Race Islands Showing proposed site for a Light House, on the Great Race Rock [cartographic material].

Race Islands Showing proposed site for a Light House, on the Great Race Rock [cartographic material].

From:https://voyager.library.uvic.ca/vwebv/holdingsInfo?bibId=988421

  • Title:Race Islands Showing proposed site for a Light House, on the Great Race Rock [cartographic material].
  • Publication Statement:[Dublin, Ireland] : [Irish Academic Press], [1976]
    • Location:Maps and GIS – map drawers
    • Call Number:G3512 R3 1859 R3 1976     Text me this call number.
    • Status:In Library
  • Subjects:Lighthouses–British Columbia–Race Rocks–Maps.
    Race Rocks (B.C.)–Maps.
  • Genre:Maps.
  • Other Author(s):Arrowsmith, John, 1790-1873.
    Irish Academic Press.
  • Description:Scale [ca. 1:18,745].
    1 map : color ; 18 x 30 cm
  • Notes:Depths shown by soundings.
    Facsimile.
    Publisher’s no. from its catalog of nineteenth century maps of Canada and North America from the British Parliamentary papers: 8.
  • Original Version Note:Original version: [London] : John Arrowsmith, Litho., 1859.

Race Rocks National Marine Park A Preliminary Proposal: 1976

Ed Note : This document was scanned from the original using an OCR so that some of the scientific names may be incorrectly indicated also the images have not been included. The links provided are to the geographic locations which are linked to the Metchosin Coastal website
Race Rocks National Marine Park
A Preliminary Proposal
Indian and Northern Affairs, Parks Canada
(Affaires Indiennes et du Nord;Parcs Canada)

NATIONAL PARKS DOCUMENTATION CENTRE
D. Hardie and C. Mondor .
Marine Themes Section
Parks System Planning Division
National Parks Branch
February 1976
Document No. 10 726R1

Contents

Introduction i
1. Regional Context 1
2. Natural Systems and Dimensions of the Proposed Race Rocks National Marine Park 7
3. Park Site Resource Analysis 37
4. Park Concept 47
Appendix

Introduction

At the First World Conference on National Parks held in Seattle in 1962, an important resolution was passed that participating countries should establish National Marine Parks.

In response to this resolution and being desirous of protecting outstanding areas and features of Canada’s marine environments as part of the national heritage, the Canadian Cabinet in January 1971 endorsed the National Marine Park concept. In that same year, a Federal Task Force was created to examine federal responsibility and jurisdiction relating to the establishment of a National Marine Park on Canada’s west coast.

Following the completion of this task a second Interdisciplinary Federal-Provincial Task Force Working Group was established in 1972. This Task Force, subsequently selected the marine and coastal area surrounding Race Rocks as one of several sites in the Strait of Georgia and Juan de Fuca Strait warranting further study as a potential National Marine Park.

In 1973, the Province of British Columbia responded favourably to the Race Racks proposal. As a result, a second Federal-Provincial Task Force was established consisting of members of the British Columbia Parks and Recreation Branch and the Parks System Planning Division of the National Parks Branch.

The Task Force was given the responsibility of developing a proposal for establishing the Race Rocks area as a National Marine Park.

As the industrial base in the Strait of Georgia – Puget Sound region continues to expand with increased population growth, the need to preserve parts or sections of the coastal and marine environs for recreation and ecosystem conservation has become an ever increasing requirement. It is within this context that the Race Rocks National Marine Park has been conceived and ultimately planned.

1. Regional Context
Geographical Setting
The proposed Park is located in the southwest portion of the Strait of Georgia – Puget Sound Lowland, an area which commands six percent of the combined area of British Columbia and Washington State and two thirds of their combined populations. Victoria and vicinity with a population of two hundred and fifty thousand is the largest urban centre in proximity to the proposed Park. All of the major urban centres on Vancouver Island as well as the cities of Vancouver, Tacoma and Seattle Washington are located within a radius of one hundred air miles. These centres have a combined population of over four million.

Proposed Park Boundaries
The proposed Park consists of approximately twenty square miles of surface water and offshore lands defined on the west by Sooke Peninsula in a straight line from Beechey Head to Rosedale Rock and on the east by a line extending from Rosedale Rock to Fisgard Light. The Park fronts on the regional land districts of Sooke, Metchosin and Esquimalt and encompasses some thirty-six miles of rugged shoreline, much of which remains in a relatively undisturbed state. The proposed shoreland component includes portions of Rocky Point, Albert Head Peninsula and Aldridge Point and totals some two and one half square miles (see map 1).

Regional System of Parks
In the Strait of Georgia – Puget Sound Lowland there are over two hundred recognized parks and recreation areas. Over sixty of these parks are located in coastal areas and provide facilities for water-based recreation activities. A system of Ecological Reserves, bird sanctuaries and Outstanding Natural Areas (U.S. designation) have been established to preserve outstanding natural ecosystems in the region.

coastmap

Click to enlarge

The Park, lying west of Victoria commands easy access by road and water. Two major road networks provide access to existing shoreland areas, beach and marina facilities. A semi-integrated system of national, provincial and regional parks is found in the immediate backshore area adjacent to the proposed Park. Several single family sub-divisions and country estates are scattered throughout the shoreland while gravel pit and private recreation facilities are examples of commercial and industrial developments.

The visitor service facilities in the shoreland areas adjacent to the Park and surrounding region provide basic services such as: research centres, stores, motels, gas stations, dive shops, hospitals, museums, universities, and charter boat services.

Marine Setting
The Park is located in the transition zone between the Vancouver Island Inland Sea and the Pacific West Coast Marine Region. These two regions are part of a much larger oceanic system, namely the Pacific Coastal Domain, a temperate faunistic province extending from the middle of Baja California into the Bering Sea.

Tides and currents of varying velocities and direction control the exchange of waters as well as the chemical and physical properties of the water column in the Park and in Juan de Fuca Strait in general. The oceanographic phenomenon associated with this transition zone are responsible for the development of an outstanding marine environment with varied and abundant intertidal and subtidal community assemblages

A variety of erosional and depositional phenomenon characterize the coastal zone. The coastal geomorphology is controlled by the structural geology and the various facets of erosion and deposition common to the land-sea interface. The relatively undisturbed rugged volcanic coastline with secluded beaches, headlands, marshes, steep sandcliffs and offshore islands, offers a striking contrast to the more industrialized coastline surrounding Victoria to the east.

A rich coastal and natural marine history combined with a congenial climate makes the Race Rocks area an excellent setting for Canada’s first National Marine Park.

2. Natural Systems and Dimensions of the Proposed Race Rocks National Marine Park

2.1 Natural Resources

2.1.1 Climate

The climate of the Park is influenced by the surrounding coastal mountain systems and to some extent by the drift of the warm Japanese Kuroshio Current. Three climatic zones are recognized in the Park and are described below.

Cool Mediterranean Climate
Located in the rainshadow of Washington State’s Olympic Mountains and the Insular Mountains of southern Vancouver Island, the eastern portion of the Park is dominated by a characteristically cool Mediterranean climate. Summers are cool and dry, often to the point of drought; winters are wet and it is rarely very cold. The shoreland areas assume a parkland character and are dotted with groves of Arbutus and Garry Oak – tree species characteristic of regions without harsh climatic extremes. This climate, rare to the Canadian landscape gives way to a more transitional climate westward along the coast.

Transitional Climate
West of Race Rocks, summers are cooler while winters, being subject to the stormy influence of the more open Strait, are cooler and wetter than areas to the east. Fog is prevalent along the coast from Race Rocks to Beechey Head during the fall and winter. An annual average of fifteen annual fogs occur between August and October.

Maritime Climate The maritime climate common more so to the coastal regions north of the Park occasionally intrudes southward into the Becher Bay and Rocky Point regions. This system brings with it cool, wet and foggy weather primarily during the fall, winter and spring seasons.

Park Climate The coastal zone of the Park experiences less than 15 inches of snow per year and much of this melts soon after reaching -the ground. The southeasterly and southwesterly gales which blow frequently in the fall and winter months subject the Park to stormy weather. The combination of the rugged shoreline and strong wave action creates a magnificent setting to experience the ferocity of Pacific storms. The climatic phenomenon of the Park from one area to another and throughout the seasons is perhaps the most exciting yet restrictive aspect of the area,

It is not uncommon to experience on any one day a bright sunny day in the eastern portion of the Park and a dense, cool and damp flog in the western part, particularly west oil Race Rocks.

This chart illustrates the seasonal and spatial climatic variations for the Park area and Victoria.

  Precipitation Mean Annual (in inches) Temperature Mean Daily (Max. Summer) (¡F) Temperature (Mean Annual) (¡F)
Becher Bay 39.57 67 49.2
William Head 35.67 67 48.7
Esquimalt 31.09 67 50.0
Victoria 25.87 66 50.1


Much of the coastal lowland region from William Head to Victoria can expect a mean of 2,200 hours of bright sunshine – the highest of all Canadian stations outside of the southern prairies.

The more unsettled weather of the western section of the Park will periodically limit activities somewhat especially during the fall and winter months.

Nevertheless, the long days with abundant sunshine and dry weather conditions offer unlimited possibilities for the pursuit of recreational, scientific and interpretive activities during the summer months.

2.1.2 Geology and Geomorphologic Processes of the Coastal Zone- (Geology of Race Rocks)

In the coastal zone of the proposed Park are some of the most interesting geological and geomorphological features to be found on southern Vancouver Island. These include features of both original parent material and landforms that have been formed since the last ice age.

Two basic geologic formations, namely the Vancouver Formation of the Lower Mesozoic and the Metchosin Formation of the Upper Eocene dominate the land-sea interface. Glacial drift deposits of considerable depth dominate the shoreland in the eastern portion of the Park. Other glacial features such as: glacial grooves, abrasion and striation marks, record two epochs of glacial occupation and two corresponding epochs of glacial retreat.

The proposed Park and adjacent shoreland can be divide into three broad geologic and geomorphologic units as follows:

1. INNER COAST – ROYAL ROADS BAY AND PARRY BAY
The intertidal and subtidal environs in this coastal unit are characterized by gradually sloping sand, silt and mud flats to an average depth of 30 fathoms. In the intertidal area, sand and gravel beaches and mud flats are exposed at low tides.

The immediate subtidal area is covered with a diverse mixture of sands, silts and muds. Areas of exposed and partially exposed bedrock are interspersed throughout the shoreland, the intertidal and subtidal areas.

Glacial drift deposits its formed along the shore from Parry Bay to Royal Roads have been retrograded to form steep seacliffs up to one hundred feet in height. Much of the eroded sands and gravels from the cliffs have been carried eastward by longshore currents to form spits, baymouth bars, beaches, tidal flats and other coastal geomorphologic features at Witty’s Lagoon, Albert Head and Esquimalt Lagoon.

At Albert Head, basalts of the Metchosin formation occur as pillow lavas. It is believed these deposits were either erupted beneath the ocean floor or flowed from the sides of ancient volcanic islands into the sea.

At Albert Head and William Head, boulder beaches, gravel beaches, subtidal bedrock with smooth vertical faces, and bottom sediments of sands, muds and clays are characteristic.

A Generalized Profile of Royal Roads Bay and Parry Bay – Inner Coast.
(Not to scale)

2. EAST ROCKY POINT RACE ROCK SHOALS

Interspersed with islands, this area is the most variable geomorphologic unit in the Park. The area incorporates diverse shore features, such as: talus slopes, abrasion platforms, shingle beaches, vertical rock faces, sandy coves, boulder beaches and cobble stone coves.

The subtidal area is a series of jagged ledges and channels with undersea talus slopes, current scoured bedrock, reefs, shoals, exposed islets and rocks, undersea ridges and cliffs. In the quieter areas in the lee of, some islands tombolos, spits, caves, and stacks are common. In the subtidal areas, sands, muds, and silts are characteristic to a depth of 45 fathoms.

A Generalized Profile Sketch of West Rocky Point Beecher Bay Basin (Not to scale)

3. WEST ROCKY POINT – BECHER BAY

The coastal zone of the west Rocky Point – Becher Bay is characterized by rather broad shallow bays between equally broad and irregular headlands with offshore islands and rock outcrops. This shoreline is cut largely in Metchosin Volcanics and Sooke Intrusive rocks and presents all the irregularities of a depressed, glaciated rock surface with added features such as: undersea caves, stacks, islets, coves and wave chasms all which were produced by the more successful attack of the waves on sheer zones, joints and dykes.

In Becher Say, steep basaltic shoreline cliffs and isolated pocket beaches give way to a subtidal environment characterized by shoals, exposed undersea basaltic ledges, ridges, reefs, shallows and islets.

A progressively steepening bottom to over seventy fathoms (420 feet) occurs to the outer portions of the Bay. The deeper portions of the basin are covered with vast deposits of sands, silts and muds.
The shoreland and subtidal geology and geomorphology contain great potential as an interpretive feature of the Park. The purely scenic experience of the Park visitor will take on an added dimension if he becomes aware of the geological phenomena which have altered and shaped the coastal zone of the Park.

a) Sandcliffs of superficial glacial deposits at Witty’s Lagoon
b) Pillow lavas at Albert Head
c) Sooke formation at Aldridge Point

Generalized Profile Sketch of East Rocky Point – Race Rocks Shoals. (Not to scale)

2.1.3 Oceanography

The important oceanographic features which will have a bearing on the conservation and use aspects of the Park are tides, currents, wave action, water temperature and underwater visibility.

The surface waters in the Park consist of a mixture of warm brackish Georgia Strait water and cold, saline ocean water which is relatively rich in nutrients. The tides, a dominant factor controlling the type and distribution of intertidal life forms, are of the mixed, mainly diurnal type. The lower low tides occur in the daylight hours during spring and summer (March to August) and during the evening in the fall and winter. The mean tidal range in the eastern portion of the Park is 5.7 feet. In Becher Bay tides approximate 6.1 feet while during large tides the range may reach 9.9 feet.

Tidal action in combination with shoreline configuration creates weak to strong currents along the shoreline proper and between offshore islands and islets. These currents achieve speeds of 2 to 7 knots and change direction according to tide, wave and wind direction. The strong currents west of William Head to Beechey Head represent a hazard to the. diving community.

The indented character of the shoreline, offshore islands, shoals, the fetch distance across Juan de Fuca Strait and the direction of storm winds affect the character and size of waves. Wave action is more pronounced in the western portion of the Park due to the exposure to the outer portion of Juan de Fuca Strait. In the eastern portion of the Park, southeasterly gales produce smaller swells (8 feet to 12 feet) due to the limited fetch across the Strait.

Rip tide at Race Rocks

The variability in undersea topography results in waves being reflected, diffracted, and refracted in irregular patterns. This factor combined with abrupt wind and current changes can result in hazardous inshore water conditions.

Water temperature in the Park is everywhere greater than 7¡C with no distinct thermocline occurring. Mean surface temperatures are 7¡C to 8¡C in January, rising to 10¡C to 11¡C in August and September. In summer, the water is slightly cooler during flood than during the ebb tidal phase. Tidal flushing and turbulent currents reduce vertical layering of water masses. Surface salinity values in the Park average 31 0/00 throughout the year and are characteristic of the waters in Juan de Fuca Strait. Water clarity in the Park is a seasonally dependent phenomena, being largely determined by the phytoplankton content of the water. In winter, low phytoplankton populations result in good underwater visibility (sometimes greater than 50 feet) except after storms. In summer the situation reverses. There is no significant turbidity due to freshwater run-off in the Park area.

Diver exploring the underwater communities at Race Rocks

Fair weather diving and water activities occur during July through September when water temperatures are high. The lack of winter ice in the Strait allows for year round diving and boating in certain areas of the Park. Strong currents restrict diving in some areas to specific times of day throughout the various seasons of the year.

2.1.4 Marine life of the Intertidal and Subtidal Zone

The Pacific Coast

The rich variety and abundance of seashore life of the Pacific coast is due in large measure to the nutrient rich waters, relatively uniform seasonal range of temperature and freedom from winter icing. Approximately three times as many of the fauna of most major crustacean groups are found here as at equivalent latitudes on the Atlantic coast.

