MXJATE SCHOOL if, CALIF. 93940 Nava United States Postgraduate School ^Xsx ^ r-cf :V"f 5? I T'.T' ■ ' n T T T7^ C^ T c^i JL JL m J k_? Jl k. A COMPARISON OF OCEANIC PARAMETERS DURING THE OCEANIC PERIOD OFF THE CENTRAL COAST OF CALIFORNIA by Elroy Anthony Soluri Thesi s Advisor: S. P. Tucker MAR 1971 Approved &on puhtic. ncl2.ai>e.; cLU>tnA.bution antinu.Xe.d. -- .---.■•" - ■? /•Jfen^ r C'CTI0T>15 9** $ TE SCHOOL 93940 A Comparison of Oceanic Parameters During the Oceanic Period Off the Central Coast of California by Elroy Anthony Soluri Lieutenant Commander, United States Navy E.S., New York State Maritime College, 1962 Submitted in partial fulfillment of the requirements for the degree of MASTER OF SCIENCE IN OCEANOGRAPHY from the NAVAL POSTGRADUATE SCHOOL March 1971 scroot ABSTRACT A detailed examination of the coastal region between Monterey Bay and San Francisco Bay was conducted from 1 to 6 November 1970. Measurements of temperature, salinity, sound velocity, beam transmittance , Coulter particle size distri- butions, chlorophyll a, phosphate, and oxygen were obtained at 86 stations from the surface to 100 meters. The data collected are presented in the form of contours in horizontal and vertical sections and depth profiles which indicate: 1. a distinctive off-shore region, which exhibited high values of oxygen, chlorophyll a, and particle count and low values of temperature and beam transmittance was present; 2. the areas with the highest standing crop are inshore, within five miles of the coast; 3. a peak in the size distribution of particles did not always occur in the surface layer within the observable range of diameters of from 1.59u to 32. Ou; 4. a plot of oxygen versus phosphate yielded a slope of yg-at/1 P04 -2.4 ml/1 02 5. there appears to be no simple correlation in the scatter of points plotted for chlorophyll a as a function of oxygen ; and 6. a plot of chlorophyll a versus beam transmittance indicates similarly that no simple relationship between these parameters exists. TABLE OF CONTENTS I. INTRODUCTION 9 A. PURPOSE 9 B. MARINE CLIMATOLOGY 9 C. PREVIOUS INVESTIGATIONS 11 II. OBSERVATIONAL PROCEDURES 14 A. STATION LOCATIONS 14 B. DATA COLLECTION 14 C. INSTRUMENTATION 18 1. Sound Velocity-Temperature- Depth Probe 18 2. Beam Transmissometer 18 3. Particle Counter 18 4. Fluorometer 19 D. DATA REDUCTION 19 III. DATA ANALYSIS 22 A. INTRODUCTION . 22 B. DESCRIPTIVE TECHNIQUES . 22 1. Horizontal Contours 22 a. Temperature 23 b. Phosphate 25 c. Oxygen 26 d. Salinity 26 e. Chlorophyll a 27 f. Beam Transmittance 29 g. Particulates 31 2. Vertical Contours 32 a. Sections A and B 32 b. Section E 34 c. Section G 35 d. Section I 35 e. Section K 36 f. Section M 37 3. Depth Profiles 37 4. Graphical Comparisons 38 IV. CONCLUSIONS 54 V. SUGGESTIONS FOR FUTURE RESEARCH 56 TABLE I - Fortran IV Computer Program 214 Table II - Station Data 223 m _l_ 1 _ -r-r-r T>_^.j_i_T„ r>-_„ r>3 _ i- — .J-tSii *■ 4 >»w^ . _ _ . ->/\r> 1UJJJ.C JLJLJ. £ CU_ t_ -L. >^ J. C L)X-. ^ — . ,.,..,' -1~-i--.-.-v~l"]T-r - *"*t»-N ^ *-**-« ^ T^ 1 •-% 4-S-N /N^\WV> T /-N+-^-\ /-MTV- »-* T rrt Vt VS f~^ /^ J. i U v _. _i_ >^ _l_ v_ w^ v^il>^o-^<-^ MWMi j- -i- *— -. - - * « v* schedule. I wish also to thank the officers and crew of the USNS DE STEIGUER (T-AGOR-12) and Mr. Jerry Norton of the Oceanography Department who offered invaluable assis- tance both during and after the cruise. Lastly, to my wife, Alice, profound gratitude for her endless encourage- ment and assistance and for the cheerful manner in which she accepted my neglect during the preparation of this report. I. INTRODUCTION A. PURPOSE The purpose of this investigation was to examine the coastal waters off Central California during the oceanic period and to compare the oceanographic parameters measured with those observed previously by Baker during this period and by Labyak and Shepard during the spring upwelling period. In particular it was desired to obtain further knowledge of the spatial and temporal variability of beam transmittance and its relation to other oceanographic parameters in the region. m^ — /-.Vj A ^nttv-* 4-Vn^n.-.^ ^ *-» *3 *-* t-i^T**-* QC pl^i^'3rk/^y-r-v^^U -J /-» *-. +- r» +- A av> *-. were occupied during the period 1-5 November 1970 and 2749 water samples were collected and analyzed. B. MARINE CLIMATOLOGY Skogsberg [5] was the first to describe the annual thermal rhythm of the Monterey Bay area in terms of three major seasonal features, namely, the "cold water" phase, the "warm water" phase, and the "low thermal gradient" phase. Bolin [4] later described these features and labeled them as the "upwelling," the "oceanic," and the "Davidson Current" periods. The upwelling period is the most persistent of the three periods. It is usually initiated in the latter part of January by a change in the wind direction from the south to north-northwest. This change gives rise to a transport of water away from the coast and its subsequent replacement by colder, subsurface layers from depths which depend on a number of factors but do not exceed about 200 m at most. The major properties of this period are a normal sea surface temperature of 10 to 11°C/ the lowest of the annual cycle, and the absence of clearly defined isotherms. In September there is a transition period during which the calm of the oceanic period becomes pronounced. As the strong north-northwest wind dies out, the upwelling becomes intermittent and breaks into irregular eddies. The cold, dense, surface water causes the formation of a very sharp thermocline at depths of only a few meters. During this »> *■» v- •! q /3 npji ,~',lrfar,,"> ^"*0,n> 0 2; *x> 0 -p M Q) X} i Q) > 0 S • to ■H c 0 v •H H +J CO ftf H -P D CO « u m o p(5 w CO D c U O M -H W -P En tO rn n O H i- Q CD CO -P 2 ti CO e D •H X ►q o O >H O CU X ih CJ H M CO id O X PM o HH A< <: u > rd rtj 5h 2 H cu u 3 CT> •rH 15 HYDRO- WIRE- ELECTRICAL CABLE SV/T/D PROBE BEAM TRANSMISSOMETER Figure 2 16 beam transmittance were recorded for selected depths down to 100 m. These observed values/ along with station weather data, are presented in Table II, which begins on page 223. Continuous readings were recorded as the cast was returned to the surface. Expendable or mechanical bathythermographs were taken at many stations to provide an additional measure of the temperature. Graphical plots of temperature, sound velocity, and beam transmittance as functions of depth were made, and, on the basis of these, optimum positions for the Nansen bottles were determined. The water samples collected were divided into five groups: (1) 250 ml for oxygen analysis, (2) 100ml for phosphate analysis, (3) 320 ml for salinity determina- tion, (4) 120 ml for particulate cinalvsi^g , an^ (5) t-h ~ ^ o ~ v ^» 4- 4- r> /-• _ 1 O -f A 1 4- /^ v o dominant wavelength of approximately 5 3 8.8 nm. The instrument was zeroed prior to each cast and never lowered below 5 meters from the bottom. 3. Particle Counter A Model T Coulter counter was used to carry out the. analysis for particulate matter in the seawater sample. It The total beam attenuation coefficient c = (a+b) is given by c = - (l/l)dl/dx, where I is the radiant flux incident on a thin layer of thickness dx normal to the beam, and dl is the radiant flux lost to the beam due to the effects of scatter- ing and absorption. If this equation is integrated, I (x) = l(0)e~cx, where I (x) is the radiant flux of the beam at a distance x in the direction of propagation from a point where the flux has the value 1(0). Normally x is taken to be 1 m, so that 1(1) =I(0)e~c. The transmittance_per meter, T, is then defined as the ratio T = I(1)/I(0) = e c. Sometimes the term "beam attenuation," A, is used. It is related to the transmittance: T+A=l. It is to be emphasized that c is wavelength-dependent, i.e. c = c(A). 18 is the same instrument used and described by Shepard [1] . Electrical noise prevented the use of Channel 14 at the small-size end of the range. With the lOOu diameter orifice used the range of sizes detected was from 1.5u to 32. Oy. 4 . Fluorometer A Turner Model 111 Fluorometer was utilized in the determination of chlorophyll a. This instrument is the one described and used by Shepard [1] . D. DATA REDUCTION A Fortran IV program for the Naval Postgraduate School's IBM 360 computer, the core of which was drafted by LCDR Miller and LT Garcia in 19 70 was modified somewhat to calculate values of salinity, oxygen and phosphate. A copy of the program is presented as Table I. It is capable of processing 9 stations per run with a maximum of 40 cards per station. Statement cards are located throughout the program to provide an indication of what each section does. The program contains seven subroutines, four of which are used to calculate salinity, oxygen, phosphate and density; a fifth one prints the station heading, and the last two interpolate the Nansen cast data and SV/T/D - transmission data to standard depths. SV/T/D, transmission, particle, and chlorophyll a data are read directly into the program and no calculations other than the interpolations are carried out on this information. The computer output is presented in Tables I, II, III. 19 A draw subroutine was utilized to plot depth profiles for individual stations for the following parameters: density, oxygen, phosphate, chlorophyll a, cumulative par- ticle volume, and alpha = [-In (transmittance) ] . Since the values of cumulative particle volum-3 covered a large range, it was difficult to choose a common scaling function and at the same time avoid the loss of detail by the crowding of points along one axis. Therefore, a common scale was used only for individual station lines, e.g. 1-1 to 1-9 rather than for all 86 stations. The scales used in each case are depicted in the heading format of the individual station depth profiles. The amount of chlorophyll a present was determined from a procedure ouLIineu by Holm— Hansen, et al , [14] using f luorometeric techniques. One can also determine the amount of phaeo-pigments present from this procedure; I did not, 2 however, make the actual calculation. In the analysis of chlorophyll a carried out by Shepard [1] it was assumed that no phaeo-pigments were present; I did not make this assump- tion. A program for a WANG Model 360 K desk calculator was used to solve the following equation for each sample: 3 T mg chlorophyll a/m = F — y (R ~ RA) mg phaeophytin/m = FD -^ZJ ^tRa ~ RB^ 20 where F = door factor RB = fluormetric reading before acidification R, = fluormetric reading after acidification t = the ratio of R„/R, B' A An attempt was also made to determine chlorophyll a con- centration by means of a continuous flow analysis at several stations while at sea. These attempts were unsuccessful in producing any results that compared with those obtained by individual analysis. The presence of air bubbles in the system was a constant problem, and this was believed to be the cause of our inaccuracies. In summary., the use of the computer is an ideal, quick and efficient, method of processing large amounts of station data. Although the equation for chlorophyll a is not presently in the program, it could easily be added as an additional subroutine. 21 III. DATA ANALYSIS A. INTRODUCTION To depict the distributions of temperature, phosphate, oxygen, chlorophyll a, beam transmittance/ and suspended particle matter during the oceanic period in some detail, horizontal and vertical contours were drawn. In addition, depth profiles of density, phosphate, chlorophyll a, cumulative particle volume, oxygen, and beam attenuation coefficient (alpha) were plotted to facilitate comparisons between these parameters. The computer outputs of station data, including weather, pcciuicn, oimc , «ui.c, an^ c^gcivcu values arc -ic^c- in Table II. Table III contains a listing by oceanographic station of the particulate count data observed for each Coulter counter channel for each depth sampled. Graphical comparisons were also made between various pairs of parameters to determine what quantitative relation- ships, if any, exist between them. B. DESCRIPTIVE TECHNIQUES 1. Horizontal Contours Horizontal contours at depths of 0, 10, 20, 40, and 75 m were drawn. The depths were chosen for ease of com- parison with Shepard's analysis. These contours will be discussed in order from the surface to 75 m, according to 22 the following list: temperature, phosphate, oxygen, chlorophyll a, beam transmittance , and total particles. The extreme horizontal isopleths for all parameters did not always occur at the surface, but they were generally within the upper 20 meters. Some predominant features were observed at the northern end of Monterey Bay near Santa Cruz (Station B-l) , in an area approximately 15 nmi off Point Montara (Station K-9) , in an area approximately 10 nmi off Point Ano Nuevo (Station G-7) , and to the west of the entrance to San Francisco Bay. These features generally persisted down to a depth of nearly 40 meters. a. Temperature The surface temperature con •hours fFiaurp l.f>) depict a uniform temperature structure with very weak thermal gradients. The most dominant aspect of this figure is the presence of a cool patch of water off Point Montara. This pool is also shown on the U.S. Coast Guard Airborne Radiation Thermometer chart for October 19 70 (Figure 3) . The average sea surface temperature during this period was 13.45°C, which is in agreement with Bolin's [4] description of the oceanic period. However, the surface was approxi- mately 1°C colder than observed by Baker [2] for a similar period in 1969. The CALCOFI temperature contours for the first half of November 1970 show that the onset of the Davidson Current period had not yet taken place. That is, the surface water was being influenced largely by the cold 23 Figure 3 24 California Current, resulting in a lowered sea surface temperature. There was a decrease in temperature with increasing depth and a general increase seaward. The strongest horizontal gradient appeared at a depth of 75 m off the Monterey Peninsula. The nearly isothermal water observed by Shepard in the northern, inshore portion of Monterey Bay was also observed during this investigation. It is interesting to note that, whereas Baker [2] observed only 6 of 25 Bay stations with temperatures less than 14.0°C, the warmest temperature during my investigation was 13.9°C at Station A-l off Monterey. b. Phosphate The phosphate contours (Figures 21 to 25) show exceptions to this were noted: the first was a patch of phos- phate rich water located some 15 nmi off Point Ano Nuevo; and the second, not indicated by the surface contours, was located approximately 15 nmi off Point Montara at Station K-9 within the pool of colder water previously mentioned. Riley and Skirrow [16] observed that autumn blooms are very unpredictable and can arise when a period of autumn winds and cooling surface waters allow phosphates to mix into the euphotic zone. Such mixing may be followed by sufficient stability for rapid plant growth to recommence. The phos- phates decrease with depth. Generally, values of phosphate were fairly uniform throughout the region of interest and much lower than those of the upwelling period. The highest 25 values of phosphate, 2 yg-at/1, first appeared at 75 m. Shepard observed a high of 2.5 yg-at/1 at 40 m. c. Oxygen The oxygen contours (Figures 26-30) show four distinct regions, namely the area in the vicinity of K-9 previously described, the region just offshore of Point Ano Nuevo (Station 1-8), the Monterey Canyon (Station B-9) and southwest of the Monterey Peninsula (Station C-3). These regions are "anomalous" in that they are either highly saturated (Station K-9) or under-saturated (Stations 1-8, B-9, C-3) for a given salinity and temperature. All but Station K-9 have a relatively high sea surface temperature. The large concentrations of chlorophyll a and phosphate observed at K-9 may be due to the entrapment of water ohoto- synthetically enriched in oxygen. The best agreement between temperature and oxygen, i.e. low temperature and low oxygen content, was found in the regions between Pigeon Point and Point Ano Nuevo and along the axis of the Monterey Canyon approximately seven nautical miles from shore. The expected decrease of oxygen with depth was generally not observed above about 20 m. At most stations conditions remained fairly constant above about 75 m. The only "anomalous" increase in dissolved oxygen occurred at Station K-9 at depths of from about 10 to 30 m. d. Salinity Observed salinity values were compared with the ten year mean values of the California Cooperative Oceanic 26 Fisheries Investigations (CALCOFI) and generally good agree- ment was noted. Using our observed salinities and corres- ponding temperatures, the saturation percentage of oxygen for the four distinct regions mentioned were calculated. 100% saturation of oxygen was assumed to occur at 6.1 ml/1, which is approximately correct for the study area. The maximum observed value of 7.5 ml/1 at Station K-9 gave a saturation value of 117%. At station C-3 southwest of the Monterey Peninsula the value was 69% of saturation, while at B-9 in the Monterey Canyon it was 82%. In the area off Point Ano Nuevo the cruise minimum of 3.72 ml/1 was observed, which corresponds to 64% saturation. The dissolved oxygen and phosphate values ^V^ J — . .; , . -3 -.4- C J J- ,' ^ -* T-> O ,„„^_,-. ^.^^,„ „ ^.^ ,3 ..-"j-l- J-^J _.^,*,,,..