Spring summer Chinook salmon passage times at John Day Dam, with an emphasis on spill effects,

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Keefer 16 Nov 25 Spring summer Chinook salmon passage times at John Day Dam, with an emphasis on spill effects, 1996-24 Presented below is a retrospective summary of spring summer Chinook salmon passage times at John Day Dam. The primary objective is to qualitatively describe the effects of various spill treatments on adult passage times. Because passage times are also strongly related to overall flow as well as water temperature and migration timing, we attempt to address spill treatment effects within this broader context. During eight study years (1996-1998, 2-24), 4,24 radio-tagged Chinook salmon had tailrace and top-of-ladder records at the dam. The median passage time for these fish was 27.2 h (mean = 56. h, SD = 85.5 h). Timing: Annual medians ranged from 2.3 to 35.8 h (Figure 1), with the longest median in 1997, the year with the highest total discharge. The monthly median passage time (all years combined) was lowest in August (19.4 h) and highest in June (39.2 h) (Figure 2). 12 1 8 6 4 2 Figure 1. and quartile Chinook salmon passage times at John Day Dam, by year. 1996 1997 1998 2 21 22 23 24 Year 9 8 7 6 5 4 3 2 1 april may june july aug Month Figure 2. and quartile Chinook salmon passage times at John Day Dam, by month. 1

Keefer 16 Nov 25 When all year month combinations were considered (Figure 3) no within-year pattern was consistently observed across years. In 1997 and 1998, times decreased with each successive month. In 1996, 2, 21, 22, and 23, monthly medians were lowest in May. In 1996, 23, and 24 medians were highest in June. 18 16 14 12 1 8 6 Figure 3. and quartile passage times (h) at John Day Dam by year and month. Only includes months with 2 salmon. 4 2 1996 1997 1998 2 21 22 23 24 AMJ AMJ J AMJ J AMJ J AMJ J AMJ J AMJ J AMJ J Month Columbia River Flow: For all months, mean Columbia River discharge was highest in 1997 and lowest in 21 (Figure 4). 1996 was also a relatively high flow year. Peak flows within years occurred in either June or May. When salmon were categorized by total river discharge on the date they entered the John Day River tailrace, passage times were highest at the highest flow (median = 58.6 h at flow > 5 kcfs) and were lowest at low to intermediate flow (median = 24.4 h at flow between 2-3 kcfs) (Figure 5). passage times for the five months with the slowest passage ranged from about 46 h in July 22 to 145 h in April 1997 (Table 1). times in the fastest passage months were between 14 and 18 h; all were in April or May. Mean monthly Columbia River flow for these months tended to be higher in the months when salmon passage was slowest, but there was some overlap. 2

Keefer 16 Nov 25 6 Mean daily flow (kcfs) 5 4 3 2 1996 1997 1998 2 21 22 23 24 1 april may june july Month Figure 4. Mean daily flow at John Day Dam by month and year. 12 1 8 6 4 2 Figure 5. and quartile Chinook salmon passage times, by flow on tailrace entry date. < 1 1-2 2-3 3-4 4-5 > 5 Flow (kcfs) Table 1. Months with highest and lowest median Chinook salmon passage times (h) at John Day Dam passage Flow passage Flow Year Month time (n) (kcfs) Year Month time (n) (kcfs) Slowest passage Fastest passage 1997 April 144.9 (58) 332 24 April 14.6 (68) 154 24 June 57.5 (83) 215 23 May 15.8 (161) 239 1996 June 52.5 (8) 393 24 May 16.4 (129) 213 23 June 47.6 (168) 242 22 May 17.1 (314) 237 22 July 46.1 (94) 229 23 April 17.8 (169) 197 3