Echinoderm fauna is perhaps the richest in the world while sea moss fauna is abundant and diverse although not yet completely documented.

As on the Atlantic coast, the invertebrate fauna of the Pacific coast contains two main elements: a sub-arctic group and a larger Pacific boreal assemblage. A small number of warm-water species, native to places south of Point Conception, California, or elsewhere in the world, are isolated in the summer-warm surface waters of the Strait of Georgia. Practically all phyla of invertebrate animals known to frequent the Pacific sea-shore are found in and around the Park.
I
Southern Vancouver Island – Juan de Fuca Strait

In the area of Canada’s Pacific coast, the northern portion of the transitional zone between the California and Aleutian Faunal Regions overlap resulting in an immensely diverse marine fauna.

Park Marine Life

Marine flora and fauna species of the partially exposed southwest coast of Vancouver Island gradually merge here with the species of the exposed (heavy wave action) west coast of the island. Species entering Juan de Fuca Strait from the more open Pacific extend their range to the semi-exposed coast in the western portion of the Park but gradually disappear as they enter the more sheltered environs eastward to Victoria.

This transition in association with high current velocities and rich food supply results in a concentration of echinoderms, crustaceans, mollusks, coelenterates and plants in higher population densities than occurs elsewhere in the region. Some species, usually rare, in terms of distribution and abundance may be found in the proposed Park area in surprising numbers.

Representative Species

Intertidal Communities:

The intertidal species of macroflora and macrofauna are characteristic of the southwest coast of Vancouver Island. The intertidal flora and fauna are diverse and abundant in most situations becoming somewhat less diverse, but no less abundant in areas subject to continuous heavy wave action. The intertidal areas in the Park are very usual of northern cold-temperate regions – a strong representation of barnacles, mussels, Fucus and laminarians, arranged in a typical manner.

The barnacles Balanus glandula, B. carious, the mussel Mytilus Californianus, the snails Littorina sps. and the limpets Acmaea sps. are frequent in the upper intertidal zones at Albert Head, Rocky Point and Becher Bay. An unusual number of the gregarious anemone Anthopleura elegantissima, the large white anemone Metridium senile and the colourful anemone Epiactus prolifera dominate the lower intertidal and upper infralittoral rocks in the more exposed areas of the Park – especially where “cryptic habitats” are dominant.

Here also, is a marked abundance of a variety of echinoderm fauna, several of which are of a truly remarkable size. Conspicuous species of the infralittoral fringe and zone are the very large sunflower star Pycnopodia helianthoides, the common starfish Pisaster orchraceus., and Pisaster brevispinus.

Splendid echinoids include the green sea urchin, the large purple urchin Strongylocentrotus purpuratus and the reddish cucumber Cucumaria miniata.

Fucus and laminarians are abundant, some gradually disappearing in the more protected eastern portions of the Park. Among the seaweeds, Nereocystis exceeds thirty feet in length; Egregia, Cystoseira, and Alaria exceed ten feet; and there are smaller algae, the colonies which attain sizes up to six feet, including species Ulva, Iridaea heterocarpa, Egregia menziesii, and Zostera marina to name but a few.

In the eastern portion of the Park, salt marsh, lagoon and tide flats are conspicuous habitats. The marine macroflora and macrofauna assemblages are very different, with the macrofauna being less conspicuous to the observer than those associated with the rocky shores described above. Here, the clams Clinocardium nuttallii, Saxidomus gigantus and Protothaca staminea, and Acmaea digitatis are numerous on the tidal flats and among the rocks in the intertidal areas around Albert Head and Witty’s Lagoon.

The green sponge Halichondria, the red encrusting sponge Ophlitaspongia pennata and the coralline algae Lithophyllum sp. and Bossiella sp., are frequent in the infralittoral zone. The six-rayed starfish Leptasterias hexactis. the shore crab Hemigrapsus nudus, the kelp crab Pugettia producta and Cancer magister inhabit the intertidal rocks. Recognizable among marine worms are the sabellid worm, Eudistylia vancouveri the colonial Eudistylia polymorpha and the free swimming Nereis vexillosa.

Subtidal Communities:

The subtidal macroflora and macrofauna are constant and uniform in areas subject to moderate to weak currents. In areas of high-velocity currents (primarily Race Rocks)-a unique biotic community is found. The unusual feature is not only the appearance of species not found elsewhere (Gersemia sp., Gorgonocephalus sp.) but also the unusual abundance of some ubiquitous species Corallina sp. and Epiactis prolifera. Here also, Balanus cariosus achieves a prickly texture and Balanus nubilis excessive sizes (up to 4 inches). The rare occurrence of disjunct echinoderm species such as the seastar, Ceremaster articus, numerous specimens of the solitary coral Balanophyllia elegans, the abalone Haliotis kamtschatkana., the crab Crytolithoides sp., and at least one species of anemone as yet unidentified attests to the unusual character of the subtidal communities of the rocky shore environs particularly in the transition zone of the Park.

Critical Habitats:

The degree to which important life stages or entire life histories of species are dependent on an area is an important aspect to consider in the designation of any National Marine Park*. The marsh, lagoon and offshore marine habitats in the Park function as underwater nurseries and feeding areas for the larval and mature stages of many fishes, echinoderms, coelenterates, crustaceans, mollusks, and other creatures. Conservation and protection of key habitats such as: lagoons, marshes, and high current velocity habitats in the Park and in the surrounding region will be a critical factor in maintaining healthy marine community assemblages.

Schematic Profile of Subtidal Macroflora and Macrofauna at Race Rocks

Naturalness:

The naturalness of a habitat relates to the degree of perturbation by man. Ray has noted that care should be taken that naturalness not exclude man’s use**. Although the Park lies close to Victoria, lack of public access to much of the shoreline areas has resulted in the development of a perfectly characteristic marine environment.

This abbreviated description of the invertebrate marine life scarcely does justice to the immensely abundant, diverse and dynamic community assemblages found throughout the Park. Some species are common and beautiful while others are rare and fragile.

The protection and conservation of this spectacular array of marine life existing in a relatively unmolested and pollution free environment will be a paramount objective of the overall planning and development of the Park.

* Ray. G.C. Critical Marine Habitats., May 1975.

** Ibid.

a) Hermissenda crassicornis at Race Rocks
b) Ceremaster arcticus at Race Rocks
c) Cancer Magister at Witty’s Lagoon
d) Weed-covered rocks surrounding tide pool at Fraser Island
e) Mopalia muscosa at west Bedford Island
f ) Pisaster ochraceus at Aldridge Point
g) Epiactus prolifera at Race Rocks
h) Metridium senile at Swordfish Island
i)Hydro coral Allopora pacifica at Race Rocks
j) Aglaophenia sp. and Abietinaria sp.at Great Race Rock
k) Triopha carpenteri at Bentinck Island
l) Strongylocentrotus franciscanus, Epiactus prolifera, Balanophyllia elegans and Allopora pacifica at Race Rocks
 

2.1.5 Marine Fishes

The living habits and adaptations of many fishes in the proposed Park are remarkable. There are only a few species of Pacific coast fishes of the temperate latitudes that cannot be found in the Park. There are at this time no known rare or endangered species occurring in the Park. In addition, the currents passing in and out of the Park provide passive transport for migrating species. The mixed waters of Juan de Fuca Strait support abundant plankton growth which in turn supports a wide variety of pelagic fishes.


Representative Species:

Principle species common to Juan de Fuca Strait can be found in the Park. Fishes most likely to be seen by the park visitor who visits the sea beach or spends some time on coastal Park waters include: the dogfish Squalus acanthias, the lingcod Ophiodon elongatus, the black rockfish Sebastes melanops and greenling Hexagrammos lagocephalus.

In the intertidal areas numerous species of Sculpin, particularly the tide pool sculpin Oligogattus maculosus, and snailfish Liparis florae, are common in the rocky shore tide pools. Several species of Gobies can be found in great numbers in the muddy tide pools.

Migrants:

The Park is known to be frequented by many migrant fish species during annual migrations through the Juan de Fuca Strait. The coho salmon, Oncorhynchus kisutch, and chinook salmon, 0. tshawytscha are two major migrants. These are accompanied by other salmonids and schooling fishes such as the anchovy, herring, sole, and variety of other ground fish.

Critical Habitats:

The extensive eelgrass and kelp beds of the coastal marshes, lagoons, bays and passages, function to some degree as nursery and rearing areas for the larval and maturing stages of many marine fishes found in the Park and surrounding regions.

a) Greenling Hexagrammos lagocephalus at Pedder Bay
b) Rockfish Sebastodes caurinus at Whirl Bay
C) Grunt sculpin Rhamphocottus Richardsoni with the sea cucumber Parastichopus californicus in background at Albert Head
Shellfish:

Crabs and shellfish, particularly the Dungeness crab Cancer magister, and butterclam Saxidomus giganteus and other bivalve mollusks, are common in the shallow bays and tide flats in the eastern portion of the Park. Scuba diving for abalone and rock scallops and digging for clams is common. Populations of these species are relatively still abundant in many areas of the Park.

Fishing:

No commercial fishing for salmon occurs in the Park. However, herring is fished on a commercial bases during designated seasons from Albert Head to Race Rocks just inside the Park boundary. Sports fishing for salmon is a major activity in the Park.

2.1.6 Shoreland and Marine Bird Life

The shoreland and marine areas of the Park abound with bird life. The birds frequenting the Park can be classified as abundant year round residents, common or uncommon migrants, winter visitors or accidentals. Bird populations are most conspicuous during the spring and fall months. The variety of habitats, availability of food and the relatively undisturbed nature of the shoreland and marine environment are partially responsible for attracting the large numbers of sea’brds, song-birds, shorebirds and waterfowl to the Park. ”

Representative Groups

Seabirds and Waterfowl:

The Park is frequented by a variety of seabirds from the Diving, Dabbling Duck, Totipalmates, Tubenosed Swimmer, and Alcids families. Year round residents include the pelagic cormorant Phalacrocorax pelagicus, the pigeon guillemot Cephus columbia, the common murre Uria aalge, the glaucous-winged gull Larus glaucescens and the black oystercatcher Haematophus bachman. Common migrants of the Pacific flyway frequenting the Park are the Brandt cormorant Phalacrocorax penicillatus, the black brant Brant nigricans, Bonaparte’s gull Larus philadephia and the mute swan Cygnus olor.

Some common winter visitors include: the bufflehead Bucephaca albeola, the white-winged scoter Melanitta degandi, the oldsquaw duck Clangula hyemalis, and the ancient murrelet Synthliborampthus antiquus.

Rare Occurrences Uncommon visitors such as the rhinoceros auklet Cerorhinca monocerata., Cassin’s auklet Ptychoramphus aleuticus. the ring-billed gull Larus delawarensis and the black-footed albatross, Diomedea nigripes are sighted on occasion. Rare occurrences such as that of the white-fronted goose Anser albifrons. the whistling swan Olor columbianus and the Pacific kittiwake, add to the orthinological significance of the Park. Many of these birds frequent the Park in response to the availability of food and protection from exceptionally bad weather.

Shorebirds:

The occurrence of marshes, lagoons, tide flats and offshore island habitats, attract and support a wide variety of shorebirds and waterfowl.

Concentrations of shorebirds representing over ten species occur in attractive feeding areas where mudflats are exposed at low tide. Common visitors include the spotted sandpiper Actitis macularia, the rock sandpiper Erolia ptilocnemis, the black-bellied plover Squatarola squatarola and the greater yellow legs Totanus melanoleucus.

Song-Birds and Birds of Prey:

Shoreland areas support a variety of song-birds, birds of prey and chicken like birds such as the blue grouse Denoragapus obscurus and the mountain quail Oreortyx pictus. Rarer song-birds include the Oregon junco Junco oreganus, MacGillivary’s warbler Oporornis tolmiei. The osprey Pandion haliaetus and the bald eagle Haliaeetus leucocephalus are the most conspicuous birds of prey.

a) Pelagic cormorants nesting at Race Rocks
b) Bald eagle at Christopher Point
c) Mute swan on Blue Lagoon
d) oystercatcher at Rocky Point

Critical Habitats:

As is true for nearly all natural situations close to a technological society, the Park is threatened with the possibility of man-made environmental perturbations which may alter the structure, stability, or the very existence of one or more of the biological communities present. The increased pressure being exerted on key feeding, resting and roosting areas in the Park and region by recreation and other marine activities poses a threat to the bird communities of the Park.

Preservation of vital shoreland and marine habitats (for example, Witty’s and Esquimalt Lagoons, Race Rocks and Bentinck Island and offshore Islands in Becher Bay) will assure, to a certain degree, continued abundance and diversity of Pacific coast birdlife in the Park and surrounding regions.

2.1.7 Mammals

Marine mammals have always been a strong attraction for visitors to the seacoasts of Canada. As a consequence, areas known to be frequently or seasonally used by these animals become particularly important in providing for typical or unique samples of marine mammal habitat.

Many of the marine mammals, although seasonal in their visitation, are perhaps the Most spectacular and readily visible components in the Park – each possessing a distinctive adaptability to the marine environment.

Due to the isolation of Vancouver Island from mainland British Columbia many of the more common shoreland animals have developed as distinctive subspecies.

Marine Mammals:
A number of cetaceans and pinnipeds known to occur in British Columbia waters frequent the Park. The most common of these are the harbour seal Phoca vitulina, the northern sea lion Eumetupias jubatus, the California sea lion Zalophus californianus, and the harbour porpoise Phocaena vomerina.

Rare Occurrences:

Less frequent visitors to the park include: the killer whale Orcimus orca., the northern fur-seal Callorhinus ursinus cynocephalus, the blue whale Balenoptera musulus, the minke whale Balaenoptera acutorostrata, the dall porpoise Phocoenoides dalli, and the Pacific striped dolphin Aagenorhynchus obliquides. Occasionally, the northern elephant seal Mirounga angustirostris is sighted at Race Rocks.

Shoreland Animals:

Many mammals common to the Coastal Forest and Gulf Islands Biotic Regions can be found in the shoreland areas bordering the Park. Here many species of shoreland mammals occur as distinctive subspecies in shoreland and upland areas adjacent to the Park. The Columbian blacktail deer Odocoileus hemionus, columbianus., the longtailed vole Microtus longicaudus, and several insular subspecies, the shrews Sorox cinereus striatori, and Sorex vagrans setosus, and the martin Martes americana caurina are noteworthy. The White-footed mouse Peromyscus maniculatus angustus, and Townsend vole Microtus townsend tetramerus are more numerous here than elsewhere on the island.

The river otter Lutra canadensis, the mink Mustela vison energumenos, the short-tailed weasel Mustela erainea anquinae and the racoon Procyon lotor vancouverensis are frequently seen along the shoreland areas. Larger preditors such as the cougar Felis concolor vancouverensis and the American black bear Ursus americanus vancouveri, are known to sometimes frequent the shoreland areas of Rocky Point and Becher Bay.

Critical Habitats and Species Protection The establishment of a Park in the region affords the opportunity to preserve vital habitats critical to the continuation of many shoreland subspecies of animals uncommon to other parts of Vancouver Island and mainland British Columbia. Also, it presents the opportunity to preserve critical feeding, resting, and pupping areas for many coastal pinnipeds and cetaceans, particularly the killer whale, which is still frequently captured in the Pedder Bay area on its migrations through the proposed Park area.

2.1.8 Shoreland Biota

The many years of logging and agricultural occupation of the land as well as the varied soils, irregular te~rain and transitional climate have had a marked effect on the type and distribution of vegetation from the coastal lowlands to the forested uplands adjacent to the Park.

Representative Flora:

Two major forest regions, namely the Coastal Forest and Gulf Islands find representation in adjacent shoreland areas. Three distinct forest communities have been identified in the shoreland areas adjacent to the Park. These are the Douglas-fir dry forest, the Douglas-fir wet forest, and the Western hemlock dry forest.