„,q ^ „ V^A^ uUxilUU *_i U J^uuXull Xj'^j tmCiC Ov>ntj->*-4. j_ U-v-a vVa-UJ.1 uUk.u o ^ ^ ^ j- v„ ^ v> i i a concurrent, independent, CALCOFI cruise of the Hopkins Marine Station. These values were in excellent agreement. In Figure 4 Station 3 denotes the location of the Hopkins CALCOFI cruise station which corresponds most nearly to the time frame of this report. The cross marks the position of NPS Station B-8. The corresponding values of oxygen and phosphate are shown in the figure within parentheses. e. Chlorophyll a Concentration of chlorophyll a at the surface (Figure 31) was fairly constant from Point Montara south to Monterey Bay and somewhat variable off the entrance to San Francisco Bay. The highest values were observed at Stations M-3 and M-5 outside the entrance to San Francisco Bay, and 27 I22°00' I2I°55' I2I°50' I22°00' I2I°55' I2I°50' Figure 4. Location of CALCOFI and NPS Stations in Monterey Bay. 28 at station B-l in northern Monterey Bay, just off Santa Cruz. The maximum values of chlorophyll a were generally confined to the upper 10 m, but there were scattered pockets of high concentrations below this level. A patch of unusually high values was observed near Station K-9 at a depth of 40 m. The high surface value observed at Station B-l still persisted near the bottom. In both cases low light transmission and fairly high values of total particle count are observed. This process may best be explained by a cessation or slackening of upwelling in these areas with the onset of the Davidson Current Period. Offshore numerical values agree well with Shsr?2rd ' s ob£6rv?.tions but the inshore values ?. re rTenera!My an order of magnitude lower. f. Beam Transmittance Beam Transmittance (Trans) contours from the surface to 75 m (Figures 36-40) did not display the effects of coastal turbidity (Trans < 50 %/m) except near the entrance to San Francisco Bay. The northern and southern ends of Monterey Bay were clear (Trans = 80 %/m) areas with a patch of relatively clear water (Trans = 60 %/m) in the vicinity of Monterey Canyon. This is contrasted with the extremely low values of beam transmittance observed for these regions by both Labyak and Shepard during the upwelling period. During the November 1970 cruise the surface trans- mittance values ranged from 50-80 %/m; these are slightly 29 higher than those observed by Baker for a similar period in 1969. The surface contours show two areas where the trans- mission is slightly less than 50 %/m. One of these occurs at station M-5 off the entrance to San Francisco Bay. Station M-5 occupied at 1545 on 1 November 1970. A maximum flood tide of 2.2 kts. occurred at 1100 on 1 November 1970; thus, at the time this station was sampled, slack water conditions existed. The difference existing between the low values on the May 1970 cruise and the relatively higher values on the November 19 70 cruise may be attributed to the 3 transport of coastal water into the Bay by the flood tide. The second region where transmission was lower than 50 %/m was located at Station K-9. Considering the ri T rrll TJ^1 HOC <■% -P /"\ t^t t •t^-* v. rNVvrvr<*-«V* -^4-/> -n ft /-l r»K 1 ArnnhTrl 1 r> t.t V» "i oVx occur in that region, one may conclude that the low values of light transmission are the result of the relatively large standing crop. Looking at the successive depths one finds that this condition is confined to the upper 20 m, beneath which the water becomes clearer. A study of the 20 and 40 m contours reveals the effects of shallowness along the inshore portion of the study area. Generally there was a decrease of light transmission with depth along the entire region from Point Montara to Santa Cruz, and even into the northern part of Monterey Bay. The K-station line is unique 3 Further discussion of this tidal effect is to be found in Shepard (1970) , p. 30. 30 in that high values of transmission (Trans = 90 %/m) are found in the upper 20 m nearshore and below this level off- shore. g. Particulates It was found that the November 19 70 maximum particle counts were less than those observed by Shepard but generally greater than those for the November 1969 cruise. At the surface an extremely strong horizontal gradient is evident near the entrance to San Francisco Bay (Figure 41) . Two additional areas of high particulate count occurred off Santa Cruz Harbor at Station B-l and off Point Ano Nuevo (Station G-7) . Both of these regions had cor- responding relatively high values for dissolved oxygen and chlorophyll a. Outside these three regions lower counts were observed. Below the surface l£iyer an increase of total particle count with depth was observed between Point Montara and Pigeon Point. There was also a decrease in counts as the distance from shore increased. This is in agreement with the rapid decrease of beam transmittance exhibited in this area. Monterey Bay, except as noted above, was an area of rather low particle count down to 75 m. The 75 m contour depicts the first pocket of high particle count on the wall of the Monterey Bay Canyon at Station A-4. This can be attributed perhaps to the transport of bottom sediments down the canyon. 31 2. Vertical Contours Vertical sections were drawn for station lines A, B, E, G, I, K, and M (Figures 46 to 87). These station lines were contoured in a fashion identical to that described by Shepard. The contours were drawn to the data at each sta- tion in a given line from the surface to 100 m, except where interrupted by the bottom. Contour intervals were modified in regions of strong gradients to avoid crowding the isopleths . a. Sections A and B The influence of the Monterey Submarine Canyon on these parameters is indicated by the upward bulge below 20 m in the contours over the Canyon region and the north and southward spreading at the surface (Figures 46 to 49). Bolin and Abbot [3] noted that the Canyon causes a funneling of deep water into the Bay and a subsequent fanning out at the surface. Two contrasting features are displayed at the northern end of Monterey Bay. At Station A-l the water is oxygen-rich, phosphate-poor with a small standing crop, clear, and of a low particle count. At Station B-l, which is located approximately 3 nmi west-southwest of A-l, the water is oxygen-rich, phosphate-poor, and has a large stand- ing crop (i.e. it has chlorophyll a contents between 0.7 and 1.7 mg/m ) and has a transmission of about 80 %/m and a high particle count. A similar situation was observed by Shepard for the entire northern end of the Bay. 32 Values of beam transmittance between 70 and 90 %/m and relatively low particle count (i.e. about _3 10 x 10 /2ml) may be observed throughout most of the Bay, and even over the Monterey Submarine Canyon, except as noted above and within a few meters of the bottom of the Canyon. The rapid change in particle content near the bottom is characterized by a strong gradient in which con- ditions deteriorate rapidly; e.g. particle counts increased at Station A-3 from 5K particles per 2ml to 94K particles per 2ml in a distance of but 10 m. The area at the southern end of the Bay, where transmission is about 80 %/m, may be seen along both the A and B station lines, and the profiles show that this water is being transported northward and is gradually moving toward the northern edge of the Monterey Canyon, where the influence of the bottom on transmissivity begins. This is very probably due to the influence of the Davidson Current. The isotherms below approximately 12.5°C extend across the entire Bay. This is in agreement with both Labyak's and Shepard's observations. The water of 3 relatively large standing crop (chlorophyll a - 1.0 mg/m ) observed near the surface at Station B-l, spreads out and sinks to a depth of 40 m at Station B-4. A possible cause for this is the circular eddy pattern described for northern Monterey Bay during the oceanic period in the Bay-Delta Study prepared for the California State Water Quality Control Board [15, Fig. VI-10] . The eddy would tend to isolate this feature within the area. 33 b. Section E The surface waters along the E station line depict high values of beam transmittance and low particle count. These conditions remain unchanged with depth sea- ward of Station E-3. Shoreward of this station, however, at depths below about 15 m, low values of transmittance and high particle counts are found. Sediment disturbance by near bottom currents apparently sharply increases the amount of suspended particulate matter. Bolin [4] observed that, as the Davidson Current starts its northward flow in November, the Coriolis force causes the surface waters to move shoreward, where they sink. The increase in turbidity may result from this downwelling. Generally, the profiles are fairly uniform along the E station line. A contrasting feature is the humping of two oxygen isopleths at Station E-3 (Figure 60) . This possibly may be the result of an error in analysis, since no verification for its existence can be found in the other profiles. A relatively large standing crop (e.g. chlorophyll a) is apparent in the inshore region from the surface to 30 m. Shepard found this to be the region most productive in terms of chloro- phyll a during the May 1970 cruise, whereas the levels were fairly constant during the November cruise. There is, how- ever, good agreement with the observations of beam trans- mission obtained by Baker for this region during November 1969. 34 c. Section G Station G-7 provides a striking contrast between total particle count and beam transmittance. Extremely high counts are observed with corresponding high values of beam transmittance. Because the other parameters do not indicate: upwelling or a plankton bloom, the high particle counts could possibly be a result of ship's electrical interference not noted during the measurements at sea. The apparent sinking of surface water at Stations G-3, G-4, and G-5 (Figures 6 5 to 67) is a phenomenon also noted by Shepard. Again, the inshore region appears to have a somewhat higher standing crop in the upper 20 m. This is evidenced by a decrease in transmissivity and increased Coulter counts along the sloping bottom. Inshore values of transmission agree well with those of Baker, but the offshore water was generally "clearer" during the November 1970 cruise. There was very little agreement in magnitude with the observations of Shepard. d. Section I The profile of oxygen along the I~station line shows an increase of dissolved oxygen content from the coast seaward. This is similar to the profile observed by Baker, which he suggests indicates the presence of the east- ward edge of the southward flowing California Current. A tongue of water having high transmittance and low particle content may be observed (Figures 7 4 and 75) extending shore- ward from Station 1-1 to 1-6, the axis of which is located 35 at about 55 m. The cold temperature of this "clear" water thus gives some verification to the suggestion of Baker that this region is influenced by the California Current. The upward bulge below 20 m in the isopleths of oxygen, chlorophyll a, phosphate, and particle count at Station 1-8 may indicate that some weak, localized upwelling is taking place. The water in the inshore region has low oxygen content, low particulate counts, a high phosphate level and is relatively cold at the surface. e. Section K As was also the case during the November 1969 and May 1970 cruises, the highest values of dissolved oxygen for the entire cruise were found off Point Montara along the K— station line 'Ficurss 76 to 81^ . ^be h-irrVi vainpR of oxygen, chlorophyll a, and particle count, along with low values of transmission and phosphate, delimit the region where the standing crop was largest for the entire cruise, i.e. between Stations K-8 and K-9. The K-station line is also characterized by the strongest gradients for oxygen, chlorophyll a, total particulate count, and transmissivity . Below the upper 10 m the beam transmittance increases rapidly to a value of 80 %/m at 30 m (Figure 80). At Station K-9 a pocket of water of relatively high chlorophyll a content and high Coulter count is to be noted at a depth of 45 m. Station K-9 was occupied at 0900 hours, and the effect could be due to diurnal phytoplankton sinking. There is some indication of upwelling provided by the sharp rise of the 36 various isopleths in the vicinity of Stations K-7 and K-8. f. Section M The "time axis" method used by Shepard to describe the profiles along the M-station lines will be utilized here. Station M-6 was occupied one hour before slack water. The tide was at a maximum ebb when Station M-3 was occupied at 1745 on 1 November 1970. The tidal currents in this region are directed toward the Bay for approximately 3 hours at decreasing velocities until a slack water condition is reached. A similar period is to observed for the onset of the ebb tide until maximum ebb is reached. Thus, stations M-5 and M-4 were occupied during r~v*-i>~-ir>>£ir- of -'nr"rc:'SsiTirT ^irrs"^ ^'^l^cities Figures 82 to 87 depict the converse of the observations of Shepard, which were for a slack to maximum flood time period. High values of temperature, oxygen, chlorophyll a, and particulate counts coupled with low transmission were observed at Stations M-3 to M-7. The stations occupied after the maximum ebb show a complete reversal in the levels of the above parameters, except at the bottom, where the strong gradients of high particles and low transmissivity were maintained. 3. Depth Profiles Depth profiles of density, chlorophyll a, phosphate, oxygen, cumulative particle volume, and beam attenuation coefficient are presented in Figures 88 to 171. With few 37 exceptions an increase in cumulative particle volume is associated with a corresponding decrease in transmittance and vice versa. Most of the profiles depict an increase of dissolved oxygen in the upper 20 m followed by a decrease. Phosphate, to the contrary, decreases slightly in the upper 20 m and then increases rapidly below this depth 4 . Graphical Comparisons To establish numerical relationships between the data observed on the November 1970 cruise and those of Shepard, our data are presented in the same way his are. Simple scatter diagrams were drawn to depict what relation- ships, if any, exist between various pairs of parameters. It should be noted here that, because of the disparity in vanrfoo <~>f da^a Kofwoon -HV\ci Maw ^^d NOT' Dtnhcr 1 O "7 fl <-,r-n-i eoc 3 (e.g. chlorophyll a ranged from 0.2 to 10 mg/m , while in 3 November 1970 it ranged from 0.1 to 1.2 mg/m ), November- May comparisons cannot be made over the entire ranges observed. While working with the Coulter counter, Bader [11] observed that many natural collections of small particles, such as mineral and organic particles suspended in seawater and fine sediments, have hyberbolic cumulative population distributions of the form N = kv , where k and m are con- stants and v is particle volume. He observed further that if log, N is plotted as a function of log1QD, where D is spherical particle diameter, the result is linear with slopes of -3m, which range from 0.88 to 1.45 counts/y for 38 seawater samples from Abaco Bight, Bahamas. For a compari- son with our November 1970 data a log differential population plot was made for the clearest water observed on the cruise, i.e. 92.4 %/m for Station E-2 at a depth of 100 m (Figure 5). This plot indicates a slope of -2.52 for our data. For purposes of comparison Bader's number distribution curve for "wave-agitated seawater masses" [11, Fig. 4] is plotted as a dashed line in Figure 5. To examine the natural truncation of the large diameter particles plots similar to those of Figure 6 were drawn. Shepard observed a rather abrupt change and dip at approximately 15u for Station A- 6 within Monterey Bay. This station was again plotted to see if such a change was present foi bhe November data. No abrupt changes for this station or for Stations B-l, B-6 and K-9 were noted (Figures 6 to 9). A decrease in particle count with an increase in diameter was the trend in all cases. The largest count plotted occurs at Station K-9 at a depth of 30 m for par- ticles with a diameter of 1.59y. Points where crossovers occurred were compared with the vertical profiles in an attempt to explain how this feature fits into the general station trend. For Station A- 6 (Figure 6) this crossover occurs at 1.5K counts/2 ml and a diameter of 7.5y for the 20, 35, 80 m curves. The depth profile for this station shows the area to have high values of transmissivity (70 %/m to 80 %/m) , low particle count, relatively low values of chlorophyll a, and increasing values of phosphate. The plot 39 rrrq" 1 I TTTiT 6 i I 'ill jj L J. Li o CN 40 ""■"" u — 0) -P M id — a. 10 — ^ 3 B en CN a) > 4-> — — 4J c ' " « C3 3 3 o O o u -J 5 rH U •H •r— 1 ■U _U 5-1 id — •— i c^ TO H •H •U ti d •r-! \ u \ fd \\ PM X fe Par } ic I e Diame te 43 fe I I I I I II TT ^50 11 0.2 1.0 o o " o o (0 in I o g o O o u o iw o — !• to " ' m — Q) 4J o 1 O •H o O o * • -P -P if) -P 0) > U 0) w O Particle Diameler in U 44 1 HI I I I I I L_i .JJLi 0.2 1.0 .1 I I I I. Li Particle Diameter in U 45 Chlorophyll (mg/in^) o o o o • • • • fo 4> -ON CO 4 4 r+ 1 -r ■i- 4 + 4 -$■ 5--H- -fh + -+- -t 4* 4 4 + 44- -+- -r ■FTr^rffl 4-"r-t- -i- -rrt- t- _»- _i_ -t" tuT4.^ -■>«- +l. 4 -I j. -ir -1- * -+- -4- + +*" ' ± ..,- + 4 4 o 4 x ^4 < 4 4 chlorophyll a associated with low oxygen may be a result of the inactivation of chlorophyll a as phaeophytin. One feature occurring both for the May and November 1970 data is the absence of chlorophyll a where dissolved oxygen levels were below 2 ml/1. This suggests that perhaps 2 ml/1 is the lower limit of oxygen required to support the production of chlorophyll a. Beam transmittance as a function of chlorophyll a was also plotted using data from the Monterey Bay area and several of the northern stations. Figure 11 again reveals no apparent correlation between parameters. High values of chlorophyll a can be observed at both high and low values of transmissivity . The indication here is that a knowledge enough to determine the corresponding value of beam trans- 4 mittance. That is, factors besides chlorophyll are sig- nificant in contributing to light attenuation. Pytkowi.cz [10] recorded various slopes in oxygen vs. phosphate plots for a period before upwelling, at the onset of upwelling, and after it had been established. He assumed the changes in slope to be the result of a mixing of water masses characterized by varying amounts of phosphate and oxygen. Figures 12 and 13 represent plots of oxygen as a function of phosphate for the same stations plotted by Shepard, namely, J-l, J-2, K-l (inshore) and L-l, K-10, 1-1 (offshore) . The plot reveals that fairly uniform conditions existed at all these stations. Pytkowicz's best fit for his 47 4 4- 4 4- 4 4 4 4- 4 4 4- 4 4- 44 4' 4 4- 4 4 4- 4 4 4- 4 4 T 4 -4 4-4f- 4- - +4- ++ ; ^+ 4 + 4j_7 . 