The RACEROCKS.COM Activity

http://www.racerocks.com/racerock/rrcom/rrcomactivity/rrcomactive.jpgSeptember 11, 2001 We met this afternoon for the first session of the racerocks.com activity at Lester Pearson College. A tragic day for all of us as events unfold in the US. After a discussion of how the racerocks.com program has developed over the past few years, and projections as to where we may take it from here, we ran a short sample webcast from the biology lab. We were able to show the eight new first year students in the activity the process involved in a webcast.

 

Monica works her magic with the sound system while Garry and Paul check out the webcast on the monitor.

OCT 6, 2001: Paul Kennedy of the CBC Radio program “IDEAS” went with us to Race Rocks on the afternoon of October 6. He was interested in observing one of our live webcasts from underwater. He is in the process of preparing a series on Canada’s Oceans in December of 2001, and has been intrigued with the potentials for distance education that is afforded by the technology we have developed here for racerocks.com.This series is being rebroadcast in February and March 2002. Race Rocks Segment : CBC radio Feb 22 9:00 P.M.

http://www.racerocks.com/racerock/rrcom/rrcomactivity/quicktimelive/crew2m.jpg

On February 14 , 2002, we did a live webcast for Keith Mitchell of ALI ( Apple learning Interchange) in his presentation at QuickTime Live in Hollywood California. This was the first time we tried out the new webcasting software “LiveChannel” from our new partners Channel Storm.

Pearson College Orientation week 2001

When the Lester Pearson College students arrive at the college for the fall term, the first week is an Orientation Week. This year part of their schedule was a boat trip to Race Rocks and a guided tour by second year student Damien from Ireland.

Race Rocks Sustainable Energy System Development

Canadian Hydrogen Conference June 17-21, 2001, Victoria, BC.
RACE ROCKS SUSTAINABLE ENERGY
SYSTEM DEVELOPMENT
Taco Niet, G. McLean
Institute for Integrated Energy Systems, University of Victoria
Victoria, B.C., Canada V8W 3P6
Tel: (250) 721-8936 Fax: (250) 721-6323

Abstract
Race Rocks is a small archipelago located just Southwest of Victoria, British Columbia in the Juan de Fuca Strait. An important Beacon for Coastal Navigation in this busy area is located on Race Rocks, which is also home to a stunning variety of marine mammals and birds. The Race Rocks site has become Canada’s first Marine Protected environment and is now carefully managed by a group of interested partieScreen Shot 2014-02-24 at 7.48.10 PMs including Pearson College and The Canadian Coastguard. The environmental integrity of the site is often jeopardised to bring diesel fuel to the site and the noise pollution on the site due to the diesel generators is significant. IESVic has stepped forward to evaluate the potential of renewable energy sources on-site to power a sustainable energy system. A preliminary study was performed as an innovative graduate course at the University of Victoria that exposed students to sustainable energy system design. Our conclusion is that with Tidal currents of up to 3.7 m/s, average winds of 21.6 km/h and large amounts of solar insolation, there are ample renewable resources available on the site to develop a sustainable integrated energy system capable of providing reliable power for the site. Race Rocks is therefore ideally
suited to become a showcase for renewable energy generation. This paper outlines the results of the feasibility study, discusses the opportunities available at Race Rocks and examines the progress to date. Requirements for the implementation of a sustainable energy system on the site are discussed.
See the full PDF: tacopaper

Fouling on Sensor bar

Already by March, the growth of algae on the environmental sensors and the aluminum bar has been prolific. Regular dives have to be made to keep the sensors free of algae. The predominant Genus here is Laminaria.

Student Research From: .. The Race Rocks Marine Protected Area

Shade Preference in Sub-tidal populations of Dorid Nudibranchs: an Analytical Rebuttal

Ryan M. J. Murphy
November, 2000

A Submission for partial fulfillment of the requirements of the International Baccalaureate

PURPOSE

The purpose of this investigation was to evaluate the claims of H.L. Geiger and A.R. Holyoak (1996) that adult dorid nudibranchs displayed a distinct shade preference during laboratory test  runs, and then to analyse their conclusions.

INTRODUCTION:

Dorid nudibranchs, oval or ellipsoid in general shape, are dorsoventrally flattened.  Protruding from their backs are two sets of structures. Anteriorly is a pair of rhinophores, chemosensory antennae that often have numerous folds and lamellae (or ridges) that serve to increase the sensitive surface area. This is their primary sense organ. More posteriorly are situated the flowerlike, branchial plumes (or gills).  Dorids differ from the other main division of nudibranchs, the Aeolids, in that they have no ceratan extensions[1], but rather small papillae or no skin protuberances at all.