Keefer 16 Nov 25 Columbia River Water Temperature: Water temperature was strongly correlated with date in all years (r >.9) and so migration date was not considered further. Salmon passage times showed a bimodal distribution with respect to temperature, with the highest median times at the lowest temperatures (37.2 h at 8º C) and at intermediate temperatures (4.5 h at 15º C) (Figure 6). The fastest passage occurred at 22º C (15.1 h). This pattern closely mirrors that for monthly medians shown in Figure 2. 9 8 7 6 5 4 3 2 1 8 9 1 11 12' 13 14 15 16 17 18 19 2 21 22 Temperature (C) Figure 6. and quartile Chinook salmon passage times, by temperature (º C) on tailrace entry date. Only temperatures with 2 salmon included. When flow and temperature combinations were considered (61 groups), the slowest passage times occurred at moderate to high discharge (3 to > 5 kcfs) with either low (9º C) or moderate (13-15º C) temperatures (Table 2). The fastest passage occurred at lower flows (1-3 kcfs) and either very high (22º C) or moderately low (11-13º C) temperatures. s for the highest combinations were 3-7 times higher than for the lowest combinations. Moderate temperatures tended to coincide with peak discharge. Table 2. Flow-temperature combinations with highest and lowest median Chinook salmon passage times (h) at John Day Dam, including mean flow and dominant spill conditions. passage passage Flow (kcfs) Temp time (n) Flow (kcfs) Temp time (n) Slowest passage Fastest passage 4-5 9 17.2 (4) 1-2 22 15.1 (33) 4-5 15 82.1 (25) 1-2 13 15.2 (52) 3-4 9 75.1 (22) 2-3 11 15.6 (133) 3-4 13 54.9 (61) 2-3 13 16.6 (129) >5 14 54.1 (28) 1-2 11 17.8 (218) 4

Keefer 16 Nov 25 Spill Treatment : Although spill was the primary variable of interest in this summary, day- and night-time spill patterns were inconsistent among years (Figure 7) and therefore difficult to assess. 6 1996 6 1997 5 5 4 4 3 3 2 2 1 1 6 1998 6 2 5 4 5 4 3 3 2 2 1 1 6 21 6 22 5 4 5 4 3 3 2 2 1 1 6 23 6 24 5 5 4 4 3 3 2 2 1 1 Figure 7. Percent day- and night-time spill at John Day Dam, April-July, 1996-24. 5

Keefer 16 Nov 25 One of the challenges of this type of retrospective analysis is that the spill treatments at the dam were not designed for testing adult passage. Treatment intervals and changes in spill patterns were often rapid, particularly in 2 and 22, while in 1996 and 1997 patterns were almost continuously changing. Many adult fish therefore could encounter more than one spill treatment condition (median times were about 1 d and means were about 2 d). There is also some evidence that spill treatment switches, including between day and night patterns, can substantially affect adult passage behaviors as flow volumes and distributions in dam tailraces can be substantially altered. Given these potentially important complications, the following analyses should be considered general and qualitative rather than rigorous quantitative tests. We initially grouped salmon based on the spill conditions they encountered on the date each fish entered the John Day tailrace. Subsequent spill changes during the time fish were passing the dam were ignored. In Figure 8, spill treatments were split into 4 categories (4 each day and night). The highest median times occurred when day-time spill was 1-3% or 3-5% and night-time spill was 3-5%. The lowest median was for -1% day-time spill and 3-5% night-time spill. 12 1 8 6 4 2 WW WX WY WZ XX XY XZ YX YY YZ Spill 'treatment' Figure 8. and quartile passage times by spill treatment. First letter of treatment indicates day-time spill%, second letter indicates night-time spill%. W = -1%, X = 1-3%, Y = 3-5%, Z = > 5%. Only treatments with 2 salmon included. Next, we divided the spill treatments by 1% intervals (Figure 9). With this breakdown, most treatments with the highest medians (4-54 h) had day-time and nighttime spill that was 3% or greater (Table 3). The lowest median times (18-21 h) all occurred during treatments where day-time spill was 1%, with variable night-time spill. 6

Keefer 16 Nov 25 14 12 1 8 6 4 2 AA ADAE AF AGAH BC BDBE BF BGBH CC CDCE CF CGDD DE DFDG ED EEEF EG EHFE Spill 'treatment' Figure 9. and quartile passage times by spill treatment. First letter of treatment indicates day-time spill%, second letter indicates night-time spill%. A = %, B = 1-1%, C = 1-2%. D = 2-3%, E = 3-4%, F = 4-5%, G = 5-6%, H = > 6%. Only treatments with 2 salmon included. Table 3. Spill treatments with highest and lowest median Chinook salmon passage times (h) at John Day Dam. Day-time Night-time passage Day-time Night-time passage Spill% Spill% time (n) Spill% Spill% time (n) Slowest passage Fastest passage 1-2% 4-5% 54.3 (39) % 4-5% 18.5 (161) 4-5% 3-4% 51.2 (23) 1-1% 4-5% 19.7 (147) 3-4% 3-4% 45.4 (225) 1-1% 1-2% 19.9 (34) 3-4% > 6% 43.6 (3) 1-1% 5-6% 2.4 (658) % 3-4% 4.4 (22) % 2-3% 2.9 (33) In the next set of analyses, both total flow and spill treatment were used to group fish. With the first spill treatment series (~2% intervals) the general trend was for increasing median passage times as total flow increased (Figure 1). Within flow categories, there was also a tendency for increased passage times as day-time spill percentages increased, though variability was quite high. One outlying data point was for salmon that entered the tailrace with -1% day- and night-time spill and moderate flow. Similar general patterns emerged with 1% spill intervals (Figure 11) 7