4- 4 T 44j2 4± J_-r -r^t: ~ 4 4- 4 -J- 4" ' -4- 4^ u-~ % 4^M 4- 4 4- t-f 4 4- 4' o 4 4- + o- 4 4 to. 4- + 4 4- 4- 4 4 4 4 4 4- o c CO •U •U •i-l B to d CO H E CN -r ■ 4 4 4 4 4 00 o o' o CSJ o ( ui/Siu) -[lAqdoao^q^ 48 o tn •H fa i c CM o CM -£> CO -J- o (-[/qe-S ) a5t?ijdson t <— tw m-»>-*/^ 4-V\/^ -Pa*I 1 /->tt *» v» rr recommendations are made: Coastal water investigations should be continued to include the Davidson Current period, that is, the period from late November through January. Values of phaeophytin for the November 1970 cruise should be calculated so that the pigment-to-oxygen ratios may be explained in terms of the inactivation of chlorophyll a as phaeophytin. Continuous flow determinations of chlorophyll a should be made. This will require the installation of a bubble trap to remove the source of error we experience. These 56 determinations should be conducted to concur with airborne spectrophotometry analyses. The density profiles for this period should be examined to determine the effects of advection on the water column. These should be examined further to observe what correlations, if any, between density, beam transmission, and particulate maxima exist. Finally, enough data is presently available so that an investigation into possible relationships between multiple parameters may be conducted. Several regression and corre- lation programs are available for use on the IBM 360. 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UJ a 5,0 STATION Al DENSITY 25.0 .2 CHLOROPHYLL (x) 1,0 Or 2.0 .30.0 PHOSPHATE (A) OXYGEN («) - LN TRANSMITTANCE (0) & 2.5 JO^ 1.0 PARTICLE VOLUME (CUM.V+) 150.0 D e p t h P r o I i I e s F I G U R E 88 130 .0 S T A T I O N A2 DENSITY 25.0 .2 CHLOROPHYLL (X) 1.0 .5 PHOSPHATE (A) 2.5 Ul 2.0 OXYGEN (<=>) 10.0 .2 30.0 - LN TRANSMITTANCE (0) 1.0 PARTICLE VOLUME (CUM.)M 150.0 D c p f h Prof e s FIGURE 89 131 S T A T I O N A4 5.0 DENSITY 25.0 CHLOROPHYLL (x) L0 .5 PHOSPHATE (A) 2.5 2.0 OXYGEN (°) JO^ 20 40 .2 - LN TRANSMIHANCE (0) 1.0 PARTICLE VOLUME (CUM.)('+) 150.0 ' m m D e p I h P r o f i I e s FIGURE 90 5.0 S T A T I O N A5 ""density 25.0 .2 CHLOROPHYLL (X) 1,0 .5 PHOSPHATE (A) 2.5 2.0 OXYGEN M 10,0 60 .2 - LN TRANSMITTaNCE (0) 1.0 30.0 PARTICLE VOLUME (CUM.)(V) 150.0 80 D e p f h Pro! lies FIGURE 91 133 S T A T I O N A6 .0 DENSITY .2 CHLOROPHYLL .5 PHOSPHATE (A) 2.0 OXYGEN (*) .2 - LN TRANSMITTANCE (0) Depfh Profiles 25.0 _L0_ 2.5 JILQ. 1.0 PARTICLE VOLU/V.E (CUM.)M 150.0 FIGURE 92 134 S T A T I O N A7 I 5.0 DENSITY 25.0 .2 CHLOROPHYLL m o0 .5 PHOSPHATE. (A) 2.5 2.0 OXYGEN (<=■) 10.0 20 40 - LN TRANSMITTANCE (0 1.0 30.0 PARTICLE VOLUME (CUM.){V) 150.0 Depth P r o f i I e $ FIGURE 93 135 S T A T 1 O N AS 5.0 DENSITY 25.0 .2 CHLOROPHYLL (X) 1.0 .5 PHOSPHATE (A) 2.5 2.0 OXYGEN Co) 10.Q .2 - LN TRANSMITTANCE (0) 1.0 . 30.0 1 A — £> PARTICLE VOLUME , n v.. (CUM.)f+) 150.0 FIGURE 94 136 S T A T I O N A9 5.0 DENSITY 25.0 .3 CHLOROPHYLL (*) PHOSPHATE A) 1.0. 2.5 Ul 2.0 OXYGEN (o) ^D_ -LN TRANSMITTANCE (0) .0 PARTICLE VOLUME (CUM.)f+) 150.0 40 60 80 D e p f h Prof lies FIGURE 95 137 S T A T I O N A10 J X a. Ul Q 5.0 DENSITY 25.0 .2 CHLOROPHYLL M -LQ. r. PHOSPHATE (A) 2.5 2.0 .2 OXYGEN 0=>) ±CLQ_ - LN TRANSMITTaNCE (0) 1.0 PARTICLE VOLUME (CUM.)(V) 150.0 80 10C D e p \ h P r o f i e $ FIGURE 96 138 .0 STATION A11 DENSITY 25.0 .2 CHLOROPHYLL (X) 1.0 .5 PHOSPHATE (A) 2.5 2.0 OXYGEN (°) 10.0 20 40 60 80 10C D e p I h Prof iles FIGURE 97 139 I O N A12 DENSITY CHLOROPHYLL PHOSPHATE OXYGEN (X) (A) (*) -N ypAM^AITTANCE (<» PARTICLE VOLUME (CUM.)f+) Di2 20 40 60 80 10C Depth Profiles FIGURE 98 140 STATION B1 J 5.0 DENSITY 25.0 X .2 CHLOROPHYLL m 1.0 1— .5 PHOSPHATE ^) 2.5 I'J 2.0 OXYGEN C=>) 10.0 o .2 - LN TRANSMITTANC! (0) 1.0 0 . 30.0 PARTICLE VOLUME nRANSMiTTANi-- PARTICLE VOLUME (CUM.X+T. 80 10C D e p I h Profiles FlGUR E 110 132 S T A T I O N B13 5.0 .2 DENSITY 25.0 CHLOROPHYLL on 1.0 .5 PHOSPHATE (A) 2,5 2.0 OXYGEN (°) 10.0 - LN TRANSMITTANCE (0) .0 PARTICLE VOLUME (CUM.)^+) 150.0 60 80 10C D e p J h Pr oli I e s FIGURE 111 153 S T A T I O N C1 5.0 .2 DENSITY OjLQR.QPHY.LL (x) 25.0 l.Q .5 PHOSPHATE M Ul 2.0 9XYQEN. (d) ,10. Q -feM TRANSMITTANCE (0) _LH PARTICIF VOLUME (CUM.) (» Depth P r o f i I e $ 40.0 FIGURE 112 154 S T A T I O N C2 5.0 ■&ENS11Y. 25. Q .2 ■CHLQRQPHYLJL (X) .5 PHOSPHATE W -XL 2*5. 2.0 QXYQEN (o) JQJL .2 -LN TRANSMITTANCE CO) .JL 20 4Q 60 8.0 PARTI.TIF VOI I IMF (CIlM.'i (+) 40.0 80 D e p » h Prof iles FIGURE 113 155 S T A T I O N C3 5.0 DENSITY 25. Q .2 CHLOROPHYLL (X) AJL .5 PHOSPHATE M 1*L 2.0 OXYGEN (o) 10-0 .2 -!lN transmittance CO) -A PARTICLE VOLUME (CUM.) (+) 40.0 20 40 60 80 Depth Pro! lies FIGURE 114 156 S T A T I O N D1 .2 —PENS 111 CHLOROPHYLL (X) 25.0., 1,0 PHOSPHATE (*) 757 1A 2.0 OXYGEN l&SL .2 4.0 -LN TRANSMITTANCE (0) .LH PARTICLE VOLUME (CUM.) (+) 20.0 Depth Prof e s FIGURE 115 157 STATION D2 5..0 DENSITY 25.0 .2 CHLOROPHYLL (X) 1.0 .5 PHOSPHATE (4 2.5 2.0 OXYGEN ) 1Q^_ LN TRANSMITTANCE (0) 1.0 PARTICLE VOLUME (CUM,)f+) 150.0 r 80 D e p f h Prof lies FIGURE 118 160 STATION E2 5.0 DENSITY 25.0 .2 CHLOROPHYLL (X) 1.0 a. Ui a .5 PHOSPHATE (A) 2.5 2.0 OXYGEN (=>) ifiJI .2 - LN TRANSMITTANCE (0) 1.0 PARTICLE VOLUME (CUM.)^+) 150.0 FIGURE 119 161 STATION E3 x 5.0 .2 DENSITY chlorophyll" (*) 25.0 1,0 .5 PHOSPHATE (*> 2.5 2.0 OXYGEN (°) SLSL .2 -LN TRANSMITTANCE (0) 1.0 PARTICLE VOLUME (CUM.)f+) 150.0 20 40 •^ a> \ -/ ./ \ 'A 60 80 D e p I h P r o ! i I e $ FIGURE 120 162 X 5.0 .2 STATION E4 DENSITY 25.0 CHLOROPHYLL (X) 1.0 .5 PHOSPHATE (A) 2.5 L'J o 20 40 2.0 .2 30.0 OXYGEN («) J0JL - LN TRANSMITTANCE (0) 1.0 PARTICLE VOLUME (CUM.)M 150.0 60 80 D e p I h Pr oli I e $ FIGURE 121 16 3 X Ul a 5.0 STATION E5 DENSITY 25.0 .2 CHLOROPHYLL (X) 1.0 .5 PHOSPHATE (A) 2.5 2.0 OXYGEN (°) 10.0 .2 LN TRANSMITTANCE (0) 30.0 1.0 PARTICLE VOLUME (CUM.)^) 150.0 80 10C Depth Profile FIGURE 122 164 40 60 80 10G Depth Profile FIGURE 123 165 I ►— 0- UJ O 5.0 S T A T I O N E7 DENSITY 25.0 .2 CHLOROPHYLI (X) 1.0 .5 PHOSPHATE (A) 2.5 2.0 OXYGEN C°) !0x£_ .2 - LN TRANSMITTANCE (0) 0 30.0 20 PARTICLE VOLUME (CUM.)(» 150.0 40 60 80 iod Depth P r o f i I e s F I G U R E 124 166 5.0 STATION F1 DENSITY 25.0 .2 CHLOKUKHYLL i*l 1.0 .5 PHOSPHATE (*, 2.5 "77T OXYGEN M 10.0 !0 "2" 40.0 -LN TRANSMITTANCE (0) _Lfl. PARTICLE -& v5 VOLUME (CUM.)(+) 200.0 10 )C D e p » h P r o f i I e s FIGURE 125 167 I 0. UJ O STATION F2 density"" 25.0 .2 CHLOKOKHYLL s*± 1.0 .5 "2TTT PHOSPHATE (a) 2.5 OXYGEN (°) 0.0 zz 40.0 - LN TRANSMITTANCE (0) 1.0 PARTICLE VOLUME (CUM.)(+) 200.0 D e p f h P r o I i e s F I G U R E 126 168 D e p Ih P r o f i e $ FIGURE 127 169 STATION G2 J 5.0 DENSITY 25.0 I .2 CHLOROPHYLL (*) 1.0 t— .5 PHOSPHATE (A) 2.5 0- L'J 2.0 OXYGEN (&) 10.0 a .2 -LN TRANSMITTANCE (0) 1.0 0 • 30.0 , _ , rrx-i — -K— PARTICLE VOLUME (CUM -J- — — — fT —X .)(+) 150.0 i rri <_ 20 40 60 80 10C Depth Profile FIGURE 128 170 S Y A T 1 O N G3 5.0 DENSITY 25.0 .2 CHLOROPHYLL (*) 1.0 .5 PHOSPHATE (A) 2.5 2.0 OXYGEN (<=>) 10.0 .2 - LN TRANSMITTANCE (0) 1.0 . 30.0 . . ■ — (-X PARTICLE VOLUME . ^i- . »^4 (CUM.)M 150.0 1— 0 20 40 Depth P r o f i e $ FIGURE 129 171 .0 STATION G4 density"" 25.0 .2 CHLOROPHYLL (*) 1,0 0- .5 PHOSPHATE (*> 2.5 2.0 OXYGEN (a) 10.0 .2 - LN TRANSMITTANCE (0 1.0 30.0 PARTICLE VOLUME (CUM.V+) 150.0 Depth P r o I i I FIGURE 130 172 J, X »— o- o 0 5.0 STATION G5 DENSITY 25.0 .2 CHLOROPHYLL (*) _L0 .5 PHOSPHATE (A) 2.5 2.0 OXYGEN M 10^0 .2 -LN TRANSMITTANCE (0) 1.0 30.0 PARTICLE VOLUME (CUM.)M 150.0 80 10C Depth P r o f i I FIGURE 131 173 J X D- UJ a 5.0 .2 STATION G6 density""" chlorophyll (X) 25.0 1,0 .5 2.0 .2 30.0 PHOSPHATE (A) 2.5 OXYGEN («) JO^H. - LN TRANSMITTANCE (0) 1.0 PARTICLE VOLUME (CUMJM 150.0 Depth Profile FIGURE 132 174 2.0 — T" - LN TRANSMITTANCE 60.0 PARTICLE VOLUME (CUlO (+ ^____2^;_n__ Dep*h Profiles FIGURE 133 175 STATION HI J X 5,0 DENSITY 2UL .2 CHLOROPHYLL i*L 1.0 .5 PHOSPHATE r^) 2.5 2.0 OXYGEN (CO) 10.0 .2 10.0 - LN TRANSMITTANCE (0) PARTICLE VOLUME (CUM.) (+) V V-^ -- ■? -X! J 1.0 ■m 50.0 .J- Depth P r o f i e s FIGURE 134 176 5,0 .2 STATION H2 PENSJIY. CHLOROPHYLL M 25l>£l 1.0 .5 PHOSPHATE (A) 2.5 2.0 OXYGEN (a) 10.0 .2 10.0 K & LN TRANSMITTANCE (0) PARTICLE VOLUME (CUM.)(+) 1.0 50.0 Depth Profile FIGURE 135 177 STATION H3 .2 DENSITY CHLOROPHYLL .. PHOSPHATE i*i (A) 1-9. .2 OXYGEN (a) - LN TRANSMITTANCE (0) ,25^0_ 1.0 2.5 10.0 1.0 lO^F" PARTICLE VOLUME (CUM.) O) 50.0 Depth Profiles FIGURE 136 178 5.0. .2 STATION 11 DENSITY CHLOROPHYLL .5 2.0 PHOSPHATE OXYGEN 0=0 - LN TRANSMITTANCE (0) 60.0 25.0. 1.0 2.5 10.0 1.0 PARTICLE VOLUME (COM.) (+Y J^Ll 10C Depth P r o I i I « » FIGURE 137 179 STATION 12 E x o. LU o 5.0 DENSITY 2ZJL .2 CHLOROPHYLL -Gil 1.0 .5 PH,QSPH&XE_ (A) 2.0 "72" OXYGEN Co; 10.0 LN TRANSMITTANCE (0) 1.0 60.0 PARTICLE VOLUME (CUM.) (+)' 300.0 D e p f h Profit e s OS. FIGURE 138 180 STATION 13 5.0 DENSITY 25tQ .2 CHLOROPHYLL 1*1 1.0 .5 PHOSPHAIE. (A) 2.5 2.0 OXYGEN CO 10.0 o 0 - LN TRANSMITTANCE (0) 1,0 • 60.0 rr-i — j>*— **— sf — PARTICLE VOLUME (CUM.) (+)' 300.0 P 80 oc Depth Profile FIGURE 139 181 5.0 STATION 14 DENSITY 25_J2_ CHLOROPHYLL £11 1.0 PHOSPHATE (*) 2.5 2.0 OXYGEN (o) 10.0 - LN TRANSMITTANCE (0) 1.0 60.0 PARTICLE VOLUME (CUM.) (+) 300.0 od Depth Profile FIGURE 140 182 Depth Profile FIGURE 141 183 S T A T 1 O N 16 J 5.0 DENSITY 25.0 I .2 CHLOROPHYLL 00 1.0 >- .5 PHOSPHATE (A) 2.5 UJ 2.0 OXYGEN (a) 10.0 O .2 - LN TRANSMITTANCE (0) 1.0 0 ■ 60.0 ___ y j^j ,£_ _. PARTICLE VOLUME (GUM.) (+) 300.0 t_. 30 oc D e p t h P r o f i I e s FIGURE 142 184 STATION 17 5.0 DENSITY 25,0 CHLOROPHYLL _<*! 1.0 .PHOSPHATE (A) 2.5 2.0 OXYGEN CO 10.0 -LN TRANSMITTANCE CO) 1.0 60.0 PARTICLE VOLUME (CUM.) (+) 300.0 D e p t h Prof lies FIGURE 143 185 STATION 18 5.0 DENSITY 25,0 CHLOROPHYLL £1 1.0 PHOSPHATE (A) 2.5 2.0 OXYGEN CO) 10.0 - LN TRANSMITTANCE (0) 1.0 60.0 PARTICLE VOLUME. (CUM.) (+) 300.0 ^1 Depth P r o I i I e $ FIGURE 144 186 STATION 19 ! J 5.0 DENSITY 25.0 .2 CHLOROPHYLL (X) 1.0 o. *5 PHOSPHATE (» 2.5 2.0 OXYGEN (o) 10.0 2 - LN TRANSMITTANCE (0) 1.0 • 60.0 .^.*v__. PARTICLE VOLUME (CUM.) (+) 300.0 \) Lit \ L .. * - , ■',■■ 20 7 \ Vd v, \ 40 60 80 IOC Depfh Profiles FIGURE 145 187 STATION J1 5.0 DENSITY 2LJL .2 CHLOROPHYLL S*L 1.0 PJPSTOIL (*) 2.5 2.0 ~2™ OXYGEN CO 10.0 - LN TRANSMITTANCE (0) 1.0 60.0 PARTICLE VOLUME (CUM.) (+) 300.0 x-- f ' Depth Profit e s FIGURE 146 188 STATION J2 5.0 DENSITY 25,9 .2 CHLOROPHYLL 1*1 1.0 PHOSPHATE (A) 2.5 UJ D 2.0 OXYGEN CO) - LN TRAN SM I TTAN C E (0) 10.0 1.0 20 PARTICLE VOLUME (CUM.) (+) 300.0 40 60 80 10C Depth Prof lies FIGURE 147 189 J I *- a. Ui a 5.0 .2 2.0 60.0 STATION J3 DENSITY CHLOROPHYLL 1*1 PHQSPHATE fA) OXYGEN CO) — LN TRANSMITTANCE (0) >-i 25rQ 1.0 2.5 10.0 1.0 PARTICLE VOLUME (CUM.) (+)' 300.0 Deplh Profiles FIGURE 148 190 STATION J4 5.0 DENSITY 25, 0 CHLOROPHYLL <*1 1.0 .5 P20S£HAJIL (*) 2.5 2.0 OXYGEN CO) 10.0 - LN TRANSMITTANCE (0) 1.0 • 60.0 PARTICLE VOLUME (CUM.) (+) 300.0 ■. y rX S Depth Profiles FIGURE 149 191 X UJ a 5.0 STATION K1 DENSITY 25.0 CHLOROPHYLL (X) 1.0 PHOSPHATE (A) 20 2.0 80.0 OXYGEN M - LN TRANSMITTANCE (0) 10.0 1.0 PARTICLE VOLUME (CUM.)(+) 400.0 40 60 80 10C Depth Profiles FIGURE 150 192 J X ►- a. UJ a 5.0 STATION K2 DENSITY 25.0 CHLOROPHYLL (X) 1.0 PHOSPHATE (A) 2.5 2.0 .2 8-0.0 OXYGEN M - LN TRANSMITTAIICE (0) 10.0 1.0 PARTICLE VOLUME (CUM.)(+) 400.0 80 Dep*h Profiles FIGURE 151 193 STATION K3 J 5.0 DENSITY 25.0 I .2 CHLOROPHYLL (X) 1.0 ►- .5 PHOSPHATE (A) 2.5 Ul 2.0 OXYGEN (a) 10.0 a .2 - LN TRANSMITTANCE (0) 1.0 0 . 80.0 PARTICLE VOLUME (CUM.)f» 400.0 y ^ / • - . 20 40 X Y y\ / 60 i 1 60 1 i lUC Depth Profiles FIGURE 152 194 STATION K4 5.0 DEN SI IT 25.0 CHLOROPHYLL (X) 1.0 .5 PHOSPHATE (*) 2.5 2.0 .2 OXYGEN (a) - LN TRANSMITTANCE (0) 10.0 1.0 VOLUME (CUM.)fr) 400.0 D e p I h Prof e s FIGURE 153 195 5.0 STATION K5 DENSITY 25.0 CHLOROPHYLL (X) 1.0 PHOSPHATE (A) 2.5 2.0 OXYGEN M LN TRANSMITTAL CE (0) 10.0 1.0 80.0 PARTICLE VOLUME (CUM.)(+) 400.0 ^^~ 20 40 K^ XT Deplh Profiles FIGURE 154 196 s T A T 1 O N K6 J 5.0 DENSITY 25.0 X .2 CHLOROPHYLL (X) 1.0 h- .5 PHOSPHATE M 2.5 CL. Ill 2.0 OXYGEN (a) 10.0 O .2 -LN TRANSMITTANCE (0) 1.0 0 .80.0 PA RTI CLE VOLUME ( CUM . ) (+ ) 400.0 •:: "--■ \l s:vs *> ,' h ■ 3'* ' o [ - Depth Profile FIGURE 155 197 p ' h f/G P r " R 1 ''' I 156 198 3.0 STATION K3 DENSITY 25.0 .2 CHLOROPHYLL 00 1.0 20 40 60 80 10C PHOSPHATE (A) 2.5 2.0 OXYGEN M 10.0 .2 - LN TRANSMITTAXCE (0) 1.0 .80.0 rtrr— PARTICLE VOLUME (CUM. ) (+) 400.0 _C^_ l ^ — — -- A. . — Depth P r o I i FIGURE 157 199 S T A T 1 O N K9 J 5.0 DENSITY 25.0 X .2 CHLOROPHYLL (X) 1.0 »— .5 PHOSPHATE M) 2.5 UJ 2.0 OXYGEN (a) 10.0 a .2 - LN TRANSMITTANCE (0) 1.0 20 40 (CUM.)(+) 400.0 Depfh Profile FIGURE 158 200 5.0 STATION K10 DENSITY 25.0 CHLOROPHYLL (X) 1.0 PHOSPHATE (A) 2.5 2.0 OXYGEN M - LN TRANSMITTANCE (0) 10.0 1.0 PARTICLE VOLUME (CUM.)f-r) 400._0_ r v. .t. D e p » h Prof lies FIGURE 159 201 5.0 STATION K11 DENSITY CHLOROPHYLL (X) 25.0 1.0 .5 PHOSPHATE (A) 2.5 2.0 OXYGEN (a) .2 - LN TRANSMITTAL CE (0) 10.0 1.0 80.0 PARTICLE VOLUME (CUM.)(+) 400.0 Depth Pr oli I FIGURE 160 202 5.0 STATION L1 DENSITY 25.0 CHLOROPHYLL (X) PHOSPHATE (4) 1.0 2.5 2.0 OXYGEN M .2 - LN TRANSMITTANCE (0) 80.0 PARTICLE VOLUME (CUM.)(+) 80 10C 10.0 1.0 400.0 Depth Prof lies FIGURE 161 203 STATION L2 J 5.0 DENSITY 25.0 I .2 CHLOROPHYLL (X) 1.0 .5 2.0 PHOSPHATE (&\ OXYGEN M - LN TRANSMITTANCE (0) Depfh Profile 2.5 10.0 1.0 PARTICLE VOLUME (CUM.)(+) 400.0 FIGURE 162 204 5.0 STATION L3 DENSITY 25.0 .2 CHLOROPHYLL (X) 1.0 PHOSPHATE (A) 2.5 2.0 OXYGEN M .2 - LN TRANSMITTANCE (0) 10.0 1.0 80 . 0 PARTICLE VOLUME (CUM.)(+) 400.0 Deplh Profile FIGURE 163 205 J X 5.0 STATION DENSITY CHLOROPHYLL L4 (X) 25.0 ] .0 .5 PHOSPHATE (*) 2.5 o 0 2.0 OXYGEN M - LN TRANSMITTANCE (0) 10.0 1.0 80.0 PARTICLE VOLUME (CUM.)(+) 400.0 D e p I h Prof e $ FIGURE 164 206 0 s T A T 1 O N Ml 5.0 DENSITY 25.0 .2 CHLOROPHYLL (X) 1.0 .5 PHOSPHATE (*) 2.5 2.0 OXYGEN M 10.0 .2 - LN TRANSMITTANCE (0) 1.0 . 80.0 — r— ~ PARTICLE VOLUME (CUM.)f» 400.0 •x- D e p I h Prof e $ FIGURE 165 207 J I t— 0. Ul a .5.0 S T A T I O N M2 DENSITY CHLOROPHYLL ~ (X) 25.0 1.0 PHOSPHATE (A) 2.5 2.0 OXYGEN (a) - LN TRANSMITTALS (0) 10.0 1.0 80.0 PARTICLE VOLUME (CUM.)(+) 400.0 e p 111 P r o f i I e $ FIGURE 166 208 J X 5.0 " .2 STATION M: DENSITY CHLOROPHYLL 00 25.0 1.0 PHOSPHATE (A) 2.5 a 0 2.0 .2 OXYGEN M -LN TRANSMITTANCE (0) 10.0 1.0 80.0 PA RTI C LE VOLUME ( CUM .)('+) 400.0 ^ x- Depth Profile F i G U R E 167 209 FIGURE 168 210 J I 5.0 STATION M5 DENSITY 25.0 CHLOROPHYLL (X) 1.0 PHOSPHATE (A. 2.5 o 0 2.0 OXYGEN l°\ 10.0 LN TRANSMT.TTANCE (0) 1.0 80.0 PARTICLE VOLUME (CUM.)(+) 400.0 20 ? H Eh « O En Ol OO1 i-iO-» OO tCT* _j «-»0 ww .- O O-sfr Z>0 * Q. w ».< CO sj" — «Qw —a: •— On o "O. h-~»oo «. j..—q uur\j> O <»- ' 0'1 •■ — »••»•. w wOCTC^— •><\J Q. H-vJ- •» »»oO O *• _J—-«COvtvt-XAJw •• •» •" ►QIZUJ>Uvt -~o~ ••qlo. ►s: *w coosj-o^oo^o—ci. Ul-J-w *CT* •• ►-HOCvJO jao^oa>^- »ox <>xia~ -t- •> ►a.— »-o >Q O-OOiil o ► LU •■«OQO'£XiMa •■ M— • ujcj ►u.u. •■—• 510 •"-•a^Q: •— - QO— . 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O — ■* CM — CM •-( ,-1 ^—. 0O_J t— _JOt— I— OCM tCMr— ■>!• CM ■«■ w •- m^l »3 CXL^J-OOCO trO O -in-ff- ■&•>£>■><• + >— . «—w •— i_i(/">w *. ». ».ro •►— 1 • — #■ l «— \— » Q.Q. ■— _j 00 *-'Zcc\— voco cjr ►rocM — lucm 2: 2T I— 00 •— < •— • LU*00 •• CMO •• 3 w Ohk SIO —O^QiQ »TOCM •— *m«~< »- ••— 1 00 CM 4-0000 O CO »-h- "I— COCOo— 'CL— ' •» >-ir-( ► o ► i-huj wo ••cls; •-$• >3->,-o *■& -> 11 ■ — ( It II -00^ — Ivf — !il3 0\* t. »-jj — w^-5— >w II ►-< >»-cMCjooro ►hm|- — . n.c«^-~_j >r ||—»— :±)h- a. •• *..-mco •• w co s o a. fM < cm — >—>~i ZD 2 lu o <)- — 1 cnj %0 II —> I — tu »S "oo — co CMLUS£ ► »• «-«0 DQ •»•«■ >'N.h- ww_)l— •»■ UJ»-"w i-h^ +r> s^v: I— Qd •— O^ _JsO-?Q. >w— H- ••' ► • hhZO—wZ wC0>-002'n}-UJCXi>O 2:il I wN^OH-o^Z •j-h »-i 0. 0. cc: ooh^o^o* oclu — vOww vhw^rct: :*:h-c\ji— 00 r5 a:oo'-'LLis:oouj_j_JOrOh-Q CMOOLULUIXIZ: JL0mwOXZUJt-i— < UJZ OOQCQCtLU Wi-JOOQ-wQCQ « Q>-<00^< >tC0H-00 I 00 'QC'-U OOO O I— 00 o o o cdcjo t-i h M in — 222 TABLE II STATION DATA: LOCATION, TIME, DATE, DEPTH, WEATHER, SOUND VELOCITY, TEMPERATURE, TRAMSMITTANCE , OXYGEN, PHOSPHATE AND CHLOROPHYLL STATICN: Al DEPTH: 69M D4TE 6 NOV 70 TIME: 1C15 LA7: 36-39. ON LONG: 121-54. 1V\ WIND: 190 SPEED: 12 AIR TEMP(DRY): 58 BARO: 30. C9 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 190-1 SWELL: 240-2 OBSERVED VALUES (NANSEN CAST) DEPTH (MJ SALINITY (O/OO) 0 32.965 10 32.967 30 33.084 50 33.450 68 33.479 OXYGEN (ML/L) 6.21 6.31 6.45 5.83 5.95 PHCSPHATE (MG-ATM/L) 0.39 0.40 0.49 0.90 C.97 CHLOROPHYLL (MG/M3) 0.140 0.169 0.173 0.371 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETER CAST) DEPTH (MJ TEMP (C) SC. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.93 1500.5 85.7 10 13.42 1500.5 63.8 18 13.30 15CC.3 84.8 28 13.08 1499.9 87.0 38 12.63 14S£.7 83.7 48 12.38 1498.2 81.5 56 12.20 1497.9 79.5 61 12.17 1497.9 79.1 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. CXY PHOS CHLOR SIG-T 0 13.93 1500.5 85.7 10 13.42 1500.5 83.8 20 13.26 1500.2 85.2 30 12.99 1499.7 86.3 50 12.33 1498.1 81.0 32.965 6.21 0.39 C.140 24.65 32.967 6.31 0.40 0.169 24.76 33.025 6.38 0.45 0.171 24.83 33.C64 6.45 0.49 0.173 24.93 33.450 5.83 0.90 0.371 25.34 o o "} STATION: A2 DEPTH: 76M DATE: 1 NOV 70 TIME: 0920 LAT: 36-40. 7N LONG: 121-54. 2W HIND: 190 SPEED: 12 AIR TEMP(DRY): 58 BARO: 30.09 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 190-1 SWELL: 240-2 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) 0 32.992 18 32.997 35 33.135 57 33.469 75 33.539 OXYGEN (ML/L) 5.62 6.26 5.27 5.23 5.52 PHOSPHATE (MG-ATM/L) 0.39 0.40 0.50 0.97 1.22 CHLOROPHYLL (MG/M3) 0.361 0.595 0.008 0.418 0.536 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.48 1500.5 84.9 10 13*47 15CC.6 84.0 21 13.39 15CC.5 83.0 28 13.19 1500.2 85.0 38 12.57 1496.5 84.5 47 12.42 1498.4 81.2 57 12.19 14 9 7.7 80.3 67 11.84 1496.8 82.3 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.48 1500.5 84.9 10 13.47 1500.6 84.0 20 13.40 1500.5 83.1 30 13.07 1499.9 84.9 50 12.35 1498.2 80.9 75 32.992 5.62 0.39 0.361 24.76 32.994 5.98 0.39 0.491 24.77 33.C13 6.14 0.41 C.526 24. 8C 33.094 5.56 0.47 C.181 24.93 33.363 5.25 0.82 0.288 25.27 33.539 5.52 1.22 0.536 224 STATION: A3 DEPTH: 78M DATE: 6 NOV 70 TIME: 0835 LAT: 36-42. IN LONG: 121-54.,21-i WIND: 135 SPEED: 10 AIR TEMP(DRY): 54 BARO: 30. C4 CLOUD AMT: 8 HEIGHT(FT): 1500 SEA: 135-1/2 SWELL: 230-2 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHvLL (MG/M3) 0 33.000 5.65 0.43 0.174 15 32.995 6.34 0.2C0 35 33.064 5.7C 0.46 0.142 50 33.226 5.26 0.59 0.266 65 33.434 5.99 0.89 0.442 77 33.635 4.40 1.83 OBSERVED VALUES ( SV/T/D-TRANSMISSOMETE R CAST) DEPTH (M) TEMP (C) SO., VEL (M/SEC) TRANSMITTANCE (0/0) 0 1 3 ■ 4 5 1 5 0 C . 4 80. t> 8 13.45 15C0.6 80.2 24 13.40 1 5 G C . 7 81.3 38 13.09 15CC.1 84.9 48 12.71 1499.1 86. 1 58 12.18 1497.6 84.6 67 11.61 1495.6 82.2 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHCS CHLOR SIG-T 0 13.45 1500.4 80.5 10 13.44 1500.6 80.3 20 13.41 1500.7 81.0 30 13.27 1500.4 82.8 50 12.60 1498.8 85.8 75 33.000 5.65 0.43 0.174 24.78 32.997 6.11 0.191 24.77 33.C12 6.18 0.185 24.79 33.C47 5.86 0.156 24.85 33.226 5.26 0.59 0.266 25.12 33.6C1 4.66 1.67 0.C74 225 STATION: A4 DEPTH: 87M DATE: 6 NOV 70 TIME: 3745 LAT: 36-43. 