezon age04 7 504.0 . . cabezon . O'Connell, 19. cabezon age05 8 524.0 . . cabezon . O'Connell, 19. cabezon age06 9 550.0 . . cabezon . O'Connell, 19. cabezon age07 10 569.0 . . cabezon . O'Connell, 19. cabezon age08 11 585.0 . . cabezon . O'Connell, 19. cabezon age09 12 620.0 . . cabezon . O'Connell, 19. cabezon age10 13 631.0 . . cabezon . O'Connell, 19. cabezon age11 14 659.0 . . cabezon . O'Connell, 19. cabezon age12 15 689.5 . . cabezon . Avg. of ages 1. cabezon age13 16 720.0 . . cabezon CaillietO'Connell, 19. california. halibut egg 1 2.8320 . . california. halibut . Represents viCalculated as V= Pi x diameter^ 3/ 6, assuming 1c california. halibut larvae 2 5.70 . . california. halibut . Cailliet 2000 (. california. halibut juvenile 3 90.00 . . california. halibut . Cailliet 2000 (. california. halibut age01 4 178.0 . . california. halibut . Kucas and Ha. california. halibut age02 5 318.0 . . california. halibut . Kucas and Ha. california. halibut age03 6 439.0 . . california. halibut . Kucas and Ha. california. halibut age04 7 553.0 . . california. halibut . Kucas and Ha. california. halibut age05 8 648.0 . . california. halibut . Kucas and Ha. california. halibut age06 9 730.5 . . california. halibut . Calculated ba. california. halibut age07 10 813.0 . . california. halibut . Kucas and Ha. california. halibut age08 11 876.5 . . california. halibut . Calculated ba. california. halibut age09 12 940.0 . . california. halibut . Kucas and Ha. california. halibut age10 13 978.0 . . california. halibut . Calculated ba. california. halibut age11 14 1016.0 . . california. halibut . Calculated ba. california. halibut age12 15 1054.0 . . california. halibut . Kucas and Ha. california. halibut age13 16 1080.1 . . california. halibut . Calculated ba. california. halibut age14 17 1106.2 . . california. halibut . Calculated ba. california. halibut age15 18 1132.3 . . california. halibut . Calculated ba. california. halibut age16 19 1158.4 . . california. halibut . Calculated ba. california. halibut age17 20 1184.6 . . california. halibut . Calculated ba. california. halibut age18 21 1210.7 . . california. halibut . Calculated ba. california. halibut age19 22 1236.8 . . california. halibut . Calculated ba. california. halibut age20 23 1262.9 . . california. halibut . Calculated ba. california. halibut age21 24 1289.0 . . california. halibut . Calculated ba. california. halibut age22 25 1315.1 . . california. halibut . Calculated ba. california. halibut age23 26 1341.2 . . california. halibut . Calculated ba. california. halibut age24 27 1367.3 . . california. halibut . Calculated ba. california. halibut age25 28 1393.4 . . california. halibut . Calculated ba. california. halibut age26 29 1419.6 . . california. halibut . Calculated ba. california. halibut age27 30 1445.7 . . california. halibut . Calculated ba. california. halibut age28 31 1471.8 . . california. halibut . Calculated ba. california. halibut age29 32 1497.9 . . california. halibut . Calculated ba. california. halibut age30 33 1524.0 . . california. halibut CaillietCailliet, 2000 . drums. croakers egg 1 2.2664 . . white. croaker . Represents viCalculated as V= Pi x diameter^ 3/ 6, assuming 1c drums. croakers larvae 2 4.4000 . . white. croaker . # 30009 p. 3 6# 30009 p. 5 28: Larval growth rate 0.20mm/ day drums. croakers juvenile 3 17.2000 . . white. croaker . Cailliet, 2000.. drums. croakers age01 4 165.0 . . white. croaker . # 22499, pg. C. drums. croakers age02 5 181.0 . . white. croaker . # 22499, pg. C. drums. croakers age03 6 196.0 . . white. croaker . # 22499, pg. C. drums. croakers age04 7 211.0 . . white. croaker . # 22499, pg. C. drums. croakers age05 8 225.0 . . white. croaker . # 22499, pg. C. drums. croakers age06 9 239.0 . . white. croaker . # 22499, pg. C. drums. croakers age07 10 253.0 . . white. croaker . # 22499, pg. C. drums. croakers age08 11 266.0 . . white. croaker . # 22499, pg. C. drums. croakers age09 12 278.0 . . white. croaker . # 22499, pg. C. drums. croakers age10 13 290.0 . . white. croaker . # 22499, pg. C. drums. croakers age11 14 301.0 . . white. croaker . # 22499, pg. C. drums. croakers age12 15 313.0 . . white. croaker # 22499# 22499, pg. C. delta. smelt egg 1 6.4295 . . delta. smelt . Represents viCalculated as V= Pi x diameter^ 3/ 6, assuming 1c delta. smelt larvae 2 6.5000 . . delta. smelt . http:// dlp. cs. b. delta. smelt juvenile 3 20.0000 . . delta. smelt . http:// calwater. ca. gov/ Programs/ Science/ adobe_ pdf/ 2002_ Del DCTM_ ARP. xls ( species. growth04) species stage tage. sequenctotal. len. mm weight. g weight. lbs species. used notes. mnote. length note. weight delta. smelt age01 4 80.0 . . delta. smelt max ag# 26892; p. 68. dungeness1 egg 1 0.3564 . . dungeness. crab . Represents viCalculated as V= Pi x diameter^ 3/ 6, assuming 1c dungeness1 zoea 2 4.0000 . . dungeness. crab . Based on meg. dungeness1 megalopae 3 80.0000 . . dungeness. crab . http:// fwie. fw. v. dungeness1 age01 4 100.0 . . dungeness. crab . Pauley et al., . dungeness1 age02 5 108.0 . . dungeness. crab . http:// fwie. fw. v. dungeness1 age03 6 133.5 . . dungeness. crab . Average of ag. dungeness1 age04 7 159.0 . . dungeness. crab . Pauley et al., . dungeness1 age05 8 164.0 . . dungeness. crab . Calculated ba. dungeness1 age06 9 169.0 . . dungeness. crab . Calculated ba. dungeness1 age07 10 174.0 . . dungeness. crab . Calculated ba. dungeness1 age08 11 179.0 . . dungeness. crab . Calculated ba. dungeness1 age09 12 184.0 . . dungeness. crab . Calculated ba. dungeness1 age10 13 189.0 . . dungeness. crab http:// fwhttp:// fwie. fw. v. dungeness2 egg 1 0.3564 . . dungeness. crab . Represents viCalculated as V= Pi x diameter^ 3/ 6, assuming 1c dungeness2 larvae 2 4.0000 . . dungeness. crab . Based on meg. dungeness2 megalopae 3 80.0000 . . dungeness. crab . http:// fwie. fw. v. dungeness2 age01 4 100.0 . . dungeness. crab . Pauley et al., . dungeness2 age02 5 108.0 . . dungeness. crab . http:// fwie. fw. v. dungeness2 age03 6 133.5 . . dungeness. crab . Average of ag. dungeness2 age04 7 159.0 . . dungeness. crab . Pauley et al., . dungeness2 age05 8 164.0 . . dungeness. crab . Calculated ba. dungeness2 age06 9 169.0 . . dungeness. crab . Calculated ba. dungeness2 age07 10 174.0 . . dungeness. crab . Calculated ba. dungeness2 age08 11 179.0 . . dungeness. crab . Calculated ba. dungeness2 age09 12 184.0 . . dungeness. crab . Calculated ba. dungeness2 age10 13 189.0 . . dungeness. crab http:// fwhttp:// fwie. fw. v. flounders egg 1 1.7703 . . speckled. sanddab . Represents viCalculated as V= Pi x diameter^ 3/ 6, assuming 1c flounders larvae 2 19.6500 . . speckled. sanddab . Cailliet 2000. . flounders juvenile 3 35.0000 . . speckled. sanddab . Cailliet 2000. . flounders age01 4 63.1 . . speckled. sanddab . # 30009 p. 4 2. flounders age02 5 89.7 . . speckled. sanddab . Calculated ba. flounders age03 6 116.4 . . speckled. sanddab . Calculated ba. flounders age04 7 143.0 . . speckled. sanddab # 25738# 30009 p. 4 29. gobies egg 1 8.6019 . . blackeye. goby . Represents viCalculated as V= Pi x diameter^ 3/ 6, assuming 1c gobies larvae 2 10.1250 . . blackeye. goby . # 25738 p. 5 34. gobies juvenile 3 20.5000 . . blackeye. goby . # 25738 p. 5 33. gobies age01 4 45.0 . . blackeye. goby . # 25738 p. 5 34. gobies age02 5 57.5 . . blackeye. goby . Calculated ba. gobies age03 6 70.0 . . blackeye. goby . # 25738 p. 5 34. gobies age04 7 110.0 . . blackeye. goby . Calculated ba. gobies age05 8 150.0 . . blackeye. goby # 25738Froese & Pau. herrings1 egg 1 0.0007 0.0007 . pacific. herring . Represents wCalculated as 10% less than larval weight from h herrings1 larvae 2 0.000817 0.000817 . pacific. herring . Represents wLarvae 6mm from herrings2 and 3. herrings1 juvenile 3 0.7314 0.7314 . pacific. herring . Represents wCalculated based on juv. length of 49 ( one increm herrings1 age01 4 18.5 18.5 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings1 age02 5 57.9 57.9 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings1 age03 6 75.9 75.9 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings1 age04 7 95.6 95.6 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings1 age05 8 116.8 116.8 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings1 age06 9 130.5 130.5 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings1 age07 10 149.8 149.8 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings1 age08 11 156.6 156.6 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings1 age09 12 160.0 160.0 . pacific. herring . Represents wDCacela: unsupported values for 3 oldes age cla herrings1 age10 13 165.0 165.0 . pacific. herring . Represents w. herrings1 age11 14 170.0 170.0 . pacific. herring # 30009Represents w. herrings2 egg 1 0.0007 0.0007 . pacific. herring . Represents wCalculated as 10% less than larval weight. herrings2 larvae. 6mm 2 0.0008 0.0008 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 7mm 3 0.0014 0.0014 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 8mm 4 0.0021 0.0021 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 9mm 5 0.0031 0.0031 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 10mm 6 0.0043 0.0043 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 11mm 7 0.0059 0.0059 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 12mm 8 0.0078 0.0078 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 13mm 9 0.0100 0.0100 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 14mm 10 0.0128 0.0128 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 15mm 11 0.0159 0.0159 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 16mm 12 0.0196 0.0196 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 17mm 13 0.0239 0.0239 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 18mm 14 0.0287 0.0287 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 19mm 15 0.0342 0.0342 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 20mm 16 0.0404 0.0404 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 21mm 17 0.0473 0.0473 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 22mm 18 0.0550 0.0550 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 23mm 19 0.0635 0.0635 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 24mm 20 0.0728 0.0728 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 25mm 21 0.0831 0.0831 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 26mm 22 0.0943 0.0943 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 27mm 23 0.1066 0.1066 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 28mm 24 0.1199 0.1199 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 29mm 25 0.1343 0.1343 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 larvae. 30mm 26 0.1498 0.1498 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings2 juvenile 27 0.7314 0.7314 . pacific. herring . Represents wCalculated based on juv. length of 49 ( one increm herrings2 age01 28 18.5 18.5 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings2 age02 29 57.9 57.9 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings2 age03 30 75.9 75.9 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings2 age04 31 95.6 95.6 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his DCTM_ ARP. xls ( species. growth04) species stage tage. sequenctotal. len. mm weight. g weight. lbs species. used notes. mnote. length note. weight herrings2 age05 32 116.8 116.8 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings2 age06 33 130.5 130.5 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings2 age07 34 149.8 149.8 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings2 age08 35 156.6 156.6 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings2 age09 36 160.0 160.0 . pacific. herring . Represents wDCacela: unsupported values for 3 oldes age cla herrings2 age10 37 165.0 165.0 . pacific. herring . Represents wAssumed based on weights in Lassuy, Dennis R herrings2 age11 38 170.0 170.0 . pacific. herring # 30009Represents wAssumed based on weights in Lassuy, Dennis R herrings3 egg 1 0.0007 0.0007 . pacific. herring . Represents wCalculated as 10% less than larval weight. herrings3 larvae. 6mm 2 0.0008 0.0008 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 7mm 3 0.0014 0.0014 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 8mm 4 0.0021 0.0021 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 9mm 5 0.0031 0.0031 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 10mm 6 0.0043 0.0043 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 11mm 7 0.0059 0.0059 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 12mm 8 0.0078 0.0078 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 13mm 9 0.0100 0.0100 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 15mm 10 0.0159 0.0159 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 16mm 11 0.0196 0.0196 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 17mm 12 0.0239 0.0239 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 18mm 13 0.0287 0.0287 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 19mm 14 0.0342 0.0342 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 20mm 15 0.0404 0.0404 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 21mm 16 0.0473 0.0473 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 22mm 17 0.0550 0.0550 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 23mm 18 0.0635 0.0635 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 24mm 19 0.0728 0.0728 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 25mm 20 0.0831 0.0831 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 47mm 21 0.6393 0.6393 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 larvae. 48mm 22 0.6843 0.6843 . pacific. herring . Represents wCalculated based on larval length from # 25876 herrings3 juvenile 23 0.7314 0.7314 . pacific. herring . Represents wCalculated based on juv. length of 49 ( one increm herrings3 age01 24 18.5 18.5 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings3 age02 25 57.9 57.9 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his herrings3 age03 26 75.9 75.9 . pacific. herring . Represents wLassuy, Dennis R. 1989. Species Profile: Life his DCTM_ ARP. xls ( species. growth04) species stage fraction. mature mean. fecundity species. used notes. fraction. mature notes. mean. fecundity lifetime. fecundit dummy dummy  999  999 dummy dummy dummy dummy croakers age01 0.8 41400 white. croaker # 22499, pg C 27 # 22499, pg C 28 535400 croakers age02 0.95 73800 white. croaker # 22499, pg C 27 # 22499, pg C 28 croakers age03 1 160800 white. croaker # 22499, pg C 27 # 22499, pg C 28 croakers age04 1 252000 white. croaker # 22499, pg C 27 # 22499, pg C 28 croakers age05 1 372000 white. croaker # 22499, pg C 27 # 22499, pg C 28 croakers age06 1 535200 white. croaker # 22499, pg C 27 # 22499, pg C 28 croakers age07 1 758400 white. croaker # 22499, pg C 27 # 22499, pg C 28 croakers age08 1 888000 white. croaker # 22499, pg C 27 # 22499, pg C 28 croakers age09 1 888000 white. croaker # 22499, pg C 27 # 22499, pg C 28 croakers age10 1 888000 white. croaker # 22499, pg C 27 # 22499, pg C 28 croakers age11 1 888000 white. croaker # 22499, pg C 27 # 22499, pg C 28 croakers age12 1 888000 white. croaker # 22499, pg C 27 # 22499, pg C 28 cabezon age01 0 0 cabezon # 22499 p. C 38 Assumed by Agage based on 216200 cabezon age02 0 0 cabezon # 22499 p. C 38 Assumed by Agage based on # 22499 p. C 38.

