Category Archives: Mountaineering

Seasons of Ice: Part 1 Spring

As Irish skiers go, I’m pretty average, which is to say, I’m a bad skier. I can survival ski down most things, but the grace and elegance that the residents of my current home display on the slopes still eludes me. The benefits of learning to ski before developing risk awareness is all too apparent.

This was on mind when talking over the phone with Ben Pelto (University of Northern British Columbia). Those of you who have read other posts on this blog will know that Ben and I regularly work together during our summer fieldwork campaigns on the glaciers of BC (see On Conrad Glacier: Part 1 and Part 2). It was January, and we were discussing plans for a spring trip to the mountains, specifically Conrad Glacier, to observe how the winter had treated the glacier, and to scout out locations for the coming summer’s deployment of my weather stations. We were also planning to perform scans of the glacier using a ground penetrating radar (GPR), which would provide us with information on how thick the ice is, and the general shape of the underlying bed. This would all require some serious skiing.

Three months later, I am on a familiar road. With skis and camping gear in the back, I’m winding my way along the 750 odd kilometers from Vancouver to Golden, in eastern BC. Tonight, I’m meeting Ben and his sister, Jill, before an early morning helicopter flight to the ice.

 

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Stopping off at Roger’s Pass, en route to Golden.

 

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Morning of departure at the Alpine Heli base, with Jill and Ben.

 

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Happy for our mechanical problems to happen on the ground.

 

After a brief delay to fix a clogged spark plug, we were in the skies above the Purcell Mountains, in good flying weather. It was my first time taking this journey in what were essentially winter conditions, and I was glued to the window as we maneuvered between the snow-covered peaks. We landed on the west flank of Conrad Glacier at 2,300m. Our campsite overlooked the jagged crevasses of the icefall that lay above our summer field sites. We dug out level platforms in the snow for our tents, and built up walls on the upper side to keep out the cold, downhill ‘katabatic’ winds that can develop on glaciers at night. In the front vestibules, we dug out lower platforms for storing gear, and putting on our boots in the mornings. Finally, we dug out a table and benches, and pitched a tarp over it to serve as our kitchen.

 

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Home.

 

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Our mess tent. The option to get out of the elements for awhile to cook and eat can make all the difference.

 

One of the main goals for this trip was to get an idea of how much snow the glacier had received over the winter, and how much water this snow will produce if it melts in the  summer. To this end, we needed to take regular measurements across the glacier of the depth of this season’s snow, and its density. After setting camp on the first day, we skied down to the terminus of the glacier, and took a series of these measurements as we moved back up the slope. The weather was mild, and we were surprised to find a well developed melt water stream this early in the season, carving a channel into the surface snow. In the weeks preceding our trip, we had been keeping an eye on data from snow sensors located on mountains in this region. The early onset of spring was resulting in some significant snow melt, and the question on our minds was whether 2016 would prove to be as detrimental to the glaciers in this region as the record losses of 2015.

Late in the afternoon, with the weather beginning to turn, we pushed back to the shelter of our camp. After a warm meal, we watched the skies clear and felt the temperatures drop as the indigo twilight turned into a star filled mountain night.

 

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Ben and Jill, ascending past an icefall on the glacier.

 

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Ben, probing the snow depth to determine how much the glacier had received over the winter.

 

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A well developed melt stream (supraglacial channel) was a surprise find this early in the year.

 

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Returning to camp just as the weather began to close in.

 

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Nights fall on our Conrad spring camp.

 

Day two saw the beginning of our radar campaign. Our objective was to ascend to the upper plateau of Conrad, taking measurements along the way. The GPR system consists of a transmitter, and a receiver, each mounted on skis, with antenna extending out in between. The transmitter sends out a pulse of energy that passes down through the ice, and reflects off the bedrock underneath. The reflected energy is detected by the receiver, and the time taken by the pulse to travel to the bed and back tells us how thick the ice is. That’s the theory. The practical involves hauling this system over large swaths of the glacier, up steep slopes and icefalls, and around crevasses, trying to keep the system in line as much as possible. The relatively mild temperatures and strong sunshine made the hauling difficult, with the sleds prone to digging into the soft snow and tipping over. Despite this, we managed to cover significant ground with the radar, completing day trips of over 20km in some cases. Descending with the GPR was always an interesting experience, generally completed at the end of the day when we were returning to camp with already tired legs. We needed to act as brakes to stop the system from torpedoing down the mountain, requiring us to snowplow in our skis for kilometers downhill at a time, quad muscles screaming.