7N LONG: 121-54. 5W WIND: 135 SPEED: 10 AIR TEMP(DRY): 54 8AR0: 30.04 CLOUD AMT: 8 HEIGHT(FT): 1500 SEA: 135-1/2 SWELL: 230-2 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLCPCPHYLL (MG/M3) 0 32.984 6.00 0.42 0.176 15 32.979 5.92 0.42 0.197 35 32.036 6.00 0.43 0.205 55 33.285 5.61 0.68 0.198 70 33.531 5.19 1.08 0.734 86 33.719 4.21 1.92 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETER CAST) DEPTH (M) TEMP (C) SC. VEL (M/SEC) TRANSMITTANCt. (0/0) 0 13.60 15CC.2 76.8 10 13.35 1500.3 79.0 24 13.32 150C.4 79.5 38 13.18 15CC.3 85.0 47 12.72 1499.2 87.7 56 12.15 1497.4 87.4 65 11.96 1497.2 80.3 69 11.52 1495.7 60.7 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.60 1500.2 78.8 10 13.35 1500.3 79.0 20 13.33 1500.4 79.4 30 13.26 1500.4 81.9 50 12.53 1498.6 87.6 75 32.984 6.00 0.42 0.176 24.73 32.981 5.95 0.42 0.190 24.78 32.993 5.94 0.42 0.199 24.80 33.021 5.98 0.43 0.203 24.83 33.223 5.71 0.62 0.200 25.13 33.59C 4.89 1.34 0.505 226 STATION: A5 DEPTH: 82M DATE: 6 NOV 70 TIME: 0632 LAT: 36-45. 5N LONG: 121-54. 4h WIND: 130 SPEED: 1C AIR TEMP(DRY): 53 BARO: 30.01 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 130-1 SWELL:27C-2 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) 0 33.008 20 33.019 40 33.102 65 33.320 81 33.785 OXYGEN (ML/L) 0.0 6.24 6.44 6.26 5.07 PHGSPHATE (MG-ATM/L) 0.42 0.43 0.4 7 0.76 1.98 CHLOROPHYLL (MG/M3) 0.173 0.249 0.244 0.293 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETER CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.27 1499.9 77.2 7 13.27 15C0.C 77.4 19 13.24 15C0.1 77.1 29 13.26 1500.3 78.2 38 13. C9 15CC.1 79.2 47 12.81 1499.4 79.1 62 11.95 1496.9 80.7 71 11.86 1497. C 69.5 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.27 1499.9 77.2 10 13.26 1500.0 77.3 20 13.24 1500.1 77.2 30 13.24 1500.3 78.3 50 12.64 1498.9 79.4 75 33.008 0.0 0.42 0.173 24.82 33.014 3.12 0.42 0.211 24.82 33.019 6.24 0.43 0.249 24.83 33.C6C 6.34 0.45 C.246 24.86 33.189 6.37 0.59 C.264 25.08 33.611 5.52 1.52 C.11C 227 STATION: A6 DEPTH: 450M DATE: 6 NOV 70 TIKE: 0450 LAT: 36-46. 6N LONG: 121-54.'^ WIND: LIGHT AIRS AIR TEMP(DRY): 54 BARO: 30.05 CLOUD AMT: 2 HEIGHT(FT): 1500 SEA: CALM SWELL: 27C-2 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) 0 33.084 20 33.131 35 33.300 60 33.533 80 33.692 105 33.871 OXYGEN (ML/L) 6.47 6.42 6.56 5.37 3.73 2.86 PHOSPHATE (MG-ATM/L) 0.45 0.50 0.56 1.20 1.75 2.12 CHLOROPHYLL (MG/M3I 0, ,213 0, ,369 0, ,651 0, ,461 0, ,161 0, .077 OBSERVED VALUES { SV/T/D-TRANSMI SSOMETER CAST) DEPTH (M) TEMP (C) SO., VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.28 i c;rn n *70 O 9 13.30 1500.2 78.6 18 13.28 15CC.3 77.1 31 13.06 1499.9 73.4 46 12.69 1499.2 76.6 55 11.03 14 94.8 80. 6 74 10.33 1491.9 52.7 84 9.89 14S0.6 59.2 100 9.15 1488.2 68.7 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. CXY PHOS CHLOR SIG-T 0 13.28 1500.0 79.8 10 13.30 1500.2 78.4 20 13.25 1500.2 76.5 30 13. C8 1499.9 73.7 50 11.95 1497.2 78.4 75 10.29 1491.8 53.3 00 9.15 1488.2 68.7 33.084 6.47 0.45 0.213 24.88 33.108 6.44 0.48 0.291 24.89 33.131 6.42 0.50 0.369 24.92 33.243 6.52 0.54 0.557 25.04 33.439 5.85 0.94 0.537 25.41 33.652 4.14 1.61 0.236 25.87 33.835 3.03 2.04 0.094 26.20 228 STATION: A7 DEPTH: I46M DATE: 6 NOV 70 TIME: 0315 LAT: 36-49. 6N LONG: 121-54. 2k WIND: LIGHT AIRS AIR TEMP(DRY): 54 BARO: 30-06 CLOUD AMT: 2 HEIGHT(FT): 1500 SEA: CALM SWELL: 27C-2 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PFCSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.284 6.19 0.53 0.353 10 33.288 6.45 0.52 0.118 25 33.386 6.26 0.63 0.6C5 50 33.457 5.44 1.07 0.327 60 33.571 4.68 1.40 0.286 85 33.663 3.95 1.71 0.229 100 33.873 3.19 2.19 0.075 OBSERVED VALUES ( SV/T/D-TR ANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 12.95 1499.1 70.9 10 12.84 1499.0 81.1 20 12.59 1498.4 75.1 48 11.53 1495.2 82.8 58 11.06 1494. C 82.1 77 10.64 1493.0 57.7 87 10.23 1491.6 50.0 107 9.03 1488.0 54.3 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 12.95 1499.1 70.9 10 12. 84 1499.0 81.1 20 12.59 1498.4 75.1 30 12.21 1497.3 77.8 50 11.44 1495.0 82.7 75 10.68 1493. 1 60.3 100 9.45 1489.3 52.8 33.284 6.19 0.53 0.353 25.10 33.288 6.45 0.52 0.118 25.12 33.353 6.33 0.60 0.443 25.22 33.400 6.10 0.72 C.549 25.33 33.457 5.44 1.07 0.327 25.52 33.626 4.24 1.59 0.252 25.78 33.873 3.19 2.19 C.075 26.18 229 STATION: A8 DEPTH: 73M DATE: 6 NOV 70 TIME: C230 LAT: 36-49. 7N LONG: 121-54. 3W WIND: LIGHT AIRS AIR TEMP(DRY): 54 BARO: 30.06 CLOUD AMT: 2 HEIGHT(FT): 1500 SEA: CALM SWELL: 270-2 . OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.231 6.56 0.51 0.697 5 33.308 6.51 0.54 0.666 25 33.389 6.24 0.69 0.691 45 33.408 5.22 1.07 0.292 65 33.523 4.89 1.31 0.234 72 33.564 4.74 • 1.47 OBSERVED VALUES ( SV/T/D- TRANSMI S SOMETE R CAST) CEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 1 ?.8A 1498.8 77.8 4 12.84 1496.9 76.9 15 12.48 1496.0 73.8 30 12.23 1497.5 76.1 50 11.31 1494.6 86. C 69 11.13 1494.5 52.9 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. CXY PHOS CHLCR SIG-T 0 12.84 1498.8 10 12.64 1498.4 20 12. 4C 1497.8 30 12.23 1497.5 50 11.31 1494.6 77.8 33.231 6.56 0.51 0.697 25.08 75.2 33.32£ 6.44 0.58 0.672 25.19 74.6 33.369 6.30 0.65 C.685 25.27 76.1 33.394 5.98 0.79 0.591 25.32 86.0 33.437 5.14 1.13 0.277 25.52 230 STATION: A9 DEPTH: 59M DATE: 6 NOV 70 TIKE: C130 LAT: 36-51. 2N LONG: 121-54. 3W KIND: LIGHT AIRS AIR TEMP(DRY): 54 BARO: 30. C6 CLOUD AMT: 2 HEIGHT(FT): 1500 SEA: CALM SWELL: 27C-2 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PhCSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.150 6.28 0.51 0.234 10 33.175 6.35 0.49 0.4C5 20 33.331 6.24 0.64 0.493 30 33.352 6.15 0.74 0.456 40 33.358 5.83 0.93 0.530 50 33.474 5.43 1.14 0.473 58 5.50 1.25 0.591 OBSERVED VALUES ( SV/T/D- fRANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.18 1499.8 77.5 4 13.13 1499.8 77.9 10 12.96 1499.3 77.5 20 12. 64 1498.5 81.0 30 12.34 1497.5 80. 1 4C 11.56 1495.1 86.9 43 11.67 1495.5 50.5 49 11.96 1496. C 33.7 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.18 1499.8 10 12.96 1499.3 20 12.64 1498.5 30 12.34 1497.5 50 77.5 33.150 6.28 0.51 0.234 24.95 77.5 33.175 6.35 0.49 0.405 25.01 81.0 33.331 6.24 0.64 C.493 25.19 80.1 33.352 6.15 0.74 0.456 25.27 33.474 5.43 1.14 0.473 231 STATION: AlO DEPTH: 36M DATE: 6 NOV 70 TIME: 0040 LAT: 36-52. 7N LONG: 121-54. 3W WIND: CALM AIR TEMP(DRY): 54 BARO: 30.10 CLOUD AMT: 10 TYPE: FOG SEA: CALM SWELL: 270-3 DEPTH (M) SALINITY (0/00) OBSERVED VALUES (NANSEN CAST) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLCROPHYLL (MG/M3) 0 5 10 20 30 35 33.134 33.130 33.136 33.323 33.397 33.401 6.32 6.33 6.43 6.37 6.14 6.20 0.51 0.49 0.52 0.60 0.7C 0.79 0.450 0.318 0.334 0.372 0.654 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETER CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (C/0) n 5 9 14 20 30 13, 14 13.14 13.12 12.70 12.45 12.40 1499.6 14 99.7 1499.7 1499.7 1497.9 1497.9 80.3 78.9 78.4 81.0 82.8 64.2 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.14 1499.6 10 13.04 1499.7 20 12.45 1497.9 30 12. 4C 1497.9 80.3 33.134 6.32 0.51 C.450 24.94 78.9 33.136 6.43 0.52 0.334 24.96 82.8 33.323 6.37 0.60 C.372 25.22 64.2 33.397 6.14 0.70 0.654 25.29 232 STATION: All DEPTH: 22M DATE: 6 NOV 70 TIME: 0005 LAT: 36-54. 2N LONG: 121-54. 3W WIND:CALM AIR TEMP(DRY): 54 BARO: 30. iC CLOUD AMT: 10 TYPE: FOG SEA: CALM SWELL: 270-3 DEPTH TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) c 8 28 48 57 77 96 1 3,33 13.31 13.26 13.16 11.48 10.90 10.75 1 500. C 15CC.1 1500.3 15CC.5 1495.3 1493.8 1493.7 78 78 79 82 88 87 89.7 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.33 1500.0 78.0 10 13.30 1500.1 78.4 20 13.28 1500.2 79.0 30 13.25 1500.3 79.8 50 12.79 1499.3 84.3 75 10.96 1493.9 88.6 100 32.981 4.71 0.48 0.187 24.79 32.982 4.60 0.45 0.191 24.79 32.984 5.75 0.45 0.224 24.80 33.04C 6.53 0.48 0.238 24.85 33.259 7.34 0.59 C.228 25.11 33.484 4.93 1.30 0.136 25.62 33.6C3 4.20 1.56 C. 169 243 STATION: BIO DEPTH: 247M DATE: 5 NOV 70 TIME: 10C0 LAT: 36-42. 8N LONG: 122-59. Ik WIND: 180 SPEED: 22 AIR TEMP(DRY): 57 BARO: 30. C5 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 180-3 SWELL: 180-3 DEPTH (Ml SALINITY (0/00) OBSERVED VALUES (NANSEN CAST) OXYGEN (ML/L) PHOSPHATE (NG-ATM/L) CHLCROPHY.L (MG/M3 ) 0 15 40 55 70 100 32.968 32.973 33.009 33.282 33.202 33.659 6.24 6.51 6.31 6.42 5.42 4.06 0.45 C.45 0.46 0.58 0.86 1.64 0.169 0.107 0.187 0.194 0.179 0.135 OBSERVED VALUES ( SV/T/D- T RANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 9 14 20 3 9 57 76 99 13.30 13.29 13.29 13.29 13.30 12.90 10.95 10.57 1499.9 1500.0 1500.2 150C.2 15CC.7 1499.8 1494.0 1494.9 77.4 77.4 77.4 77.4 79.2 82.5 85.5 77.7 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.30 1499.9 77.4 10 13.29 1500.0 77.4 20 13.29 1500.2 77.4 30 13.30 1500.5 78.3 50 13.06 1500.1 81.2 75 11.05 1494.3 85.3 100 32.968 6.24 0.45 0.169 24.78 32.971 6.42 0.45 C.128 24.79 32.980 6.47 0.45 0.123 24.79 32.995 6.39 0.46 0.155 24.80 33.191 6.39 0.54 C.192 25.00 33.278 5.19 0.99 0.172 25.45 33.659 4.C6 1.64 0.135 244 STATION: Bll DEPTH: 109M DATE: 5 NOV 70 TIME: 0855 LAT: 36-41. 3N LONG: 122-59. 1W WIND: 190 SPEED: 20 AIR TEMP(DRY): 58 BARO: 30. CO CLGUD AMT: 10 HEIGHT(FT): 1000 SEA: 190-3 SWELL: 180-5 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 32.980 6.22 0.44 0.154 25 32.972 6.23 0.44 0.2C9 60 33.229 0.64 0.225 75 33.330 5.71 0.92 0.228 95 33.543 5.14 1.28 0.355 108 33.701 3.7C 2.15 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.43 15CC.3 79.6 20 13.42 15C0.7 79.5 50 13.33 15CC.9 81.3 59 12.86 1498.8 84.9 74 11.71 1496.0 87.7 99 11.12 1494.9 84.0 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.43 1500.3 79.6 10 13.42 1500.5 79.5 20 13.42 1500.7 79.5 30 13.39 1500.8 80.1 50 13.33 150C.9 81.3 75 11.69 1496. C 87.6 100 32.980 6.22 0.44 0.154 24.76 32.977 6.23 0.44 0.176 24.76 32.974 6.23 0.44 C.198 24.76 33.C09 5.34 0.47 C.211 24.80 33.156 1.78 0.58 C.220 24.92 33.33C 5.71 0.92 0.228 25.37 33.604 4.59 1.61 0.218 245 STATION: B12 DEPTH: 99M DATE: 5 NOV 70 TIME: 0750 LAT: 36-39. 8N LONG: 122-59. 2W WIND: 190 SPEED: 20 AIR TEMP(DRY): 58 BARO: 30.00 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 190-3 SWELL: 18C-5 . OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 32.971 6.22 0.43 0.197 20 32.982 5.78 0.43 0. 169 45 33.105 4.18 0.54 0.175 60 33.414 2.27 0.96 0.332 80 33.499 4.55 1. 11 0.446 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 • 13.46 150C.5 77.9 2 I I 3 - 4 5 15CC.8 78.5 46 13.13 1500.4 83.2 55 12.52 1498.6 80.8 70 12.05 1497.5 79.4 88 11.50 1496.1 82.3 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-1 0 13.46 1500.5 77.9 10 13.46 1500.6 78.2 20 13.45 1500.8 78.5 30 13.33 1500.7 8C.2 50 12.86 1499.6 82.1 75 11.90 1497. 1 80.2 32.971 6.22 0.43 0.197 24.75 32.977 6.00 0.43 0.183 24.76 32.962 5.78 0.43 0.169 24.76 33.032 5.14 0.47 0.171 24.82 33.208 3.54 0.68 0.227 25.05 33.478 3.98 1.07 0.417 25.45 246 STATION: B13 DEPTH: 82M DATE: 5 NOV 70 TIME: 0655 LAT: 36-38. 8N LONG: 121-58. 7W WIND: 160 SPEED: 30 AIR TEMP(DRY): 50 BARO: 29.95 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 160-5 SWELL: 170-12 DEPTH (M) SALINITY (0/00) OBSERVED VALUES (NANSEN CAST) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLORCPHYLL (MG/M3) 0 20 50 60 81 32.961 32.961 33.163 33.382 33.533 6.23 6.37 6.16 5.81 5.35 0.49 0.51 0.64 0.89 0.167 0.199 0.160 0.358 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SC. VEL (M/SEC) TRANSMITTANCE (0/0) 0 9 18 27 35 44 53 63 67 13.36 13.35 13.32 13.34 13.30 13.18 12.57 12.23 11.82 150C.2 150C.3 1500.4 1500.6 15CC.7 150C.4 149 8.7 1497.9 1496.8 81.3 81.6 80.8 80.2 80.2 81.9 78.8 80.0 77.8 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.36 1500.2 81.3 10 13.35 1500.3 81.5 20 13.32 1500.4 80.7 30 13.32 1500.6 8C.2 50 12.77 1499.3 79.8 75 32.961 6.23 0.49 0.167 24.76 32.961 6.30 0.50 0.183 24.77 32.961 6.37 0.51 0.199 24.77 33.C29 6.30 0.55 0.186 24.82 33.163 6.16 0.64 C.160 25.04 33.490 5.48 0.25 0.102 247 STATION: CI DEPTH: 444M DATE: 5 NOV 70 TIME: 0545 LAT: 36-36. 2N LONG: 122-01. 7W WIND: 160 SPEED: 30 AIR TEMP(DRY): 50 BARO: 29.95 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 160-5 SWELL: 170-12 t OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY OXYGEN (0/00) (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 32.965 6. ,26 0, ,44 0.149 20 32.965 6, ,29 0, .48 0.275 50 33.367 6. ,10 C, .79 0.459 70 33.490 5. ,91 1. ,00 0.839 80 33.494 5. ,85 1, .02 0.725 100 33.602 4, ,65 1, ,31 0.443 OBSERVED VALUES (SV/T/D-TRANSMISSOMETER CAST) DEPTH TEMP (M) (C) SC. VEL (M/SEC) TRANSMITTANCE (C/0) 0 13.30 1499.9 82. C 13 13.30 15C0.2 82.1 23 13.30 1500.4 82.1 38 12.99 1499.8 80.7 46 12.73 1499.3 77.5 69 11.95 1497.1 71.2 93 10.65 1492.7 79.3 102 9.97 1491.1 85.6 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.30 1499.9 82.0 10 13.30 1500.1 82.1 20 13.30 1500.3 82.1 30 13.16 1500.1 81.4 50 12.59 1498.9 76.4 75 11.62 1496.0 73.2 100 10.12 1491. 5 84.2 32.965 6.26 0.44 0.149 24.78 32.965 6.29 0.48 0.275 24.78 32.965 6.29 0.48 0.275 24.78 33.367 6.10 0.79 C.459 25.12 33.367 6.10 0.79 C.459 25.23 33.4<;2 5.88 1.01 0.782 25.51 33.602 4.65 1.31 0.443 25.86 248 STATION: CI DEPTH: 444M DATE: 5 NOV 70 TIME: 0545 LAT: 36-36. 2N LONG: 122-01. 7W WIND: 160 SPEED: 30 AIR TEMP(DRY): 50 BARO: 29.95 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 160-5 SWELL: 170-12 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 32.965 6.26 0.44 0.149 20 32.965 6.29 0.48 0.275 50 33.367 6.10 C.79 0.459 70 33.490 5.91 1.00 0.839 80 33.494 5.85 1.02 0.725 100 33.602 4.65 1.31 0.443 OBSERVED VALUES ( SV/T/D-T RANSMI SSOMETER CAST) DEPTH (M) TEMP (C) SG. VEL (M/SEC) TRANSMITTANCE (C/0) 0 1 ^.30 1499.9 82. C 13 13.30 15C0.2 82.1 23 13.30 1500.4 82.1 38 12.99 1499.8 80.7 46 12.73 1499.3 77.5 69 11.95 1497.1 71.2 93 10.65 1492.7 79.3 102 9.97 1491.1 85.6 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.30 1499.9 82.0 10 13.30 1500.1 82.1 20 13.30 1500.3 82.1 30 13.16 1500.1 81.4 50 12.59 1498.9 76.4 75 11.62 1496.0 73.2 100 10.12 1491.5 84.2 32.965 6.26 0.44 0.149 24.78 32.965 6.29 0.48 0.275 24.78 32.965 6.29 0.48 0.275 24.78 33.367 6.10 0.79 C.459 25.12 33.367 6.10 0.79 C.459 25.23 33.4S2 5.88 1.01 0.782 25.51 33.602 4.65 1.31 0.443 25.86 248 STATION: C2 DEPTH: 823M DATE: 5 NOV 70 TIME: 0437 LAT: 36-34. IN LONG: 122-04. 1W WIND: 160 SPEED: 35 AIR TEMP(DRY): 50 BARO: 29.90 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 160-6 SWELL: 170-12 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY OXYGEN (0/00) (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 32.927 4, ,65 0, ,42 0.227 20 32.936 4, ,67 0, ,42 0.245 50 32.961 4, ,70 0, .43 0.2C0 65 33.280 5, ,93 0. .71 0.296 80 33.578 3. ,70 1, .42 0.267 100 33.604 2, .95 1. .57 0.106 OBSERVED VALUES (SV/T/D-7RANSMISS0METER CAST) DEPTH TEMP ( M ) ( C ) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13-44 15CG.4 77.7 4 13.45 150C.5 78.8 14 13.43 15C0.6 78.4 23 13.44 15 CO. 8 78.4 37 13.41 15C1.0 77.9 54 13.19 1 5 0 C . 7 81.8 64 12.17 1493.7 80.5 79 10.84 1493.7 83.1 94 9.85 1490.2 89.0 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 32.927 4.65 0.42 0.227 24.72 32.936 4.67 0.42 0.245 24.73 32.936 4.67 0.42 0.245 24.73 32.961 4.70 0.43 0.200 24.75 32.961 4.70 0.43 0.200 24.79 33.478 4.44 1.19 0.277 25.58 33.604 2.95 1.57 0.106 0 13.44 1500.4 77.7 10 13.44 1500.6 78.6 20 13.44 1500.7 78.4 30 13.42 1500.9 78.1 50 13.24 1500.8 80.9 75 11.19 1493.7 82.4 100 249 STATION: C3 DEPTH: 1280M DATE: 5 NOV 70 TIME: 0305 LAT: 36-31. 5N LONG: 122-07. 4W WIND: 160 SPEED: 35 AIR TEMP(DRY): 50 BARO: 29.90 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 160-6 SWELL: 170-12 . OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 32.831 3.95 0.41 0.1C7 10 32.864 4.94 0.41 0.175 25 32.872 5.20 0.41 0.156 40 33.315 4.80 0.68 0.195 60 33.403 4.18 0.98 0.189 70 33.155 4.22 • 1.01 0.C71 90 33.477 4.03 1.43 0.031 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETER CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.56 1500.7 78.8 9 13.55 15CC.9 79.2 28 13.49 1501.0 79.9 38 13.27 150C.2 80.6 58 11.66 1496.0 88.8 67 9.47 1487. S 91.4 85 9.37 1486.3 91.7 96 8.69 1486.2 92.4 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.56 1500.7 78.8 10 13.55 1500.9 79.2 20 13.52 1501. C 79.6 30 13.45 1500.8 80.0 50 12.30 1497.7 85.5 75 9.43 1488. 1 91.5 32.831 3.95 0.41 0.107 24.62 32.864 4.94 0.41 0.175 24.65 32.86<5 5.11 0.41 C.162 24.66 33.C2C 5.07 0.50 0.169 24.79 33.359 4.49 0.83 0.192 25.28 33.236 4.18 1.12 0.C61 25.69 250 STATION: Dl DEPTH: 1737M DATE: 5 NGV 7C TIME: OlOO LATr. 36-35. 5N LONG: 122-10. 8W WIND: 160 SPEED: 35 AIR TENP(DRY): 55 BARC: 29.95 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 160-6 SWELL: 170-1C OBSERVED VALUES (KANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHCSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 32.920 5.92 0.47 0.193 10 32.916 5.42 0.48 0.157 25 32.909 5.33 0.50 0.142 40 33.126 5.26 0.52 0.151 60 33.372 4.95 0.68 0.215 70 33.431 A. 35 0.99 0.154 90 33.415 4.08 0.C29 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.16 1499.4 78.5 10 13.15 1499.5 79.0 19 13. 04 1499.4 79.9 27 13.03 1499.5 81. 1 37 13.23 15C1.4 85.2 57 12.23 1497.8 89.2 77 10.26 1491.5 90.3 96 9.37 1488.7 91.2 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13. 16 1499.4 78.5 10 13.15 1499.5 79.0 20 13.04 1499.4 8C.0 30 13.09 1500.1 82.3 50 12.58 1499.1 87.8 75 10.46 1492. 1 90.2 32.920 5.92 0.47 0.193 24.77 32.916 5.42 0.48 0.157 24.77 32.911 5.36 0.49 0.147 24.79 32.981 5.31 0.51 C.145 24.83 33.249 5.11 0.60 0.183 25.14 33.427 4.28 0.74 0.123 25.67 251 STATION: D2 DEPTH: 1370M DATE: 4 NOV 70 TIME: 2300 LAT: 36-39. 2N LONG: 122-14. 6W WIND: 160 SPEED: 30 AIR TEMP(DRY): 53 BARO: 29.97 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 160-4 SWELL: 170-9 OBSERVED VALUES (NANSEN CAST) DEPTH (MJ SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.230 6.38 0.55 0.177 10 33.231 6.51 0.53 0.122 30 33.231 6.45 0.52 0.249 40 33.224 3.58 0.55 0.175 55 33.170 6.24 0.57 0.089 70 33.109 5.84 0.79 0.088 90 33.483 4.72 1.37 0.215 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETER CAST) DEPTH (M) TEMP (C) SO., VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.50 1501.0 76.8 1C 13.45 1 5 C C . 9 77.6 20 13.41 1 5 C 1 . C 78.1 28 13.27 1500.6 78. 1 39 13.03 1499.9 80. A 58 10.60 1491.5 88.7 76 10.42 1492.0 90.0 89 9. 