cabezon age03 0.6 41900 cabezon # 22499 p. C 38 # 22499 p. C 38 cabezon age04 0.8 51900 cabezon # 22499 p. C 38 # 22499 p. C 38 cabezon age05 1 64000 cabezon # 22499 p. C 38 # 22499 p. C 38 cabezon age06 1 68600 cabezon # 22499 p. C 38 # 22499 p. C 38 cabezon age07 1 74700 cabezon # 22499 p. C 38 # 22499 p. C 38 cabezon age08 1 77800 cabezon # 22499 p. C 38 # 22499 p. C 38 cabezon age09 1 85400 cabezon # 22499 p. C 38 # 22499 p. C 38 cabezon age10 1 91600 cabezon # 22499 p. C 38 # 22499 p. C 38 cabezon age11 1 97700 cabezon # 22499 p. C 38 # 22499 p. C 38 cabezon age12 1 106900 cabezon # 22499 p. C 38 # 22499 p. C 38 cabezon age13 1 119100 cabezon # 22499 p. C 38 # 22499 p. C 38 DCTM_ ARP. xls ( fecundity05) Life History Data for California Updated on 8/ 5/ 2003 Life history data for species groups chosen for California.

Worksheet Description life. history02 Includes survival, natural mortality, and fishing mortality parameters for each group lbs. from. mm03 Includes length weight conversion equations for each group species. growth04 Includes growth parameters for each group fecundity05 Includes fecundity parameters for each group length. conversions Worksheet used to convert length from TL to SL or vice versa to match length type used in L W equation.

Notes: QC Notes QC'd by M. Barron 12/ 9/ 02. Problems are highlighted in green. Blanks are highlighted in blue.

QC'd by M. Barron 12/ 9/ 02. Problems are highlighted in green. Blanks are highlighted in blue.

QC'd by M. Barron 12/ 9/ 02. Problems are highlighted in green. Blanks are highlighted in blue.

Worksheet not used. Needs QA/ QC if it is to be included in the future.