(from Morrow, 2000)

Nudibranchs are useful to marine ecologists as they are indicator species, that is, they can be used as early indicators of environmental change, such as degradation, to a community or ecosystem (Pidwirny, 2000).  Nudibranchs and other opisthobranchs are useful to neurologists as well. Anisodoris nobilis in particular has been utilised for neurophysiological experiments because of its neurons that are many times larger than human neurons (Smallwood and Rogers, 1908).  Also, since nudibranchs have relatively few neurons, neurologists can use nudibranchs to analyse the process by which neuromodulation controls bodily functions to a greater extent than is possible in any vertebrate circuit (Katz, 2000).

Nudibranchs are opisthobranchs, meaning they belong to a group of marine gastropod molluscs of the order Opisthobranchia, characterized by gills, a shell that is reduced or absent, and two pairs of tentacles.  Opisthobranchs are simultaneous hermaphrodites, meaning that a single individual has both the male and female gonads (testis and ovary) to make sperm and eggs, as well as the external appendages for the transmission of these sex products by copulation.  The final products in copulation of nudibranchs are resilient egg ribbons (Hurst, 1967) with large surface area-to-volume ratios, which are deposited during all seasons of the year.  Egg ribbons of the Archidoris montereyensis nudibranch were studied by Biermann et al. (1992), who analysed the effects of solar radiation and other environmental factors on egg deposition site and embryo survival.  Biermann et al. (1992) found that A. montereyensis preferentially laid their eggs underneath macroalgal shelter.  In its natural habitat and in controlled laboratory conditions, they went on to determine that solar radiation arrested embryo development in tests that exposed the egg ribbons to direct sunlight in a shallow, water-cooled trough.  Solar radiation was found to directly or indirectly limit the distribution of nudibranchs and their development in shallow water (Biermann et al., 1992). Biermann et al. proposed that adult dorids may actively select shaded areas to deposit their egg ribbons, an idea forming the basis for a more recent study of dorid nudibranch behaviour (Geiger and Holyoak, 1996).

eiger and Holyoak hypothesised that A. montereyensis adults’ preference to lay egg ribbons in shaded conditions was a direct result of natural selection against offspring of individuals that deposit egg ribbons in unshaded areas (1996).  In addition, it was hypothesised that the differential survival of embryos as demonstrated by Biermann et al. (1992) might have an evolutionary effect on reproductive ecology (Geiger and Holyoak, 1996).  Time trials conducted in an artificially shaded tank during the late spring involving 3 to 16 specimens of the same species showed that between 83.3 and 100% of the nudibranchs studied preferred shaded conditions to light (Geiger and Holyoak, 1996).  Geiger and Holyoak used A. montereyensis specimens from piers at Friday Harbour on San Juan Island (see Friday Harbour, Figure 2), similar to the population studied by Biermann et al. (1992) at Argyle Creek on San Juan Island. 

Figure 2: San Juan Island

Figure 3: Pedder Bay-Race Rocks Region

Figure 3: Pedder Bay-Race Rocks Region
The initial purpose of this investigation was to determine if the shade preference as elucidated by Geiger and Holyoak in A. montereyensisD. sandiegensis, and T. catalinae was present in other dorid nudibranch species.  Five species of nudibranch were chosen for this experiment (see Appendix A): Archidoris montereyensis (MacFarland, 1966), Anisodoris nobilis (MacFarland, 1905), Diaulula sandiegensis (Bergh, 1879), Acanthodoris hudsoni (MacFarland, 1905)and Cadlina luteomarginata (MacFarland, 1905).  A. montereyensis and D. sandiegensis were used as a comparison to the Geiger and Holyoak experiment.  Cadlina luteomarginataAcanthodoris hudsoni,and Diaulula sandiegensis were chosen for their local abundance, as well as to determine whether there are behavioural differences between dorids generally more common in the low inter-tidal ranges (i.e. A. hudsoniA. montereyensis, and D. sandiegensis) and those more common in the subtidal range (i.e. C. luteomarginata and A. nobilis) (Morris et al., 1983).  Upon initial tests with A. montereyensis, it became clear that shade preference of other dorids could not be the focus of the investigation, for as Geiger and Holyoak found a negative relationship between dorid movement and light intensity, my preliminary work showed the contrary.  The obvious question then arose: Why the population of A. montereyensis and D. sandiegensis specimens being tested did not express shade preference as the Friday Harbour populations did.  Subsequent analyses were designed to verify these results, and to help explain this difference.