41 1488.5 91.9 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. CXY PHOS CHLOR SIG-T 0 13.50 1501.0 76.8 10 13.45 1500.9 77.6 20 13.41 1501.0 78.1 30 13.23 1500.5 78.5 50 11.62 1495. C 85.2 75 10.43 1492. C 89.9 33.230 6.38 0.55 0.177 24.94 33.231 6.51 0.53 0.122 24.95 33.231 6.45 0.52 0.249 24.96 33.231 6.45 0.52 0.249 25.00 33.188 5.36 0.56 C.118 25.27 33.2C3 5.56 0.94 0.120 25.50 252 STATION: 03 DEPTH: 1262M DATE: 4 NOV 70 TIME: 2100 LAT: 36-43. ON LONG: 122-18. 5W WIND: 210 SPEED: 25 AIR TEMP(DRY): 55 BARO: 29.93 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 200-7 SWELL: 190-9 DEPTH (M) SALINITY (0/00) OBSERVED VALUES (KANSEN CAST) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 15 30 40 60 32.243 32.243 33.251 33.341 33.397 6.41 6.16 6.42 5.70 4.99 0.52 0.46 0.52 0.93 1.24 0.142 0.171 0.167 0.179 0.059 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 o 18 27 46 64 76 82 13.77 12.77 13.74 13.68 11.53 10.02 9.74 9.71 1501.8 15C2.1 15C2.1 1502.1 1495.4 1490.4 149C.0 1489.7 77 77 77 77 85 89 90.0 90.0 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.77 1501.8 10 13.77 1502.1 20 13.73 1502.1 30 13.34 1501.0 50 11.19 1494.3 77.2 33.243 6.41 0.52 0.142 24.90 77.2 33.243 6.25 0.48 C.161 24.90 77.3 33.251 6.42 0.52 0.167 24.91 78.8 33.251 6.42 0.52 0.167 24.99 86.5 33.369 5.34 1.08 0.119 25.49 253 STATION: El DEPTH: 841M DATE: 4 NOV 70 TIME: 1853 LAT: 36-47. 4N LONG: 122-14. 5b WIND: 170 SPEED: 25 AIR TEMP(DRY): 55 BARO: 29.93 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 170-7 SWELL: 17C-1C DEPTH (M) SALINITY (0/00) OBSERVED VALUES (NANSEN CAST) OXYGEN (ML/L) PhQSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 30 50 70 80 33.084 33.085 33.116 33.058 33.278 6.18 6.27 6.21 4.50 4.42 0.48 0.48 C.50 0.69 1.16 0.160 0.134 0.177 0el56 0.058 OBSERVED VALUES ( SV/T/D-T RANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SC. VEL (M/SEC) TRANSMITTANCE (0/0) 0 9 26 44 59 66 77 13.07 13.06 13.11 11.83 11.41 10.30 9.97 1499.4 149Q r T F M P (C) sn. vfi (M/SEC) TRANSMITTANCE (0/0) 62.0 72.1 78.6 81.6 86.1 88.2 48.0 46.9 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 50 75 62.0 33.353 6.36 0.59 0.392 33.377 6.36 0.66 C.358 33.421 6.15 0.78 0.347 33.464 5.61 1.00 0.461 33.52C 4.90 1.28 0.391 33.725 3.38 0.215 266 STATION: G4 DEPTH: 155M DATE: 4 NOV 70 TIME: 0200 LAT: 37-00. 5N LONG: 122-23. 1W WIND: 180 SPEED: 6 AIR TEMP(DRY): 54 BARO: 29.88 CLOUD AMT: 3 HEIGHT(FT): 150C SEA: 180-1 SWELL: 18C-5 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLCROPHYLL (MG/M3) 0 33.355 6.32 0.63 0.404 10 33.353 6.34 0.69 0.456 30 33.396 5.73 1.04 0.435 40 33.448 5.54 1.06 0.414 60 33.7C0 3.37 1.67 0.727 80 33.770 3.46 1.81 0.097 100 33.806 3.22 1.89 0.076 153 33.827 3.16 OBSERVED VALUES ( S V/T/D-T RANSMI SSOMETER CAST) HEPTH (M) TCMP (C) (M/SEC) TR ANSM r TTANf.F (0/0) 74.3 74.8 82.7 86.1 91.6 89.4 80.7 74.7 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 50 75 100 150 74.3 33.355 6.32 0.63 0.404 33.353 6.34 0.69 C.456 33.374 6.04 0.87 0.445 33.396 5.73 1.04 C.435 33.574 4.7C 1.37 0.57C 33.752 3.57 1.77 0.254 33..1C6 3.22 1.89 0.076 33.825 3.16 O.C04 267 STATION: G5 DEPTH: 155M DATE: 4 NOV 70 TIME: C045 LAT: 36-59. 5N LONG: 122-24. 5W WIND: 160 SPEED: 30 AIR TEMP(DRY): 51 BARO: 29,87 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 160-8 SWELL: CCNFUSED-10 OBSERVED VALUES (NANSEN CAST) DEPTH (MJ SALINITY (0/00) 0 33.411 10 33.407 20 33.487 35 33.524 55 33.638 75 33.863 95 33.862 OXYGEN (ML/L) 6.40 6.31 5.92 4.95 4.05 3.07 2.99 PHOSPHATE (MG-ATM/L) 0.67 0.66 C.92 1.28 1.59 1.92 1.96 CHLOROPHYLL (MG/M3) 0.267 0.374 0.377 0.221 0.0 64 0.077 0.094 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETE R CAST) DEPTH- (M) TEMP (C) SC. VEL (M/SEC) TRANSMITTANCE (0/0) 72.4 72.2 74.2 82.2 88.8 90.0 83.2 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 50 75 72.4 33.411 6.40 0.67 0.287 33.4C7 6.31 0.66 0.374 33.487 5.92 0.92 0.377 33.512 5.27 1.16 C.273 33.61C 4.27 1.51 C.103 33.863 3.07 1.92 0.077 268 STATION: G6 DEPTH: 733M DATE: 3 NOV 70 TIKE: 2312 LAT: 36-56. 3N LONG: 122-32. 8h WIND: 150 SPEED: 30 AIR TEMP(DRY): 51 BARO: 29.33 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 150-8 SWELL: CCNFUSED-12 OBSERVED VALUES (NAMSEN CAST) DEPTH (Ml SALINITY (0/00) OXYGEN (ML/LI PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.457 6.31 0.69 0.496 10 33.454 6.42 0.71 0.559 20 33.484 5.94 0.85 0.542 35 33.317 5.13 1. 16 0.137 55 33.571 4.34 1.48 0.172 75 33.529 4.71 1.42 0.114 95 33.688 4.38 1.57 0.041 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETER CAST) DEPTH (Ml TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 72.7 73.0 82.5 89.0 88.7 90.2 90.6 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. CXY PHCS CHLOR SIG-T 0 10 20 30 50 75 72.7 33.457 6.31 0.69 C.496 33.454 6.42 0.71 0.559 33.4C4 5.94 0.85 0.542 33.373 5.4C 1.06 C.272 33.5C7 4.54 1.40 C.163 33.529 4.71 1.42 C.114 269 STATION: G7 DEPTH: 1370M DATE: 3 NOV 70 TIKE: 2204 LAT: 36-53. 3N LONG: 122-32. 8h WIND: 150 SPEED: 30 AIR TEMP(DRY): 51 BARO: 29.83 CLOUD AMT: 10 HEIGHT(FT): 1000 SEA: 150-8 SWELL: CONFUSED-12 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.386 6.51 1.13 0.348 5 33.384 6.46 0.79 0.283 10 33.337 6.22 1.12 0.411 20 33.395 6.33 0.92 0.475 30 33.401 5.21 0,67 0.215 50 3 3.49 8 4.46 1.45 0.189 75 33.515 4.84 1.76 0.094 100 33.679 4.79 1.49 0.051 OBSERVED VALUES (SV/T/D- RANSMISSOME ER CAST) IEPTH (M) TEMP (C) en mci (M/SEC) TP AM CM TTT A M£ P ' (6/0) ' 71.9 74.2 74.2 82.2 92.0 92.2 DEPTH TEMP 0 10 20 30 50 75 100 INTERPOLATED VALUES SO. VEL TRANS. SAL. GXY PHCS CHLOR SIG-T 71.9 33.326 6.51 1.13 0.348 33.3E7 6.22 1.12 C.411 33.395 6.33 0.92 0.475 33.401 5.21 0.67 C.215 33.49c 4.46 1.45 0.189 33.515 4.84 1.76 C.C94 33.679 4.79 1.49 0.C51 270 STATION: HI DEPTH: 825M DATE: 3 NOV 70 TIME: 180C LAT: 36-58. 3N LONG: 122-41. CW WIND: 140 SPEED: 25 AIR TEMP(DRY): 53 BARO: 29. 8C CLOUD AMT: 10 HEICHT(FT): 1000 SEA: 140-5 SWELL: CCNFUSED-7 . OBSERVED VALUES (NANS EN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/LJ CHLOROPHYLL (MG/M3) 0 33.299 6.45 0.56 0.438 10 33.310 6.47 0.54 0.349 25 33.327 6.35 0.57 0.414 35 33.434 6.09 0.77 0.452 50 33.510 5.68 1.02 0.441 75 33.567 4.63 * 1.43 0.295 100 33.750 3.7C 1.86 0. 102 OBSERVED VALUES ( S V/T/D-TRANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 12.94 1499.2 68.4 5 12.94 14 99.3 68. 1 13 12.90 1499.4 67.3 23 12.71 1499.4 68.1 39 11.67 1497.2 74.6 48 11.67 1495.8 74. 5 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. CXY PHOS CHLOR SIG-T 0 10 20 30 50 75 100 12.94 1499.2 68.4 12.91 1499.4 67.6 12.77 1499.4 67.9 12.25 1498.4 7C.9 33.299 6.45 0.56 0.438 25.11 33.310 6.47 0.54 C.349 25.12 33.321 6.39 0.56 C.392 25.16 33.380 6.22 0.67 0.433 25.30 33e51C 5.68 1.02 0.441 33.567 4.63 1.43 0.295 33.75C 3.70 1.86 C.102 271 STATION: H2 DEPTH:llOOM DATE: 3 NOV 70 TIME: 1430 LAT: 37-02. 7N LONG: 122-48. 5W WIND: 140 SPEED: 25 AIR TEMP(DRY): 55 BARO: 29.84 CLOUD AMT: 10 HEIGHT(FT): 50C SEA: 140-3 SWELL: 300-5 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) 0 32.938 10 32.939 30 33.005 70 33.290 105 33.724 OXYGEN (ML/L) 6.16 6.22 6.37 5.56 3.41 PHOSPHATE (MG-ATM/L) 0.35 0.34 0.38 0.96 1.72 CHLOROPHYLL (MG/M3) 0.151 0.157 0.158 0.067 0.051 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETER CAST) CEPTH (M) TEMP (C) SC, VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.99 1502.1 78.0 9 13 *98 1502.3 79.5 28 12.23 1496.9 88.2 37 11.94 1496.3 89.2 69 10.46 1491.9 92.9 83 10.73 1493.4 93.0 97 10.33 1492.2 90.0 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.99 1502.1 78.0 10 13.89 1502.0 80.0 20 12.97 1499.2 84.5 30 12.17 1496. 8 88.4 50 11.34 1494.5 90.7 75 10.58 1492.5 92,9 100 32.938 6.16 0.35 0.151 24.62 32.939 6.22 0.34 0.157 24.64 33.0C5 6.37 0.38 C.158 24.88 33.0C5 6.37 0.38 0.158 25.03 33.147 5.96 0.67 C.122 25.29 33.352 5.25 1.07 0.C82 25.59 33.662 3.71 1.61 0.056 272 STATION: H3 DEPTH: 629M DATE: 3 NOV 70 TIME: 1250 LAT: 37-07. 2N LONG: 122-56. 6W WIND: 140 SPEED: 20 AIR TEMP(DRY): 55 BARC: 29.94 CLOUD AMT: 10 HEIGHT(FT): 500 SEA: 140-2 SWELL: 30C-5 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) 0 32.914 20 32.940 60 33.235 85 33.646 105 33.748 OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) 5.06 0.35 5.37 0.36 5.59 0.94 3.71 1.57 3.60 1.77 CHLOROPHYLL (MG/M3) 0.1C0 0.178 0.068 0.052 0.065 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETER CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 14.15 15C2.6 85.0 1 /. IT 1 5 C 2 . 8 83.7 35 12.64 1498.5 85.1 48 11.58 1495. C 92.6 69 10.25 1491.2 92.4 86 10.05 1491.0 90.2 98 10.02 1491.2 84.6 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. CXY PHOS CHLOR SIG-T 0 14.15 1502.6 85.0 10 14. 12 1502.8 83.7 20 14.12 1502.8 83.7 30 13. 13 1499.9 84.6 50 11.45 1494.6 92.6 75 10.18 1491.1 91.6 100 32.914 5.06 0.35 0.100 24.57 32.940 5.37 0.36 C.178 24.59 32.940 5.37 0.36 0.178 24.59 33.014 5.43 0.51 0.150 24.85 33.161 5.53 0.79 0.C95 25.28 33.481 4,46 1.31 C.C58 25.76 33.723 3.62 1.72 0.062 273 STATION: II DEPTH: 120M DATE: 3 NOV 70 TIKE: 1020 LAT: 37-11. ON LONG: 122-46. CW WIND: 140 SPEED: 15 AIR TEMP(DRY): 55 BARO: 29.94 CLOUD AMT: 10 HEIGHT(FT): 500 SEA: 140-2 SWELL: 3CC-4 . OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLGBOPHYLL CM6/M3I 0 32.978 6.20 0.37 0.139 5 32.979 6.32 0.39 0.145 10 32.986 6.23 0.39 0.148 20 33.045 6.38 0.43 0.169 30 33.147 6.20 0.63 0.113 50 33.146 5.81 0.89 0.055 75 33.639 4.04 1.59 0.056 100 33.795 3.31 1.87 0.070 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETER CAST) r, f p t h ( M ) TFMP (C) <; r r \/ p i (M/SEC) tram<;mttta n C (; (6/o) 0 13.96 1502.1 80.5 4 13.94 1502. C 81.3 9 13.93 1502.1 79.3 20 13.68 1501.6 79.3 28 13.00 1499.4 80.4 47 10.96 1492.9 90.5 77 9.92 149C.4 89.2 97 9.57 1489.7 82.8 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 32.978 6.20 0.37 0.139 24.56 32.936 6.23 0.39 C.148 24.67 33.C45 6.38 0.43 0.169 24.76 33.147 6.20 0.63 0.113 25.02 33.146 5.81 0.89 0.C55 25.3 8 33.639 4.04 1.59 C.C56 25.91 33.795 3.31 1.87 0.07C 0 13.96 1502.1 80.5 10 13.91 1502.1 79.3 20 13.68 1501.6 79.3 30 12.79 1498.7 81.5 50 10.8 6 1492.6 90.4 75 9.99 1490.6 89.3 100 274 STATION: 12 DEPTH: 120M DATE: 3 NOV 70 TIME: C950 LAT: 37-11. 2N LONG: 122-42. 8W WIND: 140 SPEED: 15 AIR TEMP(DRY): 55 BARO: 29.94 CLOUD AMT: 10 HEIGHT(FT): 500 SEA: 140-2 SWELL: 300-4 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN PHCSPHATE (ML/L) (HG-ATM/L) CHLGPOPHYLL (MG/M3) 0 32.913 6.30 0, ,37 0.132 5 32.911 6.21 0, ,37 0.154 10 32.911 6.34 0, .38 0.141 20 32.976 6.41 0, ,41 0.155 30 33.123 6.15 0, ,68 0.112 50 33.595 4.08 1, .48 0.076 75 33.701 3.57 1 .71 0.050 100 33.756 3.35 1, .84 0.068 118 33.820 3.18 HDCCDWCn \J i UU ^U in**-*-/ V r \ L U E S { S V / T / D— T P. A N S M ! rCCOMPTf-R fA<;TI DEPTH (M) TEMP SC. VEL (C) (M/SEC) TRANSMITTANCE (0/0) 75.0 75.0 75.0 80.0 82.2 89.4 90.4 86.3 86.4 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 50 75 100 75.0 32.913 6.30 0.37 0.132 32.911 6.34 0.38 0.141 32.976 6.41 0.41 0.155 33.123 6.15 0.68 0.112 33.595 4.C8 1.48 0.C76 33. 7C1 3.57 1.71 C.C5C 33.756 3.35 1.84 C.C68 STATION: 13 DEPTH: 100M DATE: 3 NOV 70 TIME: 0735 LAT: 37-11. ON LONG: 122-38. CW WIND: 140 SPEED: 15 AIR TEMP(DRY): 52 BARO: 29.<=4 CLOUD AMT: 10 HEIGHT(FT): 500 SEA: 140-2 SWELL: 240-5 OBSERVED VALUES (N'ANSEN CAST) DEPTH (M> SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 32.902 6.33 0.40 0.114 10 32.909 6.30 0.40 0.133 30 33.060 6.37 0.58 0.178 60 33.279 5.38 1.10 0.065 75 33.465 - 0.041 90 33.680 3.62 0.061 98 33.760 3.37 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETER CAST) DEPTH (M) TEMP (C) SO., VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.76 1501.3 81.8 10 13.75 15CC.5 81.5 25 13.45 1496.0 86.4 49 12.02 1494.2 91.4 60 1492.5 92.6 87 1490.8 88.9 93 , 149C.2 78.7 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 32.902 6.33 0.40 0.114 24.64 32.909 6.30 0.40 0.133 24.65 32.985 6.33 0.49 0.155 24.74 33.060 6.37 0.58 C.178 24.88 33.2C6 5.71 0.92 0.103 25.41 33.465 0.041 0 13.76 1501.3 81.8 10 13.75 1500.5 81.5 20 13.55 1497. 5 84.8 30 13. 15 1495.6 87.4 50 10.93 1494.0 91.5 75 1491.6 90.5 276 STATION: 14 DEPTH: 95M DATE: 3 NOV 7C TIME: 0615 LAT: 37*11. ON LONG: 122-34. 6k WIND: 150 SPEED: 12 AIR TEMP(DRY): 51 BARO: 29.95 CLOUD AMT: 10 HEIGHT(FT): 500 SEA: 150-1 SWELL: 240-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 32.943 6.23 0 0.38 0. 146 10 32.948 6.28 0.39 0.158 35 33.210 6.01 0.75 0. 158 50 33.250 5.54 1.00 0.C98 75 33.625 3.86 1.61 0.055 93 33.746 3.35 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETE R CAST) DEPTH 1 M ) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) o 13. 69 ] 501. 1 80. 2 10 13.41 15CC.4 81.3 29 11.98 1496.2 85.2 48 10.44 1491.2 92.2 78 10.20 1491.3 81 10.19 1491.2 83.4 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. €XY PHOS CHLOR SIG-T 0 13.69 1501.1 80.2 10 13.41 1500.4 81.3 20 12.66 1498.2 83.4 30 11.90 1495.9 85.6 50 10.42 1491.2 86.1 75 10.22 1491.3 9.2 32.943 6.23 0.38 C.146 24.68 32.948 6.28 0.39 0.158 24.74 33.053 6.17 0.53 0.158 24.97 33.158 6.06 0.68 0.158 25.20 33.250 5.54 1.00 C.098 25.54 33.625 3.86 1.61 0.055 25.86 277 STATION: 15 DEPTH: 93M DATE: 3 NOV 70 TIME: 0445 LAT: 37-10. 6N LONG: 122-33. GW WIND: LIGHT AIRS AIR TEMP(DRY): 50 BARO: 29.94 CLOUD AMT: 10 HEIGHT(FT): 500 SEA: RIPPLES SWELL: 240-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) 0 32.962 10 32.965 25 33.144 45 33.480 70 33.714 80 33.720 91 33.722 OXYGEN (ML/L) 5.67 5.38 6.42 5.11 3.50 3.46 3.33 PHOSPHATE (MG-ATM/L) 0.39 0.40 0.48 1.20 1.21 1.93 1.91 CHLOROPHYLL (MG/M3) 0. , 186 0, ,172 0. ,185 0. ,095 0. ,068 0, ,116 OBSERVED VALUES ( SV/T/D- TR ANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SC. VEL (M/SEC) * TRANSMITTANCE (0/0) 76.9 76.6 78.1 90.5 72. C 55.4 49.4 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 50 75 76.9 32.962 5.67 0.39 0.186 32.965 5.38 0.40 0.172 33.084 6.07 0.45 0.181 33.228 6.09 0.66 0.162 33.527 4.79 1.20 0.C94 33.717 3.48 1.57 C.102 278 STATION: 16 DEPTH: 8AM DATE: 3 NOV 70 TIME: 0350 LAT: 37-10. 8N LONG: 122-30. 8H WIND: LIGHT AIRS AIR TEMP(DRY): 50 BARO: 29.54 CLOUD AMT: 10 HEIGHT(FT): 500 SEA: RIPPLES SWELL: 240-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHCSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 32.958 4.08 0.39 0.214 10 33.024 4.04 0.41 0.238 25 33.360 5.72 0.59 0.495 45 33.417 4.61 0.95 0.226 60 33.603 3.54 1.54 0.C80 82 33.700 3.29 1.99 OBSERVED VALUES ( SV/T/D-TR ANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) n U 13.57 1 5 C C t 8 76.1 9 13.20 15 00.1 65.8 29 12.40 1498.0 74.4 50 11.55 1495.4 91.4 60 10.71 1452.7 100.0 78 10.16 14 91.3 82.6 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 32.958 4.08 0.39 0.214 24.72 33.C24 4.04 0.41 0.238 24.85 33.248 5.16 0.53 C.409 25.10 33.374 5.44 0.68 0.428 25.28 33.475 4.25 1.14 0.177 25.51 33.669 3.37 1.85 0.C25 25.85 0 13.57 1500.8 76.1 10 13. 16 1500. C 66.2 20 12.76 149 8.9 7C.5 30 12.36 1497.9 75.2 50 11. 55 1495.4 91.4 75 10.25 1491.5 85.5 279 STATION: 17 DEPTH: 77M DATE: 3 NOV 70 TIME: 0300 LAT: 37-10. 7N LONG: 122-29. CW WIND: LIGHT AIRS AIR TEMP(DRY): 49 BARO: 30. CO CLCUC AMT: 10 HEIGHT(FT): 500 SEA: RIPPLES SWELL: 240-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.158 5.26 0.44 0.448 10 33.339 6.41 0.53 0.521 20 33.411 5.76 0.66 0.343 40 33.508 5.37 1.04 0.339 60 33.632 3.66 1.72 0.266 65 33.651 3.62 1.82 0.254 75 33.671 3.45 2.18 OBSERVED VALUES ( SV/T/D-TPANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO.. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.35 150C.5 68.8 10 13.12 1500.3 67.9 20 12.83 1499.1 71.6 40 11.84 1496.3 78.1 50 11.15 14 94.1 56.0 61 10.60 1492.5 59.2 7C 10.28 1491.6 34.7 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 33.15E 5.26 0.44 0.448 24.92 33.339 6.41 0.53 0.521 25.10 33.411 5.76 0.66 C.343 25.22 33.459 5.57 0.85 0.341 25.35 33.570 4.51 1.38 C.312 25.66 33.671 3.45 2.18 0 13.35 1500.5 68.8 10 13. 12 1500.3 67.9 20 12.83 1499. 1 71.6 30 12.33 1497.7 74.8 50 11.15 1494.1 56.0 75 280 STATION: 18 DEPTH: 60M DATE: 3 NOV 70 TIME: 0200 LAT: 37-10. 4N LONG: 122-27. Ch WIND: LIGHT AIRS AIR TEMP(DRY): 49 BARO: 30. CO CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 240-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.388 3.72 0.56 0.673 5 33.440 4.74 0.66 0.792 20 33.579 4.60 1.43 0.361 25 33.594 3.28 1.50 0.457 35 33.614 3.52 1.59 0.293 50 33.637 3.21 1.73 0.336 59 33.654 3.83 2.00 OBSERVED VALUES ( SV/T/D- IRANSMI SSOMETER CAST) DEPTH (M) TEMP (C) SC. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.05 1499.5 68.1 5 12.94 1499.3 66.0 20 11.81 1495.7 66.6 25 11.45 1494.7 61.0 30 11.25 1494.2 56.4 50 10.73 1492.7 43.5 56 10.70 1492.7 41.2 DEPTH TEMP SO, INTERPOLATED VALUES VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.05 1499.5 10 12.56 1498.1 20 11.81 1495.7 30 11.25 1494.2 50 10.73 1492.7 68.1 33.388 3.72 0.56 C.673 25.16 66.2 33.486 4.69 0.92 0.655 25.33 66.6 33.579 4.60 1.43 0.381 25.54 56.4 33.6C4 3.40 1.55 0.375 25.66 43.5 33.637 3.21 1.73 0.336 25.78 281 STATION: 19 DEPTH: 55M DATE: 3 NOV 70 TIME: 0100 LAT: 37-10. 5N LONG: 122-25. 6W WINO: LIGHT AIRS AIR TEMP(DRY): 49 BARO: 30. CC CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 240-3 OBSERVED VALUES (NANSEN CAST) DEPTH CM) SALINITY (0/00) 0 33.455 5 33.455 10 33.483 20 33.534 30 33.556 45 3 3.5 64 54 33.612 OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) 4.13 0.85 3.79 0.84 4.94 C.92 4.60 1.24 4.07 1.43 3.63 1.56 3.98 2.06 CHLOROPHYLL (MG/M3) 0.551 0.616 0.371 0.354 0.4C5 0.477 OBSERVED VALUES ( SV/T/D-YRANSMl SSOMETE R CAST) DEPTH (M) TEMP (C) S0„ VEL (M/SEC) TRANSMITTANCE (0/0) 0 ] .2.61 1498.2 59.5 5 ] 12.25 14 9 7.2 57.2 10 ] L2.12 1496.7 61.3 15 J LI. 81 1495.8 52.5 19 ] LI. 61 149 5.3 54.1 25 ] LI. 47 1495.0 47.2 34 ] LI. 37 14 94.8 44.4 45 ] LI. 13 1494.1 13.8 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 12.61 1498.2 10 12.12 1496.7 20 11.59 1495.2 30 11.41 1494.9 50 59.5 33.455 4.13 0.85 0.551 25.29 61.3 33.483 4.94 0.92 C.371 25.41 52.9 33.534 4.60 1.24 0.354 25.55 45.6 33.556 4.07 1.43 0.405 25.60 33.599 3.83 1.84 0.212 282 STATION: Jl DEPTH: 35M DATE: 2 NOV 70 TIME: 2315 LAI: 37-16. 2N LONG: 122-27. 4W WIND: LIGHT AIRS AIR TEMP(DRY): 50 6AR0: 30.02 CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 240-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.319 6.29 0.52 0.596 5 33.355 6.45 0.54 0.691 10 33.397 6.48 0.58 0.597 15 33.399 6.51 0.59 0.865 20 33.418 6.49 0.63 0.633 25 33.461 6.18 0.78 0.361 34 33.576 4.59 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETER CAST) DEPTH (M) TEMP (C) SC. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.09 1499.6 63.9 3 13.09 14 9 9.7 63.0 7 13. 