QC'd by M. Barron 12/ 9/ 02. Problems are highlighted in green. Blanks are highlighted in blue. species stage stage. seqtotal. len. mm alpha. mm. to. gm beta. mm. to. gm weight. g anchovies1 juvenile 3 83.0000 0.000013 2.95000000 6.018195 anchovies2 larvae. 3mm 2 3.0000 0.000013 2.95000000 0.000336 anchovies2 larvae. 4mm 3 4.0000 0.000013 2.95000000 0.000784 anchovies2 larvae. 5mm 4 5.0000 0.000013 2.95000000 0.001514 anchovies2 larvae. 6mm 5 6.0000 0.000013 2.95000000 0.002593 anchovies2 larvae. 7mm 6 7.0000 0.000013 2.95000000 0.004085 anchovies2 larvae. 8mm 7 8.0000 0.000013 2.95000000 0.006058 anchovies2 larvae. 9mm 8 9.0000 0.000013 2.95000000 0.008574 anchovies2 larvae. 10mm 9 10.0000 0.000013 2.95000000 0.011700 anchovies2 larvae. 11mm 10 11.0000 0.000013 2.95000000 0.015499 anchovies2 larvae. 12mm 11 12.0000 0.000013 2.95000000 0.020034 anchovies2 larvae. 13mm 12 13.0000 0.000013 2.95000000 0.025370 anchovies2 larvae. 14mm 13 14.0000 0.000013 2.95000000 0.031569 anchovies2 larvae. 15mm 14 15.0000 0.000013 2.95000000 0.038695 anchovies2 larvae. 16mm 15 16.0000 0.000013 2.95000000 0.046810 anchovies2 larvae. 17mm 16 17.0000 0.000013 2.95000000 0.055977 anchovies2 larvae. 18mm 17 18.0000 0.000013 2.95000000 0.066258 anchovies2 larvae. 19mm 18 19.0000 0.000013 2.95000000 0.077716 anchovies2 larvae. 20mm 19 20.0000 0.000013 2.95000000 0.090412 anchovies2 larvae. 21mm 20 21.0000 0.000013 2.95000000 0.104408 anchovies2 larvae. 22mm 21 22.0000 0.000013 2.95000000 0.119766 anchovies2 larvae. 23mm 22 23.0000 0.000013 2.95000000 0.136547 anchovies2 larvae. 24mm 23 24.0000 0.000013 2.95000000 0.154814 anchovies2 larvae. 25mm 24 25.0000 0.000013 2.95000000 0.174626 anchovies2 larvae. 26mm 25 26.0000 0.000013 2.95000000 0.196046 anchovies2 larvae. 27mm 26 27.0000 0.000013 2.95000000 0.219134 anchovies2 larvae. 28mm 27 28.0000 0.000013 2.95000000 0.243951 anchovies2 larvae. 29mm 28 29.0000 0.000013 2.95000000 0.270558 anchovies2 larvae. 30mm 29 30.0000 0.000013 2.95000000 0.299015 anchovies2 larvae. 31mm 30 31.0000 0.000013 2.95000000 0.329384 anchovies2 larvae. 32mm 31 32.0000 0.000013 2.95000000 0.361725 anchovies2 larvae. 33mm 32 33.0000 0.000013 2.95000000 0.396097 anchovies2 larvae. 34mm 33 34.0000 0.000013 2.95000000 0.432562 anchovies2 larvae. 35mm 34 35.0000 0.000013 2.95000000 0.471180 anchovies2 larvae. 36mm 35 36.0000 0.000013 2.95000000 0.512010 anchovies2 larvae. 37mm 36 37.0000 0.000013 2.95000000 0.555112 anchovies2 larvae. 38mm 37 38.0000 0.000013 2.95000000 0.600548 anchovies2 larvae. 39mm 38 39.0000 0.000013 2.95000000 0.648375 anchovies2 larvae. 40mm 39 40.0000 0.000013 2.95000000 0.698655 anchovies2 larvae. 41mm 40 41.0000 0.000013 2.95000000 0.751447 anchovies2 larvae. 59mm 41 59.0000 0.000013 2.95000000 2.198869 anchovies3 larvae. 6mm 2 6.0000 0.000013 2.95000000 0.002593 anchovies3 larvae. 7mm 3 7.0000 0.000013 2.95000000 0.004085 anchovies3 larvae. 9mm 4 9.0000 0.000013 2.95000000 0.008574 anchovies3 larvae. 10mm 5 10.0000 0.000013 2.95000000 0.011700 anchovies3 larvae. 11mm 6 11.0000 0.000013 2.95000000 0.015499 anchovies3 larvae. 12mm 7 12.0000 0.000013 2.95000000 0.020034 anchovies3 larvae. 13mm 8 13.0000 0.000013 2.95000000 0.025370 anchovies3 larvae. 14mm 9 14.0000 0.000013 2.95000000 0.031569 anchovies3 larvae. 15mm 10 15.0000 0.000013 2.95000000 0.038695 anchovies3 larvae. 17mm 11 17.0000 0.000013 2.95000000 0.055977 anchovies3 larvae. 19mm 12 19.0000 0.000013 2.95000000 0.077716 anchovies3 larvae. 20mm 13 20.0000 0.000013 2.95000000 0.090412 anchovies3 larvae. 21mm 14 21.0000 0.000013 2.95000000 0.104408 anchovies3 larvae. 23mm 15 23.0000 0.000013 2.95000000 0.136547 anchovies3 larvae. 26mm 16 26.0000 0.000013 2.95000000 0.196046 anchovies3 larvae. 28mm 17 28.0000 0.000013 2.95000000 0.243951 anchovies3 larvae. 29mm 18 29.0000 0.000013 2.95000000 0.270558 anchovies3 larvae. 30mm 19 30.0000 0.000013 2.95000000 0.299015 anchovies3 larvae. 31mm 20 31.0000 0.000013 2.95000000 0.329384 anchovies3 larvae. 32mm 21 32.0000 0.000013 2.95000000 0.361725 anchovies3 larvae. 38mm 22 38.0000 0.000013 2.95000000 0.600548 anchovies3 larvae. 57mm 23 57.0000 0.000013 2.95000000 1.986171 anchovies3 larvae. 62mm 24 62.0000 0.000013 2.95000000 2.545314 anchovies3 larvae. 64mm 25 64.0000 0.000013 2.95000000 2.795225 anchovies3 larvae. 65mm 26 65.0000 0.000013 2.95000000 2.926040 anchovies3 larvae. 66mm 27 66.0000 0.000013 2.95000000 3.060839 anchovies3 larvae. 67mm 28 67.0000 0.000013 2.95000000 3.199680 anchovies3 larvae. 70mm 29 70.0000 0.000013 2.95000000 3.641037 anchovies3 larvae. 75mm 30 75.0000 0.000013 2.95000000 4.462894 anchovies3 larvae. 81mm 31 81.0000 0.000013 2.95000000 5.600369 anchovies3 larvae. 82mm 32 82.0000 0.000013 2.95000000 5.806798 herrings1 larvae 2 17.7750 0.000003 3.232 0.027596 herrings1 juvenile 3 49.0000 0.000003 3.232 0.731446 herrings2 larvae. 6mm 2 6.0000 0.000003 3.232 0.000825 herrings2 larvae. 7mm 3 7.0000 0.000003 3.232 0.001358 herrings2 larvae. 8mm 4 8.0000 0.000003 3.232 0.002091 herrings2 larvae. 9mm 5 9.0000 0.000003 3.232 0.003059 herrings2 larvae. 10mm 6 10.0000 0.000003 3.232 0.004300 herrings2 larvae. 11mm 7 11.0000 0.000003 3.232 0.005851 herrings2 larvae. 12mm 8 12.0000 0.000003 3.232 0.007751 herrings2 larvae. 