Dry Douglas-Fir

The dry Douglas-fir forest, covers the shoreland from Esquimalt Lagoon to Becher Bay. The forest cover ranges in character from dry, open woodlands to closed-canopy forests of western red cedar and grand fir.

The Garry oak, Quercus garryana., and arbutus, Arbutus menziesii, Canada’s only broad leafed evergreen, occur in association in this forest and create a parkland landscape typical of many mediterranean areas. A prominent feature in the parkland areas is the abundance of spring flowering bulbous and herbaceous plants.

Wet Douglas-Fir

The wet Douglas-fir forest is found primarily in the western extremities of the shoreland bordering the Park. There are no species endemic to the forest. Douglasfir is characteristically dominant, while western hemlock occurs as a secondary climax species. Arbutus and Garry’oak occur in small isolated pockets along the shoreline.

Dry Western Hemlock

The dry western hemlock forest occurs only in a small portion of the shoreland bordering the Park at Aldridge Point. The climax vegetation of this forest varies but western hemlock is the major climax dominant. Shrub species indicative of the zone include: the ninebark, Physocarpus capitatue, California rhododendron, Rhododendron macrophyllum, and red-flowering currant, Ribes sanguineum.

Rare Occurrences – Arbutus and Garry Oak

Few areas in British Columbia outside of the Gulf Islands have as good a representation of arbutus Garry oak parkland as the shoreland adjacent to the Park. On Rocky Point extensive stands of undisturbed Garry oak dominate the landscape while small groves of arbutus extend throughout the region in areas below 1000 feet.

The associated plant communities on this southern coast are in their own right a rare and unique heritage of the moderating influences of the ocean and surrounding

topography. Preservation of this special forest area will afford Canadians the opportunity to see and experience a truly unique shoreland landscape.

Arbutus at Aldridge Point
Garry Oak at Royal Roads Bay

2.1.4 Coastal and Marine Biology

2.2 Cultural Resources

2.2.1 Coastal and Maritime History

Prehistorically, the southern portion of Vancouver Island was the territory of the Coastal Salish Indians. The coastal lowlands from Victoria to Sooke were inhabited by the Songhees, Esquimalt and Sooke tribes.

Evidence of Indian habitation along the shoreland areas adjacent to the Park is best exemplified at Becher Bay, Rocky Point and Parry Bay. Petrologist of seals and whales may be seen on the black volcanic rocks in the vicinity of Aldridge Point. Rings and cairns of stones identify a major Indian burial site at Eye Point. Further east at Parry Bay ancient fortifications mark the site of an Indian settlement. This site has been identified as warranting consideration a future Natural Historic Site/Park. Scattered remnants of fishing camps, dumping areas and hunt camps are found throughout the shoreland areas adjacent to the Park. It was from this rugged coast that the various Indian tribes hunted and reaped the rich harvest from the sea.

Exploration of the region dates back to 1592 when the Mexican explorer Juan de Fuca first visited Vancouver Island. Two centuries passed before Juan Perez, Cook, Valdes, Vancouver and others began the era of serious exploration. Mapping, exploration and settlement commenced in earnest during the fur trading period. By 1898 the port of Victoria had grown into the major trading centre of the region.

During the late 1800’s, railroads pushed north and west with the clearing and development of the land. The rail networks continued to expand as new logging and mining areas were opened in the interior of Vancouver Island.

The rapid growth of the fur trade also saw an expansion of shipping activity. A dynamic and complex shipping industry developed between ports of the Pacific northwest and Victoria. By 1900 scores of ships had gone aground or sank on the many shoals and small islands in the Park and surrounding regions.

Maritime History

The age of trans-pacific travel initiated the development of Canada’s first west coast quarantine station on William Head Peninsula. For 40 years plague ridden ships docked and transferred ashore men dying of plague, smallpox and other communicable diseases.

Race Rocks and Fisgard Lights, with their giant limestone blocks, were constructed in 1860 (ed note:corrected from 1860 and 1861). Today, they remain as one of the finest monuments to the history of aids to navigation and to the era of sail and steam on Canada’s Pacific coast. The wrecks of the Swordfish and S.S. Barnard Castle remain as vivid legacies of the many vessels that floundered in storms or were dashed against the jagged shoreline of the Park.

Fishard light at entrance to Esquimalt Harbour

Wreck of the Faultless at Wolf Island

Bentick Island was the first established leper colony on the Pacific coast and it continued to function in this capacity up until the early 1950’s. The population of lepers never exceeded twenty-two. Today thirteen graves stand as a memorial to those who lived and died on the island of the “Living Dead”.

a) Coastal Indian burial site at Edye Point

b) Coastal Indian petroglyph at Aldridge Point

Coastal Military History

With the advent of the Great War a series of coastal defences were constructed to protect the Royal Navy base at Esquimalt Harbour and the entrance to the Strait of Georgia. With the advent of World War II gun batteries were strengthened along the shoreland west of Victoria.

9.2 inch guns were constructed at Christopher Point, Mary Hill, and Albert Head. All posts were fully manned during the war but none fired a single shot in anger. Today, the old rusted gun implacements and flooded labyrinth of tunnels on Albert Head and at Mary Hill stand as silent reminders of the coastal military history of the Park and region.

Coastal History – Review

Shipwrecks, historic lights and gun batteries, Indian burial sites, and an abandoned leper colony, blend with the maritime landscape in making the Park a historical marine resource of truly national significance.

Abandoned gun batteries at Mary Hill

3. Park Site Resource Analysis

3.1 Preliminary Park Site Evaluation

3.1.1 Marine Resource Units

The purpose of the analysis section is to make qualitative statements about the various natural and natural phenomenon that were identified in the resource section and the relationships between them.

Climate, geology, vegetation and soils are the physical parameters employed to assist in the preliminary structuring of shoreland units. The watermass characteristics in combination with benthic community assemblages and marine mammal and bird distribution form the framework for the preliminary selection of the marine resource units.

The particular character of each of these units forms the basis for the development of a park “plan” as well as management guidelines governing preservation and use of the marine and shoreland resources. Areas with significant natural and cultural values (for example, ecologically sensitive areas) were also identified in each of the marine and shoreland units. The significant attributes of these areas are briefly described under each resource unit heading.

The following three marine resource units were identified as follows:of unique values)
1. Protected Inner Coast
2. Transition Coast
3. Semi-Exposed Outer Coast.

Protected Inner Coast

This resource unit is under the influence of a climatic pattern which approximates a winter wet, summer dry, never cold condition. The shoreland is sheltered and experiences pronounced wave action only during southeasterly gales in fall and winter. The following natural phenomenon are characteristic of this resource unit:

Parry Bay and Royal Roads Bay are subject to weak currents; tide range approximates 5.7 feet with low tides occurring during the day in spring and summer (March to August) and during the evening in fall and winter; 10 degC surface water temperature; variable water clarity; mean salinity approximates 31pt/oo yearly; steep glaciated nearshore topography; sediment transport by longshore currents; salt marshes and lagoons; significant geomorphologic features and variable coastline.

Areas with Significant Natural and Cultural Values

Esquimalt and Blue Lagoons

*Saline lagoon ecosystems

*Sand, mud, silt subtidal habitats

*Sandspit and dune ecosystems

*Nursery and rearing area

*Waterfowl and shorebird feeding and breeding area

*Tide flats (high concentration of univalves)

*Sand-gravel beaches

*Shellfish habitat

*High nutrient and detritus production

Albert Head
*Rocky headland (Gulf coast forest representation)
*Basaltic cliffs Metchosin volcanics)
*Undersea and shoreline pillow lavas
*Arbutus – Garry oak stands
*Military structures – marine military history
*Seabird islets
*Kelp forests
*Rocky intertidal and subtidal habitats
*Rocky shore tide pools
*Marine mammals

Witty’s Lagoon

*’Salt water marsh (good example of natural succession) vegetation communities

*Fresh water estuary

*Waterfalls

*Lagoon

*Arbutus – Garry oak stands

*Tide flats

*Surge channel

*Sandspit and beach (sand)

*Aspen parkland

*Sandy beach and subtidal marine life

*Natural nursery area

*Waterfowl and shorebird feeding and roosting area

*Marine mammals (harbour seals)

a Albert Head Peninsula

b Blue Lagoon

c Witty’s Lagoon

d William Head Peninsula

William Head
*Rock headland (scenic view)
‘Arbutus – Garry oak stands
*Deepwater habitats
*Rocky shore habitats
*Pocket beaches
*Protected bays *
*Kelp forest (seasonal)
*Rocky tide pools
‘Rich subtidal marine life
‘Marine mammals (harbour seals and killer whales)
*Contemporary maritime history

Transition Coast

This marine resource unit has a variable climate.pattern with frequent fogs and unsettled weather.The shoreline is exposed and experience’s pronounced wave action and tide surge.

The following natural phenomena are characteristic of this resource unit:

Offshore areas are subject to strong current and tide action; tide range approximates 6.1 feet ‘
but may reach 9.9 feet; tide occurrence similar to inner coast; 7¡C to 9¡C surface water temperature; water subject to constant mixing; whirlpools common in passages; variable water clarity (seasonal); mean salinity approximates 31 parts /1000 yearly; steep forested shoreline topography; rugged intertidal zone; offshore islands and islets occur throughout the resource unit.

Areas With Significant Natural and Cultural Values

Bentinck Island and Eemdyk Passage

*Strong ocean currents

*Protected bays

*Shoals and reefs

*Shingle beaches

*Steep nearshore topography – good zonation of
intertidal habitats

*Kelp forests (over 30 species of algae)

*Shallow high current velocity subtidal ecosystems

*Rocky shore tide pools’Sea and shorebird habitats

*Marine mammals (killer whale, harbour seal, otters, mink, sea lions, porpoises and whales (baleen)

*Historic Indian burial site and historic leper colony grave site and buildings

Race Rocks

*Strong ocean currents

*High tides

*Unique subtidal benthos

*Kelp forests (seasonal)

*Shoals and reefs

*seabird feeding and nesting area

*Marine mammal feeding and resting area

*Marine mammals (harbour seals, sea lions, killer whales, elephant seals, and other cetaceans)

*Whirlpools

*Abundant subtidal marine flora and fauna community assemblages

*Historic lighthouse

*Salmon fishery

Semi-Exposed Outer coast

This marine resource unit has a relatively unsettled climate due to,the influence of the outercoast climatic patterns and frequent southwesterly gales. The shoreline is exposed and experiences pronounced and continuous wave swells and tide surge due to the extended fetch across Juan de Fuca Strait.

The following natural phenomena are characteristic of this resource unit:

Nearshore Rocky Point is subject to strong currents and tide surge; tide range is comparable to transition coast; 7 degC surface water temperature; mean salinity approximates 31 pt/00 yearly; variable water clarity; steep to vertical nearshore in Rocky Point area; protected bays and shallows; narrow intertidal zone; cold water upwellings; pocket beaches; and offshore islands, islets, shoals and reefs.

Areas with Significant Natural and Cultural Values
Swordfish – Church Islands

*Strong ocean currents
*Rich subtidal flora and fauna
*Underwater caves and cliffs
*Surge channels
*Steep nearshore topography (vertical intertidal zonation)
*Waterfowl and seabirds
*Kelp forests (seasonal)
*Salmon fishery


Race Rocks and Juan de Fuca Strait

Shallows at Bentinck Island with Eemdyk Passage in background
*Marine mammals (harbour seals, sea,lions, killer whales
and other cetaceans)
*Coastal geomorphological features

*Unique subtidal benthos (dense populations of Metridium senile in seacave)

*Shoals and reefs

Aldridge Point
*Protected bay
*Interesting geologic formations
*Rocky tide pools
*Sand beaches
*Spectacular headland and steep sea cliffs
*Parkland shoreline
*Rocky and sand subtidal habitats
*Garry oak – arbutus
*Western hemlock forest
*Indian petroglyphs
*Salmon fishery

The land-sea interface in the Park exhibits a wide diversity of landforms and marine communities within a relatively confined geographical area. The areas just outlined, are perhaps the most conspicuous and ecologically sensitive sites in the Park. It is in these areas, where the coastal habitats, marine communities and oceanographic phenomenon achieve their greatest expression.

Small bay at Aldridge Point

Church Hill

3.1.2 Shoreland Resource Units

The shoreland of the park is located in the Coastal Forest and Gulf Islands Biotic Regions. Two shoreland resource units were identified as follows:

1. Gulf Coast Forest
2. Coastal Forest.

Gulf Coast Forest

The vegetation of this resource unit ranges in character from dry, open arbutus – Garry oak parkland to closed canopy forests of western red cedar and grand fir in seepage areas.

The Garry oak occurs in extensive, pure groves in dry areas and where the soil is shallow and rock outcrops frequent. Extensive groves are found at Albert Head, Mary Hill and Rocky Point. The arbutus is more often found singly or in small groves along the coast. The arbutus and Garry oak dominate in dry areas and create a parkland character in much of the shoreland east of Mary Hill.

Valley and upland areas which are subject to periodic. Heavy rains are covered with natural stands of western red cedar, grand fir, red alder and big leaf maple while areas closer to the shore are dominated by shore pine. Sitka spruce is occasionally found on low ground.

Snowberry Symphoricarpos mollis, oceanspray Holodiscus discolor, ninebark Physocarpus capitatus, and choke cherry Prunus virginiana, are a few of the shrub and herbs commonly found in this unit.

Coastal Forest

A small portion of the coastal forest resource unit is located in the western portion of the Park. The wet Douglas-fir borders the western portion of Becher Bay and is dominated by Douglas-fir and western red cedar. In shoreland areas western red cedar is the characteristic tree on sites with abundant seepage water and on alluvial soils it is frequently accompanied by black cotton wood, Sitka spruce, grand fir, red alder and bigleaf maple. Garry oak and arbutus occur in isolated groves. Toward Sooke Peninsula the Garry oak gradually disappears and the parkland character is replaced by coastal forest.

The soils of this biotic community are derived from surface tills deposited by the last glaciation, and the soil types belong to the dystric brunisol, humoferric podsol and.regosol groups.

Dry Western Hemlock Forest at Beechey Head

4. Park Concept

4.1 Park Objectives

The philosophy and objectives for the designation and establishment of Race Rocks National Marine Park are outlined in the Preliminary National Marine Park Guidelines (see Appendix 1).


The primary values of Race Rocks National Marine Park are to be found in the diversity of natural and cultural resources which provide highly significant conservation, scientific and outdoor recreation opportunities.

Race Rocks National Marine Park encompasses a marine region which can be developed and managed for public use and enjoyment. To this end, the Park provides Parks Canada with an opportunity to protect and conserve not only representative species of marine benthos, fishes, waterfowl , seabirds, shorebirds, shoreland and marine mammals but also the respective habitats which are vital to the continuation of each respective species.

Intimately associated with these natural marine features are significant outdoor recreation values. The Park provides the opportunity to introduce to the diving and non-diving visitor the images and ecological systems of the marine world. The intent of the Park is not only the protection and conservation of the marine environment but also the presentation of a rich and
varied experience for the park visitor.

The Park resource unit evaluation and Park design concept outlined in the following sections describe how the above objectives can be achieved.

Becher Bay Marina

Witty’s Lagoon Regional Park


4.2 Park Resource Unit Evaluation

The purpose of this preliminary evaluation section is to utilize the data gained from analyzing the resource units and to summarize the important characteristics that would influence planning decisions in terms of natural and cultural constraints, development constraints, and suitability for use in each resource unit. The accompanying chart briefly describes the basic objectives, use potential and concerns envisaged for each marine and shoreland unit.

For the shoreland resource units, attention is directed only to those areas which have been identified as possessing outstanding representative shoreland features and which are considered as being critical to the overall Park development concept. (see Park development concept page 52). The objectives, use potential and concerns as related to the shoreland units is considered within the context of the respective marine resource units.

Table of resource units, goal, objectives, use potential, management considerations.