09 149 9.7 63. C 10 12.98 1499.5 65.6 16 12.87 1499.3 67.6 20 12.80 1499.1 68.6 25 12.49 1498.1 64.7 30 12.15 1497.5 37.5 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.09 1499.6 10 12.98 1499.5 20 12. 8C 1499.1 30 12.15 1497.5 63.9 33.319 6.29 0.52 0.596 25.09 65.6 33.397 6.48 0.58 0.597 25.18 68.6 33.416 6.49 0.63 0.633 25.23 37.5 33.525 5.29 0.35 C.160 25.44 283 STATION: J2 DEPTH: 40M DATE: 2 NOV 70 TIME: 2145 LAT: 37-21. 5N LONG: 122-29. 5W WIND: LIGHT AIRS AIR FEMP(DRY): 50 BARO: 30.02 CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 240-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.434 6.48 0.53 0.5C9 5 33.430 6.48 0.55 0.728 10 33.481 6.30 0.71 0.413 20 33.540 5.63 1.02 0.369 30 33.555 5.20 1.18 0.295 35 33.593 4.57 1.44 0.397 39 33.635 4.07 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETE R CAST) DEPTH- (MJ TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.04 1499.5 70.9 5 12.98 1499.5 66.9 9 12.61 1496.7 72.3 14 12.37 1497.6 76.2 19 12.16 1496.9 78.0 26 11.81 1495. 9 78.2 30 11.65 1495.4 75.3 35 11.57 1495.3 60.3 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.04 1499.5 10 1.2.56 1498.5 20 12.11 1496.8 30 11.65 1495.4 70.9 33.434 6.48 0.53 0.509 25.19 73.1 33.481 6.30 0.71 0.413 25.32 78.0 33.540 5.63 1.02 0.369 25.46 75.3 33.555 5.20 1.18 0.295 25.55 284 STATION: J3 DEPTH: 40M DATE: 2 NOV 70 TIME: 2045 LAT: 37-26. 6N LONG: 122-31. 4W WIND: LIGHT AIRS AIR TEMP(DRY): 49 BARO: 29.99 CLOUD AMT: 1C TYPE: FOG SEA: RIPPLES SWELL: 240-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.310 6.49 0.60 0.289 5 33.310 6.46 0.56 0.276 10 33.373 6.34 0.58 0.170 20 33.517 6.02 0.87 0.175 25 33.533 5.40 1.14 0.146 39 33.607 3.87 OBSERVEO VALUES ( SV/T/D-TRANSMI S SOMETER CAST) DEPTH (M) TEMP (C) SC. VEL (M/SEC) TRANSMITTANCE (0/0) 0 1? w 14 i 4^ .<; 70.9 5 13.02 1499.4 79.9 10 12.95 1499.4 79.7 15 12.82 1499.0 86.5 20 12.48 1498. 1 83.7 24 12.30 64.8 30 11.82 1496.2 71.3 35 11.57 1495.4 67.1 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.14 1499.9 10 12.95 1499.4 20 12.48 1498.1 30 11.82 1496.2 70. 9 33.310 6.49 0.60 0.289 25.08 79.7 33.373 6.34 0.58 C.170 25.16 83.7 33.517 6.02 0.87 0.175 25.37 71.3 33.559 4.85 0.73 0.C94 25.53 285 STATION: J4 DEPTH: 45M DATE: 2 NOV 70 TIME: 1830 LAT: 37-31. 9N LONG: 122-33. 5W WIND: LIGHT AIRS AIR TEMP(DRY): 49 BARO: 29.99 CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 240-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.339 6.60 0.68 0.234 5 33.336 6.39 0.55 0.176 10 33.339 6.30 0.58 0.238 20 33.438 6.16 0.72 0.127 30 33.561 4.75 1.54 0.127 43 32.583 4.15 OBSERVED VALUES ( SV/T/D-TRANSM I SSOMETER CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 13 n /, W»CQvA 1499.3 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. CXY PHOS CHLOR SIG-T 0 10 20 30 13.06 1499.6 33.339 6.60 0.68 0.234 25.12 33.339 6.30 0.58 0.238 33.438 6.16 0.72 C. 127 33.561 4.75 1.54 0.127 286 STATION: Kl DEPTH: 45M DATE: 2 NOV 70 TIKE: 1745 LAT: 37-31. 8N LONG: 122-35. OW WIND: LIGHT AIRS AIR TEMP(DRY): 52 BARO: 29,99 CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 240-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (KG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.329 6.51 0.52 0.565 7 33.334 6.39 0.52 0.645 14 33.394 6.16 0.61 0.354 25 33.473 5.95 0.79 0.649 35 33.561 4.64 1.42 0.431 44 33.608 3.89 ■ OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETER CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 1 3 « ° ° 1499,4 75. *> 6 13.02 1499.4 78.0 13 12.97 1499.4 79.3 19 12.45 1497.9 99.4 31 12.16 1497.2 100.0 41 11.02 1493.5 24.9 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.02 1499.4 10 12.99 1499.4 20 12.43 1497.8 30 12.18 1497.3 75.5 33.329 6.51 0.52 0.565 25.12 78.7 33.360 6.29 0.56 C.520 25.15 99.4 33.437 6.04 0.71 0.515 25.32 99.9 33.517 5.29 1.11 C.540 25.42 287 STATION: K2 DEPTH: 49M DATE: 2 NOV 70 TIME: 1640 LAT: 37-31. 4N LONG: 122-37. C)W WIND: LIGHT AIRS AIR TEMP(DRY): 55 BARO: 30.00 CLOUD AMT : 10 TYPE: FCG SEA: RIPPLES SWELL: 240-3 RAMSEY MECHANISM INOPERATIVE OBSERVED VALUE S (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.301 4.35 0.52 0.731 5 33.303 3.31 0.49 0.721 15 33.377 3.96 0.82 0.287 25 33.533 3.99 1.06 0.192 40 33.621 2.20 1.81 0.289 45 33.640 1.84 2.09 OBSERVED VALUES ( SV/T/D-TRANSMl SSOMETER CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 65 r 3 68.6 71.0 82.0 100.0 100.0 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 65.3 33.301 4.35 0.52 0.731 33.340 3.63 0.66 C.504 33.455 3.97 0.94 0.239 33.562 3.39 1.31 0.224 288 STATION: K3 DEPTH: 53M DATE: 2 NOV 70 TIME: 1550 LAT: 37-32. ON LONG: 122-r38.9h HIND: LIGHT AIRS AIR TEMP(DRY): 55 BARO: 30.00 CLOUD AMT: 10 TYPE: FOG SEA: RIPPLES SWELL: 240-3 RAMSEY MECHANISM INOPERATIVE OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.246 6.62 0.48 0.393 5 33.282 6.55 0.49 0.6C7 10 33.317 6.53 0.57 0.633 25 33.411 5.67 0.97 0.329 45 33.611 3.98 1.64 0.170 52 33.650 2.79 2.07 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETER CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 54.1 54.3 56.5 73.8 84.2 91.2 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 50 54.1 33.246 6.62 0.48 0.393 33.317 6.53 0.57 0.633 33.380 5.96 0.84 0.430 33.461 5.25 1.14 0.289 33.639 3.13 1.94 C.049 289 STATION: K4 DEPTH: 55M DATE: 2 NOV 70 TIKE: 1505 LAT: 37-31. 7N LONG: 122-41. OW WIND: LIGHT AIRS AIR rEMP(DRY): 55 BARO: 30.00 CLOUD AMT: 10 TYPE: FOG SEA: RIPPLES SWELL: 240-3 RAMSEY MECHANISM INOPERATIVE OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) 0 33.154 10 33.281 20 33.330 30 33.408 45 33.561 OXYGEN (ML/L) 6.58 6.63 6.34 5.73 4.53 PHOSPHATE (MG-ATM/L) 0.47 0.49 0.68 1.04 1.46 CHLOROPHYLL (MG/M3) 0.429 0.868 0.560 0.216 0.089 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 66.8 59 e 1 54.9 57.0 74.5 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 66.8 33.154 6.58 0.47 0.429 33.281 6.63 0.49 0.868 33.330 6.34 0.68 C.580 33.408 5.73 1.04 0.216 290 STATION: K5 DEPTH: 60M DATE: 2 NOV 70 TIME: 1420 LAT: 37-32. ON LONG: 122-42. 7W WIND: LIGHT AIRS AIR TEMP(DRY): 55 BARO: 30. C2 CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 240-2 RAMSEY MECHANISM INOPERATIVE OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.162 6.44 0.41 0.436 10 33.296 6.51 0.62 0.754 20 3 3.2 84 6.18 0.72 0.447 30 33.226 5.50 0.99 0.139 50 33.592 3.89 1.66 0.143 58 33.651 3.54 OBSERVED VALUES ( SV/T/D^"f RANSMI S SOMETER CAST) DEPTH (M) TEMP (C) SO- VEL (M/SEC) TRANSMITTANCE (0/0) 67.1 64.2 59.4 73.6 88.8 90.7 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 50 67.1 33.162 6.44 0.41 0.436 0.0 33.296 6.51 0.62 0.754 0.0 33.284 6.18 0.72 0.447 0.0 33.226 5.50 0.99 0.139 0.0 33.5S2 3.89 1.66 0.143 291 STATION: K6 DEPTH: 73M DATE: 2 NOV 70 TIME: 1310 LATE: 37-32. ON LCNG : 122-45 . 7W WIND: LIGHT AIRS AIR TEMP(DRY): 58 BARO: 30.04 CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 240^2 RAMSEY MECHANISM INOPERATIVE OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLCROPHYLL (MG/M3) 0 33. 146 6.44 0.42 0.433 10 33.371 6.23 0.73 0.555 20 33.212 5.49 1.04 0.127 30 33.413 4.92 1.30 0.094 55 33.695 3.7C 1.87 0.218 73 33.699 3.29 OBSERVED VALUES ( SV/T/D-1 RANSMI SSOMETER CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 69.6 65.2 68.9 85.3 89.8 91.2 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 50 69.6 33.146 6.44 0.42 0.433 33.371 6.23 0.73 0.555 33.212 5.49 1.04 0.127 33.413 4.92 1.30 0.C94 33.639 3.94 1.76 0.193 292 STATION: K7 DEPTH 91M DATE: 2 NOV 70 TIME: 1110 LAT: 37-31. 7N LONG: 122-50. AW WIND: LIGHT AIRS AIR rEMP(DRY): 58 BARO: 30. C4 CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 240-2 RAMSEY MECHANISM INOPERATIVE . OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOPOPHYi.L (MG/M3) 0 33.262 6.86 0.45 0.656 5 33.286 6.90 0.45 0.980 10 33.386 6.81 0.5 8 0.955 15 33.460 5.82 0.92 0.549 20 33.449 5.31 1.12 0.253 35 33.407 0.0 * 1.34 0.069 50 33.724 3.39 1.86 0.229 90 2.77 2.02 OBSERVED VALUES ( S V/T/D-TRANSMI S SOMETE R CAST) ng DTM TFMP (C) <;n, vfi (M/SEC) TR ANSMITTANCE (0/0) 51, ► 2 53, ,3 65, .0 81, .8 85, .4 86, .5 56, ,6 68, .9 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 50 75 51.2 33.262 6.86 0.45 0.656 33.386 6.81 0.58 0.955 33.449 5.31 1.12 0.253 33.421 1.77 1.27 0.130 33.724 3.39 1.86 C.229 3.01 1.96 0.C86 293 STATION: K8 DEPTH: 101M DATE: 2 NOV 70 TIME: 0945 LAT: 37-32. ON LONG: 122-54. 3 V> WIND: LIGHT AIRS AIR TEMP(DRY): 60 BARO: 30.03 CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 240-2 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) 0 33.392 7 33.391 25 33.488 35 33.531 60 33.762 85 33.836 95 33.861 OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) 4.31 0.47 6.7C 0.69 5.77 0.9C 3.91 1.16 3.48 1.84 2.14 1.97 2.24 2.01 CHLOROPHYLL (MG/M3) 0. ,633 0. ,766 0, .679 0, ,249 0, .698 0, .101 OBSERVED VALUES ( SV/T/D-TRANSM I SSOMETE R CAST) DEPTH (M) TEMP (C) SO, VEL (M/SEC) TRANSMITTANCE (0/0) C 12.94 1499.3 40.0 9 12.64 1498.6 45.4 28 11.00 1493.2 85.2 39 10.47 1491.6 81.5 60 9.56 1489.0 86.4 81 9.37 1498.7 83.0 94 9.24 1488.5 74.9 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 12.94 1499.3 40.0 10 12.55 1498.3 47.5 20 11.69 1495.5 68.4 30 10. 9C 1492.9 84.5 50 9.99 1490.2 84.1 75 9.42 1488.8 84.0 33.392 4.31 0.47 0.633 25.18 33.407 6.54 0.72 0.751 25.27 33.461 6.03 0.84 0.703 25.47 33.51C 4.84 1.03 0.464 25.65 33.670 3.65 1.57 0.518 25.94 33.8C6 2.67 1.92 0.340 26.14 294 STATION: K9 DEPTH: 210M DATE: 2 NOV 70 TIKE: 0845 LAT: 37-32. ON LONG: 122-58.11* WIND: LIGHT AIRS AIR TEMP(DRY): 51 BARO: 30.02 CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 280-2 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLCROPHYLL (MG/M3) 0 32.293 6.85 0.49 0.829 10 33.271 7.50 0.47 0.794 30 33.307 6.48 0.56 0.7C5 40 33.470 5.06 1.03 1.170 60 33.610 4.40 1.54 0.289 80 33.743 3.26 1.77 0.127 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETER CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 1 to no 1499,3 54.0 14 12.69 1498,5 58.8 26 12.44 1496.5 72.2 40 11.33 1494.5 80.7 50 10.89 1493.3 84.2 61 10.53 1492.3 84.2 102 9.23 1488.6 90.3 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHCS CHLOR SIG-T 0 10 12.76 149 8.7 57.3 20 12.56 1497.5 65.5 30 12.12 1495.9 74.6 50 10.89 1493.3 84.2 75 10.09 1491.0 86.3 32.293 6.85 0.49 0.829 33.271 7.50 0.47 0.794 33.289 6.99 0.52 0.749 33.3C7 6.48 0.56 0.705 33.54C 4.73 1.28 0.729 33.71C 3.54 1.71 0.167 295 STATION: KIO DEPTH: 600M DATE: 2 NOV 70 TIME: 0723 LAT: 37-32. ON LONG: 123-03. 6W WIND: LIGHT AIRS AIR TEMP(DRY): 51 BARQ: 30.02 CLOUD AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 280-2 ■ OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33. 195 6.32 0.44 0.219 10 33.212 6.43 0.46 0.430 20 33.218 6.43 0.47 0.296 37 33.367 6.46 0.68 0.951 50 33.429 5.42 1.08 0.405 60 33.564 4.77 ' 1.39 0.442 100 33.7C9 3.38 1.81 0.288 OBSERVED VALUES ( S V/T/D-TRANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.54 15C1.8 75.8 10 13.52 15C1.6 76.2 20 13.17 15C1.0 86.4 40 11.97 1496.9 62.1 50 11.17 1494.3 82.5 60 11.18 1494.6 82.7 80 10.27 1491.9 82.9 99 9.99 1491.1 79.8 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.54 1501.8 75.8 10 13.52 1501.6 76.2 20 13.17 1501.0 86.4 30 12.57 1498.9 84.2 50 11.17 1494.3 82.5 75 10.50 1492.6 82.8 100 33.195 6.32 0.44 0.219 24.91 33.212 6.43 0.46 C.430 24.93 33.216 6.43 0.47 C.296 25. CO 33.3C6 6.45 0.59 0.681 25.19 33.429 5.42 1.08 C.405 25.54 33.619 4.25 1.55 C.384 25.81 33.7C9 3.38 1.81 C.288 296 STATION: Kll DEPTH: 680M DATE: 2 NOV 70 TIME: 0610 LAT: 3Y-32.CN LONG: 123-07. 7Vv WIND: LIGHT AIRS AIR TEMP(DRY): 51 BARO: 29.^9 CLOUC AMT: 10 TYPE: FCG SEA: RIPPLES SWELL: 280-2 OBSERVED VALUES (NANSEN CAST) DEPTH (MJ SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHY.L (MG/M3) 0 33.028 5.38 0.37 0. 159 5 33.030 6.29 0.36 0.149 10 33.023 6.33 0.36 0.139 15 33.045 6.32 0.39 0.176 40 33.330 5.79 0.89 0.143 57 33.628 3.90 1.56 0.057 80 33.755 3.22 1.81 0.080 100 33.830 2.97 1.89 0.062 OBSERVED VALUES ( SV/T/D-T RANSMI SSCMETER CAST) r< c r» tu i > i_ i iii (MJ T CM D (C) SO. \/ p i Tm/secT TR ANI^MTTTANf.F (0/0) 13.83 1503.6 74.9 13.83 1503.7 75.3 13.69 1503.4 80.6 13.34 1502.8 82.2 11.32 1496.0 88.8 10.15 1491.8 88.7 9.89 1491. C 82.0 9.49 1489.9 86.6 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 50 75 100 13.83 1503.6 74.9 33.028 5.38 0.37 0.159 33.023 6.33 0.36 0.139 33.102 6.22 0.49 0.169 33.216 6.01 0.69 0.156 33.506 A. 68 1.28 0.C92 33.728 3.37 1.76 0.075 33.830 2.97 1.89 0.062 24.7 2 297 STATION: LI DEPTH: 110M DATE: 2 NOV 70 TIME: C342 LAT: 37-37. 5N LONG: 123-15. 9W WIND: LIGHT AIRS AIR TEMP(DRY): 51 BARO: 30.00 CLOUD AMT: 0 HEIGHT(FT): CLEAR SEA: RIPPLES SWELL: 280-2 RAMSEY MECHANISM INOPERATIVE OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.015 6.12 0.43 0.122 5 33.014 6.16 0.41 0.131 15 33.087 6.32 0.45 0.154 25 33.146 6.08 0.62 0.227 50 33.283 5.48 1.01 0.078 75 33.659 4.04 1.56 0.079 100 33.792 3.27 1.84 0.047 OBSERVED VALUES ( S V/T/D-TRANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SC. VEL (M/SEC) TRANSMITTANCE (0/0) 0 76.7 10 76.3 25 78.4 40 64.8 60 88.3 75 86.3 100 85.6 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 10 20 30 50 75 76.7 33.015 6.12 0.43 0.122 76.3 33.05C 6.24 0.43 0.142 77.7 33.116 6.20 0.53 0.19C 80.5 33.263 5.48 1.01 0.078 86.5 33.659 4.04 1.56 0.079 86.3 33.792 3.27 1.84 0.047 298 STATION: L2 DEPTH: 113M DATE: 2 NOV 70 TIME: 0100 LAT: 37-42. 4N LONG: 123-07. 7W WIND: LIGHT AIRS AIR TEMP(DRY): 51 BARO: 30.00 CLOUD AMT: 0 HEIGHT(FT): CLEAR SEA: RIPPLES SWELL: 280-2 - OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/U CHLCROPHY'.L (MG/M3) 0 33.119 6.16 0.46 0.155 10 33.154 6.14 0.41 0.216 25 33.333 6.05 0.67 0.282 40 33.435 5.01 1.23 0.642 60 33.650 3.46 1.80 0.285 87 33.722 3.11 1.98 0.204 100 3 3.79 8 3.05 2.10 0.175 OBSERVED VALUES ( SV/T/D-TRANSMI SSOMETER CAST) DEPTH- CM) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 13.57 1501.1 76.4 8 13.56 1501.2 76.9 13 13.31 15CC.6 80.1 27 12.59 1498.4 81.1 47 11.22 1494.3 78.2 67 10.11 1491.1 87.1 86 9.64 1489.7 66.6 100 9.21 1488.5 68.7 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.57 1501. 1 76.4 10 13.46 1501.0 78.2 20 12.95 1499.5 80.6 30 12.38 1497.8 80.7 50 11.05 1493.8 79.5 75 9.91 1490.5 78.5 100 9.21 1488. 5 68.7 33.119 6.16 0.46 0.155 24.84 33.154 6.14 0.41 0.216 24.89 33.274 6.08 0.58 0.260 25.09 33.367 5.71 0.86 0.402 25.27 33.542 4.24 1.51 0.463 25.65 33.69C 3.27 1.90 C.240 25.97 33.796 3. 05 2.10 0.175 26.16 299 STATION: L3 DEPTH: 71M DATE: 1 NOV 70 TIME: 2308 LAT: 37-47. 6N LONG: 123-00. 4W WIND: 320 SPEED: 8 AIR TEMP(DRY): 53 BARO: 30.05 CLOUD AMT: 2 HEIGHT(FT): 1000 SEA: 320-1 SWELL: 280-2 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.224 2.26 0.46 0.916 10 33.222 2.38 0.49 1.114 20 33.246 2.62 0.65 0.892 30 33.457 1.86 1.10 0.697 43 33.483 2.56 1.18 1.241 50 33.642 2.13 1.63 0.7C7 60 33.676 1.71 1.82 0.797 65 33.696 1.51 1.97 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETER CAST) QCDTU (M)" TCMD (C) en, \/fi Tm/secT TR AM<;.M I TTAMfF (C/0) 0 13.20 1499.9 64.4 10 12.90 1498.8 69. 1 19 12.56 149 8.2 74.5 30 11.87 1496.1 70.9 40 11.20 14 94. C, 74.9 48 10.47 1492.0 80.1 59 10.03 149C5 71.3 63 9.97 1490.4 54.0 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.20 1499.9 10 12.90 1498.8 20 11.87 1496.1 30 11.87 1496.1 50 10.39 1491.7 64.4 33.224 2.26 0.46 C.916 25.00 69.1 33.222 2.38 0.49 1.114 25.06 70.9 33.246 2.62 0.65 0.892 25.27 7C.9 33.457 1.86 1.10 0.697 25.44 78.5 33.642 2.13 1.63 0.707 25.85 300 STATION: L4 DEPTH: 54M DATE: 1 NOV 70 TINE: 2125 LAT: 37-53. 9N LONG: 122-53. 2W WIND: 320 SPEED: 8 AIR TEMP(DRY): 54 BARO: 30. C4 CLOUD AMT: 3 HEIGHT(FT): 1000 SEA: 320-1 SWELL 280-2 OBSERVED VALUES (NANSEN CAST) DEPTH (Ml SALINITY (0/00) OXYGEN (ML/L) PHCSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 32.588 6.73 1.27 0.6C2 5 32.588 6.65 1.26 0.627 15 33.257 4.62 0.85 0.9C8 25 33.416 6.03 C.90 0.524 35 33.623 4.54 1.54 0.784 41 33.683 3.61 1.84 0.569 45 33.718 2.08 2.25 0.6 59 50 33.727 2.61 2.23 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETE R CAST) DEPTH (M) T CM p (C) SO. V E L (M/SEC) TR AKKM TTTANf. F (0/0) 0 13.09 14 9 8.8 56.0 5 13.09 1 4 <; 8 . 9 55.4 8 12.75 14 9 8.6 67.9 14 12.59 1498.3 74.5 23 11.79 1496.0 78.6 32 10.82 1492.6 82.1 42 10.20 1491.0 60.5 47 10. OC 1490.4 43.2 INTERPOLATED VALUES DEPTH TEMP SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 13.09 1498.8 10 12.70 1498.5 20 12.06 1496.8 30 11.04 1493.4 50 56.0 32.588 6.73 1.27 0.602 24.53 70. 1 32.922 5.64 1.05 0.767 24.87 77.2 33.336 5.33 0.87 C.716 25.31 81.3 33.519 5.28 1.22 0.654 25.64 33.727 2.61 2.23 301 STATION: Ml DEPTH: 44M DATE: 1 NOV 70 TIME: 2020 LAT: 37-52. 6N LONG: 122-48. 5W WIND: 320 SPEED: 8 AIR TEMP(DRY): 54 BARO: 30.04 CLOUD AMT: 8 HEIGHT(FT): 1000 SEA: 320-1 SHELL: 280-2 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHOSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.266 5.21 0.75 0.509 5 33.261 4.33 0.77 0.554 12 33.293 4.71 0.74 0.757 15 33.337 6.13 0.75 1.029 25 33.523 3.80 2.16 1.468 35 33.633 2.88 1.51 0.515 OBSERVED VALUES ( SV/T/D-TRANSMI S SOMETER CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 12*86 1 A C fi O 70 . 9 3 12.84 1498.9 70.9 8 12.44 14 9 8.2 71.5 13 12.44 1498. C 74.8 17 11.89 1497.0 80.6 22 10.86 1496.2 80.6 27 1494.5 81.8 32 1492.5 49.0 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 12.86 1498.9 10 12.44 1498.1 20 11.27 1496.5 30 1493.3 70.9 33.266 5.21 0.75 0.509 25.10 72.8 33.284 4.60 0.75 C.699 25.19 80.6 33.430 4.96 1.46 1.248 25.53 62.1 33.578 3.34 1.84 0.991 302 STATION: M2 DEPTH: 47M DATE: 1 NOV 70 TIME: 1911 LAT: 37-49. 5N LONG: 122-48. 6W WIND: 280 SPEED: 5 AIR TEMP(DRY): 54 BARO: 30.02 CLOUD AMT: 8 HEIGHT(FT): 100C SEA: 290-1 SWELL: 250-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) OXYGEN (ML/L) PHCSPHATE (MG-ATM/L) CHLOROPHYLL (MG/M3) 0 33.271 6.29 0.72 0.781 5 33.255 6.82 0.75 0.883 10 33.274 4.92 C.65 0.739 15 33.311 6.31 0.69 1.390 20 33.363 6.49 0.76 0.989 25 33.517 5.70 1.61 1.106 32 33.624 4.34 0.3C3 OBSERVED VALUES ( SV/T/D-TRAN SMI SSOMETE R CAST) DEPTH (M) TEMP (C) SO. VEL (M/SEC) TRANSMITTANCE (0/0) 0 12.94 1499.2 68.2 5 12.91 1499.1 63.4 10 12.91 1499. 1 61.3 16 12.51 1498.0 69.2 20 12.44 1497.8 74« 1 25 11.79 1496.1 79.0 29 10.99 1494.6 79.0 33 1493.5 83.3 37 1491.2 52.5 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. OXY PHGS CHLOR SIG-T 0 12.94 1499.2 68.2 10 12.91 1499. 