13mm 9 13.0000 0.000003 3.232 0.010040 herrings2 larvae. 14mm 10 14.0000 0.000003 3.232 0.012757 herrings2 larvae. 15mm 11 15.0000 0.000003 3.232 0.015944 herrings2 larvae. 16mm 12 16.0000 0.000003 3.232 0.019642 herrings2 larvae. 17mm 13 17.0000 0.000003 3.232 0.023893 herrings2 larvae. 18mm 14 18.0000 0.000003 3.232 0.028741 herrings2 larvae. 19mm 15 19.0000 0.000003 3.232 0.034229 herrings2 larvae. 20mm 16 20.0000 0.000003 3.232 0.040401 herrings2 larvae. 21mm 17 21.0000 0.000003 3.232 0.047302 herrings2 larvae. 22mm 18 22.0000 0.000003 3.232 0.054977 herrings2 larvae. 23mm 19 23.0000 0.000003 3.232 0.063471 herrings2 larvae. 24mm 20 24.0000 0.000003 3.232 0.072830 herrings2 larvae. 25mm 21 25.0000 0.000003 3.232 0.083102 herrings2 larvae. 26mm 22 26.0000 0.000003 3.232 0.094333 herrings2 larvae. 27mm 23 27.0000 0.000003 3.232 0.106570 herrings2 larvae. 28mm 24 28.0000 0.000003 3.232 0.119862 herrings2 larvae. 29mm 25 29.0000 0.000003 3.232 0.134258 herrings2 larvae. 30mm 26 30.0000 0.000003 3.232 0.149804 herrings2 juvenile 27 49.0000 0.000003 3.232 0.731446 herrings3 larvae. 6mm 2 6.0000 0.000003 3.232 0.000825 herrings3 larvae. 7mm 3 7.0000 0.000003 3.232 0.001358 herrings3 larvae. 8mm 4 8.0000 0.000003 3.232 0.002091 herrings3 larvae. 9mm 5 9.0000 0.000003 3.232 0.003059 herrings3 larvae. 10mm 6 10.0000 0.000003 3.232 0.004300 herrings3 larvae. 11mm 7 11.0000 0.000003 3.232 0.005851 herrings3 larvae. 12mm 8 12.0000 0.000003 3.232 0.007751 herrings3 larvae. 13mm 9 13.0000 0.000003 3.232 0.010040 herrings3 larvae. 15mm 10 15.0000 0.000003 3.232 0.015944 herrings3 larvae. 16mm 11 16.0000 0.000003 3.232 0.019642 herrings3 larvae. 17mm 12 17.0000 0.000003 3.232 0.023893 herrings3 larvae. 18mm 13 18.0000 0.000003 3.232 0.028741 herrings3 larvae. 19mm 14 19.0000 0.000003 3.232 0.034229 herrings3 larvae. 20mm 15 20.0000 0.000003 3.232 0.040401 herrings3 larvae. 21mm 16 21.0000 0.000003 3.232 0.047302 herrings3 larvae. 22mm 17 22.0000 0.000003 3.232 0.054977 herrings3 larvae. 23mm 18 23.0000 0.000003 3.232 0.063471 herrings3 larvae. 24mm 19 24.0000 0.000003 3.232 0.072830 herrings3 larvae. 25mm 20 25.0000 0.000003 3.232 0.083102 herrings3 larvae. 47mm 21 47.0000 0.000003 3.232 0.639276 herrings3 larvae. 48mm 22 48.0000 0.000003 3.232 0.684290 sea. basses larvae 2 9.4000 0.000007 3.26 0.009816 sea. basses juvenile 3 16.6000 0.000007 3.26 0.062675 sea. basses age11 14 336.8 0.000123 2.7300 976.4 sea. basses age12 15 351.0 0.000123 2.7300 1092.9 sea. basses age13 16 364.4 0.000123 2.7300 1210.3 sea. basses age14 17 376.9 0.000123 2.7300 1327.8 sea. basses age15 18 388.8 0.000123 2.7300 1444.9 sea. basses age16 19 400.0 0.000123 2.7300 1561.0 sea. basses age17 20 410.5 0.000123 2.7300 1675.6 sea. basses age18 21 420.4 0.000123 2.7300 1788.3 sea. basses age19 22 429.7 0.000123 2.7300 1898.7 sea. basses age20 23 438.5 0.000123 2.7300 2006.5 sea. basses age21 24 446.8 0.000123 2.7300 2111.5 sea. basses age22 25 454.5 0.000123 2.7300 2213.5 sea. basses age23 26 461.9 0.000123 2.7300 2312.4 sea. basses age24 27 468.8 0.000123 2.7300 2408.0 sea. basses age25 28 475.3 0.000123 2.7300 2500.3 sea. basses age26 29 481.4 0.000123 2.7300 2589.3 sea. basses age27 30 487.2 0.000123 2.7300 2674.9 sea. basses age28 31 492.6 0.000123 2.7300 2757.1 sea. basses age29 32 497.7 0.000123 2.7300 2836.0 sea. basses age30 33 502.6 0.000123 2.7300 2911.6 sea. basses age31 34 507.1 0.000123 2.7300 2984.0 sea. basses age32 35 511.4 0.000123 2.7300 3053.1 sea. basses age33 36 515.4 0.000123 2.7300 3119.2 note. length note. weight # 25876, p. C 5, TCalculated using 83 mm ( 1 increment greater than largest larvae in # 25876) and age 1 and L W equation from Froese # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph # 25876, p. C 5, TCalculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph Based on EA 198Calculated based on larval length from # 25876 and L W equation from Froese & Pauly, 2002. Northern Anchovy ( alph One increment larCalculated based on juv. length of 49 ( one increment larger than larvae48mm) and L W equation from Fishbase ( alpha= One increment larCalculated based on juv. length of 49 ( one increment larger than larvae48mm) and L W equation from Fishbase ( alpha= # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). # 25876, p. C 4; TCalculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). One increment larCalculated based on juv. length of 49 ( one increment larger than larvae48mm) and L W equation from Fishbase ( alpha= Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Based on EA 198Calculated based on larval length from # 25876 and L W equation from Fishbase ( alpha= 2.52E 06 beta= 3.232). Calculated using Calculated using lengths from Cailliet, 2000 and L W equation from Calliet: W= 0.0000066SL3.26 (< 250 mm). Calculated using Calculated using lengths from Cailliet, 2000 and L W equation from Calliet: W= 0.0000066SL3.26 (< 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). Input parameters Calculate based on Caillet, 2000. W= 0.000123SL2.73 (> 250 mm). se & Pauly, 2002. Northern Anchovy ( alpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). lpha= 0.0117, beta= 2.95 cm to g). ha= 2.52E 06 beta= 3.232). ha= 2.52E 06 beta= 3.232).