4.3 Preliminary Park Design Concept

Concept – Land Base
To complement the marine component it is envisioned that a land bas e(s) will function to support a variety of facilities from which the visitor can be introduced to the Park and from which most park activities will originate. The land base(s) will support a main visitor centre and secondary activity areas. The main function of the centres will be visitor services with the key element being interpretation. This will include: information and interpretive services and educational and recreational programming.

The development of the appropriate land base(s) will require cooperation with federal, provincial and regional agencies and conservation organizations to provide resources, facilities, interpretation and protection for visitor use. Various federal agencies administer lands on Rocky Point, Bentinck Island, Race Rocks, William Head, Albert Head and Esquimalt Lagoon. The designation of these lands as recreation and open space areas now, or sometime in the future, will assist in securing the integrity of key shoreland and intertidal areas which are critical to the overall management, preservation, and future development of Race Rocks National Marine Park.

Park Centre Christopher Point is the area on the shoreland bordering the Park which has the physical and visual characteristics required to accommodate a major visitor centre facility. The site is readily accessible by land and sea and offers a panoramic view of the marine component and adjacent shoreland areas. The semi-protected shoreline provides for the development of excellent docking and access facilities. The rugged shoreline with protected beaches, offshore islands, offshore islets, good underwater visibility and abundant marine life provides the opportunity to develop a wide range of centralized shoreland and marine based interpretive facilities.

The main centre would be designed to accommodate park visitors under all weather conditions. The development of a kaleidoscope of interpretive techniques such as specimen, slide and film displays and possibly in the future underwater tower, underwater cameras and so on would expose the park visitor to the natural and cultural marine history themes of the Park.

From the main visitor centre the visitor can actively participate in onsite activities such as surface boat tours to Bentinck Island and Race Rocks, interpretive walks, shoreline hikes to scenic viewpoints such as Church Hill, and underwater observation.

The centre would also function as the focal point for all diving and underwater activities in the Park.

Albert Head Activity Area
A second activity centre on Albert Head would support an interpretive program on a limited scale. Interpretation would utilize outdoor exhibits and shoreland tours to impart to the visitor the coastal maritime and natural history of the inner coast resource unit. Intertidal walks, beach-combing, marine mammal and bird watching, and general enjoyment of the ocean setting and marine life would replace more common beach oriented activities. Facilities for day-use recreation and overnight camping could be made available to provide a reasonable amount of accommodation for campers close to the main park centre at Christopher Point. A scenic parkway and surface boat facilities would link this centre with the centres at Christopher Point and a second activity area at Aldridge Point.

Aldridge Point Activity Area

A second activity centre at Aldridge Point would permit the park visitor physical and visual access to one of the finest seascape vistas on southern Vancouver Island. The rugged shoreline cliffs, pocket beaches, frequent fogs and storms and the semi-wilderness aspects of the surrounding landscape offers an out in contrast to t he seascape of the inner coast. Exploration and interpretation of a variety of coastal habitats and cultural themes will complement minor day-use activities.

Christopher Point

Eastern portion of Albert Head Peninsula

Park Circulation

The two secondary activity centres could be connected on land via the existing road networks or by a more scenic parkway designed to parallel the coast. The proposed parkway would function to integrate not only the Park activity centres but also existing recreation and historic sites which occur in the shoreland adjacent the Park. Water transport between the main visitor centre and secondary activity areas would be facilitated by tour boats and private cruiser.

4.4 Phasing

The following is a general outline of the proposed phases for development of Race Rocks National Marine Park. These phases do not relate specifically to a given time period but are intended to indicate the necessary priorities to achieve logical development of the Park.

*Establish marine Park boundary and define legislative procedures necessary to control development and use of the Park area and surrounding waters.

*Publication of management recommendations.

*Development of safety facilities, equipment and procedures prior to construction of park centre.

*Acquisition via purchase or lease of the three land base sites – Christopher Point, Albert Head and Aldridge Point.

*Acquisition via purchase or lease of park centre access right of way as shown on preliminary park region concept plan.

*Development of park centre access road, proposed park centre. Parking areas, and associated marine facilities – e.g., dock facilities, interpretive facilities (shoreline trails, boats, etc.), underwater structures

*Development of secondary activity areas, first at Albert Head and second at Aldridge Point, and associated camping and interpretive services.

*Development of shoreland scenic parkway and reconstruction of historic sites as shown on preliminary park region concept plan.

*Extension of marine boundary from Beechey Head to Iron Mine Bay.

4.5 Summary

It is the purpose of this report to point out the outstanding coastal and marine natural and cultural resources and use considerations contained within the project area and the potential that exists for a National Marine Park at Race Rocks. The information contained in this report was obtained from published works and on site investigations. There remains much study and research to do in order to more adequately document the complete resource. General intertidal and sublittoral observations clearly indicate that the project area is worthy of National Marine Park status.

The preliminary proposal presented here does not give full consideration to existing established coastal zone uses in the project area. No doubt, these will have important ramifications on any planning that may occur in the region particularly as it relates to the development of the park centre and activity areas, recreation patterns and types of use in the marine component, Control of access to the marine component and park phasing and development.

The establishment and development of Race Rocks National Marine Park should be guided by a number of planning considerations. These will result from an evaluation of the marine capabilities and development potential. This proposal is an initial attempt at identifying and delineating the major resources of the Park as they relate to the cultural and natural characteristics of the region. The proposal also provides a preliminary resource evaluation and attempts to designate areas for the development of visitor facilities in relation to the sensitivity of the resource base.

Future Outlook

The planning process is unending; the preliminary proposal is a primary step. From this basic plan will hopefully come detailed plans which will more fully consider the many aspects of the Park and its development.

Considerations

Given that the resource base is representative of the Strait of Georgia – Juan de Fuca Marine Region, thoughtful deliberation must be directed to the following considerations:

*The feasibility of creating a National Marine Park in the project area in view of existing established shoreland and marine uses.

*The capability of management programs to deal with environmental disruptions such as major oil spills and/or shoreland and water quality deterioration due to urban industrial and commercial growth in surrounding regions.

*The suitability of the project area to provide the full range of underwater opportunities with safety to all participants without causing serious environmental disruption.

*Within the project area and its contiguous lands a number of jurisdictional bodies are represented. Matters relating to jurisdiction must be fully explored by all parties prior to the designation of the area as a park.

*A re-adjustment of the Park boundaries to maximize management controls while reducing resource conflicts is an appropriate consideration at this time..

a) Scuba-diving at Race Rocks
b) Scientists conducting underwater research at Race Rocks
c) Salmon fishing in Pedder Bay d Intertidal explorers at Witty’s Lagoon
e) Boating in Race Passage , Hiking on Rocky Point
f) Hiking on Rocky Point

NATIONAL MARINE PARKS
Definition: National Marine Parks are ocean areas (sea bed and overlying water column) together with associated landunits, established in order to preserve marine areas of the Atlantic, Pacific, and Arctic Oceans that encompass significant marine ecosystems, themes, and features of biological, oceanographical, geological, recreational, aesthetic, historical and scientific interest.

Objectives

National Marine Parks are established to preserve unspoiled marine areas of national significance; to protect and restore marine areas encompassing significan features warranting preservation; to protect and restore individual species of marine life; to provide opportunities for scientific studies, education, and tourism benefits.

Qualifying Criteria


1 In order to be considered as a potential National Marine Park a marine area must encompass one or more of the following attributes:

(a) Unique – a unique marine area is one which encompasses either rare or “one-of-a-kind” habitat types, biotic associations, oceanographic features, or processes, ecological processes, or historically important ancient wrecks.
(b) Representative – an outstanding representative sample area that is typical of a marine region or marine natural history theme(s).
(c) Aesthetic – Underwater landscapes of outstanding scenic and inspirational value.


In addition, a candidate area for a Marine Park should satisfy the following criteria:

(a) Diverse – the candidate marine area should include several habitat types, biotic associations, oceanographic features and processes.
(b) Natural – Marine areas under consideration should be in a relatively undisturbed condition. Loss of naturalness, however, should not mitigate against inclusion so long as a high degree of restoration is possible.
(c) Critical – when possible, the marine area should include habitat types which are essential for either the entire life histories or important life stages (i.e. feeding, resting and breeding) of marine mammals or birds. Obvious cases are areas where rare or endangered species are present.
(d) Usable – the marine area should provide outstanding opportunities for enjoying marine-oriented activities such as SCUBA diving, surfing, or the observation of marine mammals and seabird life.
(e) Accessible – Public access systems to the marine area are desirable but not critical.
(f) Size – The land and water area in a Marine Park should exceed 10 square miles with larger water quality protection zones surrounding the park.

REFERENCES

Introduction

Barker, M.L. Water Resources and Related Land Uses Strait of Georgia – Puget Sound Basin, Geographical paper no. 56, Lands Directorate, Department of Environment, Ottawa, 1974.

Paish, H. and Associates. A Theme Study of the Marine Environment of the Straits Between Vancouver Island and the British Columbia Mainland. Ottawa. November, 1970.

The Interdepartmental Task Force on National Marine Parks, National Marine Parks Straits of Georgia and Juan de Fuca, Ottawa 1971.

2.1.1 CLIMATE

Department of Transport, Meteorological Division, Ottawa Climatic Data for Periods 1941-1970 Vancouver Island.

Forward, C.N. Land Use of the Victoria Area, British Columbia. Geographical Branch, Department of Energy, Mines and Resources. Ottawa, 1961.

Kerr, D.P. “The Summer-dry Climate of Georgia Basin British Columbia”, Transactions of the Royal Canadian Institute, vol. 29, 1951-1952, pp. 23-31.
W

2.1.2 GEOLOGY AND GEOMORPHOLOGIC PROCESSES OF THE COASTAL ZONE

Clapp, C.H. “Geology of Portions of the Sooke and Duncan Map-Areas, Vancouver Island, British Columbia”, Geological Survey, Department of Mines, Sessional Paper Number 26, Ottawa, 1914, pp. 41-54.

Clapp, C.H. and H.C. Cooke. Sooke and Duncan Map-Areas, Vancouver Island, Memoir 96, Geological Survey, Department of Mines, Ottawa, 1917.

Day, J.H. et al. Soil Survey of Southeast Vancouver Island and Gulf Islands British Columbia. Report no. 6 of the British Columbia Soil Survey, Research Branch, Canada Department of Agriculture, 1959.

2.1.3 OCEANOGRAPHY

Dodimead, A.J. et al., “Review of Oceanography of the Subarctic Pacific Region”, Intern. North Pacific Fish. Comm. Bull. 13. 1963.

Doodson, A.T. and H.D. Warburg, Admiralty Manual of Tides, Hydrographic Department, Admiralty, London 1941

Department of Environment, Marine Sciences Directorate, Canadian Tide and Current Tables, 1975. Vol. 5, Ottawa
b6

Herlinveaux, R.H. and H.P. Tully, “Some Oceanographic Features of Juan de Fuca Strait”, J. Fish. Bd. Canada. 16(6). 1961.

Pike, G.C. and I.B. MacAskie, Marine Mammals of British Columbia, Fish. Res. Bd. Can. Bulletin 171, Ottawa. 1968.

2.1.4 MARINE LIFE OF THE INTERTIDAL AND SUBTIDAL ZONE

Dobrocky “Seatech” Limited, The Intertidal and Subtidal Macroflora and Macrofauna in the Proposed Race Rocks Marine Park near Victoria, British Columbia. A Report to the National Parks Branch, Ottawa, May 1975.

Kozloff, E.W. Seashore Life of Puget Sound, the Strait of Georgia and the San Juan Archipelago. J.J. Douglas Ltd., Vancouver, 1973.

Ricketts, E.F. and J. Colvin, Between Pacific Tides, revised by J.W. Hedgpeth, Stanford University Press, Stanford California, 1974.

Stephenson, J.A. and A. Stephenson, “Life Between Tidemarks in North America: IV a Vancouver Island, 4. J. Ecology, vol. 49, (1): 1-29.

Stephenson, J.A. and A. Stephenson, “Life Between Tidemarks on Rocky Shores” W.H. Freeman and Company, San Francico, 197?.

2.1.5 MARINE FISHES

Carl, G.C. Some Common Marine Fishes, British Columbia Provincial Museum, Handbook no. 23, 1973.

Hart, J.L. Pacific Fishes of Canada. Fisheries Research Board of Canada, Bulletin 180, Ottawa, 1973.

2.1.6 SHORELAND AND MARINE BIRDS

Godfrey, W.E. The Birds of Canada, National Museums of Canada, Bulletin no. 203, Ottawa, 1966.

Guiguet, C.J., The Birds of British Columbia:__(3) Shorebirds. Handbook No. 8, British Columbia Provincial Museum, 1973.

Guiguet, C.J., The Birds of British Columbia: (9) Diving Birds and Tube-nosed Swimmers. Handbook No. 29, British Columbia Provincial Museum, 1971

Guiguet, C.J, The Birds of British Columbia: (6) Waterfowl. Handbook No. 15, British Columbia Provincial Museum, 1973

Guiguet, C.J, The Birds of British Columbia: (5) Gulls. Handbook No. 13, British Columbia Provincial Museum, 1974.

Munro, J.A. and I. Mct. Cowan. A Review of the Bird Fauna of British Columbia.. B.C. Prov. Mus., Spec, Pub. No. 2: 1-285.

Victoria Natural History Society, Annual Bird Report 1972.

2.1.7 MAMMALS

Bigg, M.A. The Harbour Seal in British Columbia Fish. Res. Bd. Canada. Bulletin 172, Ottawa, 1969.

Guiguet, C.J. “An Apparent Increase in Californian Sea Lion Zaloplus Californianue, and Elephant Seal, Mirouaga Angustirostris, on the coast of British Columbia”, Notes, Syesis, Vol. 4, 1971.

Hannock, D. “California Sea Lion as a Regular Winter Visitant off the British Columbia Coast”. J. of Mammalogy, Vol. 51, No. 3.

Pikee, G.C. and I.B. MacAskie, Marine Mammals of British Columbia, Fish. Res. Bd. Canada, Bulletin 171, Ottawa, 1968.

Seed, A., Toothed Whales in-Eastern North Pacific and Arctic Waters, Pacific Search, Seattle Washington, 1971

Seed, A., Baleen Whales in Eastern North Pacific and Arctic Waters, Pacific Search, Seattle Washington,
1972.

Seed, A., Seals, Sea Lions, Walruses in Eastern North Pacific and Arctic Waters, Pacific Search, Seattle Washington, 1972.

2.1.8 SHORELAND BIOTA

Hosie, R.C. Native Trees of Canada, Canadian Forestry Service, Dept. of Fish. And Forestry, Queen’s Printer, Ottawa, 1969.

Rowe, J.S. Forest Regions of Canada, Dept. of Environment, Canadian Forestry Service. Ottawa 1972.

2.2 CULTURAL RESOURCES

Begg, A. History of British Columbia, William Briggs, Toronto, 1894.

Duff, W. The Indian History of British Columbia, Volume 1: The Impact of the White Man. Anthropology in British Columiba, Memoir No. 5, 1964.

Forward, C.N. Land Use of the Victoria Area, British Columbia, Geographical Paper No. 43, Geographical Branch, Dept. of E.M.R., Ottawa.

Hawthorn, H.B. et al, The Indians of British Columbia, University of Toronto Press. 1958.

Hazlitt, W.C. British Columbia and Vancouver Island, S.R. Publishers Ltd., New York, 1966.

Nickolson, G. Vancouver Island’s West Coast 1762-1767, Morriss Printing Co., Victoria, 1962.

Ravenhill, A. The Native Tribes of British Columbia, King’s Printer, Victoria, 1938.

Rogers, F. Shipwrecks of British Columbia, J.J. Douglas Ltd. Vancouver, 1973.

Memorandum on File


OTTAWA, Ontario KlA OR4

October 29, 1976.