1 61.3 20 12.44 1497.8 74.1 30 8.24 1494.3 8C.1 33.271 6.29 0.72 0.781 25.09 33.274 4.92 0.65 0.739 25.10 33.363 6.49 0.76 0.989 25.26 33.594 4.73 0.46 0.532 26.16 303 STATION: M3 DEPTH: 42M DATE: 1 NOV 70 TIME: 1745 LAT: 37-46. ON LONG: 123-46. 5W WIND: 280 SPEED: 5 AIR TEMP(DRY): 54 BARO: 30.02 CLOUD AMT: 8 HEIGHT(FT): 1000 SEA: 290-1 SWELL: 250-3 OBSERVED VALUES (NANSEN CAST) DEPTH (M) SALINITY (0/00) 0 33.082 5 33.138 12 33.373 15 33.396 17 33.464 25 33.594 30 33.606 OXYGEN (ML/L) PHCSPHATE (MG-ATM/L) 6.62 0.89 6.74 0.89 6.19 0.90 5.76 0.94 4.87 1.08 2.88 1.57 2.87 1.64 CHLCROPHYLL (MG/M3) 1, .005 1. .185 1, .182 0, .689 0, .630 0, ,4C5 OBSERVED VALUES ( SV/T/D- TRANSMI SSOMETE R CAST) DEPTH (M) TEMP (C) SC. VEL (M/SEC) TRANSMITTANCE (0/0) 0 12.82 1498.6 51.6 5 12.72 1498.2 63.7 8 12.13 1497.7 70.7 12 12.13 1496.7 77.6 18 11.29 1494.1 68.7 23 10.88 1492.9 67.2 27 10.55 1492.0 37.1 32 1492.0 33.2 DEPTH TEMP INTERPOLATED VALUES SO. VEL TRANS. SAL. OXY PHOS CHLOR SIG-T 0 12.82 1498.6 10 12.13 1497.2 20 11.13 1493.6 30 4.22 1492.0 51.6 33.082 6.62 0.89 1.005 24.96 74.1 33.306 6.35 0.90 1.183 25.27 68.1 33.513 4.13 1.26 0.546 25.62 34.8 33.6C6 2.87 1.64 26.68 304 STATION: M4 DEPTH: 40M DATE: 1 NOV 70 TIME: 1635 LAT: 37-43. 5N LONG: 122-44. 5W WIND: 260 SPEED: 6 AIR TEMP(DRY): 58 BARO: 30.03 CLOUD AMT: 9 HEIGHT(FT): 1000 SEA: 260-1 SWELL: 250-3 OBSERVED VALUES (NANSEN CAST) DEPTH ( M ) SALINITY (0/00) 0 32.736 4 32.919 10 33.310 15 33.398 22 33.560 30 33.618 OXYGEN (ML/L) 6.49 5.82 5.96 5.47 4.46 3.45 PhCSPHATE (MG-ATM/L) 1.32 1.14 0.84 1.01 1.27 1.75 CHLOROPHYLL (MG/M3) 0. ,718 1, ,076 1. ,566 1, ,515 0. ,612 0, .550 OBSERVED VALUES ( SV/T/D-TRANSM I SSOMETE R CAST) DEPTH ( M ) TEMP }• go r- >}■ m • •••• • • • • • o ^ o m o ^ «o h ^ in en ~t -« ^ (T> _4_i_l_iin en o» cm m •© o in i* ^ im • • • • • • • « • t <-• 0* f* o eo n >t co i? >o «-4 »-l 1-4 i-l r-l CO N o h o eo r~ oo -4- cm m • •••• ••••• o^ oo r^ q* m C7> >0 ^ 00 »-4 • • • t • m IA •$• sQ C7* 5> rt N O * —i oo co in en • • t • ■ •••#• <\j cm cm en m en en cm en oo »3- vO oo o >$• vo«-400eoo #•••• ••••• r< H H (T| N* rH fvj r-( CM IT\ •^O^-H^J-IA 0* .-4 CM O 00 Q£ H O ^ M N (v| oco -7 < <-0 O O -7 O«0f-C7»>0 ^^ ' 1 a ■ * a * *— a a a * a o o< •— in>j-fMvoeo ro^nrocr ox in0'* ••••• ••••• <_> o o o o o o o o o o cm en cm o »-4 cm in • • • • • • • o o o o o o o ,-4 r-» i-t •-> CM • • • • • o o o o o »-4 1-4 O ■■"» ^ OOOOi-4 (\J • • • • • • t • • • 00000 00000 O O O -4 • • t t 0000 00000 000 • • • • • ••• 00000 000 I >t-l 3wzo en cm m en r» cr co <-< » o s:ho«-i • • • • • ••••• :dr in >j- >*■ in UJUX -« aim 1 >x Dw3 o - o o o 00 ■-< r— JEK— I «-4 <-H CM f-l •-< '«-* CM o_i> IU -JX o.h- 000000 ocomf-m ro. h ro in >o #-« en m r— co On ro oo C» m f-4 r- CM o cr cm r\l — < f-4 cm CO co CM •4" r~ m f-4 co co f-4 —i CO m 00 cm CM i-t fH 1-4 CM ■-4 r^ cm >o 00 in • • • • • t V r*- o r» <7< co i-« ■-I r-« in (\i co o • • » — t O -c f-4 CO co co 0> CM CM CO <}■ m m o< n in cm cm co co CM C7> CM CM .o> f-l o» co co ro 00 00 in CM <* CM r- CM f-4 CM H O 00 o O CM m vO o f-l m 00 t* f-4 o >r CO f-i f-< f-l f-4 f-l o >r v0 in in • in 0> • >0 • ro 00 • f-4 o t o • CM co # CM in • CM xz KOI zz Z3Z. o< OX u CO I < z p co •$• a* o en O f-4 f-4 o o in o^ co o f-< o in CM CO CO >»• • • • • • o O o «_> o z o CM CM ro -i ro i o CO CM CJ f-l r- co to m co co o o o o o .$■ O rM CM f-« CM ro o o o ro f« f-l f-l CM CO 0> o o o o o o n r-4 r-l f-l f-l CO <$• o o o o o o CM r-4 O O f-4 • • • • o o o o o o O O O r-4 »■« N t o o o <_> O CM o o . f • o o o o • • o o .-4 O o o o o o UJ ^ DhZO ZX.O o-iox o O 00 O CM -4 O* CO m O C> 00 CO CM O- • • • • r- co >o cm in UJUI I >x U-J:> UJ -IX ah a:o. r c> o in cm -4 vO in in o in f-4 co in en <7» m .-* en >0 nj <0 CM (7» <7> <-• 0s fn CM «-4 r-4 C^ m en •-4 CNJ <7> CM -4 >r CO —4 co in >h CM O 00 m -■M r» cm ft .-4 CM CM CM cr r» in CM o cm o* oo •-* -4" • • • • • # 0> en vj- o 00 sO en -* m cm m • « • • • "* sj- en cm en in ej> o in oo o «*■ oo co m ej» o» oo in m &• r>- • • • • CM CM h —I O en 00 o» I uj OCQ xz C0_J H-UJ zz 3Z o«t ox I < z O 0* O1 •<) O P en m cm O •-< cr I < Z o I— < o CM CM co cm in cm • • • ♦ o o o o en o o CM ■■"• CNJ r-i ,- 4 O o o o o o o CM ~* ■-* o o -4 • • • • • o o o o o o o • • o o • • o o o o o o o • • o o r-l O * • o o o t o o o o o uj n » >H-t 3mZO T.y-z^'-* UJOX co ej* cm i-i in -o >r CM <0 r~ in •4- « t # • • • o o CM r-4 <7* t-i —i r-4 ■-• UJUJ r >x X>-_l o_i> UJ _ir ra. *" r-» r-4 O _4 -I . -I r-\ c\j O O O CM >T in •C 00 en CM r- en oo — 4 CM f~* o CM in o o m m vO ao o 312 m ro m cm oo >o CT> CM CM <7> nJ- ^/j oo m CO ,<7> >? e'- (M CO C\J vO fM -©mo* Ul H (D C7> 0 en -r vO in r-4 r» r» i-- •-> in r» w-i -H vO m oo —t • • • • • • r~ u» o> o in *o co in -« sj- >t vO CO CO (T) cm cm m ■o m >0 CM • • • • <* •* in •o cm m in >o CM 00 •O •-i in \0 «-• •-< cm i-i <-i -o r*- I w OeO HI xz m m •-) w* o CM CO 0* r- o • • t • • O o o t-t r-t in o •o *r CM m >o o o <_> CJ O o o on m in m <-l CM CM • • » • • • • o o o o o o o CO I < z O < >— l> in 00 cr> >r ■ • • • • o i— i — < o —* CO i-H o >r r- • • • • t o rH •-) o o m r~ oo m m m in o o o o O r-< CO on (M CNJ CM i-H r-» O •-• o o o o o o o CM «^ f« |H) • • • o o o CM o o m cm 1-* —i -< —t cj c_> cj o o o o o o o o CJ —I .-4 O O H o o o o o o -I o cj o • » • • o o o o o o • • o o o o • • o o z>*• a> cm o —• m m m m m ><■ m CM CM co 0> rn m vO vO m o oo r-l ,* LLIL'.J I >x 3^-J 2:1 — I IU -II Q.H- za. -4 CM CD in tM CM o in Co c~a m r-i CM o in •© 00 o o 00 C* r- ro cm >© r-« cm cm •-< ■-• m in m in cm «$■ in cm 313 m eg 0* -O co o ^r CM ■0 CM — t .— « CM .— t 00 CM rn cr ao r-t in cn CM -4 0> CO l»» (M U» r-4 —* rn "4" m f\i — • cn o <7> >o oo oo r- -o -4- o o (\j en CM CM c* 00 O r* 00 •o in cn cn cn .-i r«- m >*■ r-< m r*- o cm cn ~< r- • • • t • • t N o; o _« _. ^ _< ^ eg m ooo < -is: 3 -7 r^-ooa^tnr^sr xz o - en CM O O •-" O O O r-i (Y> i-iu 5 ^^ Co o< in vo in vf >r o ao (_) OOCJOOO'-" cm -*• m cm en -j- a> • ••••• # o o o o o o o i-t CM CM .-t CM CM Cn o o o o o o o r-t f-4 i-l O i-l r-l CM o o o o o o o r-l .-I .-I O --I O r-l o o o o o o o O o ^ O O O ^H o o o o o o o I »-l ^>—z:o cm o p» oo cn oo o 5!)-3>-i ••••••• o>-<3 oo >*■ cn •*■ o* o o Il-J -4 CM CM — < — i en -O UU JI cxt— O O O O O O CO xo_ — < cm cn -4- in in - ^ h 00 N • ••••• •••« co cm >-• co co ■-« o> cr cm o — < (\| (\J r-l O CO ,-| «f £1 cm m r- co qt» -* o>^^o • ••••• • • • f IM Cl Cl H O O1 vO ^ >-4 cm m cm en cm in >o u"> CO en r-4 CM en «* o c* r» in m ■o r— p» -o co r-4 CM CO i-4 r» ~-> r- >* • • • • # • -T in m en o en •-4 r- 0* m CNJ >o >r • ■ • • • • CM CM en CM >o r*- H CC I'- —1 —4 ~* r-l m >*• 1 ^ oca o — -«a: i 1 3 < p- CM r in < xz ve" oo_j Z o i-4 —4 i-t CM CM z h-'.U o o 3Z o— CO •4- *o r~ in O CM 1— < CO ox in • • • • t • o O o o o r-t r-t c CM CM en en r» mO sf • • • • • t O O o o o o rH CM CM CM ^ >r en II t • • • • o O O O o o CM o o co m f-4 in co co CO CO ♦ • • • o -* cm >r r*- cm m co • • • • O p-4 .-4 CM en co co o m -4- en r- * • • • o o o o CM CM CM >T • • • • o o o o ,-4 ,-i -4 en r-4 O — 4 O r-t —4 f-4 O >-• • ••••• ••* o o o o o o ooo rH O i-t r-l U i-4 O .-4 r-4 • ••••• ••• oooooo ooo I >r-t 3mzo >o»toir>cMvO enococM II- Oi-4 •••••• # • • • r>a: IDi-O ro o ^ ^ r^ N >*■ in o> o ihj cMCMcMCMenm i-icmcm^o 3<».0 U-l> LU CLK- oir>ooo«n OOCOr-t 2:0. »h cm en m >-4 -4 cm Cl ■ • t • in in >o in m ro >4- ^0 V* • • • (VI N lf» I *£ o o eg -o K-UJ zz t- DZ < i_j o o o -* ro -4- ro <7> • • • « o o o o ■ o oj in • i o o o o 3mZO O CO =£ ID>-0 rH -0 O UJ JI o_i— o o cm m JQ, •— • • — < l m in h o h oo o in M ^ • ••••• ••••• im in m >f h ^ o^ o rH o r» rg ro ro rH >o ro nJ- ^ oo fl ro ro ro ro -h rg ^4 vO rH rg o oo cr r- ro ^T -h gj rH rg o >0 0 ro ro O 0> g} »h • •••♦♦ »•••• O >h rg cj ro -j* OOf*»oorn ■O >o gj in r- o rg rH rg m rH rH rH rH ,-1 in m o> co oo oo g30ao-g*rg • ••»•• i • • • ■ cr o o ro co .h rg o —• r- >*■ O -H i-l O ^ Is- rH ,n -< r0 ^-« »— • — * — i ■or-mtnmoo o» o in «h r- • ••••■ ■ • • • • 00 O f»- O CO in ro o r-l o gj g) ro m co o o o a» ro on ro i-< r-4 in m ro ro m ro r-4 ro oo o rg r-4 CT O r- i • t • • ■ I or m rg ro ro -O rg 1 w r-4 r-4 r-4 rH rg OcO i -*z CO 3 rg rg r- P» o r- xz gj Z g • • • • • • in * ro r-4 — < rH oo o ro r-i V ox in • • • • t • o rg rH rg O. eg in rg o in o g) t t • • • ro o rg ro in CN oo o o ■7 # • • • • rH o r-4 r-« rg £, m o ro 00 ro * • * • • r-t O rH O r-H (nict^O'-'O-o 00 o 00 gj o *«•••• t • • • • r-4 CJ r-4 r-4 r-4 (\| O O O O »H -4- -• 00000 rsl rg — < rg ro ro ro o og rg ro • ••••• • • • • • OOOOOO OOOOO r-4r-4r-ir-lrgrg rg O rH .H rH «••••• ■ • • • • OOOOOO OOOOO rH O rH rH rH ^ r-l O —I r--l -4 • •*••• ••••• OOOOOO OOOOO IX) trj ^mzo ^rOrHinOrO co O r- ro g) ;> ro o .h c/« >^ UJOX ff> C O1 to ^" >0 1-4 r-tr-iro UUUI :3>-o co o cy> co >r ro ooror->r it— -J ooo^or^gj- m >!■>*■ >o 3<(-J rH rH rH rH o-i> at -JI o.^- o ro o co o >*■ omoom 10. rH rH rH rg rg o m vo m o o m m o» o ^ r» f-< ■-4 r-4 m O* o« O -T o 0"> CO • • • • • • o* CO CO (7> CM O -0 m r» CM r m •o O cm -M rn >o co m t> in in • • • • • •o CO o >T m —* r-1 CM >f O -i • t in m CM C^ CO in in m in m o> in >-< rn o oca xz o H-LU o< ox m r rn m CO rH og rn r- HI CO in o i— i CO «J- (T» O r- v0 m V 0* m o • • • • • • » • 4 • • • m INI cm r .-4 >i" r- o r»- CO m «r * m in • *• >*■ o • # • • • • a o o o o o CM m M (M CM o • • • • • • a o o o o u r-l eg r-l r-l 1-1 o • • 9 t • • o o o o o o r-t l-l o r-l o o • • 4 • t 9 a o o o o o O r-l O O uu en » >H-< DnZO ri-3ri 3<0 UJOX in m m m >o o m m ^ CM •4- m m o r>- rH CM O * o LULU ZKJ 3<0 co in cm co co >r m m >r •-* rn a» >l- m co cm >r -* moo >r m uu _ii o-t- 3:0. 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CO IT\ CO o o m -4 CM o o o o >t >o r* o* cm m r^ cm co ao oo CM i-» H r-4 i-t o o o o in o o ^ co »t m r— c 126 m CM O* CO I O -T CJ> m cm cm ^ ^n v^ m >o o co • • • • g o » i\j <\ i\| OJ .-I (\| r-t r* m rn -o o t • • • -O in -O C7* CO ro O O in o o o >o m H IN n ro >o v0 m m rn r*i en ir> m o o CI N (O M M N \ vo m m c\j rn o LU XCQ z Z i/>Z3 o cr cr o o cr> i-z ^ _ t • • • • 2T h- O O -< O O =3-i < OUJ \-~ uz ^ i: m o vo vr r- -i • • • • • I in o <_> cj o O O —t »-i IDi-ZO O 0^ (M >r in 2:1— z)»-i • ♦ • • » 3 m in o-iox UJ UJ 31— o •"-• >-< m cr f- Xt— — » <-l >H r-l ^-1 _)X 0.1— o m o o o 2:1 --< m >*■ >o »■ in r-t ro in o in ro ro >-i eg eg og •$■ r-t rn V eg rg co m r- <7< -H eg >0 \Q CO •— 4 0> rg ro eg eg ro rg ^ eg in eg o -4- u» eg -• in ro co • • • -O eg *-* o eg eg ^ • • ro <-* ro .-4 in oo eg un o .-4 O eg in in -O r •T .-4 •T ^r «r N eg eg eg r-1 ■X> o o in o cr o r-4 i • • • • • t 4 r- o -o r- o —4 m eg oo r-t .-4 c* ■4- ro CO egroeg r-4.-l.-4.-iOOOO m in in ro • • • 9 o o o O CM eg eg eg • • • t o o o o >-* eg ~* • • • o o o ro r-4 eg r-4 >-4 • • • • o o o o .-iegi-i.-it-4.-4.-40 oooooooo eg t-4 .-I O O O O O O o • • • O O O O >r -« >r o • • • 0> -4} sf eg rj> -4 in O >*■ ro eg ro ro oo eg eg # • eg UJUJ 3»-4Z) 5IH--I o_i> UJ JI Q.V- XCL in ro -* eg o o o ro in r- o CO o m «i- eg —i eg o o eg ro o in in r» o o 328 cr> oo ct> m •4" C7> rO og o m m m —t ~t cj» oo -h oo oo o CO oo O r- m r- m -o r\j m m co co co m m -* C7> og oo co in cr oo (M co CM r«. co>om>j-r-voco>j» • ••••••• ocor»cr>-T^ogNO ■H 0-*ogoeg.-im-^ OO-OP-OOOO^r-O ~< -« -h —i ^ co r- com>omogogc7»og -^oooo-moc* -h ,-i .-4 ,— < og ro 00 CO o o • I • >f f-4 ^ ro o oo •-» r* r» m m ro » lu OCQ ^X xz 00 _J t— OJ zz o< ox o -o CO I LU z o I— < I— OO a» o- .- 1 — t og oo oi in in oo C7> .-( 1M -t --j j«to CJ-O LU -IX Q.i— ra r oo o o o o <-t cm co m in >o r- oo 329 CO c\J oo ro (Nl r-j •^ ■-( O -r ro m ^ in ■.n r-t o *r ~i o r- --< gj co o •••••• • • • a ■ nO r-i o oo eg ro rc» ro in o — 4 o eg cm ro cj> >o co >-i in in >t irt r >o co »r co oo co — I r-t C\) CO 00 r-l r-t ft >f O O eg o --t eg m oo ooo^-oooo • ••••• • ■ • • • M (\j eg ro vO r- oo •-i »-* i-i sf m r>- r-< i-H c\j ^o o O *-« >-i ro oo cr o r- o CM r-» C\J on «r -*■ r- — 1 eg <3 r-4 • • • t • • m >i- in m v0 ro •-< —1 eg O h d> ■! ■-» »h co *r oo o o r- r-t eg eg m r» o in i-i • • • • ♦ r >J" r- c* eg co og in >r cr> in ^ i-i^-41-tcgcom ^ r-t —» og ro oo r >j- r- 0» og 00 -4 ■-4 T-t eg CO in 1 LU • • rg • og • oo • in • z o xz o 1/0- I-LU LU zz ^2 Z o< ^ o-rrgogoom ^ <-> o cr ox m bx O >— ft r-l fl r-t O 0g ._ ft ft O r-l in >t sf gj • • • • o o o o eg eg >r eg r-» >o eg co eg c0 • ••••• ••••• oooooo ooooo ■-i .-« eg f< n h m ^ • • • • • • t t ooo ooooo ft o o •-* o *-t o o o o o o — I O O O i-l <-l O t-4 O «-t • • * • • t t • • ■ • ooooo ooooo LU CO » >l-l OmZO ZI-3^ ~J<0 O O on >-i en in o O #-« >* co ijjox r-i r-t ,-* in m r~ r-t ro -o g> UiUI I >ac 3w3 m 3> im .-i o> >o ■-t'j-m^rco zt-j cocM^rm<4-o co en >j- r- eg 3 o m m ^ 00 CM CSJ m in osl O sf CO ou 1-4 m t\i ^ h in o (O M r^ (O (J> 0*> r- i w OCO xz o 00 _) I— Ul HZ :sz □ < ox m o UJ z g i— < »— o> 00 cj> —4 r- r-4 o r- • • • • • ro CM rsj r- r- CM P- r-| DmZO 0<0 43 o f\i r- -* , • • t • o o* fM o» ~* ~4 *-• -4- <^ LUUU I >Z Xt-_J Z3 UJ JI Q-l- SO. en CM r» o> 00 • • f • • • m o -o •— ■ oo r r^ O co cm in cm — « -0 en cm CM O O • • t CM ft ■& ft O en 0» (M CM CM vO CM CO 00 G*> CM vO N i o ftCC IU XCO X >-z 2 3-1 OLU 02 z X in «♦ r # • • • • • 1 CM CM CM m O r- CM u. 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3- -4- —> en r«- oo en CT> r— • • • • • • o m o oo >J- en en CNJ en —4 O^ O in f\l O a* • t • • t • en r*- o 0* r- On »-H —i r-i en CO n n h (*" O in r- O in ^-1 t— i .— < CNJ in CM in cnj en CM r- — i t~< i—i —4 en oo ■— i in r-4 ao 00 ■o >o ci m ^ m o tr xj- o rn nT en r\i ^ r-i (M r- cnj cnj co r- o in oj <\j o o r-i r<-» -^ CNJ o vr r- •o — ( m On r- CNJ in en (M >»" 00 o in O* vT 00 CO o r- en (NJ (NJ 0^ r- in en cnj o (NJ o o *-« r^ (M .— i • • t • • t CNJ m ao •—4 •o m en CNI —4 .— t «NJ m >*• en CO in o >o • • • 1 • • CNJ o (M CO o in (M CNJ — i oo CNJ CO en ■c r- r-i -O • • t i t • cr r- o in o aj — i rM f-l in —4 vO o ■—I CNJ u> m c- r- r- vt r- on r— 1 f^ CNJ J- en CNJ vT r- t— i -H i—* o 00 o CO (NJ -j- o r- r- —4 r-i o CNJ CN vT \Z CI <}- o> -T in O z • • • • • • o en }■ (f }• -^ —< rM ro o o o o o o at fn 2:r-3--< UJUX o Nf en —i ao en --I CNJ -J- in >o h cj> ^ in o in cnj co en ■4" f-H •— I m CNJ LULU I >z OJ> UJ _»x Q-t- }■ rxi r~ v0 o en ^-i CNJ in in cnj m in en o >!■ in c> sf- oo -4" en cr ^r in m o m —i cnj ^ >r 347 en cm CO (M CO O H in •o 0^ t-< o -o O r- — i CT> in CO cm <\j (M — < *o co vO m O r- 1 r-l in (M in & co C^ NO ■a in CM o in en •-4 -t * •4- cm O 0^ >o en o en CM r-l r-4 -- t CO 0"' CM CM CM -* CM m >}• o r-< in — t r- m m cj> in .-I CM --« CO CM >o CM — I U» CM CM co co o CM nJ- en —i m ao CM m -<■ CM «-l ■O <7* CO I w oco r> 10.J zz o< iji in en CM CO I z O i— < i/i ^ en o in — 1 CO • t • • • • f- r- CO CO •o CO 1-t i-H —i r- 1 tf* r- r- en en CM CO >f m ■C o 0^ 0s ■-» •-< i-« in o r~- CM en f- r-l r-l CM r-l en *r CO r-< r-t r-l en -^ O^ r- CM o Ul in in •f r-l p-H CM CM in co •>}■ o co in cm cm cm U O CM en co nJ- vj- en in cm »h h o o in >o m c h h m t-t r-l O O O CM -o a oo cr> rn r- >* in c> <* vj- in r- in >t vO O". rH o 1 ^ z o r~l in v CO CM (— < H- in in rH vf r-l 1/1 H CM —1 o o r-t o o CM r-l t~t r~l r-l O o •J" CM O r-t o • • • • • o f~t o O o in cm ■-< cm en m en en cm cm r-t o o o o o o CM r-l r-l O O o o o o o LU fn. 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WD (M r- en en O in r-l >r U1 o r-l r-t en o in r-l CM in cm -j- in cm >r >j- en o ejp< >o o cm r-i o o o o in r-i cm en -4- 348 CO cn o cr- N a: I "J OQQ -is: Z3 xz •—UJ zz =>z o< ox 0> o m i Z o < t— r- CO >j- O i-H -o o en -h r- 1 r-1 o r-« U"\ O • • • p-4 r-l O o «* r~ >*• o y* oo ^r m *r m en r- r CNJ VJU CO r-t 0 r-l CM eg 00 CO C\J O in i • • • • • in IS- co in <5 in —i i-H <—i O r-l —> — i < in o^ cn oo • • • • • • C\J «9" o CM 00 oo r-l H w-i o o- >s- t-H f- CO <7> • • • • • t r^ o> o r-l 4 •* tr o 00 o o rO >r CM o in CM CM O 00 in ^^■ CM 1— CM CM f-i <_> CM o CM CM CNJ Z o I— < CO r- o> r-l CO CM CM -o o >T r^ o< — i »-) CM >r CM ■—i vO •T O o r- in o m h- —* co in CM »-• CM —4 in CM CM r~ 4 cn c~ o • • • • • • >o C7» CM CO ou •- < rH CM •-4 00 00 I— 1 CM ^ CM V <-* H r-l O O CM r-l O 00 •-H • • • • • • o r-» o o t-4 o O O O O O ^ vO 4- o o o O -4 CM CM r-l r-l O O CM O O O O O O UJ try ZJr-lZO rxo UJUX CJ* CM 00 CO CM ■c cn cn co oo i-H CM cn CM r-l in CO CO >o in r- CO >o CM CM co CM —i r^ cn CM LULU ZZr-_l u_»> LU JI O-r- - 349 oo in co in >o ocMcr*-rcoinr o o cm oo ^ ex I uj oco -<2: oo_i t-UJ Z21 a< ox m o i Z o < I- in eg m m o cn --< oo o .-H CO oo CM CM CM r>- >4" r- CO •4- CM m CM CT i— 1 r«- r- ( CV CM cn >J- i-- >4- r^ in en t • • « • • • • o CO -4" o -J- >o in en CM -H CM CM ^ -j- f- CM >* in m r-4 in o o r- r»- r~C in o> cn r- CM t~i —* CM ■— i CM •4 00 cn 00 i-< in in vT If i >r •4- V r-f in t-i vO cn i-4 f-4 r-i —t ■— i CM cn (M O 00 a- cr in m r-t — < C<1 in CM o & cn t-« r-l r-4 .-i in O -J" CM r-( in in 0> >r in •O CM i-c o >*■ o inr^>-tf-«NOcnou\ CMCMCOr-COOCMM >om>}-coN}-'-«vO4- en CM B1 0> in O oo cm ao c* in en oo V o >r CO en m in CM en CM .— i —» CM in in en in r» o CM o ^-i ~^ co v*- CO •4- m ^vl CM ■— « —i .-( en o CM cj» en in in o- cp o co o> CM o cm >r CM in oo en CM o • • t CM CM o cr nJ" co o — i en CO ^ Z CM ^ >o r^- m r- 00 O cn -4" r-» o i_> c_> r-4 u_ < i— CO in rn 00 -4" in cm «h cm -f -MO.-tOOOOO cr> cn cn cm o o cm —i CM O O O O O r»lftvOCMi-(HH(\l oooooooo CM 01 CM <-4 O O --< .-I i-H O O CJ O O f-CCnCM'-'Or-tOCM oooooooo •4- -o cn -* O O — I o o O o o o o I >M D«ZO Z3<0 O-JOX en cm a> ^ o i0 r~ oo r»- O 0s CM en m cn >?- CM r-( in cr co --< cm in en o> oo cm r- cn >r fM r~ -< r^ o f-t ^-1 —I vj" l >s 0_J> UJ JX Q.I- 00 vO ^4- CM O CM O CM m o m o m o o >-i •-< cm cn in ct* N o r^ CM en cr o ^J• 00 CO cn i— i .-< m CN.1 CM LT> in o in in CM cn >0 CO <7> 350 CO oo in cr ■JD LO f\l ** oo co >* r<- cr r- m r-( ro CM on — t oo oo r- IN co o eg oo rn oo o* cr i lu OCD •o 1/1 _J I— LU zz oo m in oo ro en ro rj* c\j O en 4 • t • ♦ • M (M n 1M -< u o en rj> oo en O m n _, ^ _, r-( O C3 CM o o oo cr cm o o o o LU *> I >t-« ^j- O CO O CM N lo CM o in 2IH--I Z3<.LJ U_l> LU _IX Q.V- Z.Q. r ro in o o >o 00 351 m r- oo m <7* CO o o rn rn in vo co cm O m f\j CO m 00 i/i >t m c cm r- co m f-OOOOCMOO^ino rnmmmm*• in r\j o CO ■u m cm (\j f\j m —* r-l cm r-t o CM O CM CO cr in •—i O cm in •—I >r CM (M CM r\j •~i H t— i o i— * O O m O r» • • • • « t • CO O o r- o p* CO o co o> o C_> o r >}■ rn vj- rn rn — < — i in rg >o CM r- m in — (M cm cm C\| rn in co m m en —t -o o oo in m r» CMOh-OOOOOCNJlM r-voinrsj-rrsivrm «s< 0C | UJ OCO ^s: ra o xz vO 1 i/>_i l-UJ z zz DZ o o< ox IT\ h- o < oo m in 0s cm o -4- o o in in m m m m o •-< vo rn o cjn m m m m - oo r-i -j- »r cj> •■H 1-4 f-l m *-H r-4 C_> Z o I— < I— I/O cm m co •$■ — i o -o u\ ^ _< ,-n ' j -4-r->-irwooooin mcMrncMr-to— • «-i -oincMrnm^j-ooco _< _< .