ha= 2.52E 06 beta= 3.232). species stage stage. seque nce total. len. mm. TL total. len. mm. SL species. used flounders2 egg 1 0.78 california. halibut flounders2 larvae 2 5.70 california. halibut flounders2 juvenile 3 90.00 72.4 california. halibut flounders2 age01 4 97.9 79.4 california. halibut flounders2 age02 5 245.5 210.1 california. halibut flounders2 age03 6 373.7 323.5 california. halibut flounders2 age04 7 484.9 421.9 california. halibut flounders2 age05 8 581.5 507.4 california. halibut flounders2 age06 9 665.4 581.6 california. halibut flounders2 age07 10 738.2 646.1 california. halibut flounders2 age08 11 801.4 702.0 california. halibut flounders2 age09 12 856.3 750.5 california. halibut flounders2 age10 13 903.9 792.7 california. halibut flounders2 age11 14 945.3 829.3 california. halibut flounders2 age12 15 981.2 861.1 california. halibut flounders2 age13 16 1012.3 888.6 california. halibut flounders2 age14 17 1039.4 912.6 california. halibut flounders2 age15 18 1062.9 933.4 california. halibut flounders2 age16 19 1083.3 951.4 california. halibut flounders2 age17 20 1101.0 967.1 california. halibut flounders2 age18 21 1116.3 980.7 california. halibut flounders2 age19 22 1129.7 992.5 california. halibut flounders2 age20 23 1141.2 1002.7 california. halibut flounders2 age21 24 1151.3 1011.6 california. halibut flounders2 age22 25 1160.0 1019.4 california. halibut flounders2 age23 26 1167.6 1026.1 california. halibut flounders2 age24 27 1174.2 1031.9 california. halibut flounders2 age25 28 1179.9 1037.0 california. halibut flounders2 age26 29 1184.9 1041.3 california. halibut flounders2 age27 30 1189.2 1045.1 california. halibut flounders2 age28 31 1192.9 1048.5 california. halibut flounders2 age29 32 1196.1 1051.3 california. halibut flounders2 age30 33 1199.0 1053.8 california. halibut sea. basses egg 1 0.955 . kelp. bass sea. basses larvae 2 9.4 . kelp. bass sea. basses juvenile 3 16.6 . kelp. bass sea. basses age01 4 165 136.5 kelp. bass sea. basses age02 5 196 162.3 kelp. bass sea. basses age03 6 225 186.7 kelp. bass sea. basses age04 7 253 209.6 kelp. bass sea. basses age05 8 279 231.2 kelp. bass sea. basses age06 9 303 251.5 kelp. bass sea. basses age07 10 326 270.7 kelp. bass sea. basses age08 11 348 288.7 kelp. bass sea. basses age09 12 368 305.7 kelp. bass sea. basses age10 13 387 321.7 kelp. bass sea. basses age11 14 406 336.8 kelp. bass sea. basses age12 15 423 351.0 kelp. bass sea. basses age13 16 439 364.4 kelp. bass sea. basses age14 17 454 376.9 kelp. bass sea. basses age15 18 468 388.8 kelp. bass sea. basses age16 19 481 400.0 kelp. bass sea. basses age17 20 494 410.5 kelp. bass sea. basses age18 21 506 420.4 kelp. bass sea. basses age19 22 517 429.7 kelp. bass sea. basses age20 23 528 438.5 kelp. bass sea. basses age21 24 538 446.8 kelp. bass sea. basses age22 25 547 454.5 kelp. bass sea. basses age23 26 556 461.9 kelp. bass sea. basses age24 27 564 468.8 kelp. bass sea. basses age25 28 572 475.3 kelp. bass sea. basses age26 29 579 481.4 kelp. bass sea. basses age27 30 586 487.2 kelp. bass sea. basses age28 31 593 492.6 kelp. bass sea. basses age29 32 599 497.7 kelp. bass sea. basses age30 33 604 502.6 kelp. bass sea. basses age31 34 610 507.1 kelp. bass sea. basses age32 35 615 511.4 kelp. bass sea. basses age33 36 620 515.4 kelp. bass silversides egg 1 2 jacksmelt silversides larvae 2 16 jacksmelt silversides juvenile 3 35 27.8 jacksmelt silversides age01 4 117.5 96.5 jacksmelt silversides age02 5 200 165.3 jacksmelt silversides age03 6 232 191.8 jacksmelt silversides age04 7 264 218.3 jacksmelt silversides age05 8 295 244.7 jacksmelt silversides age06 9 327 271.2 jacksmelt silversides age07 10 359 297.7 jacksmelt silversides age08 11 391 324.2 jacksmelt silversides age09 12 422 350.7 jacksmelt silversides age10 13 454 377.1 jacksmelt silversides age11 14 486 403.6 jacksmelt smelts larvae 2 27.8 21.5 surf. smelt smelts age01 4 106.8 90 surf. smelt smelts age01 4 216.3 185 surf. smelt note. length Length conversion equations Cailliet 2000 ( Ahlstrom et al 1984; avg. of range limits) Cailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Cailliet 2000 ( Ahlstrom et al 1984; avg. of range limits) Cailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Cailliet 2000 ( Kramer and Sunada 1992). Assumed TL. Cailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Input parameters from Cailliet, 2000 ( Reed and MaccallCailliet, 2000 ( Haaker, 1975) . TL= 8.15+ 1.13 SL Cailliet 2000. ( Butler et al. 1982) . Cailliet 2000. ( Butler et al. 1982; Emmett et al. 1991; W. Cailliet 2000. ( Butler et al. 1982) . Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Input parameters from Cailliet, 2000 ( Love, Brooks, BusCailliet, 2000 ( Love, Brooks, Busatto, Stephens, & Gregory 1996a) . TL= 1.41 + 1.2S Cailliet, 2000. M Barron: Average of all data listed for egCailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Cailliet 2000 ( Emmett et al., 1991). Avg. of 7.5 ( min) anCailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 http:// dlp. cs. berkeley. edu/ kopec/ tr9/ html/ 337. html TL Cailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 M. Barron: Average of juv. and age02 Cailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Cailliet 2000 ( Emmett et al., 1991). Based on age & lengCailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Calculated based on ages 2 and 11. Cailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Calculated based on ages 2 and 11. Cailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Calculated based on ages 2 and 11. Cailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Calculated based on ages 2 and 11. Cailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Calculated based on ages 2 and 11. Cailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Calculated based on ages 2 and 11. Cailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Calculated based on ages 2 and 11. Cailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Calculated based on ages 2 and 11. Cailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Cailliet 2000. Maximum reported length. TL Cailliet, 2000 ( Karpov and Kwiecien 1988) . TL= 1.646 x SL( 1.200); SE: 2.841 Cailliet 2000. ( Moser, 1996a) 21.5 SL calculated to TL Cailliet, 2000 ( Karpov and Kwiecien 1988). TL= 3.031 x SL( 1.153); SE: 2.426 Cailliet 2000. ( Schaefer 1936) 90 SL calculated to TL ( Cailliet, 2000 ( Karpov and Kwiecien 1988). TL= 3.031 x SL( 1.153); SE: 2.426 Cailliet 2000. ( Schaefer 1936) 90 SL calculated to TL ( Cailliet, 2000 ( Karpov and Kwiecien 1988). TL= 3.031 x SL( 1.153); SE: 2.426 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL 2SL