Meeting with Mr. A. Fairhurst and Mr. D. Ross,, Province of British Columbia Department of Conservation-and Recreatio

October 19, 1976 — Race Rocks National Marine Park Proposal

On the morning of Tuesday October 19, 1976 I met with Mr. A. Fairhurst and Mr. D. Ross, members of the Coastal Planning Section, Conservation and Recreation Branch, British Columbia and the Federal-Provincial Task Force for the Establishnent of Race Rocks National Marine Park in the vicinity of Victoria,, British Columbia,

Up until this meeting no correspondence had transpired between the members of the Task Force since Mr. C, Mondor, Co-ordinator, Area Identification, sent a copy, of the report entitled “Race Rocks National MarinePark: A Preliminary Proposal”, on March 10, 1976 to Mr. Fairhurst. This report was prepared by the Marine Themes Section,, Parks System Planning Division in compliance with the original terms of reference of the Task Force.

The purpose of the October 19th meeting, therefore, was twofold:

(1) to solicit from the Provincial members of the Task Force their initial impressions and comments an the above document.

(2) to establish what steps needed to be taken to successfully complete the terms of reference of the Task Force.

Some time was spent in considering the preliminary proposal, with the
Province making the following comments:

(1) the concept as it deals with the identification and use of marine resources is well developed.

(2) existing resource uses in the foreshore and backshore areas of the proposal requires more emphasis in the report.

(3) the potential social-economic Impact and how it relates to park development on the area requires further emphasis.

Several comments are in order with respect to points two and three. It was recognized at the on-set of writing the report, that existing resource uses in the area should receive minor consideration. The main objective of the report was to assess the natural resources of the area and how they could best he preserved, used and interpreted. Nevertheless it should be pointed out that existing resource uses in the park proposal area are well documented under separate cover and need only to be inserted In the appropriate section of the report when the need arises.

Point three was accepted as a valid point by all members. However, Mr. Fairhurst suggested that prior to commencing phase two of the Task Force duties, i.e. completion of points two and three as an intricate part of the planning process for the Park., a copy of the preliminary –resource document should be sent from the Director of the National Parks Branch, namely Mr. Steve Kun to Mr.. Tom Lee, Director of the Provincial Parks Branch. This was requested as no official communication at the Director level had transpired, as it relates to the review of the preliminary resource concept plan.

Mr. Ross suggested that both Directors should be made aware of the scope of the preliminary concept plan; that points two and three were considered prior to commencement of the first phase of the project that these aspects have yet to be incorporated in the final report. It was therefore agreed by the Task force members at the meeting that the following course of action be pursued:

(1) a copy of the preliminary resource document entitled “Race Rocks National Marine Park: A Preliminary Proposal”, be reviewed at the Director level.
(2) the Task Force awaits a directorate comments and approval in principle of the preliminary report prior to commencement of phase two and three.

(3) If such approval is obtained that a meeting of the Task Force be convened in early January to discuss future action as it relates to the Director directions.

A letter is presently being drafted for Mr. Kun’s signature in compliance with point above.

The matter rests.

Duncan Hardie,
Marine Themes Section.
Parks System Planning Division,
National Parks Branch

cc. Steve Kun

cc. John Carruthers

cc. Claude Mondor

 

 

The Intertidal and Subtidal Macroflora and Macrofauna In the Proposed Juan De Fuca National Marine Park Near Victoria, B.C.

Dobrocky Sea- Tech, Victoria

The Intertidal and Subtidal Macroflora and Macrofauna In the  Proposed Juan De Fuca National  Marine  Park Near Victoria, B.C.


James M. Goddard, M.Sc.  Dobrocky SEATECH Limited 130 Kingston Street Victoria, B.C. V8V lV4 383-5323

A Report to the National Parks Branch

Department of Indian Affairs and Northern Development. May 30, 1975


ii

Table of Contents

Table of Contents
List of Figures
List of Appendices

iIntroduction
1–Sites Investigated
4–Marine Environmental Factors in the Proposed Park Area
4–Description of the Marine Flora and Fauna
18–Aldridge Point
23–Southwest Islets
26–Edye Point
30–Bentinck Island
34–Swordfish Island34
35–Albert Head41
45–Race Rocks45
48–South Bedford Island48
51–Summary of Marine Flora and Fauna51

52–Comments on the Proposed Park
55–Shipwrecks and Other Artifacts
57–References
58–Appendices

iii

List of Appendices

 

Appendix 1 Terms of Reference 58
Appendix 2 Species list – Aldridge Point 61
Appendix 3 Species list – Southwest Islets 64
Appendix 4 Species list – Edye Point 67
Appendix 5 Species list – Bentinck Island 70
Appendix 6 Species list – Swordfish Island 73
Appendix 7 Species list – Albert Head 76
Appendix 8 Species list – Race Rocks 78
Appendix 9 Species list – South Bedford Island 80

2-3

page3fig1

Click to enlarge

 

Figure 1: Map of proposed park area, showing sampling and photographic sites.

4

Sites Investigated

The sites investigated in this survey were selected as representative of the rocky shore extending from Albert Head to Beechy Head (Figure 1.). The Albert Head and Edye Point sites were selected as representatives of the relatively protected east-facing rocky shore, while the Bentinck Island situation was chosen to represent a partially-protected cove. Aldridge Point and the Southwest Islets were representatives of the outer portions of Becher Bay (Figure 1) . Both intertidal and subtidal transects were investigated at four of these stations. At Albert Head only the intertidal transect was carried out, as investigations at the other four sites (above) indicated a relatively uniform and predictable subtidal flora and fauna throughout most of the study area. Accordingly, further effort in the description of subtidal biota was directed to the unique areas within the proposed park The unique areas were Race Rocks, with the high-velocity currents; a submarine cave at Swordfish Island; and a sheer rock wall at South Bedford Island (Figure 1). All species identifications and field surveys were carried out by professional biologists. Species identifications were established using keys and the reference collections of Dobrocky SEATECH Limited, the University of Victoria and the B.C. Provincial Museum.

Environmental Factors in the Proposed Park Area

The oceanography of Juan de Fuca Strait has been investigated by Herlinveaux and Tully 1, who describe the strait as a complex, deep, positive estuary. During the flood tide deep ocean water

5

moves eastward along the bottom of the strait and, in the vicinity of the San Juan Islands, mixes with the brackish waters flowing seawards from Georgia Strait. Part of the mixed water returns to the Georgia Strait system, and part escapes seaward as the near surface water of Juan de Fuca Strait 1. Thus, the surface waters in the proposed park area are a mixture of warm, brackish Georgia Strait water (including some freshwater from the Fraser and smaller rivers) and cold, saline ocean water, relatively rich in nutrients.

The surface water temperature and salinity data from Race Rocks for the decade 1948 to 1957 were compiled by Stephenson and Stephenson 2. These results are summarized in Figure 2a. Mean salinity values were near 31 /oo throughout the year. Herlinveaux and Tully1 noted that surface salinity maxima occurred in March and October, with minima in January and in mid-summer (June-July). The horizontal distribution of summer and winter surface salinity values in Juan de Fuca Strait is summarized in Figure 2b. Mean surface water temperatures for the decade 1948 to 1957 were 6 to 7 C in January, rising to 10 to 11 C in August and September (Figure 2a). The horizontal distribution of summer and winter surface temperature values is summarized in Figure 2c.

These values for temperature and salinity are largely in agreement with similar data obtained over a two year period near Victoria harbour 3 and during a limited survey off William Head 4 Thus, there appears to be no obvious horizontal gradient of temperature or salinity that should affect the horizontal distribution of marine organisms within the proposed park area.

6

 

Figure 2: Temperature and salinity data for Race Rocks and Juan de Fuca Strait.

7

page7fig2a

showing the variations in surface salinity and temperature at Race Rocks based on monthly means averaged over the years 1948 57. >From Stephenson and Stephenson2, modified.

8

Figure 2b: Horizontal distribution of summer (June) and winter (November) surface salinities in the Greater Victoria area. (Based on POG Data Record, Anon., 1955; after Widdowson, 1965; modified)

9

Figure 2c: Horizontal distribution of summer (June) and winter (November) surface temperatures in the Greater Victoria area. (Based on POG Data Record, Anon., 1955; after Widdowson, 1965; modified).

10

Surface oxygen contents in the area of the proposed park are generally in the range 6 to 8 mg/l 1,3, and never fall to levels that might affect the horizontal distribution of the marine organisms.

Water clarity in Juan de Fuca Strait is a seasonally dependent phenomenon, being largely determined by the phytoplankton content of the water. Thus, in the winter low phytoplankton populations result in clear water, except in the aftermath of storms. In summer, on the other hand, underwater visibility is greatly reduced as the phytoplankton population increases. There are no large streams or rivers near the proposed park site, so there is no significant turbidity due to freshwater run-off.

The tides in the area of the proposed marine park are of the mixed,mainlydiurnal type (Figure 3). According to the introduction to the Canadian Tide and Current Tables, there are usually two complete tidal oscillations daily. The inequalitie*s in the heights of successive high or low waters and the corresponding time intervals are very marked5. The mean tidal range is 5.7 feet at Victoria, and 6. 1 feet at Sooke (Figure 3) while during large tides, the ranges may reach 9.3 feet and 9.9 feet respectively. The lower low tides occur in the daylight hours during spring and summer (March to August), and during the night in the fall and winter.

The different times of day at which the low water of spring tides occur throughout the year have a considerable influence upon conditions in the lower levels of the shore. Along the coast of British Columbia the low water of spring tides

11

page12fig3

Figure 3: Typical tidal patterns at Sooke and Victoria.

12

Typical Tidal Curves (Reproduced from Canadian Tide and Current Tables).

13

occurs at night during the fall and winter, exposing the intertidal organisms to the minimum air temperatures and risk of ground frost. Conversely, the summertime (March to August) low waters of spring tides occur during daylight hours, exposing the intertidal organisms to strong and direct sunlight. Such exposure leads to rapid heating of the substrate and organisms, and to a correspondingly high rate of evaporation. Shaded situations such as crevices and north-facing surfaces would be subject to lower temperatures and a lower rate of evaporation than adjacent sun-lit rock faces.

Currents in the study area range from weak to strong, depending upon the specific locality under consideration. The greatest velocities occur around Race Rocks, and through Eemdyk Passage, with values ranging from 2 to 7 knots. Similar velocities also occur around the promontories to the west of Race Rocks: these are Beechy Head, Aldridge Point, the Bedford Islands, Church Point and Christopher Point (Figure 4). Moderate current velocities (1 to 2 knots) occur in the outer parts of Becher Bay and Pedder Bay; similar velocities may also occur off William Head and Albert Head (Figure 4). Parry Bay and Royal Roads are subject to weak currents only, with velocities usually less than 1 knot.

Currents are of relatively minor importance in influencing the local distribution of intertidal organisms. It matters little whether the currents be strong or weak so long as food and nutrients are supplied, and reproductive stages are dispersed to colonize or replenish distant as well as nearby areas. In subtidal situations, however, the magnitude of the current does have a marked influence upon the biotic communities. Certain species assemblages are

14 – 15

 

Figure 4: Distribution of currents in the proposed park area

16

found only where high-velocity currents occur, whereas other forms are characteristic of quiet, sheltered waters. Many of the areas investigated in this project show the species characteristic of moderate to high-velocity areas.

The proposed marine park shore is periodically subject to strong wave action during the southeasterly or southwesterly gales characteristic of the fall and winter months. A prolonged westerly storm may produce swells 10 to 15 feet high, with 3 to 6 foot high wind waves superimposed. Southeasterly gales produce smaller swells (8 to 12 feet high) because of the limited fetch available across the Straits of Juan de Fuca. The calm periods between gales and in the summer are usually a time of no wave action along the coast north of Race Rocks or, to the west of Race Rocks, a surge produced by the low westerly swells (3 – 4 feet high) that are present throughout most of the year.

All shores, except the most protected embayments, occasionally experience storms when waves and spray reach to very high levels. This unusual wetting of higher shore areas can have no permanent effect upon the vertical distribution of shore organisms 6. However, where waves and swells are constantly experienced, their regularity and amplitude must obviously raise the effective wetting level of the sea above the level indicated by the height of the tide6. Thus, on rocky shores exposed to constant wave action, the recognizable biological zones are wider (vertically) and extend further up the shore than on shores protected from such regular wave action. This contrast may be noted between the wave

17

exposed coast west of Race Rocks, which is subject to almost continuous low westerly swells, and the relatively sheltered coast north of Race Rocks (Figure 1) which experiences pronounced wave action only during southeasterly gales in fall and winter. Lewis considers wave action as the single most important factor determining the composition of shore populations and their distribution. In general, as the frequency and strength of wave action increases, the number of species present becomes reduced. This effect is not obvious in the proposed park area as the usual wave action on the shore west of Race Rocks is a smooth surge, rather than a violent surf.

The rocky shores throughout the proposed park area are generally smooth, steeply sloping and dissected by numerous cracks and crevices. The topography and substratum of a shore influences the gradient of conditions on the shore by variations in the water-retaining capacity. As the tide recedes, the intertidal areas start to dry out. The rate of drying depends, firstly, upon the slope of the shore, with steeply sloping rock faces draining more rapidly than undulating platforms or shallow slopes. Cracks and crevices provide micro-environments in which the rate of drainage, and the drying effects of sun and wind are greatly reduced, and permit colonization to higher levels on the shore than occurs on the open rock faces in the same location. This “uplift” of the intertidal zonation may be noted in cracks and crevices throughout the proposed park area.

The vertical distribution of subtidal organisms is largely dependent upon illumination. Most of the green and brown algae are restricted to situations within 15 feet of the lowest tide level, whereas certain red algae may be found down to 50 feet depth. Animals which graze upon the green and brown algae only will thus be found only near the surface. The deeper-living species of invertebrates are primarily filter-feeders, predators or scavengers, rather than grazers.

18

Description of the Marine Flora and Fauna in the Proposed Park Area

Aldridge Point in Becher Bay (see Figure 5 and Appendix 2)

Aldridge Point (Figure 1) is a rocky outcrop with a small cove on the north side. The cove has a gravel beach and is bounded by the terrestial vegetation, comprised of arbutus, Douglas fir, salal and pine. The rocky area is composed of bedrock with many smooth vertical faces, dissected by numerous cracks and crevices. There are also large boulders piled one on top of the other down to the low tide level. Many of these boulders are up to 4 feet in diameter. A detailed species list for this area is presented in Appendix 2. In summary, the intertidal area shows the species that are characteristic of moderately waveexposed areas of southern Vancouver Island. The flat rock faces of the upper intertidal are sparsely populated by barnacles, lichens and algae (Porphyra and Fucus distichus).The numerous cracks and crevices harbour snails’, crabs and limpets, while tidepools are inhabited by anemones, mussels, limpets, snails, hermit crabs and coralline algae.

The mid-intertidal region supports a richer flora than occurs in the upper intertidal (Appendix 2). A total of seven species of macroflora are present-, with all three major groups (red, brown and green algae) represented. Tide pool flora and fauna

19

Figure 5: Schematic profile – Aldridge Point.

20

Vertical profile and species key (two illustrations)

21

in this region are similar to those which occur at higher levels on the shore. Starfish are found in this region, but tend to remain in damp crevices or hollows. The snails, crabs and limpets noted in the upper intertidal are also to be found here in the mid-intertidal.

The low intertidal area supports a great diversity of species. Most orders of macrofauna are represented by two or more species: for example, starfish (4 species), chitons (2 species), limpets (3 species). Similarly, the coralline algae and the kelps (large brown algae) are each represented by two or more species, and are more numerous than at the higher levels on the shore (Appendix 2). This site shows, on a small scale, some of the variation in species distribution between relatively sheltered and relatively wave-exposed situations. For example, the mussel Mytilus californianus is found on the tip of Aldridge Point, but not on the rocks bordering the sheltered cove. Similarly, the gooseneck barnacle, Pollicipes polymerus occurs on the most wavebeaten rocks at Aldridge Point and is absent from the relatively protected situations.