All five nudibranch species used in this study were collected at Great Race Rocks, 48o17’45” N, 123 o31’50” W (see Figure 3) at depths between 6 and 12 m, subtidal range.  Initial time trials were conducted in mid-May, 2000, and all secondary trials were conducted in late October and early November 2000.

Witnessing the Wonders of the Race Rock Ecosystem

Witnessing the Wonders of the Race Rock Eco-system … Only a Click Away!
Magazine article By Simon, Jeremy
Teach , November/December 2000

Just into range of the first camera, a large elephant seal crawls across the rock towards a group of smaller female seals near the top of the middle island at Race Rocks. Unbeknownst to the seal, he’s being watched not only by the student operating the camera but by hundreds of students from across British Columbia, and possibly more people from around the world via the Internet.

“The Racerocks.com Project is a unique project organized and run by Pearson College in Victoria, British Columbia,” said Garry Fletcher, educational director of racerocks.com. “Our project uses the latest technology to full advantage to create a dynamic, educational web experience of an extraordinary marine ecosystem at Race Rocks, Canada’s most southerly point in the Pacific,”

Since 1980, Race Rocks has been an ecological reserve and is internationally recognized as a Marine Protected Area. Located in the Strait of Juan de Fuca between Vancouver Island and Washington State, the small rocky outcrops of Rock Rocks is home to a diversity of marine and wild life such as seals, otters, sea lions, cormorants, gulls, and sea urchins. To learn about and better understand the ecology of the area, students from Pearson College use the latest technology as part of their studies.

One of ten United World Colleges, Pearson College has over 200 students from around the world enrolled in the two year International Baccalaureate program. As a faculty member of Environmental Systems and Biology, Garry Fletcher and his students are responsible for creating and maintaining the content of the web site.

The project is supported by various partners including The LGS Group, an IT consulting firm that provides project management and web design services. Another project partner is Telus, a leading telecommunications company, which has contributed the equipment, bandwidth and expertise to assure high-speed delivery of the web content. Several alumni of the college have assisted with the networking and Database work, and the Vancouver Aquarium Marine Science Centre, has committed expertise and significant funding to the project. B.C. Parks and the Millennium Partnership Fund are also key partners.

Apple’s affiliation to the racerocks.com project has been in providing some equipment and mostly technical support. The project uses Apple technology extensively and runs an Apple PowerMac G4 500 mgHz with Mac OS X Server as one of its web servers. Apple Canada has recently become a partner in the program providing a G3 Powerbook 500 mghz for the wireless webcasts from the intertidal and subtidal areas. A host of PC and Apple PowerMac computers are also used for capture of live video feeds being broadcast from the islands. Currently a series of environmental sensors are being installed, above and below water. Data from these will soon be accessible through an Oracle database. Video and Audio streaming is broadcast 24 hours daily using QuickTime Streaming Server software and generated by Sorenson Broadcaster software running on Macintosh Imacs.

Operated by students, as many as seven digital cameras and various data sensors, both above and under water, record what is occurring at Race Rocks and then broadcast the feeds during live video and audio events scheduled over a number of days.

Recently, the project has begun to use Apple’s wireless Airport technology, which enables students to roam the island with an Apple PowerBook G3 linked to the underwater or on shore cameras. The signal is linked to the project’s Local Area Network on the island, which is connected to the College by a compressed, microwave radio link, being transmitted on top of the Race Rocks lighthouse tower. At the College, the signal is decompressed and sent out over the internet.

“A key goal of the project is to encourage teachers to create internet-based curriculum, which will enable their students to have a fully engaging experience learning about the unique ecology of Race Rocks,” said Fletcher. ” As an example, we just recently supported a number of schools across B.C. to connect to our web site during one of our many scheduled live video streaming events. A team of students helped in providing two weeks of programming from above and below the water to schools via the internet. We hope to encourage other schools to take on similar projects and “Adopt a Sensitive Ecosystem” so that they can also share ecological information. These schools’ students were able to talk directly to our College’s underwater student divers and ask questions about what they were seeing being broadcast live via the web site.”