Keefer 16 Nov 25 16 14 12 1 8 6 4 2 Flow WW WW WXWY WZ XXXY XZ YYYZ WW WXWY WZ XXXY XZ YZ WX WYXX XY XZYY <1 1-2 2-3 3-4 4-5 >5 Spill 'treatment' and flow (kcfs) Figure 1. and quartile passage times by spill treatment and flow. First letter of treatment indicates day-time spill%, second letter indicates night-time spill%. W = - 1%, X = 1-3%, Y = 3-5%, Z = > 5%. Only treatments with 2 salmon included. YZ XX XYYY YY 16 14 12 1 Flow 8 6 4 2 AA AA ADAF AG AHBE BF BGBH DD DEDG EE EG AF AGAH BD BEBF BG BHCD CE CGDD DE DGEG CC CDCE CF DDDE DF DGEE <1 1-2 2-3 3-4 4-5 >5 Spill 'treatment' and flow (kcfs) Figure 11. and quartile passage times by spill treatment and flow. First letter of treatment indicates day-time spill%, second letter indicates night-time spill%. A = %, B = 1-1%, C = 1-2%. D = 2-3%, E = 3-4%, F = 4-5%, G = 5-6%, H = > 6%. Only treatments with 2 salmon included. EF DD DEEE EE 8

Keefer 16 Nov 25 Two final summaries identified the flow-spill combinations with the highest and lowest median passage times (Table 4) and the individual months with the highest and lowest times (Table 5). Consistent with the previous summaries, the longest passage times by spring-summer Chinook salmon tended to occur when total flow was high and daytime spill was moderate to high. These conditions occurred during a range of months and years (Tables 4 and 5). Faster passage was almost always associated with lower flow and low day-time spill. Table 4. Spill treatment-flow combinations with highest and lowest median Chinook salmon passage times (h) at John Day Dam. (Spill treatments by 1% intervals.) Day-time Night-time passage Flow (kcfs) Spill% Spill% time (n) Principal occurrence Slowest passage > 5 3-4% 3-4% 92.7 (58) may 1997; june 1997 4-5 3-4% 3-4% 69.6 (99) june 1996; april 1997; may 1997; 3-4 1-2% 4-5% 62.1 (3) may 1998; july 22 3-4 2-3% 3-4% 44.9 (59) april 2; june 22 1-2 % > 6% 43.4 (2) april 1998 Fastest passage 1-2 1-1% 4-5% 14.1 (46) may 23; august 23; april 24 1-2 % 4-5% 16.4 (49) june 1998; may 2; april 23; may 23; june 23 2-3 3-4% 5-6% 19.2 (67) may 2; june 2 2-3 % 4-5% 19.3 (12) june 1998; may 2; april 23; may 23; june 23; 2-3 1-1% 5-6% 19.9 (432) may 1998; june 1998; july 1998; june 2; april 22; may 22; april 23; june 23; may 24; june 24 9

Keefer 16 Nov 25 Table 5. Months with highest and lowest median Chinook salmon passage times (h) at John Day Dam, including mean flow and dominant spill conditions. passage Mean flow Year Month time (n) (kcfs) Spill treatment(s) Slowest passage 1997 April 144.9 (58) 332 zero; -3% day & night 24 June 57.5 (83) 215 6% night % day; 3% day & night 1996 June 52.5 (8) 393 1-3% day & night 23 June 47.6 (168) 242 4-6% night % day 22 July 46.1 (94) 229 6% night % day; 3% day & night Fastest passage 24 April 14.6 (68) 154 zero; 45-6% night % day 23 May 15.8 (161) 239 45-6% night % day 24 May 16.4 (129) 213 5-6% night % day 22 May 17.1 (314) 237 6% night % day; 3% day & night 23 April 17.8 (169) 197 zero; 45-6% night % day 1