Below low tide level the substrate is a gently sloping sand flat which extends offshore for some distance before a water depth of 40 feet is attained. In the shallow water (down to approximately 30 feet depth) the sand supports an eelgrass meadow which, in turn, provides a substrate for the anemone Epiactis prolifera. A litter of empty clam shells, principally Saxidomus sp., on the sand attests to the presence of a clam population in the area. This is confirmed by observations of the large starfish

22

Pycnopodia helianthoides and Pisaster brevispinus digging for, and feeding upon the clams. Rock outcrops in the shallow subtidal area (down to 20 feet depth) support a Pterygophora forest and characteristic associated flora and fauna (Appendix 2). A large Anemone, Taelia sp.) adheres to the rock, whereas the smaller Epiactis prolifera grows on the Pterygophora stalks. Two species of holothurian are to be found: the sessile, bright orange Cucumaria miniata lies buried in the sand at the base of cliffs and boulders, while the motile Parastichopus californica, a detritus feeder, browses over the rock surface. The green sea urchin (Strongylocentrotus droebachiensis) grazes upon small red and brown algae on the rocks, and upon pieces of decaying kelp lying on the bottom. Aggregates of 15 to 20 individuals sitting closely packed upon a piece of kelp are not uncommon. In slightly deeper water (20 to 30 feet depth) the green urchin becomes less common and is replaced by a larger form, the red Strongylocentrotus franciscanus. Also at this depth the green and brown algae reach the deep limit of their distribution, and the flora Is represented primarily by red algae. The giant kelp Nereocystis sp. has its holdfasts attached to the rock at this depth, although its fronds float at the sea surface.

Throughout the subtidal area investigated, chitons and limpets are found grazing on the rocks, while kelp crabs and edible crabs (Cancer productus) live in the Pterygophora forest and on the sand flats respectively. A detailed list of the species noted is presented in Appendix 2.

23

Southwest Islets in Becher Bay (Figure 6 and Appendix 3)

The Southwest Islets are a small rocky group on the southwest side of Frazer Island in Becher Bay (Figure 1). The larger of these islands is connected to Frazer Island by a sand spit which is exposed at low tides. This sand substrate continues into the subtidal region and supports an eelgrass meadow. Specimens of the butter clam Saxidomus sp.and the littleneck clam Protothaca staminea are found in thesand. Specimens of the large starfish Pisaster brevispinus (which feeds upon clams) were seen in the shallow subtidal region. Intertidal tidepools amongst the rock outcrops contain many of the larger intertidal animals such as the holothurians Cucamaria miniata and Parastichopus californica, hermit crabs, shore crabs(Hemigrapsus nudus), littorine snails and small fishes. The rock faces are similar to those described for Aldridge Point: namely, large flat relatively steeply sloping areas dissected by crevices and small gullies. The upper intertidal supports a population of Fucus and barnacles. The macroflora and macrofauna of the mid and lower intertidal areas are very similar to those described above for the exposed tip of Aldridge Point. The species represented here are those normally found on southwestern shores of Vancouver Island in areas subjected to moderate wave action. For example, the gooseneck barnacles Pollicipes polymerus are present, together with the large mussel Mytilus californianus. Rock fractures and small gullies in the mid intertidal provide damp situations where anemones and starfish are found. Throughout the mid and lower intertidal regions, chitons (3 species) , limpets (4 species) and snails (4 species) are present.

The algal population is similar to that noted at Aldridge Point,

24

Figgre 6: Schematic profile – Southwest Islets.

25

Two figures here: species key and profile

26

with the greatest numbers of species and of individual plants occur ring in the lower intertidal region (see Appendix 3 and Figure 6).

The subtidal community is very similar to that described at Aldridge Point. The substrate is a shallow, gently sloping sand with boulders and rock outcrops. The sand areas are populated by clams which apparently provide part of the diet for the large starfish Pycnopodia and Pisaster brevispinus. Eelgrass occurs in some situations but is not very well established everywhere. This is probably a consequence of considerable wave action during storms. The rock outcrops support a Pterygophora forest with all the subsidiary flora and fauna as described previously (page18) for Aldridge Point. (See also Appendix 3 and Figure 6). Edye Point (Figure 7 and Appendix 4)

The intertidal region of Edye Point is a series of low rock outcrops, separated by cobble and gravel beaches, and becoming near-flat rock platforms in the low intertidal region. These beaches are bare of all life down to the low intertidal where they give way to almost horizontal rock platforms. The rock surfaces in mid and upper intertidal areas are inhabited by the barnacle Balanus cariosus, 2 species of limpets and the alga, Fucus. Some very small tide pools are found in the mid-intertidal area and these support most of the species that occur in similar situations at Aldridge Point and the Southwest Islets. The small anemone Anthopleura elangantissima is very numerous, as is the pink coralline alga, Bossiella. Several species of snails and a few specimens

27

Figure 7: Schematic profile – Edye Point.

28

two diagrams here: one species key and the other a profile

29

of mussels, hermit crabs and chitons are found in these pools also. The flora and fauna of the rock platforms in the lower intertidal are similar to those found at Aldridge Point and the Southwest Islets. Like those situations, Edye Point is occasionally subject to moderate wave action. Specimens of the kelp,Pterygophora and the California mussel(Mytilus californianus) are present in this area. Anemones arerepresented by Taelia crassicornica and the small anemoneAnthopleura elegantissima. Starfish are also found here, represented primarily by Pisaster ochraceus, Pisaster brevispinus, Henricia leviuscula and Solaster stimpsonii. Some barnacles are found in these low intertidal areas but they are relatively few and far between, whereas limpets, snails and cbitons are very numerous. The large algae are represented by approximately 8 species, ranging from the small green alga(Ulva or Monostroma) to the large kelps and laminarians. Some specimens of the surf grass Phyllospadix are found in sandy pockets in the rock plateaux. A detailed species list for this area is presented in Appendix 4.Below the low tide level the bottom is a gently sloping broken rock area. Down to a depth of 10 feet this broken rock is totally covered with a low red alga, Rhodoptilum sp.At a depth of 15 feet the Pterygophora forest begins, accompanied by the subsidiary flora and fauna described for Aldridge Point (see also Appendix 4). With increasing distance offshore, the rock areas become increasingly separated by patches of sand, until, at 50 to 75 yards from the beach, the bottom is a sand flat interrupted by occasional low rock outcrops (Figure 7). The sandy area is

30

inhabited by crabs (Cancer productus), clams and the starfish Pycnopodia and Pisaster brevispinus.At the time of this survey no eelgrass was present. At depths down to 25 feet the rock outcrops are populated by the Pterygophora forest community. The giant kelp Nereocystis is anchored to these rocks although its fronds float at the water’s surface. In general, the subtidal situation at Edye Point is very similar to that at Aldridge Point, described on page18. A detailed species list is presented in Appendix 4 and represented diagrammatically in Figure 7.

Bentinck Island (Figure 8 and Appendix 5)

The study site on Bentinck Island is a small cove facing to the southwest onto Juan de Fuca Strait (Figure 1). A relatively steep cobble and gravel beach slopes down from the terrestial vegetation to the water. The beach is interrupted by rock outcroppings and is bordered at either side of the cove by rocky points. The following discription refers to these rocky points. The upper intertidal area is inhabited by littorine snails, barnacles and 4 species of limpets. Tide pools support 4 species of anemone, the mussel Mytilus californianusand 3 species of chitons. Some chitons are also found on the dry rock faces. The algae at this level on the shore are represented by Fucus, Gigartina, Enteromorpha ,Endocladia and Porphyra. The mid-intertidal is mostly composed of steeply sloping rock faces with many cracks, crevices and ledges or is made up of a plateau with small boulders. In this region the purple sea urchin Strongylocentrotus purpuratus is occasionally found beneath boulders, together with specimens of the green urchin

31

Figure 8: Schematic profile – Bentinck Island.

32

two figures here: one the species key and the other a profile

33

Strongylocentrotus droebachiensis. Several anemones such as Anthopleura and Taelia are resident here, either in tide pools or hiding under rocks in damp situations. The tube worm Eudistylia vancouveri may be present wherever there is a small deposit of sediment in some cracks in the rock. Chitons are represented by 4 species. The starfish Pycnopodia, Pisaster and Henricia are found at this level on the shore although usually only in damp situations. The algae are represented by a mixture of the greens, browns and the red algae, and are detailed in Appendix 5.

In summary, the mid-intertidal area is primarily characterized by the fauna and the flora are numerically subordinate. This situation is reversed in the low intertidal area especially on flat rock platforms. Here the algae are the predominant life form. In some cases the algal cover is so complete that the larger fauna are excluded. There are approximately 30 species of algae as detailed in Appendix 5. The macrofauna are represented by the occasional specimen of starfish Pisaster or Henricia and isolated specimens of the limpet, Acmaea scutum. On vertical surfaces where the algal cover is less complete, bright red patches of a low encrusting sponge (Ophlitaspongia pennata) are found.

The subtidal area in this cove on Bentinck Island is composed of a gently sloping sand bottom with occasional boulders and rock outcroppings. The sand supports an eelgrass meadow (Zostera marina) which in turn provides a substrate for small snails (Lacuna sp. or Littorina sp.). No anemones (Epiactis prolifera) were present on the eelgrass during this survey. The boulders and rock outcrops in the bay support a sparse Pterygophora

34

forest community. Subordinate flora in the Pterygophora forest include Iridea, Plocamium and Cladophoraand some smaller algae (detailed in Appendix 5) as found in similar shallow subtidal situations throughout the study area. The depth of water is not very great, being less than 15 feet throughout the bay and in Eemdyk Passage Figure 1).

Swordfish Island (Appendix 6 and Figures 9 and 10)

No intertidal observations were carried out at this location. The feature of interest here is a submarine cave which runs through the full width of Swordfish Island (Figure 9). This cave is triangular in section, the apex lying approximately 4 feet above lowest low tide. The bottom is approximately 8 feet below lowest tide level and 6 to 8 feet in width. Several species of animals which normally occur only subtidally are found intertidally within the cave. An example of this is the bright orange soft coral Gersemia sp. Which usually occurs in deep water (depths in excess of 30 feet) in areas of high current velocity. Below the lowest water level the walls of

the cave are densely covered by the large white anemone, Metridium senile. A detailed species list of the flora and fauna occurring in this cave is presented in Appendix 6.

35

Figure 9: Schematic profile – Submarine cave in Swordfish Island.

36

Two figures here: one a species key and the other the profile.

37

A survey of the subtidal flora and fauna on the outside of the island adjacent to the cave was carried out as a contrast and supplement to observations in the cave. The north side of the island forms a boundary of a small cove with a relatively shallow sand bottom. The other side of this cove is formed by the main part of Vancouver Island as shown in Figure 1. This shallow sand bottom is covered by an eelgrass meadow which in turn provides a substrate for the anemone Epiactis prolifera. The rock of Swordfish Island slopes steeply into the water at an angle of approximately 55-60 degrees and adjacent to the mouth of the cave, meets the sand at a depth of 15 feet. On this steeply sloping rock face the Pterygophora forest is again well established. Pink coralline algae provide a considerable low coverage on the rock in the shallow subtidal areas but are absent at depths greater than 8 to 10 feet. Occasional specimens of kelp crabs, hermit crabs and the green sea urchin, Strongy1ocentrotus droebachiensis occur amongst these algae. In slightly deeper water as the coralline algae thin out, the solitary coral Balanophyllia elegans appears. Chitons, holothurians, limpets and starfish are all represented, as detailed in Appendix 6. A few specimens of the crab Cryptolithoides were also noted. On the south side of the island the coast is open to the swell from Juan de Fuca Strait. The rock substrate of the island again lies at a relatively steep angle. However, this does not level off until a depth of about 75 feet is attained (Figure 10). Down to a depth of 15 feet the species present correspond with those described above for the protected northern side of the island. Below 15 feet depth, the algal cover drops off rapidly leaving the

38

Figure 10: Schematic profile – Swordfish Island.

39

Two diagrams: one the species key and the other a profile.

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the rocks relatively barren, except for patches of hydroids and small red algae. At depths of 25 feet or greater the predominant macrofaunal species is the large red urchin Strongylocentrotus franciscanus although a few specimens of Strongylocentrotus purpuratus may also be found. The cracks between the boulders provide a home for large numbers of ophuroids. The chiton, Tonicela lineata is still present at these depths, together with the nudibranchs Archidorismontereyensi (yellow) and Archidoris odbneri (white). At depths of approximately 40 feet small snails, Bittium sp. and Calliastoma ligatum are found in small crevices and cracks in the rock. At these depths the starfishes are represented by Pycnopodia helianthoides, Solaster stirpsonii,Evasterias, Dermasteriasand Henreciaeviuscula..

The rock cliff on the Vancouver Island side of the cove extends down to a maximum depth of 50 feet before it meets with the sand bottom of the cove. Throughout the full vertical range of this cliff, large numbers of the white anemone, Metridiumenileare found. Rock ledges nearest to the surface support a Pterygophora forest with large numbers of the green sea urchin Strongylocentrotus drobachiensisand the boot chiton (Cryptochiton) present. Specimens of starfish (Pyonopodia sp.) and the large red urchin Strongylocentrotus franciscanusare also found. At greater depths on flat surfaces the large snail Fusitriton oregonensisand the starfishes Henrecia, Solaster and Midiasterare present. The holothurians Parastichopussp.browse along these ledges also. A detailed species list for this area is presented as Appendix 6 and a diagrammatic profile is presented as Figure 10.

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Witties Lagoon near Albert Head (Appendix 7 and Figure 11)

This site is on the south side of Albert Head which forms the northern extremity of a sand beach along Parry Bay (Figure 1). The beach forms an extensive intertidal sandflat in the vicinity of Whitties Lagoon (also known as Metchosin Lagoon). This area supports a population of clams, representedbyClinocardium nuttallii, Saxidomus giganteus andProtothaca staminea. This appears to be an important feeding area for gulls who follow the receding tide line, apparently digging in the sand. The following description refers to the rock shore on the south side of Albert Head. The upper intertidal is populated by barnacles and littorine snails and a sparse population of algae (Fucus and Porphyra). Tide pools and crannies at this level support numerous specimens of small mussels (Mytilus edulis or small specimens ofMytilus californianus), snails and isopods. In the mid-intertidal area barnacles and Fucus are much more numerous, together with specimens of limpets, primarily Acmaea digitalis. Chitons(Katharina tunicata), snails (Nucella sp) and Pagurid hermit crabs are found in the damp crevices and tide pools. The anemone Anthopleura elagantissima isalso found here. In the lower intertidal area barnacles are extremely numerous and crowded, assuming the tall columnar shape characteristic of very crowded conditions. A green sponge (Halichondria)is also found here mixed amongst a bright red encrusting sponge (Ophlitaspongia pennata). Right at the bottom of the intertidal area coralline algae (Lithophyllum sp. and Bossiella sp.) become numerous. In small crevices where sediment accumulates the fan worm Eudistylia

42

Figure 11: Schematic profile – Albert Head.

43

Insert two diagrams: one with species key and the other with profile.

44

may be found. Similar cracks also support specimens of snails (Nucellapp.). Numerous juvenile specimens of the six-rayed starfish Leptasterias hexactis are found tucked away into little cracks and crevices, often in company with the shore crab Hemigrapsus nudus and occasional specimens of Katharina tunicata. The limpets are somewhat restricted in this situation by an absence of open rock face. The area is so heavily populated with barnacles that there is little room for the limpets.

A large crack into the rock face at this point provides a demonstration of the uplift of intertidal zones which occurs in such situations. In this area damp conditions prevail much further up the shore then on the open areas, and the fan worm Eudistylia becomes much more numerous. At the lowest level on the shore the coralline algae form a very heavy mat below which the laminarians are sparsely represented. At this level, the barnacles reach the lower limit of their distribution and the limpets (mostly Acmaea scutum) become numerous again. The subtidal situation is primarily a sand bottom which supports a Zostera meadow. The predominant factor about this area is the relative scarsity of laminarians. The algae in the shallow subtidal level are represented primarily by a filamentous red species similar to the situation described for Edye Point (page26). This area is not exposed to any significant wave action except during the southeast gales characteristic of the fall and winter months. A detailed species list is presented in Appendix 7 and a diagrammatic profile is presented in Figure 11.