[Federal Register Volume 83, Number 174 (Friday, September 7, 2018)]
[Proposed Rules]
[Pages 45364-45366]
[FR Doc No: 2018-19430]

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DEPARTMENT OF TRANSPORTATION

Federal Aviation Administration

14 CFR Part 39

[Docket No. FAA-2018-0336; Product Identifier 2017-SW-130-AD]
RIN 2120-AA64

Airworthiness Directives; Airbus Helicopters Deutschland GmbH
Helicopters

AGENCY: Federal Aviation Administration (FAA), DOT.

ACTION: Notice of proposed rulemaking (NPRM).

-----------------------------------------------------------------------

SUMMARY: We propose to adopt a new airworthiness directive (AD) for
Airbus Helicopters Deutschland GmbH (Airbus Helicopters) Model EC135P1,
EC135P2, EC135P2+, EC135P3, EC135T1, EC135T2, EC135T2+, and EC135T3
helicopters. This proposed AD would require replacing the retaining
ring and inspecting the hoist cable hook assembly (hook). This proposed
AD is prompted by a report that a hook detached from the hoist cable.
The actions of this proposed AD are intended to prevent an unsafe
condition on these products.

DATES: We must receive comments on this proposed AD by November 6,
2018.

ADDRESSES: You may send comments by any of the following methods:
     Federal eRulemaking Docket: Go to http://www.regulations.gov. Follow the online instructions for sending your
comments electronically.
     Fax:<PHONE_NUMBER>.
     Mail: Send comments to the U.S. Department of
Transportation, Docket Operations, M-30, West Building Ground Floor,
Room W12-140, 1200 New Jersey Avenue SE, Washington, DC 20590-0001.
     Hand Delivery: Deliver to the ``Mail'' address between 9
a.m. and 5 p.m., Monday through Friday, except Federal holidays.

Examining the AD Docket

    You may examine the AD docket on the internet at http://www.regulations.gov by searching for and locating Docket No. FAA-2018-
0336; or in person at Docket Operations between 9 a.m. and 5 p.m.,
Monday through Friday, except Federal holidays. The AD docket contains
this proposed AD, the European Aviation Safety Agency (EASA) AD, the
economic evaluation, any comments received, and other information. The
street address for Docket Operations (telephone<PHONE_NUMBER>) is in the
ADDRESSES section. Comments will be available in the AD docket shortly
after receipt.
    For service information identified in this proposed rule, contact
Airbus Helicopters, 2701 N Forum Drive, Grand Prairie, TX 75052;
telephone<PHONE_NUMBER> or<PHONE_NUMBER>; fax<PHONE_NUMBER>; or at
http://www.helicopters.airbus.com/website/en/ref/Technical-Support_73.html. You may review the referenced service information at
the FAA, Office of the Regional Counsel, Southwest Region, 10101
Hillwood Pkwy, Room 6N-321, Fort Worth, TX 76177.

FOR FURTHER INFORMATION CONTACT: David Hatfield, Aviation Safety
Engineer, Safety Management Section, Rotorcraft Standards Branch, FAA,
10101 Hillwood Pkwy., Fort Worth, TX 76177; telephone<PHONE_NUMBER>;
email [email protected].

SUPPLEMENTARY INFORMATION:

Comments Invited

    We invite you to participate in this rulemaking by submitting
written comments, data, or views. We also invite comments relating to
the economic, environmental, energy, or federalism impacts that might
result from adopting the proposals in this document. The most helpful
comments reference a specific portion of the proposal, explain the
reason for any recommended change, and include supporting data. To
ensure the docket does not contain duplicate comments, commenters
should send only one copy of written comments, or if comments are filed
electronically, commenters should submit only one time.
    We will file in the docket all comments that we receive, as well as
a report summarizing each substantive public contact with FAA personnel
concerning this proposed rulemaking. Before acting on this proposal, we
will consider all comments we receive on or before the closing date for
comments.

We will consider comments filed after the comment period has closed if
it is possible to do so without incurring expense or delay. We may
change this proposal in light of the comments we receive.

Discussion

    EASA, which is the Technical Agent for the Member States of the
European Union, has issued EASA AD No. 2017-0199, dated October 11,
2017, to correct an unsafe condition for Airbus Helicopters Model
EC135P1, EC135P2, EC135P2+, EC135P3, EC135T1, EC135T2, EC135T2+,
EC135T3, EC635P2+, EC635P3, EC635T1, EC635T2+, and EC635T3 helicopters.
EASA advises of a report of a hook separating from the hoist cable.
According to EASA, an investigation determined that failure of the
internal retaining ring combined with a permanent compression set of
the elastomeric energy absorber caused the separation. EASA states that
this condition, if not corrected, could lead to the detachment of an
external load or person from the hoist, possibly resulting in personal
injury or injury to persons on the ground.
    The EASA AD consequently requires repetitive inspections of the
hook assembly and replacement of the retaining ring. Depending on the
findings of the inspection, the EASA AD also requires replacement of
the elastomeric energy absorber. According to the manufacturer of the
hook, the retaining ring can corrode in a salt-laden environment.
Therefore, replacement of the retaining ring is required with each
inspection. EASA considers its AD an interim measure and states that
further AD action may follow.

FAA's Determination

    These helicopters have been approved by the aviation authority of
Germany and are approved for operation in the United States. Pursuant
to our bilateral agreement with Germany, EASA, its technical
representative, has notified us of the unsafe condition described in
its AD. We are proposing this AD because we evaluated all known
relevant information and determined that an unsafe condition is likely
to exist or develop on other products of the same type design.

Related Service Information Under 1 CFR Part 51

    We reviewed Goodrich Service Bulletin No. 44301-10-17, Revision 4,
dated July 26, 2017. The Goodrich Service Bulletin is attached as an
appendix to Airbus Helicopters Alert Service Bulletin No. ASB EC135-
85A-069, Revision 0, dated August 2, 2017. This service information
specifies an initial and repetitive inspections of the hook assembly
and replacement of the retaining ring. If the inspections of
elastomeric energy absorber detect a permanent compression set, this
service information also specifies replacing the elastomeric energy
absorber.
    This service information is reasonably available because the
interested parties have access to it through their normal course of
business or by the means identified in the ADDRESSES section.

Proposed AD Requirements

    This proposed AD would require, within 90 hours time-in-service
(TIS) and thereafter at intervals not to exceed 180 hours TIS,
replacing the retaining ring and inspecting the elastometric energy
absorber for a permanent compression set, and if necessary, replacing
the elastometric energy absorber before the next hoist operation.