As the racerocks.com project continues to broaden its use of its technology, more creative and innovative programs will be planned to help the College’s students study the diversity of the Race Rock outcrops and share their findings with other students in Canada and around the world.

To check out how the large elephant seal is doing and learn more about Race Rocks, you can visit the web site at www.racerocks.com.

Race Rocks Permit Application

For research, collection activities or commercial use of the ecological reserve.


Introduction:

The ecological reserve of Race Rocks is a transition zone between the inner coastal waters of Pedder Bay and the open Pacific Ocean. Due to this unique geographical location, it is home to an exceptional variety of marine life. This provides many unique opportunities for research or filming to be carried out on the reserve. However, it also means that the environmental impact of such activities on the ecosystem of Race Rocks must be carefully considered to ensure the sustainability of the biodiversity that is present here.

Therefore, the questions in this application form have been designed to find out the precise objectives and procedures of the proposed project and the anticipated environmental impact on Race Rocks. In addition to this, the opportunity to live on Race Rocks whilst carrying out research means that details are required by Lester B. Pearson College in order to arrange this for you.

Preservation of ecological values is the ultimate management priority and in the event of conflict, these values take precedence over the provision of research facilities. This permit must be returned to the Race Rocks Operating Committee for preliminary approval. A copy will forwarded to the Ecological Reserve Branch for final approval. 

See the Regulations for Using the Race Rocks Marine Research Centre

and the Operational Guidelines

If you require the use of the Light Tower, arrangements must be made directly with the Canadian Coast Guard Office in Victoria.


BASIC INFORMATION: (Type directly in the spaces provided)

(1) Individual(s) surname(s) First names

(2) Company/Society name

(3) Major shareholders or principals. Attach names and addresses.

(4) Company inc.no/Society no.

(5) Company/Society mailing address

(6) Business phone 

Home phone 

Fax 

E-mail

URL of your Web Site if available

(7) BC parks requires minimum public liability insurance coverage of $ 1,000,000. Will you be able to obtain this?

Yes No

(8) If paid employees are employed on site as part of your project please
provide proof of BC Worker’s Compensation coverage or suitable
substitute insurance.
Worker’s Comp # 


DESCRIPTION OF ACTIVITY

(9) Area of research

Please fax a map detailing the area(s) where you will be carrying out the research.

(10) Detailed plan of research:

A) Study Overview and Rationale. ( briefly describe the project and what you are trying to achieve).

B) Objectives ( briefly state the objectives of the project)

C) Methodology:

D) End Products: What are the end products of the research? Please be aware that final copies of reports must be made available in electronic form to the Race Rocks Operating Committee. Copies of slides, pictures, raw footage, videos produced etc.. must be made available to the Race Rocks Archive in the Lester Pearson College Library.

(11) Please detail your experience and involvement in the Race Rocks area.

(12) Please indicate the dates that you wish to carry out the research.

(13) Do you plan to stay at Race Rocks for this time? (See description of accommodation, and book the facility with the operating committee well in advance of the intended visit.)

(14) We require a component of Lester Pearson College student involvement for projects done on the reserve. Please indicate below how you aim to do this?
Will staff or students require specialized training or certification for this research? If so, describe.

(15) Will the proposed project require construction of any temporary or permanent structures on Race Rocks? Describe including proposed location.

(16) Do you propose to use any existing facilities at Race Rocks?
(e.g. docks, tanks etc..)

(17) What assistance for transportation ( include times and dates) will be needed.

(18) Will the proposed research project affect or restrict other visitors coming to Race Rocks? Describe.


ENVIRONMENTAL IMPACT:

(19) What do you anticipate to be the environmental impact of the research under the following categories? Indicate how you intend to mitigate this impact.

A. Physical/Chemical

land, water, noise,

B. Ecological

habitat, species and populations

(20) Additional Comments


PLEASE SAVE THIS FORM TO YOUR COMPUTER

YOU MAY IT FAX TO : 250-391-2412

or e-mail as an attachment to: The Race Rocks Operating Committee

A copy will be forwarded by us to the Ecological Reserves Office. Receipt of the application will be acknowledged by e-mail.

The Original version of this permit was created by members of the Pearson College Environmental Systems class, March, 1997 Leah Gray, Kata Meszaros, Iro Tikkanen

Race Rocks goes Live on at the Quick-Time Live Conference in California

On October 11 2000, a special live webcast from Race Rocks was arranged for a presentation at the Distance Education session by faculty member Garry Fletcher at the QuickTme Live Conference in Beverly Hills. The Apple Learning Interchange, an educational arm of Apple at the time had helped with the funding to register and stay at the conference.