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Race Rocks (Figure12 and Appendix 8)

No intertidal sampling was carried out at Race Rocks. As this area is similar in location and wave exposure to Aldridge Point and the Southwest Islets a similar intertidal flora and fauna is expected. The unique feature at Race Rocks is the subtidal flora and fauna inhabiting the high current velocity channels. This survey was therefore confined to the subtidal areas.

In the shallow subtidal (to 20 feet depth) there is a Pterygophora forest with Laminaria sp. and the giant kelp Nereocystis leutkana. The associated fauna differ from those found in areas of lower current velocity (see, for example, Aldridge Point). Extensive mats of the pink coralline alga Corallina are overgrown by numerous small anemones, Epiactis prolifera which occur here in far greater density and colour variation than elsewhere in the proposed park area (see plate 1). This anemone is usually green. At Race Rocks, however, it is found in pink, orange, red and blue colours. Exposed rocks are covered with the pink or blue hydrocoral Allopora sp. (plate 2) and specimens of the solitary coral Balanophyllia elegans. Amongst boulders or in gullies, the sea urchins Strongylocentrotus droebachiensis and Strongylocentrotus fransciscanus, and the starfish (such as Solaster dawsoni) are found. Extensive populations of the large mussel Mytilus californianus are also found in the shallow subtidal area, at times achieving 100% coverage of the substrate over large areas. Smooth rock areas in back eddies support large numbers of abalone. This is the only sampling site which showed a population of abalone, all others having been subject to recent commercial exploitation.

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page25fig6

Figure 12: Schematic profile and key- Race Rocks.

page24afig6 47.48

 

At greater depths (30 to 50 feet) the macro-algae are greatly reduced, and are represented only by the pink encrusting Lithophyllum sp.and occasional specimens of Lamnaria. Feather-like hydroid colonies are found on the rocks and give the appearance of small algae. The giant barnacleBalanus nubilus is found at these depths, as is the soft coralGercemia rubiformis and the large ophiuroid Gorgonocephalus eucnemis (plate 2). Anemones are represented by four species, with the white Metridium senile the most numerous of these.The red sea urchin Strongylocentrotus franciscanuss is well represented at this depth, while only occasional specimens of the green and purple urchins (S. droebachiensis and S.purpuratus) are found. Three species of starfish were found at this depth during this survey, and these differed from the three species found in the shallower water (see Appendix 8). There is no reason to regard this as a depth preference rather than normal sampling variation. The less frequently encountered fauna include nudibranchs, snails, crabs, rock scallops and sponges (Appendix 8).

South Bedford Island (Appendix 9)

No intertidal sampling was carried out at South Bedford Island, as the interesting feature here is the subtidal cliff, and the wreck of the “Swordfish” (see page 55). The shallow subtidal area is dominated by aPtepygophora forest, with a dense (Corallina or Bossielila sp.). The red algae Iridea sp. and Desmarestia sp. occur in isolated patches separated by the coralline algae. Any rock surfaces

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Plate 1 -Epiactis prolifera at Race Rocks.

Plate 2 – Showing Metridium senile, Allopora sp., Epiactis prolifera, Gersemia rubriformis,, Gorgonocephalus eucnemis and Strongylocentrotus franciscanus.

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found to be bare of algae are densely populated by three or four species of snails. The solitary coral (Balanophyllia elegans) was common, and the pink hydrocoral Alloporasp. (which also occurs intertidally here) is found under steel plates of the wreck or

in crevices. Starfish (Asteroidea) were represented by three of the most common species found in the proposed park area, namely Pycnopodiasp., Solaster sp., and Henricia sp. (Appendix 9). The green urchin (S. droebachiensis was present in shallow water (down to 20 feet depth) and the red urchin (S. franciscanus) became common at greater depths (30 to 40 feet). Crabs were represented by numerous large Pagurid hermit crabs (unidentified), occasional specimens of Cryptolithoides sp ,and one large box-crab (Lopholithoides sp.). Anemones were represented only by isolated groups ofEpiactis prolifera. Chitons were commonpredominantly Cryptochiton stelleri, with Tonicella lineata and occasional specimens of Mopalia sp.

The situation described above exists across a shallow reef, and down the gently sloping sides of the reef to a depth of 30 to 40 feet. Beyond that depth the substrate becomes a sheer rock wall down to 90 feet depth at one side of the reef and down to 250-300 feet on the opposite side. This rock wall is almost totally covered with the large (up to 3 feet high) white anemone,Metridim senile.

A detailed species list for this area is presented in Appendix 9.

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Summary of Marine Flora and Fauna in the Sites Investigated

The intertidal species of macroflora and macrofauna noted during this survey are listed in Appendices 2 through 5. In summary, all sites showed some or all of the macroflora and invertebrate fauna characteristic of the southwest coast of Vancouver Island. This is an area of steeply sloping rock shores, bordering a cold, saline water mass which shows little seasonal fluctuation in any of the physical environmental parameters. The intertidal flora and fauna are diverse and abundant in most situations, becoming somewhat less diverse, but no less abundant in areas subject to continuous heavy wave action. The subtidal flora and fauna are constant and uniform. (Appendices 2 through 7) at the sites subject to moderate to weak currents. In areas of high-velocity currents (primarily Race Rocks) a unique biotic community is found (Appendix 8). The unusual feature is not only the appearance of species not found elsewhere (Gersemia sp., Gorgonocephalus sp., etc.), but also the unusual abundance of some ubiquitous species (Corallina sp. and Epiactis prolifera).

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Comments on the Proposed Park

In reading this report, a person who is not familiar with the marine biology of southern Vancouver Island will overlook the significance of the data presented here in support of the proposed marine park. Westwards from Race Rocks, one finds the marine flora and fauna of the partially exposed southwest coast of Vancouver Island, gradually merging with the species of the exposed (to heavy wave action) west coast of the Island. Thus, the flora and fauna of the William Head – Race Rocks – Beechey Head shoreline is not typical of conditions closer to Victoria and in Georgia Strait, but is still within a short distance of Victoria. The high current velocities around Race Rocks and towards Beechy Head tend to concentrate organisms to higher population densities than occur elsewhere. Thus some species, usually rare, may be found in this area in surprising numbers. The proposed park therefore encompasses an area which supports an unusual flora and fauna, of surprising beauty even to the non-biologist.

If the proposed park becomes a reality there should be an increase in the number of persons visiting the area. Since the majority of these persons will probably have had little or no previous contact with this area, some warning, of the potential dangers is required. Most of the shoreline from William Head to Beechey Head is presently accessible only by boat. This shore is

53

pedominantly steeply sloping rock and is usually washed by a 2 to 4 foot westerly ground swell. Under these conditions boat landings are potentially hazardous and should be attempted only by experienced operators. It should be pointed out to visitors that this area is generally not suitable for family picnics and similar activities.

The strong currents in this area (William Head to Beechey Head) represent a hazard to divers. However, the most potentially dangerous areas support the most interesting and beautiful underwater life, as documented by the photographs and the motion picture accompanying this report. Since the majority of the divers who might be expected to visit the park will be inexperienced in diving in high current areas I strongly recommend that a guide-diver service be implemented. The guides should be excellent divers and be very experienced at small boat operations. Each guide must be given absolute authority, similar to that of the master of a vessel, over the party in his care, since their safety will depend upon his guidance. This would enable visiting divers to be conducted in relative safety to the most interesting underwater areas of the park. In contrast to this the shore north of William Head is mainly a sandy beach and is not exposed to rough water or strong tides. This area thus offers no unusual hazards to boat operation and diving and is an excellent area for family picnics.

The problem of bringing the non-diving public into contact with the underwater beauty of the marine park is likely to occupy the attention of the park planners for some time.

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Underwater visibility in this area is usually less than 30 feet, so that visitors to an underwater gallery would view only the small area in the immediate vicinity of the building. A more versatile approach would be a large aquarium system, similar in concept (though not necessarily in size) to the Vancouver aquarium. This should be established under the direction of an experienced marine biologist/ecologist to reproduce on a small scale some of the species associations (and the necessary ecological condition) found in the proposed park area. This exhibit could also be supplemented with lectures, underwater photographs and cine films which would be of interest and benefit to all sections of the community.

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Shipwrecks and Other Interesting Artifacts Within the Proposed Park

The coastline encompassed by the proposed park boundaries has a history of maritime disasters brought about by the strong currents and stormy winter weather, compounded in the early days of maritime commerce by the absence of aids to navigation. The reefs of the Race Rocks group have claimed numerous vessels, but to our knowledge, the wrecks of none of these have been located. However, there has been little serious exploration of the reefs because of the strong currents encountered. Royal Roads, off the entrance to Esquimalt and Victoria harbours, provides a safe anchorage for vessels except during easterly or southeasterly storms. Vessels caught here at anchor by unusually violent southeasters stand the risk of being driven ashore. In the past many sailing vessels have been stranded on the rocks of Albert Head or on the adjacent beaches. All these vessels were refloated or dismantled, so no known wrecks remain in this area.Two shipwrecks are known within the proposed park area. The wreck of the steamer “Barnard Castle” lies in a bay on the east side Bentinck Island, and the sailing ship “Swordfish” lies just off South Bedford Island (Figure 1). The remains of the “Barnard Castle” were dynamited in salvage attempts and further broken by storm waves, reducing the wreck to a litter of steel plates, amongst which is a large boiler and a steel propellor. The wreck

56

lies in the middle of the bay (Figure 1) with the bow towards shore, in water ranging from 15 to 35 feet in depth. Although there are very strong currents past the entrance to the bay the major portion of the wreck lies in calm water. Unusually large, black rockfish (Sebastodes melanops) usually school above the wreck, and octopus are often seen beneath the steel plates. (The author has not visited this wreck, and is grateful to Mr. Frank White, Jr., of Victoria for supplying the foregoing information).

The “Swordfish” was a steel-hulled sailing vessel which struck South Bedford Island and sank on the spot. The wreck is broken into two portions; a shallow portion, which lies across the reef, from 10 feet depth down to 40 feet, and a deeper portion at a depth in excess of 100 feet. The shallow portion of the wreck has been dismantled, probably by wave action. The debris of large steel plates and three steel masts lies across the reef. There is also an anchor, presumably from this vessel, in shallow water on top of the reef. This area is subject to considerable wave action and high current velocities, and is accessible to divers only during calm weather and at slack water.

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References

1 Herlinveaux, R.H. and J.P. Tully (1961). “Some Oceanographic Features of Juan de Fuca Strait.” J. Fish. Res. Bd. Canada, 18 (6):1027-1071.

2. Stephenson, T.A. and A. Stephenson (1961). “Life Between Tidemarks in North America: IVa. Vancouver Island, 4.” J. Ecology, 49 (1): 1-29.

3. Balch, N., D.V. Ellis and J.L. Littlepage (1973). “Macaulay Point Outfall Monitoring Program, May 1970 -October 1972.” Final Report, Volume 2. Report submitted to the Capital Regional District of British Columbia, May 30, 1973.

4. Dobrocky SEATECH Limited. “William Head Institution: Initial Assessment Study of the Marine Receiving Area.” Report to Ker, Priestman and Associates Limited, March 27, 1974.

5. Canadian Tide and Current Tables, 1975. Volume 5. Marine Sciences Directorate, Dept. of Environment, Ottawa, Canada.

6. Lewis, J.R. “The Ecology of Rocky Shores.” The English Universities Press, London, U.K. 1964.

7. Coon, L.M. (1973). “Effects of Untreated Sewage Effluent on the Ecology and Metabolism of Intertidal Flora on Rocky Shores Adjacent to Shoreline – DischargLng Sewage Outfalls.” M.Sc. Thesis, University of Victoria.

 

 

PARKS CANADA

PROJE.CT NO: 90/7-P1

CONTRACT NO: 74-228

 

DATE:

TERMS OF REFERENCE

FOR

A STUDY OF THE BENTHTC MACROINVERTEBRATE FAUNA AND SEAWEEDS AT SELECTED SITES IN THE PROPOSED JUAN DE FUCA NATIONAL MARINE PARK.

Background: In 1972, a task force comprised of representatives from the Governments of Canada and British Columbia identified ten areas in the Straits of Georgia and Juan de Fuca warranting National Marine Park consideration. Federal-Provincial discussions earlier this year resulted in the selection of the “Royal Roads” site as having the hiphest priority for establishment as a National Marine Park. A joint Federal-Provincial study team was subsequently formed to undertake the necessarystudies in order to develop a proposal in this regard.

Preliminary investigations by the study team has revealed that there is little or no information on the biota occurring in the coastal waters of the proposed Royal Roads National Marine Park area making it impossible for the study team to assess its national significance or importance, and to develop a complementary management plan. Consequently, there is an urgent need for a systematic and comprehensive survey of the macroinvertebrate fauna and seaweeds which occur in the area’s coastal waters in order to fill this information gap and permit the orderly completion of the proposal.

Purpose: The proposed contract covers the provision of all professional services for conducting a survey of the macroinvertebrate fauna and seaweeds of the proposed Juan de Fuca National Marine Park. Basically, and in brief, this Study includes: (1) a professional discussion of the environmental factors which influence the vertical and horizontal distribution of marine organisms in the study area, e.g., type of substrate, salinity, degree of exposure to wave action. (2) a qualitative survey of the benthic macroinvertebrate fauna and seaweeds of six preselected sites within the proposed National Marine Park area.

Project Requirements: More specifically, but without limiting: the generality of the foregoing, the project requirements include the preparation of a report (5 copies) which will accomplish the following objectives:

1. The contractor shall develop a general. discussion of the environmental factors which influence the vertical and horizontal distribution of marine organisms in the study area. These factors include: temperature, salinity, dissolved oxygen, currents, mixing, tidal range, type of substrate), the atnount of siltation, light intensity, and the degree of exposure to wave action. The contractor should also note any outstanding submerged landforms or geological features, e.g., caves, cliffs, canyons, etc., if any.

2. The contractor shall conduct a qualitative survey of the benthic macroinvertebrate fauna and flora of the following six preselected sites within the study area: (1) Race Rocks,; (2) Albert Head; (3) Eemdyk Passage; (4) a station lying between Beechey Head and Iron Mine Bay; (5) offshore Witty’s Lagoon; and, (6) offshore Esquimalt Lagoon. Each station should be qualitatively surveyed from 0 to 30 metres, generally with a vertical transect from the shore along the bottom to deep water.

3. The contractor shall. provide the following basic information for each of the six inventory sites: (a) name of the site; (b) precise location by latitude and longitude; (c) a listing of the number and variety of all macroinvertebrate fauna encountered which are larger than one centimeter in size. All forms encountered must be identified to the family and species level; (d) a listing of the number and variety of the more conspicuous seaweeds present.All forms must be identified to the family and species level; and,

4. The contractor shall prepare for each station a diagramatic profile showing the distribution of the more conspicuous macroinvertebrate fauna and seaweeds in relation to the bottom slope, type of substrate and water depth.

5. The contractor shall prepare a photographic record (35 mm. Colour transparencies and/or 16 mm. colour film) for each diving station whenever water clarity permits in order to illustrate the various benthic assemblages that occur there.

Completion Schedule: This project is to be started on February 1, 1975, and completed by March 31, 1975. Furthermore, the contractor shall provide an opportunity for discussion and field examination with the Project supervisor of the main findings of study on or before June 30, 1975.

Contractor out to see stone house for demolition

In looking through The lightkeeper’s diary from Sept 1970-Nov 1971,  I came across this fateful entry which would ultimately lead to one of the worst insults by the Canadian Coastguard to the Heritage structures of the Race Rocks Light Station.