— I «-< O C_} O O o m rn — < oo cr >4- r-i i-H —I CM O O O rHcooO'OcM^rncM OOOOOOOO rn t»- co co •-* -h t • • f • t • o o o o o o o ^4_(^rHOOOO oooooooo •-I t-i >-h in CM CM »-< o o o o o o o .-|.-tr-lOOO.-*.-< OOOOOOOO ,-1 ,-1 r-4 (M r-4 •-< O O O O O O O O —loooooom oooooooo DmZO Sir-ID— I UJUX m in oo m m in r\j in >j- m oo •4- >r -*■ O CM Is- m cm .-i oc>oosomcj>c^m r>- 0-1 Cr> -4- O — too^ inminin^rncnm UJUJ I >s: Zlr--J 3 UJ -»x rxt- 2:0. o o o cm m in cm o o o -4 CM r- o o m m o o o m m ^^ -J" o^ m -O m in >j- i-i — ' cm >r o r- o o Nt if< oo o 352 CO vo in cj> cm oo o a CO r- «r CO vT CM in r- CO CO o in ^r CM *T i*| CO CO co CM CM CM in co O r- r- •-I O • • • • • • • nT CNJ o >r in 0^ o> O LTl CO CO ■— < CT o> t— 1 ro CO — ( CM t-4 O >r r» O CM >r in m co co -4" in in r- CM CM r-4 t-4 >0 «*- CO CO O CM >r r- •^ 0 CM in CO r- •o r^ 0 CO >r 0 >T co O CO r IT O 0 >o ^*- 0 —4 t-4 CM r- CO in >r l/> 0 ~T 00 r— r— co in rsj t-4 co cm co cm co r>- co w o> in in o o^ *-< o —4 CO CM CO —4 CM vO CO vO in r- o cr »-< co co cm CM CM «-< t-4 •-* CM CO vO vO -J- 00 O IP O f- CM CO in cm O CO nO O (7* O fO CM .-I CM O *H in in <_> o ^0 CM >j- \U 00 O O w CM i z o I- < o cj> ro "^ o >r cm 00 in r- -r in o — • o cm o -r —t o >T co co >}■ -4- co in «o o 00 cm cm -0 >r 00 N m cm pi wi c\j cm O O -4* ^ CM CO CO •-4 t-4 O O O O O co o^ o co in o cm f-i O O *H O •""« f« CI -l- >4" CO t-4 r-4 .-4 t-4 0000000 o m* h-l 3m20 3CK3t-4 3<0 O-JOX O -4 >fr 000 o o t-4 — I O 000 o O t-4 0^ "O ^O CO C7> t-4 t-4 CO CM in co cm co CM ■-« t-4 CO CM —1 *-* OOOOOOO in & vO cm vO o m o co 00 in t-4 o m >$■ ffi O (O vt co co LULU z:i-_i o-J> l»- O CM M" i-4 •—4 >r m >0 r^ >»• CM CM CM r- o m r— ct» o v0 r~ o m ^ or r- c^ 0.1- za r-H pg r>-o(\i>rco*rr*-cj> OmrciOfMOr-cM — t -ot\j>j- CO ■ • • CTf-r>-coor-r\JO —t *-<>}■ • V oomsj-rHotrcovo or- _i ........ •-ice ^rn^inr-iAr-cNj o t-l D"ZO coco— oroco srh-o-* UJUJ DmD or-m^ino-wrsj 2:1— _j «rc?>o-c7'-^o 3<(_J —I r-l r-< —< ~< r-l ,3- u-/> LU JI Q-h- O Id. !■ in vO -O 354 ro o* — i cm m oo cm 0s- oo N I O r- LU rj- XCQ I 2: -1 O «a. m 00 o >o r- o •— i f\j .-i ro m o» 00 in -r c i»- a* r- co m in r- <^ OO CM CO ■-» CT< ■—1 >r -j- -0 m •T tr> Is- oo in u. (M ro CM in -r oo o 00 ^-1 r-H -H i-i (M in vO m -J- o (Nl in •O rn r- CO vO o -r cr co >o m in (M CM >«■ r» r- in cm >$• no o in -J- -*- ro oo in •-( •4- m CM r~t r-i CM r- —i .-H en in in cm (M —t sp m m -T o 0> r- O o m to —i i-i >r [*• r- r» >v Vs o vT tr ir. — i o* 00 in in 0s r- m N —i CM <* .— < nO 00 C^ o o <} >J r0 i-I r- cm CM in in a- "i r-l i-4 CM <7* (^ v(J r- in in r- Is- 43 in m i— i i-I cm I«- >r CM'-icsJ<~>.-(--icnr— m m in in m cm • • • • • i —* o o o i-i m i-«mcrin^rriso>ci rn —t— iooooo — i com -4- en cm --i ^ r- • ••••••» (NJ oooooooo rHCVJCOf-l^-li-li-ICO oooooooo .-i cm in en m — lOCM • • • • • • • • O OOOOOOOO I >H-| Z3«-<2:0 r^omOa^COCMCM Sl^-ZSiH • • • rj=£ z:h-_i o_j:> UJ JI q_(— omminini-fino 2:0. 1-1 cm rn vT vj- m too I-I O O m ^ CM O 00 0 C\J CO r- >0 0> CO o CM in CM m tr m m r\j 0 — < IT, m CM m in r- 0> r- •r o m rn O m m (M C7* r- in oo oo oo c« cm oo oo o CO 0^ CO r- >r in CM <\j m Nf cm O 0> •-« o o C7* — i >r o CO m ■— i O — ( t-H r-» (\J *-* in o co m # • * •h r- qr in oo m r\j o* r-- p" r- •-< in r» m o m m CM CO CW rn cu m •4) CO in *- • h- cr o •— 1 r- >0 •^ •-* t-i m o r- 1 00 00 in r» • • • • • • *< a: in in O CO CO o 1 UJ r-H OC0 ^2: i r- 00 CM •o CNJ o CM 1 xz o 5 m m -*- in CM in 5 co_l l-LU Z Z zz I3Z o o o< 1— vO cr V o> rn CO I— OX in < < o to r-l ^H r-< CM f-1 t-H 1— CO rn cm >J- r- p- co ,_, _i ^ ,h o o in cm oo •-< m m r-t i-t o <-* o o oo o> n o* « o m in >r m pm rM cr cm »r m m cm rg rg rsj m cm — • -h rn rn »h co m r- in -• '-I -• -< — i o o rn ^ co ^- r-i ^ cm r-4 i-l O .-I ■-( o o -*■ -r nJ- t-i DmZO o-iox CM >r in CM m m •-4 CO o 00 in ^-t o in r- r- -t o o r- r- tJ1 H Kl CO •0 a r- fsl in s0 in LULU I >Z s:i-_j o-j> LU -IX Q-l- ZQ. o l/>_. I— LU zz 3Z U< ox m u CO i Z o < I— I/O *fr rg ro • • • >$■ oo & o 00 CM • • r-l gj o o ^ m o rH -J- 0> m r- co m m O r- CO co vU cm in -J" 00 oo oo O r- gj en >3- CJ4 rg 00 <* o 00 o O g) 00 ro r- co CM m CM o m CM in o o co CM (M r- in <• si 5> A in n in CM CM 00 r-l r^ CO rc| tr cr cm rH CM in cm cm —t cm <■ o r~ -j- •$■ oo r^ >$- co ro m g? •o r- ct> \0 r- <-» oo rn m ^-4 ^h r-« c\j cm o oo o r- oo o o cm ** o o o o r-» Z o < o in •o o oo o —* gj o <7» o r- rg 00 in in ^ o O r- -r CM o m -^ rg co CM rH r~ m CM •-« f~i . rH H o 00 o oo in •o • • • • • • m in cm (M r- eg rO Cj> r co co vO 00 • • • • • • o rg r- C7* 00 CO co cm ■— i — i rg IT v0 in r»- >r in in CO o m >r G o ga O r-l co CM o in m CM rg CO rg o r-l CM r-< r-l ro CM CM r- i ■-* r-l >a- ga in in ^j- in r-l o o o o o cm h cr eg •0 tn >T CO CO CM CM t • • t t • « o o O o o o O >!" CO CM CO r-l r-4 r-l o o «-> o o o «-> •O ►-< 3mZO Sh3H OJOX o vj" oo g3 o CO H gj m m in O r-4 oo in in in cj* r- r- o oo in oo co o* oo r~- o UJ11J I >2I 5TI— _J zxu UJ -II O-h- S1Q- - gj co (X- m rH o >o o co cj^ r- co o in cm in r^ in o r-l r-l r-l CM CO r-l co >f •J" o> C» 01 0^ oo co CT O rg r-l r-l r-l r-l in cm r-l CM O CO 357 cn r» r»- cn co cn m • ••»•• «4" CT> >J- C W —I en c\j cm — i o r- oo in ~t in co co CO

CO C7* *■« -r r» en co >r >*•«»■ >r o -h >* cm i-i i-i cm m en cn in so h o m if fM co m o cm «h 0"» co co cm in m r- •O -4" -o co -j- in cj> en en >o o> o • ••••• r»- o m rsj co cm H ffl (M >f M M en —t cm ~i •-! . m -J- 0"> vO -T en co r» ~> o CI CM u» 00 in o> * >r 00 in cm in in in o^ o in en in in cm en in en in co i "J OCO -- XZ -O «/>_» t-UI Z2 o< ox in i Z o 00 m m .— 1 >o fM o o ■— 1 CM >— < — I CM CO en CM co 00 i-H cn o CM r- CM f— < m o CM r~ r^ r-H O — 1 l-l CM r-4 in CM O en cn CO o rH >o CM r-1 co r^ r- r- 4 p h m o in u> i*- ■*■ en cm «*■ m i z o < IT) in in O >o o> o o vO cm in CM -* I— I r-t t~- pH r-i r+ <-> r^ r- in cm j- ■t >r *• cm in CM cm CM CM CM i-l i-H l-l cn CM 00 O O "O O CM «-* r-l O O ■— I ^ m o> o o CM CM «-H .-I O O CM CM CM o en o in o en en cm CM in in m en cn o in CM r-> »H •t ■$■ >f CM *-\ r>— 2:0 r><.a UJUX ao in 00 cm 00 en r- 0^ O <0 I<1 (D >f H O H r- in cm «-i 1-1 en CM vO ao LULU 1 >3: o-j> JI Q-l~ too r» h- -O 00 r- CM sr CM >o CM 0 O IM CM w-i i— 1 r— 1 CM in o r-l CM in o cm cn CM O 00 O cn 00 in CM f-< ro 1—1 >r CM CM CM <— 1 r-i r-4 1-1 >o m r-4 r^ CM in en 358 <\j in cm en f-l m r-l •-H » f* r- in m in >r ■4- O in en •—i o O -T eg —4 CO — i CM o o> O O r-l O co >c 0s- CM CM CM f-t f-l CM m co f-l 0> >*• r- r* r- cr C7- -0 o in cn CM -o co CO r-* o vO O • • • • • • r-l CO tn en in CM co en en •J- CO m O ft •o vO •o -o O CO O* • • • • # • CJ> r- r— o o e'- nj f\i (M CM CM O oo er CM en CO m c_> ~T co • • • • • • .— i — i o o m r- CM C\J CM .— i o yO >t r- CM CO o en r- • • • t t t ty CC O o> >r -4 CM r-H \ UJ -T >r .-< r-l t— i >T OcO Cv —t f-i "*•£. 3 5 CO r- en in en m X2 -o Z o co CO CO •c o f-i (/>_J (— UJ CM zz V— Z3Z < in r-< en CM vT cr ox in CO t t • # • t o m >r vT CO U cr o> o o m in ft ft CM CM •"■ —I "T en r- in r-* »o en o • ••••• f-l CM CM •-* <-> CM CM f-l CM f-l p- r-l C- r-l r-l r-l o fl O 4- in in nJ- m en t • • • # t o o o o o o -t -o o in CM CM • • • • • • o o o o O O uj fn I >)-• rj'-'zo —x.a o->ox IM 3> o o m & m CM «t in ■4- c^ cr o* «T co r- <_r- UJUJ t >s: Sir--) <_>_.:> UJ -IX o_t- 2:0. i* ct> ej< CM cm r* st CJ> ft CM CM f-< ■"■« CM O m CM CM 359 BIBLIOGRAPHY 1. Shepard, A. B. , A Comparison of Oceanic Parameters During Upwelling Off the Central Coast of California, M.S. Thesis, Naval Postgraduate School, 1970, 218 p. 2. Baker, R. E. , The Comparison of Oceanic Parameters with Light Attenuation in the Waters Between San Francisco Bay and Monterey Bay, California, M.S. Thesis, Naval Postgraduate School, 1970, 206 p. 3. Bolin, R. L. and Abbot, Donald P., "Studies on the Marine Climate and Phytoplankton of the Central Coastal Areas of California, 1954-1960." California Cooperative Fisheries Investigations Progress Report 9, 1 July 1960 to 30 June 1962. 1962. 4. Bolin, Rolf L. and Collaborators, "Hydrographic Data from the Area of the Monterey Submarine Canyon, 1951- 1955." Final Report Hopkins Marine Station, Stanford University, Pacific Grove, California. July 30, 1964. 5. Skogsberg, Tage , "Hydrography of Monterey Bay, Cali- fornia Thermal Conditions, 1929-1933." Transactions of the American Philosophical Society, New Series, Vol 29, December 1936. 6 Labyak, P. S., An Oceanographic Survey of the Coastal- Waters between San Francisco Bav and Monterey Bay, mTsT Thesis, Naval Postgraduate School, 1969, 317 p. 7. Yeske, L. A. and Waer, R. D. , The Correlation of Oceanic Parameters with Light Attenuation m nonterey Biv, California, M.S. Thesis, Naval Postgraduate School, 1968. 144 p. 8. Bassett, C. H. and Furminger, H. C, An Investigation of the vertical Variation of Light Scattering in Monterey Bay, M.S. Thesis, Naval Postgraduate School, 1965, 88 p. 9 Sverdrup, H. U. , Johnson, Martin W. , and Fleming, lichard H., The Oceans, Prentice Hall, Englewood, New Jersey, 1942. 1087 p. 10. Pytkowicz, Ricardo, "Oxygen Exchange Rates off the Oregon Coast." Deep Sea Research 11 (3), 381 JVJ , 1964. 360 11. Bader, Henri, "The Hyberbolic Distribution of Particle Sizes." Journal of Geophysical Research 75 (15) , 2822-2830, May 20, 1970. 12. California Cooperative Oceanic Fisheries Investigations, Atlas Number 1, CALCOFI Atlas of 10-meter Temperatures and Salinities, State of California, Department of Fish and Game, Marine Research Committee, July 196 3. 13. Margalef , R. , "Some Concepts Relative to the Organi- zation of Plankton." Annual Review of Oceanography and Marine Biology, Harold Barnes (editor) , Vol. 5 , 257-289, 1967. 14. Holm-Hansen, 0., et al., "Fluorometric Determination of Chlorophyll." Journal du Conseil Permanant Inter- national Pour 1 ' Exploration de la Mer 30 (1) , 3-15, 1965. 15. State of California, State Water Quality Control Board, San Francisco Bay-Delta Water Quality Control Program Final Report Task Vll-la, Special Oceanographic Studies, by R. C. Carter, 15 June 1968. 16. Riley, J.. P. and Skirrow, G. , Chemical Oceanography, Vol. 1, Academic Press, 1965. 361 INITIAL DISTRIBUTION LIST No. Copies 1. Defense Documentation Center 2 Cameron Station Alexandria, Virginia 22314 2. Library, Code 0212 2 Naval Postgraduate School Monterey, California 93940 3. Department of Oceanography 3 Naval Postgraduate School Monterey, California 9 3940 Officer in Charge 1 Fleet Numerical Weather Facility Naval Postgraduate School Monterey, California 93940 5. Commanding Officer and Director 1 Naval Undersea Research & Development Center Attn: Code 2 2 30 San Diego, California 92152 6. Director, Naval Research Laboratory 1 Attn: Tech. SErvices Info. Officer Washington, D. C. 20390 7. Office of Naval Research 1 Department of the Navy Washington, D. C. 20360 2 8. Department of Commerce, ESSA Weather Bureau Washington, D. C. 20235 9. Oceanographer of the Navy The Madison Building 732 N. Washington Street Alexandria, Virginia 22314 2 10. Commandant (PTP) U.S. Coast Guard Washington, D. C. 20226 362 11. Library USCG Oceanographic Unit Bldg. 159-E, Navy Yard Annex Washington, D. C. 20390 12. Commandant (OMS) U.S. Coast Guard Washington, D. C. 20591 13. MST School U.S. Coast Guard Training Center Governors Island New York, New York 10 0 04 14. Department of Oceanography U.S. Coast Guard Academy New London, Connecticut 06320 15. Commander (OMS) Eastern Area, U.S. Coast Guard Governors Island New York, New York 10004 1 6 . Commande r ( OMS ) Western Area, U.S. Coast Guard 630 Sansome Street San Francisco, California 3412G 17. Naval Oceanographic Office Attn: Library Washington, D. C. 20390 18. National Oceanographic Data Center Washington, D. C. 20390 19. Director, Maury Center of Ocean Sciences Naval Research Laboratory Washington, D. C. 20390 20. Mr. Roswell W. Austin Visibility Laboratory Scripps Institution of Oceanography La Jolla, California 92037 21. Mr. Thomas E. Bailey Central Coastal Regional Water Quality Control Board 1108 Garden Street San Luis Obispo, California 93401 22. Captain S. I. Bobczynski Pacific Support Group Naval Oceanographic Office San Diego, California 92152 363 23. Dr. Wayne V. Burt Department of Oceanography Oregon State University Corvallis, Oregon 97331 24. Dr. Peyton Cunningham Department of Physics Naval Postgraduate School Monterey, California 9 3940 25. Mr. Fred H. Dierke Regional Water Quality Control Board 364 Fourteenth Street Oakland, California 94612 26. Dr. Siebert Q. Duntley Visibility Laboratory Scripps Institution of Oceanography La Jolla, California 92037 27. Mr. George Eck Naval Air Development Center Johnsville, Warminster, Pennsylvania 18974 28. Mr. Gary Gilbert Stanford Research Institute Menlo Park, California 94025 29. Dr. Eugene C. Haderlie Department of Oceanography Naval Postgraduate School Monterey, California 93940 30. Dr. R. C. Honey Stanford Research Institute Menlo Park, California 94025 31. Professor Alexandre Ivanoff Laboratoire d' Oceanographie .Physique de la Faculte des Sciences de Paris 9, Quai Saint-Bernard Paris (V°) , France 32. Dr. N. G. Jerlov Institute for Physical Oceanography Solvgade 83K Copenhagen, K, Denmark 33. Mr. Kenneth V. Mackenzie Ocean Sciences Department - Code D50 3 Naval Undersea Research & Development Center San Diego Division San Diego, California 92152 364 34. Dr. Robert E. Morrison AE1 Office of Environmental Systems NOAA 6 010 Executive Blvd. Rockville, Maryland 20852 35. Mr. Jerry Norton Oceanography Department Naval Postgraduate School Monterey, California 93940 36. Mr. Larry Ott Naval Air Development Center Johnsville, Warminster, Pennsylvania 18974 37. Mr. Robert Owen U.S. Bureau of Commercial Fisheries La Jolla, California 92038 38. Dr. John H. Phillips Hopkins Marine Station Pacific Grove, California 93950 39. Mr. James Reese Ocean Sciences Department - Code D503 Naval Undersea Research & Development Center San Diego Division San Diego, California 92152 40. Mr. Thomas J. Shoppie Naval Air Development Center Johnsville, Warminster, Pennsylvania 18974 41. Dr. E. B. 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Ted Petzoid Visibility Laboratory Scripps Institution of Oceanography La Jolla, California 92037 51. Dr. Gary Griggs Division of Natural Sciences - II University of California, Santa Cruz Santa Cruz, California 95080 52. Director Moss Landing Marine Laboratories Moss Landing, California 95039 53. Mrs. Elsie F. DuPre Oceanography Branch, Optical Sciences Division Naval Research Laboratory Washington, D. C. 54. Dr. Rudolph W. Preisendorf er Department of Mathematics Naval Postgraduate School Monterey, California 93940 55. Mr. W. J. Stachnik Optical Systems U.S. Navy Underwater Sound Laboratory Fort Trumbull New London, Connecticut 0632C 36 6 56. Mr. Raymond N. Vranicar 2 Code AIR-370D Naval Air Systems Command Washington, D. C. 20360 57. Mr. Irvin H. Gatzke 2 Code AIR-370 Naval Air Systems Command Washington, D. C. 20360 58. Dr. H. R. Gordon 1 Institute of Marine Sciences University of Miami 10 Rickenbacher Causeway Miami, Florida 33149 59. Dr. Robert W. Holmes 1 Marine Sciences Institute University of California Santa Barbara, California 9 3106* 60. Dr. Robert Andrews 1 Department of Oceanography Naval Postgraduate School Monterey,- California 93940 61. Coastal Engineering Branch 1 Planning Division U.S. Army Engineering Division, South Pacific 630 Sansome Street San Francisco, California 94111 62. Professor Glenn H. Jung 1 Department of Oceanography Naval Postgraduate School Monterey, California 93940 63. LCDR Arthur B. Shepard 1 USCGC Burton Island WAGB-283 P.O. Box 20820 Long Beach, California 90801 64. LCDR Elroy A. Soluri 3 USS Beatty (DD-756) Fleet Post Office : New York, New York 09 501 65. Professor Eugene Traganza 3 Department of Oceanography Naval Postgraduate School Monterey, California 93940 i 66. Department of Oceanography 1 New York State Maritime College Bronx, New York ' 367 UNCLASSIFIED Security Classification DOCUMENT CONTROL DATA -R&D {Security classification of title, body of abstract and indexing annotation muff be entrred when the nvr^t! tmpoti i -. titBttfiti ORIGINATING ACTIVITY (Corporate author) Naval Postgraduate School Monterey, California 93940 2a. REPORT SECURITY Classification Unclassified 2b. CROUP 3 REPOR T TITLE A COMPARISON OF OCEANIC PARAMETERS DURING THE OCEANIC PERIOD OFF THE CENTRAL COAST OF CALIFORNIA 4. DESCRIPTIVE NOTES (Type o/ report and.inclusive dates) Master's Thesis; March 1971 S AUTHORiSI (First name, middle initial, last name) Elroy Anthony Soluri, Lieutenant Commander, United States Navy « REPOR T DATE March 1971 7/1. TOTAL NO. OF PACES 369 7b. NO. OF REFS 16 l«. CONTRACT OR GRANT NO. 6. PROJEC T NO 9a. ORIGINATOR'S REPORT NUMBERO) 9b. OTHER REPORT NO (SI (Any other numbers that may bo . turned this report) 10 DISTRIBUTION STATEMENT Approved for public release; distribution unlimited, 11. SUPPLEMENTARY NOTES 12. SPONSORING MILITARY ACTIVITY Naval Postgraduate School Monterey, California 93940 13. ABSTRACT A detailed examination of the co£istal region between Monterey Bay and San Francisco Bay was conducted from 1 to 6 November 19 70. Measurements of temperature, salinity, sound velocity, beam transn tance, Coulter particle size distributions, chlorophyll a, phosphate, and oxygen were obtained at 86 stations from the surface to IOC r: The data collected are presented in the form of contours in horizontal and vertical sections and depth profiles which indicate: 1. a distinctive off-shore region, which exhibited high values oxygen, chlorophyll a, and particle count and low values of temperatufj and beam transmittance v/as present; 2. the areas with the highest standing crop are inshore, within rive miles of the coast; . , 3. a peak in the size distribution of particles did not always occur in the surface layers within the observable range of diameters of rrom 1.59y to 32. Oy; 4. a plot of oxygen versus phosphate yielded a slope or -2.4 yg-at/1 P04 ml/1 0. 5. there appears to be no simple correlation in the scatter of point plotted for chlorophyll a as a function of oxygen; and _ , 6. a Dlot of chlorophyll a versus beam transmittance indicates si larly that no simple relationship between these parameters exists. DD,FN0oRvVi473 .' :t.,.,' -i 'i"'/) 7P:rTv SllSIBi&SB" EfiSjSS thesS6654 A comparison of oceanic parameters durin 3 2768 002 01676 8 DUDLEY KNOX LIBRARY