 

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Ascending Conrad towards the upper icefall, with the GPR in tow.

 

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Myself and Ben hauling the GPR across the stunning upper plateau of Conrad (Pic: Jill Pelto).

 

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Shared slopes. We came across these wolverine tracks in the snow at 2,900m.

 

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Cloud streams across the faces of the surrounding peaks.

 

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Probing the snow depth as we moved up the glacier (Pic: Ben Pelto).

 

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Completing a GPR survey on the glacier close to camp.

 

Our days on the glacier continued with combined snow depth/density measurements and GPR surveys. Working on the upper plateau of Conrad, the expanse of mountainous terrain around us was astounding. On every degree of the compass, snow covered peaks jostled for space on the horizon, like some jagged, storm blown ocean. A thought that keeps returning to me when working in these places, is what a privilege it is to be afforded such isolation and space in what is an increasingly crowded world. No traffic, sirens, voices, bleeping phones, or engines (apart from the occasional helicopter). To have access to the culture and community that living in a society provides is a great thing, but I am grateful for these opportunities to exist in solitude with nothing but survival and science to drive us on.

On one of our last days on the upper section of the glacier, we continued to record snow depth values to well over 3,000m elevation, and decided to push on  to climb the summit of Mount Conrad; the peak which had loomed over us as we worked. We ascended on skies to within 50m or so of the 3,290 summit, before shedding our gear and scrambling the rock and snow of the final section. We climbed in beautiful weather (as had been the case for most of the trip; very unusual for Conrad), and our view from the summit was unimpeded in all directions. Turning from the summit, my thoughts were now fully occupied by the ski descent necessary to get off the mountain. The conversation I had had with Ben in January regarding my ski experience was echoing in my head as I clipped into my skis, and double checked my bindings. This was steep for me, but hesitating or leaning back would be the wrong option. I watched Ben and Jill drop in, took a solid breath, and followed.

 

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Ben, checking some gear, on the ascent of Mount Conrad.

 

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On the summit, looking south into Bugaboo Provincial Park; a climbing mecca I had visited a year previously.

 

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My view from the top, prior to our ski descent.

 

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On a very fun section of the descent back to camp. The beautifully symmetrical ski tracks are not mine (Pic: Ben Pelto).

 

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Below the tumbled walls of one of the icefalls we passed through on the return to camp.

 

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Light from a low sun highlights the textures of the glacier.

 

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Back at camp after another rewarding day.

 

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Ski boots that aren’t your own can be unforgiving on long touring days, but it was little to complain about.

 

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Looking north down the valley as the day ends.

 

Our spring visit to Conrad had been very successful, with a wealth of snow and ice thickness data recorded over much of the glacier. Throughout our travels , I had been scouting for potential sites for installing the weather stations in the summer; just two short months away. One would be deployed in a similar location to last year; lower on the glacier in the ablation zone (the area on a glacier where more ice/snow is lost than gained from year to year). The other would be a more ambitious venture. The upper plateau at 3,000m would provide a unique and intriguing location to gain information on the glacier’s weather and melt relationships. It would also present a much harsher environment to operate in. Would we get a decent enough weather window to allow us to install the equipment (several days work), and if so, could the system withstand a season in tough and, as of yet, untested conditions? We would find out soon enough.

 

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The moon sets behind Conrad as another day begins.

 

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‘What are men to rocks and mountains’? Ascending a western branch of the glacier.

 

 

Svalbard Part 6: Stories in the Ice

“There is no such thing as ‘just’ ice.” Not to a glaciologist anyway.

Professor Doug Benn is recounting to us his reply to a reviewer who questioned his use of the term ‘refrozen water ice’. While this may sound superfluous, the many variations in density, temperature, content, layering, and colour of glacier ice can tell us a lot about its history, and potentially, about it’s future.

 

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Prepping the Ground penetrating radar (GPR) on Longyearbreen. GPR is used in glaciology to look at the thickness and structure of a glacier. The GPR is towed across the surface, emitting pulses of energy which pass through the ice. These pulses bounce of the rock underneath the glacier, and are reflected back to the GPR, like an echo when you shout in a valley. The time it takes for this echo to travel back to the GPR tells us how far it has travelled, and hence, how thick the ice is. GPR can also be used to see if there are regions in the glacier that are ‘warm’ i.e. at its melting point, by reflecting off liquid water. The presence of these warm sections in a glacier can tell us about the glacier’s present and past; how it moves, how it used to move, and how its behaviour has changed with time.