Differences Between This Proposed AD and the EASA AD

    The EASA AD requires corrective actions in terms of months in
service. This proposed AD would require compliance within 90 hours TIS
and thereafter at intervals not to exceed 180 hours TIS. The EASA AD
applies to Airbus Helicopters Model EC635P2+, EC635P3, EC635T1,
EC635T2+, and EC635T3 helicopters. This proposed AD would not because
these model helicopters have no FAA type certificate.

Interim Action

    We consider this proposed AD to be an interim action. The design
approval holder is currently developing a modification that will
address the unsafe condition identified in this proposed AD. Once this
modification is developed, approved, and available, we might consider
additional rulemaking.

Costs of Compliance

    We estimate that this proposed AD would affect 278 helicopters of
U.S. Registry and that labor costs average $85 per work-hour. Based on
these estimates, we expect the following costs:
     Inspecting the hoist cable hook assembly and replacing the
retaining ring would require 0.5 work-hour and parts would be minimal
for a cost of $43 per helicopter and $11,954 for the U.S. fleet per
inspection cycle.
     Replacing an elastomeric energy absorber would require 0.5
work-hour and parts would cost $2,152 for a cost of $2,195 per
helicopter.

Authority for This Rulemaking

    Title 49 of the United States Code specifies the FAA's authority to
issue rules on aviation safety. Subtitle I, section 106, describes the
authority of the FAA Administrator. ``Subtitle VII: Aviation
Programs,'' describes in more detail the scope of the Agency's
authority.
    We are issuing this rulemaking under the authority described in
``Subtitle VII, Part A, Subpart III, Section 44701: General
requirements.'' Under that section, Congress charges the FAA with
promoting safe flight of civil aircraft in air commerce by prescribing
regulations for practices, methods, and procedures the Administrator
finds necessary for safety in air commerce. This regulation is within
the scope of that authority because it addresses an unsafe condition
that is likely to exist or develop on products identified in this
rulemaking action.

Regulatory Findings

    We determined that this proposed AD would not have federalism
implications under Executive Order 13132. This proposed AD would not
have a substantial direct effect on the States, on the relationship
between the national Government and the States, or on the distribution
of power and responsibilities among the various levels of government.
    For the reasons discussed, I certify this proposed regulation:
    1. Is not a ``significant regulatory action'' under Executive Order
12866;
    2. Is not a ``significant rule'' under the DOT Regulatory Policies
and Procedures (44 FR 11034, February 26, 1979);
    3. Will not affect intrastate aviation in Alaska to the extent that
it justifies making a regulatory distinction; and
    4. Will not have a significant economic impact, positive or
negative, on a substantial number of small entities under the criteria
of the Regulatory Flexibility Act.
    We prepared an economic evaluation of the estimated costs to comply
with this proposed AD and placed it in the AD docket.

List of Subjects in 14 CFR Part 39

    Air transportation, Aircraft, Aviation safety, Incorporation by
reference, Safety.

The Proposed Amendment

    Accordingly, under the authority delegated to me by the
Administrator, the FAA proposes to amend 14 CFR part 39 as follows:

PART 39--AIRWORTHINESS DIRECTIVES

0
1. The authority citation for part 39 continues to read as follows:

    Authority:  49 U.S.C. 106(g), 40113, 44701.

Sec.  39.13   [Amended]

0
2. The FAA amends Sec.  39.13 by adding the following new airworthiness
directive (AD):

Airbus Helicopters Deutschland GmbH Helicopters: Docket No. FAA-
2018-0336; Product Identifier 2017-SW-130-AD.

(a) Applicability

    This AD applies to Airbus Helicopters Deutschland GmbH Model
EC135P1, EC135P2, EC135P2+, EC135P3, EC135T1, EC135T2, EC135T2+, and
EC135T3 helicopters, certificated in any category, with an external
mounted hoist (hoist) part number (P/N) and hook assembly (hook) P/N
shown in Table 1 to paragraph (a) of this AD:
[GRAPHIC] [TIFF OMITTED] TP07SE18.006

(b) Unsafe Condition

    This AD defines the unsafe condition as detachment of a hook
from a hoist cable resulting in in-flight failure of the hoist,
which could result in injury to persons being lifted.

(c) Comments Due Date

    We must receive comments by November 6, 2018.

(d) Compliance

    You are responsible for performing each action required by this
AD within the specified compliance time unless it has already been
accomplished prior to that time.

(e) Required Actions

    Within 90 hours time-in-service (TIS) and thereafter at
intervals not to exceed 180 hours TIS:
    (1) Inspect the hook and determine whether the elastometric
energy absorber has taken a permanent compression set by following
the Accomplishment Instructions, paragraphs 2.A and 2.B, of Goodrich
Service Bulletin No. 44301-10-17, Revision 4, dated July 26, 2017
(SB 44301-10-17). If the elastometric energy absorber has taken a
permanent compression set, replace the elastometric energy absorber
before the next hoist operation.
    (2) Replace the retaining ring by following the Accomplishment
Instructions, paragraphs 2.D through 2.K, of SB 44301-10-17.

(f) Special Flight Permits

    Special flight permits may be permitted provided the hoist is
not used.

(g) Alternative Methods of Compliance (AMOCs)

    (1) The Manager, Safety Management Section, Rotorcraft Standards
Branch, FAA, may approve AMOCs for this AD. Send your proposal to:
David Hatfield, Aviation Safety Engineer, Safety Management Section,
Rotorcraft Standards Branch, FAA, 10101 Hillwood Pkwy., Fort Worth,
TX 76177; telephone<PHONE_NUMBER>; email [email protected].
    (2) For operations conducted under a 14 CFR part 119 operating
certificate or under 14 CFR part 91, subpart K, we suggest that you
notify your principal inspector, or lacking a principal inspector,
the manager of the local flight standards district office or
certificate holding district office before operating any aircraft
complying with this AD through an AMOC.

(h) Additional Information

    The subject of this AD is addressed in European Aviation Safety
Agency (EASA) AD No. 2017-0199, dated October 11, 2017. You may view
the EASA AD on the internet at http://www.regulations.gov in the AD
Docket.

 (i) Subject

    Joint Aircraft Service Component (JASC) Code: 2500, Cabin
Equipment/Furnishings.

    Issued in Fort Worth, Texas, on August 23, 2018.
Scott A. Horn,
Deputy Director for Regulatory Operations, Compliance & Airworthiness
Division, Aircraft Certification Service.
[FR Doc. 2018-19430 Filed 9-6-18; 8:45 am]
 BILLING CODE 4910-13-P