March 20: Contractor out to see stone house regarding contract for demolition.

http://www.racerocks.com/racerock/history/rrkeeper/rr66-82/demolition.htm

Didtrict manager at the time: Mr. Slaght

 

Gordon Odlum and Jean, Lightkeepers -1952 to 1961

Gordon Odlum and his wife Jean were resident at Race Rocks from Oct 1,
1952 – July 31, 1961, So far we have very little information on them
except one special entry in a research paper : The British Columbia Nest Records Scheme Author(s): M. T. Myres, I. McT. Cowan, M. D. F. Udvardy  Source: The Condor, Vol. 59, No. 5 (Sep. – Oct.,1957), pp. 308-310 Published by: University of California Press on behalf
of the Cooper Ornithological Society Stable URL: http://www.jstor.org/stable/1364966
I have quoted the part referring to Gordon below: “The purpose of the scheme is to collect information on birds’ nests that ornithologists and bird-watchers find, but which would otherwise go unrecorded or are recorded but left idle in personal field notebooks or diaries. The main items of avian biology that can be analyzed by this scheme are as follows:
1. The timing of the breeding season, the succession of clutches in species which lay more than one, and the variations in laying time from place to place and from year to year.

2. The size of the clutch and how this varies with latitude, altitude and climate.

3. The degree of success that birds have in hatching and rearing their young.

4. The essentials of habitat preference and variation in habitat throughout the range of a
species; these data are provide

In 1956, 1003 cards were returned and these covered 1606 nests or broods.
Particular mention should be made of the 120 nests of Glaucous-winged Gulls (Larus glaucescens) which Mr. Gordon C. Odlum watched on Race Rocks, off the southern
end of Vancouver Island. He was able to study them from the pre-egg stage through to hatching, and his observations are an example of the most valuable types of nest-record returns. It is seldom that sufficient nests are watched right through from the start until they either fail or their young fledge successfully .

SUMMARY A
A Cooperative scheme for the assembling of data on the breeding biology of birds was organized in British Columbia in 1955. The aims of this scheme are outlined, and it is suggested that observers over the whole Pacific coastal region might eventually cooperate in the scheme. Already 1600 cards covering 2700 nests or broods of 139 species have been collected and are available for consultation Department of Zoology, University of
British Columbia, Vancouver, British Columbia, February 8, 1957.

From  http://www.lighthousefriends.com/light.asp?ID=1436

Gordon Odlum grew up in Vancouver and during an outing one day he hiked to Point Atkinson Lighthouse, where Keeper Thomas Grafton kindly gave him a tour. Odlum was captivated by the life of a lighthouse keeper, and after frequent visits out to Capilano Lighthouse, he decided to become a keeper himself. After brief assignments at numerous lighthouses, Odlum was transferred to Triple Islands Lighthouse in November 1942. He seemed to made for the work, as a year later, he wrote home, “I think I can truthfully say that I haven’t felt at all lonesome, partly I guess because I’m built this way…”
He must have felt at least a bit lonesome as he decided to bake a tiny loaf of bread and send it to an attractive girl that worked at the Glass Bakery in downtown Vancouver. Not having her home address, he sent the package to the bakery and then eagerly waited a reply. A response arrived in December 1943, a true Christmas gift, and Odlum wasted no time in writing back. “It was sweet of you to remember little old shabby lightkeeping me. It seems such a long time since I had the pleasure of going into Glass Bakery and saying ‘Hello. Two whites please’ to your sunny smile. Fifteen months it has been since I have been ashore. I wonder if you might be married and have four children by now?”
A seven-month-long courtship by mail followed, and the couple married on September 20, 1944 in Vancouver. After a short honeymoon, the Odlums headed north to Triple Islands. While Gordon was gradually introduced to the remote lifestyle of a lightkeeper, eighteen-year-old Jean was plucked from Vancouver and planted on the most remote and confining station in British Columbia. Many a sailor bet the pretty, young girl wouldn’t last a year on “the Rock,” but she did, and it wasn’t until eight years later, in 1952, that the couple was transferred to a station a bit closer to humanity – Race Rocks. After nearly a decade there, Keeper Odlum lucked out and got Point Atkinson, where he was first introduced to lighthouse keeping, and stayed there from 1961-1974.

See the Lightkeepers of Race Rocks Index

Victoria Times Magazine article on Race Rocks July 15-1950

On June 22, 2015, Ecological Reserves Board Member Jenny Feick sent this e-mail with the scanned image of a newspaper page.  Click for large version.

“I  found an old newspaper article on Race Rocks from 1950 that I was hoping to give you.  It was inside a wall in our house.  That’s how they insulated houses here in the 1950s.  When we had blown in insulation installed a few years ago, I kept a few of the old newspapers, many which dated back to the late 2nd world war years. I re-discovered it again this week while purging paper files and other items in our basement, and thought you and others in the Friends of Ecological Reserves of BC would be interested in the article.”

TC1950 Lighthouse

Beautiful Bentinck is a paradise and a prison

This article is from the MacLean’s magazine Archives

https://archive.macleans.ca/article/1948/5/1/lepers-island

LEPERS’ ISLAND

Beautiful Bentinck is a paradise and a prison to its three desperately lonely unfortunates

CY YOUNGMAY 1 1948

LEPERS’ ISLAND

Beautiful Bentinck is a paradise and a prison to its three desperately lonely unfortunates

CY YOUNG

ON A green fertile island in the Strait of Juan de Fuca, within sight of the liners and freighters plying to the Orient and only 12

miles by sea from Victoria, B.C., live three of the loneliest people in Canada. There, in a pleasant cottage colony, dwell a middle-aged matronly woman who has been a missionary in Africa, an old one-eyed Chinese who talks pidgin English and a 29-year-old Japanese Canadian who studies carpentry by mail.

They have only one pathetic thing in common —they are lepers.

Their affliction, the fearsome scourge of the Middle Ages, knows no cure. Patients on Bentinck Island live in isolation until their disease has become “arrested” and noninfective, when they can return to their hornes, or until they die and join the 10 now buried in the leper colony’s graveyard.

Bentinck is one of the two leper hospitals maintained by the Dominion Government. It has been operated only since 1925, when the Pacific Coast lepers were transferred from the larger, but less accessible, D’Arcy Island.

The other leper hospital is in New Brunswick, where the disease was diagnosed for the first time in Canada during an epidemic in 1815. A short time later a smaller outbreak was controlled in Cape Breton. Lepers have been cared for at Traeadie, N.B., for more than a century. There are seven of them there now—three women and

Wong raises vegetables, can’t feel bums.

four men housed in a new 12-room lazaretto overlooking the Gulf of St. Lawrence.

Since those early epidemics, the disease has been rare among native-born Canadians. Of the 10 occupants of Canada’s leprosariums, three are Orientals, three Russians and one a Pole.

I recently visited the Bentinck Island settlement with the permission of the Department of National Health. I carried away an impression of these desperately lonely, completely isolated human beings that I shall never forget.

With a photographer I appeared one overcast morning at the Dominion Government Quarantine Station at William Head, main Canadian shipinspection station on the Pacific coast. The officer in charge, Dr. H. Bertram Jenkins, a short stocky

man of thoughtful, deliberate speech, is also chief medical supervisor for the leper colony. He was to take us to Bentinck.

As a launch carried us across the channel, I thought uneasily of the graphic descriptions of leprosy I had read—of unfortunates in the last stages of leprosy with ulcerated, rotting limbs, foul breaths and weak, hoarse voices. Dr. Jenkins reassured me. There were no such lepers on Bentinck. The three patients there are inactive cases and two of them may be released some day to resume a normal life.

He also told me that leprosy was difficult to contract, except through long and intimate contact. No nurse, caretaker or visitor has got leprosy on Bentinck Island. Just the same, we were warned not to touch anything unnecessarily during our visit, and under no circumstances were we to have physical contact with the lepers.

We debarked at a narrow pile of wharf on the island’s rocky shore. Bentinck is about 112 acres in area, slurped like a clover leaf. It is well wooded and has a mild climate much like Victoria’s.

Of the 10 neat, rain-washed cottages on the island for the use of lepers, only three are occupied. The men’s buildings are two-room affairs, little more than huts. All are of a faded, sombre-brown color, tinged by greenish-brown moss which adheres to the walls.

In two large blue-grey staff houses overlooking a rocky beach live the resident nurse and her husband and the island caretaker and his wife. There’s a one-room hospital where periodic examinations are made and a modest two-room jail complete with regulation barred windows.

The jail has been used but once when a Chinese patient knifed another some years ago.

Before we visited a leper cottage, Dr. Jenkins reminded us that the patients and attendants must not be identified. Their names are known only to relatives, friends, and the records branch of the Department of National Health. So great is the fear of leprosy that the relatives of those on Bentinck must be protected from prejudice of their neighbors in the outside world.

On our first call, a middle-aged, motherly little woman with her hair in a neat bun answered our knock at ber screened-in veranda door. Inside, we found a friendly warmth about the modestly

furnished room. In

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a corner a bowlegged wood stove crackled. The smell of baking was strong in the room.

There was a cake in the oven, she explained. It was for “the boys,” the one-eyed Chinese and the Japanese. Last week she had baked them a jelly roll. This week, for a change, she had baked them a cake. We had arrived a little too early to “have a piece,” she said with a twinkle. But the humor was the kind that struck at the heart.

A tablecloth of simple pattern covered the long grey living room table; a screen shut off from view a single, hospital-type bed. A shabby rocker was pulled up before the radio and a potted geranium on the window ledge added a homey touch.

We learned our hostess’ story. She had contracted the disease as a missionary in Africa. There she had treated all diseases, including leprosy, in the course of her work. One day she had noticed a slight loss of sensation in her left leg. Doctors confirmed her suspicion that she had leprosy.

When she came to Bentinck somewhat over a year ago she was a bed patient. Her hands were useless-—she couldn’t even brush her own hair. In three months she was up and doing her own housework and cooking.

Today she has partial paralysis of the left leg, lack of sensation in several parts of her body and some weakness in the muscles of her forearms. Barely noticeable is the slight discoloration of her face and neck. A type of skin lesion gives a somewhat swollen appearance to her right cheek just below the eye.

The disease itself is not so bad, she said. Nor is the isolation on beautiful Bentinck Island. “It is being cast out that hurts. If people took a different, more sensible attitude to our disease there is no reason why we should not be allowed to live in an institution such as a tuberculosis sanatorium.

“My friends have stood by me. They think more of me now than they ever did,” she went on. “But some acquaintances will not visit my family any longer because I am here. That hurts me very much.”

What did she do with her time, I enquired.

“Oh, we have our little times,” she said, motioning toward the freshly baked cake. “Sometimes I write for the church paper, or sew or knit. Sometimes I read, or sit listening to the radio.”

Some of the knitting is done for her family. (Dr. Jenkins informed us later that knitted wear is allowed to leave the island after it has been thoroughly washed and disinfected. Letters by the patients are fumigated for 12 hours before being mailed.)

Though the lepers may dislike their isolation on Bentinck Island, only one has escaped, and that was several years before Dr. Jenkins took charge in 1936. None has committed suicide.

Ten patients, all Orientals, have died on the island. Lepers seldom die of their disease; it is usually some accompanying illness that carries them off. A patient who died recently at 84 had been a leper for more than 50 years. He succumbed to a secondary infection and old age.

Until a short time ago no crosses marked the leper graveyard. But this has been attended to by the one-eyed Chinese I shall call Wong, a somewhat comic figure whose quick gestures match his high, singsong speech.

Wong has the friendly nature of a spaniel puppy, the volubility of a street salesman. He hopes another Chinese will come to Bentinck Island

“by ’um by” and keep him company. He has been on Bentinck Island for the past 11 of the 36 years he has lived in Canada.

Wong’s left eye is sightless from his disease. Occasionally he removes the pink patch which usually covers it. His eye is no more repulsive than a case of common pinkeye. His other disabilities are partial loss of sensation in both feet and in his right hand.

Wong had a bandage about his right hand the day we were at Bentinck. He had recently burned it severely on his kitchen stove. The burn was deep and penetrating before he actually felt pain.

Such incidents are fairly common. “Lepers must be looked after more than most sick people,” said Dr. Jenkins. “It is easy for them to injure themselves seriously because of the lack of sensation.”

Wong supplies the colony with fresh vegetables from two large patches situated behind his hut. The other patients may accept any vegetables which require boiling.

Our next call was on the nurse, who has lived three years in the big house on the Bentinck Island shore line. She is not completely cut off from the world; members of her family occasionally come to the island and spend the week end with her, and on Tuesdays and Saturdays, if she cares to go shopping in Victoria, the launch will transport her to the mainland.

The monotony of being alone on the island gets the lepers down sometimes, she said. “That’s why visitors are so welcome.”

Regular visitors are the Rev. Harry Mitchell Bolton, the rector at nearby Metchosin and Lim Yuen of the Anglican mission for the Chinese at Victoria. The white missionary has occasional visits from her family and friends.

I asked the nurse if she is ever afraid of catching leprosy. “Afraid,” she said grinning broadly, “what is there to be afraid of? No, the truth is I like it here —I have a good job.”

The third patient on the island is a personable, slow-speaking, 29-year-old Nisei I shall call Jim. He has been on Bentinck Island for the past three years. He has not seen his wife, also a Nisei, since his admission to the colony because her Japanese blood bars her from the Pacific coast.

Jim has painted the interior of his hut a saucy blue-green. Each individual brick in the living room chimney has been carefully painted red. Between each brick the thin rough line of mortar shines with white paint.

On the table was a model of a Tribal Class destroyer, painstakingly perfect in detail, carved from rough beach wood.

Jim’s disease affects only his left leg. He hopes he may be released soon to rejoin his wife. To earn a living then he is studying carpentry by correspondence.

Each of the lepers receives a grant from the Government while on the island of an amount not exceeding $50 a year. All of their normal requirements and medical treatment are supplied by the Government.

At Bentinck Island the main treatment consists of intramuscular hypodermic injections of chaulmoogra oil, drawn from the Hydnocarpus tree. Other medicines used by the doctor are Diasone, a new sulpha drug which is taken by mouth, and tyrothricin for dressing open wounds.

“We try to build the patients up by a generous diet,” said the doctor. “We do our best to make their surroundings as cheerful and pleasant as we can.”

Dr. Jenkins does not feel that “cure” is the proper term as applied to lepers.

“It is possible to arrest a case of leprosy. But the persons who treat the disease hesitate to say it is possible utterly to cure one.”

The 3,000-year-old leprosy problem is still one of mankind’s scourges, with an estimated two to three millions suffering from the disease in the world today.

It wasn’t until 1879 that the leprosy bacillus was isolated. It is similar in some respects to tuberculosis, and often it causes a positive Wasserman test and has led physicians unfamiliar with the disease to diagnose it as syphilis.

When leprosy attacks, normal tissue becomes replaced by inflamed cells. The disease has two forms—neural leprosy which affects the nervous system, and the cutaneous type, which affects the skin. Sometimes a patient has both.

The earliest symptoms of leprosy are vague and indefinite. There are periods of ill-health, slight fevers and perhaps unexplained skin blisters and ulcers that soon heal. In the neural type, the victim loses his sense of touch in the affected parts. This is detected by stripping him, blindfolding him and asking him to tell, if he can, where he is being lightly stroked by a paper spill. In advanced stages of this form, whole fingers and toes die and drop off.

In the skin type, sores break out on the body, eye tissues degenerate, the

mucous membranes of the throat and nose thicken, affecting breathing and speaking, and the eyebrows disappear.

Leprosy attacks those who are “below par.” It is usually associated with bad conditions of living, poor diet and unhealthy social and climatic conditions. For that reason treatment is similar to that for tuberculosis.

Much depends on the patient’s will to recover. Dr. Jenkins recalled the case of a patient who died some time ago on Bentinck Island.

“We could do little for him,” said the doctor. “He was here only a year or so before he died. He had lost entirely the will to live.”

The lepers now at Bentinck are not downcast. Religion plays a large part in their lives, helps buoy them up. The two Orientals recently became Christians; Wong’s baptismal service was held outdoors near his vegetable garden and a modest china bowl served as a fount and Jim was received into the church in a quiet religious service in the hospital.

All three are devoted to their Bibles, and especially to one well-thumbed passage, St. Matthew 8, verses 2 and 3: “And, behold, there came a leper and worshipped him, saying, Lord, if thou wilt, thou canst make me clean. And Jesus . . . touched him, saying, I will; be thou clean. And immediately his leprosy was cleansed.” it