Photos by Jaffar. Our thanks to Tiyona and Michael, also in the racerocks.com activity, who helped behind the scenes to make this webcast a success in California! ‘

NOTE: Followup on Damien Guihen doing research in Antarctica

“From my perspective, standing on a stage in front of more than 150 people in the conference centre in California, this was a big risk .. We had already done it to an Apple Conference in New York, but this was the first time the students were managing it completely on their own from the RaceRocks end. Although this was a QuickTime Live conference, several members of the audience remarked later after that this was the first real  “Live”and remote presentation they had seen at the Conference. Connections were made at that time with several companies interested in us using their webcasting software. ” Garry Fletcher 

Ethology laboratory- Sample write-up

Sunny Ashcroft
September 22, 2000
Laboratory: A Sealion Ethology
Aim:
To become familiar with the process of preparing an ethology, including observation over a period of time, proper techniques of observation, and analysis of data collected. Natural animal behavior of sealions will be studied using field observations, and patterns of behavior will try to be identified and quantified using an ethogram and time budget. An ethogram lists behaviors observed by the subject, while the time budget gives the percentage of time that the subject engaged in the behavior.1

Introduction

Data for this ethology was collected on Race Rocks, a rocky outcrop housing a lighthouse and several buildings, and now an ecological reserve, located in the Juan de Fuca Strait. Figure 1 shows the location at which the subjects were observed, with field binoculars, and the site of observation.

Figure 1: Photo of Race Rocks showing observation location and site of observation

wholerockob

The group of sea lions observed consisted of both species of sealion found at Race Rocks, California and Steller’s. The observations were taken over the period of one hour, with 6 minutes being allotted to each of the 10 sealions observed, 5 of the subjects being the darker and smaller Steller’s sealions, Eumetopias jubatus, and 5 of the subjects being the pale and larger California sealions, Zalophus californianus. Due to the distance that the observations were taking place, I was unable to identify the morphology of the sealions observed. This particular group of sealions was observed from 12:00pm to 1:00pm on September 15, 2000. The weather was fair, with sun and only sparse cloud cover, and a breeze.

Data Analysis

Part A: Sealion Ethogram

Grooming behavior
– scratching
intermediately looking around, observing
grooming (i.e. licking, smoothing self with tongue)
stretching
Observation
sitting up on fins
looking up at sky
looking around
Making noises
Sitting up and random noise making (i.e. non aggressive barking)
Socially aggressive
no extensive movement of body (excluding sitting up or posturing)
opened mouth aggression, may or not be making noise
aggressive posturing
Movement:aggressive, or because of antagonism
involves making noise (i.e. barking)
aggressive charging or chasing
movement away or towards an aggressor
being aggressive towards others
Movement:not aggressive
moving for better position on rock, or sleeping position
Resting
laying down with intermediate head raising or barking
yawning

Part B: Sealion Time Budget

Number of 6 min. observation periods
10 %E. Movement:aggressive 8%
Number of individuals observed 10 % F. Movement:non aggressive 24%
Total minutes of observation
60 % G. Resting 13%
% A. Grooming behavior
29
% B. Observation 16
% C. Making noises 8%
% D. Socially aggressive
2%

Evaluation

piechartAccording to Figure 2 it appears that most of a sealion’s time, in comparison with other behavioral categories identified, is spent grooming (29%). This is followed by non-aggressive movement (24%), and then by observation (16%) and resting (13%). Both at 8% of the observed hour are aggressive movement and making noises. The least part of the sealion’s hour, 2%, was spent in socially aggressive behavior. This data would suggest that at this particular hour of observation, from 12:00pm to 1:00pm, sealions perched on rocks can be said to spend their time at various activities, but that the majority of time is spent grooming, moving non-aggressively (for better resting position), and resting. This behavior can be attributed to the fair weather and amount of sunlight available at this time of the day.This data does not really relate to the energy requirements of the species as the sealions were not observed to be feeding or hunting on or for their food.2 In fact from the data gathered, it might be possible to postulate that the sealions, during that one hour period, did not require much energy at all since they were mostly at rest, and at activities related to their own well being that were not related to hunting or eating. Similarily the data collected also does not shed that much light on the adaptive strategy of the sealion.3 The data collected can be interpreted to say that sealions are adapted to lying and resting on the land, with such motor capabilities and lung capabilities as needed, away from possible predatory sources in the sea.

Several sources of error can be identified in this particular experiment. The first and perhaps most important is the failure of the group to return to Race Rocks at a similar time of day, during the same part of the year, to do another hour of observation of the sealions. This data would have been very beneficial in the compilation of both the time budget and the ethogram and would have made our observations more accurate. The observations, had they been taken during two different intervals, should be made at relatively the same time of day and year to keep the results as accurate as possible, as to relate what that species is doing at that particular point in time, during that time of day.

The sealions observed by the group were of different species. This fact is very interesting. Our observations can then be said to represent the behavior of “sealions” in general, but is not very species specific. To be entirely accurate and precise only one of the species should have been observed for the hour. In that manner our observations could be said to accurately depict the behavior of such and such species at such and such time in the day.

The groups method of recording data is judged to have been fairly good. In a group of two, the 6 min periods of time were alternated between us, and the one partner who was not looking through the field glasses at the subject was recording and timing the observations of the other. This proved to be a fairly efficient and effective manner of recording data. A source of error could be attributed to the amount of time taken for the next observer to pick up the field glasses and locate the new subject of observation. To improve upon this it is suggested that only one person take the observations the entire hour, and the other partner record everything observed. This would eliminate the time gap, but it wouldn’t be very much fun .

The distance at which our observations were taken did not allow the group to identify between the males and females of both species. This is unfortunate and would have added to our data. If we were able to the group should have pre-determined that half of the hour would be given to females of the species, and half of the hour to males. This would have allowed for more accurate and impartial data. The fact that the group was unable to determine the sex of the sealions also gives rise to the question, what other details did we miss out on because of the distance of our observations? If possible, the observations should have been made at a distance where important details could be observed, but the observers would have to keep in mind that they should disturb the natural environment as little as possible. As it was, our distance did not allow for disturbance of the sealions or their environment.

The temperature, wind direction, water temperature, and other related physical statistics about the area of observation were not noted down at the time of observation. The absence of this data is of particular importance when analyzing the reason for the behavior of the sealions being what it is, and why so much time was spent on a particular activity. For instance, I have postulated above that the sealions spent so much time grooming, resting, and moving to get into a better resting position, because the weather was so fair and sunlight in abundance. More accurate observations of temperature and the weather would have assisted in this analysis.

Our group’s method of observing a group of sealions at a particular physical location, with 6 min on each individual, is judged to have been a fairly good one. Our group moved from the individuals in the left of the group to the individuals to the right of the group, one sealion after another, spending 6 min of observation time on each individual. This resulted in impartiality and our data being a representation of the entire group of sealions at that particular hour. The data collected can only be said to represent the behavior at that particular location though:what about those sealions in the water, what are they doing? As this data was not gathered, our observations cannot be said to truly depict an hour in the life of a sealion, only an hour in the life of those sealions that were resting on that rock at that time.

As for the compilation of the data collected, the most objective descriptions can be said to be the sub-points in the categories A through G. The categories themselves, the category titles, and the grouping of the sub-points into their respective categories, can be said to be more subjective. My ability to judge what behavior belongs in which category, for example in the grooming category, which includes both elements of observation and the subject licking itself, I established that grooming behavior appeared to include periods of looking up from one’s grooming and observing one’s surroundings. This is my own personal interpretation, and while it may not be correct, is what I correlate with what I have observed. This makes such categories subjective in manner. Others may not necessarily categorize what I may categorize as a certain behavior the same way. As well my personal method of making an ethogram is quite interesting. I have clearly identified seven behavioral categories that include specific behavioral actions. These are my interpretations of what my group observed. In this way the ethogram itself can be said to be subjective.

Overall the laboratory, and results obtained, are judged to have been adequate for the aim proposed.

Resources“Race Rocks Website https://www.racerocks.ca accessed September 21, 2000

Appendix A,

Ethology Laboratory“, prepared by Matt Rise

“Sealion Field guide”, http://www.lifestories.com/Spring99/field-guide/seal-field-guide.htm, accessed September 21, 2000

1. sentence adapted from Introduction in “Ethology Laboratory” handout

2. referring to question 7 in “Ethology Laboratory” handout

3. referring to question 8 in “Ethology Laboratory” handout