 

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Examining the internal layering and structure of the ice on Larsbreen.

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The network of tunnels visible here are formed by the movement of air bubbles in between ice crystals as freezing takes place.

 

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A ship frozen in the sea ice, on the way to Tunabreen

 

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Arriving at the calving front of Tunabreen. Calving is the processes by which chunks of ice break off at the end or ‘terminus’ of a glacier, forming icebergs. We were there during winter, when the sea was frozen. The sea ice acts as a temporary barrier to the glacier, slowing its forward movement, and preventing calving.

 

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Tunabreen is a surge type glacier, meaning that its rate of flow or speed is not constant. Instead, the glacier may move very slowly or remain still for several years, before going through a period of faster flow, known as a surge.

 

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A glacier prayer

 

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Departing Tunabreen

 

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Surge front of Paulabreen

 

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The dark banding visible at the front of Paulabreen is evidence of its surging past. When the glacier was flowing more rapidly, large crevasses (cracks) opened up at the surface and spread downwards. Debris and dust fell into these cracks, and when the crevasses closed again as the glacier flow changed, dark vertical bands of debris mark their former location.

 

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Better to light a candle: an arctic storm led to a power cut on the night before the final exam, leading to some creative lighting.

 

 

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Morning view after an overnight snow storm

 

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One last venture into the mountains before leaving the Arctic.

 

 

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Summit ridge of Trollsteinen

 

 

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Parting gift from Svalbard: dancing aurora on the flight south to Oslo

 

 

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Glaciology PhDs: amazing experiences, zero glamour. Overnighting at Oslo Airport.

 

 

 

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Flying over the enormous glaciers on the west coast of Greenland on my way back to Vancouver, and getting re-inspired for the next adventure.

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Svalbard Part 4: To the icy core

A glacier is more than an ice cube. Rather than being solid, uniform blocks, glaciers can have incredible variations throughout in terms of structure, temperature, and movement. The surface and the base of a glacier can communicate with each other, and the language of this communication is water.

When ice and snow on the surface of a glacier melts, it can produce a lot of water. Streams of this meltwater flow over the surface of a glacier during the warmer months of the year. These streams can cut or ‘erode’ into the glacier, creating paths or channels which the water flows through. Over time, these channels can cut deeper and deeper into the glacier, their roofs closing over to create tunnels through the ice which can bring the meltwater from the surface all the way down to the bottom of the glacier. This is important because increasing the amount of water underneath a glacier can encourage it to slide faster.

During the cold winter months, melt channels are generally dry. We had explored one of these channels previously on Scott Turnerbreen (see Svalbard Part 2: Balancing Act), and decided that some more time under the ice was needed. There had been reports of an excellent ice cave on Larsbreen, a glacier within an hour’s hike of Longyearbyen. So one Tuesday evening, with duties at UNIS finished for the day, Tom, Ellie, Jelte, and myself met on the outskirts of the village, and began the trek to the glacier. Our plan was to explore the cave for a few hours, and then being a bunch of idiots, to stay overnight inside the ice.

(A note on the images: the caves in the glacier were entirely dark, with our headlamps being the only source of light. Therefore, for me, much of the photography was experimental; playing around with shutter speeds, iso settings, and flashes, while avoiding damaging my camera too much when climbing and crawling. As always, click on images to see them in full resolution)

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Nighttime in the mountains above Longyearbyen.

 

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At the cave entrance, on Larsbreen.

 

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The walls of the channel were lined with a huge variety of beautiful and delicate ice structures.

 

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Glaciologist: defrosting.

 

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By the light of the moon, we found the entrance to the cave; first squeezing into a tunnel down through the overlying snow to get into the glacier itself. The passage through the ice twisted, widened, and narrowed, like a desert rock canyon; in sections coated in fragile crystal structures, then changing  to smooth, swirled patterned walls like polished marble. We followed the channel as far as we could go, descending through a series of levels and passages until we were forced to stop at a major drop; the location of what would have been a waterfall during the melt season. We picked a spot where we could roll out our bags for a few hours, and returned to the surface for some frigid air before sleep. On the way to the surface, I had a ‘how did I get here’ moment; crawling out of a glacier through a snow tunnel in the middle of the night, with a rifle on my back to watch out for polar bears, and being greeted by the northern lights.

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Our home for the night: a cosy ice chamber inside the glacier.

 

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Student accommodation in the Arctic can be grim

 

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My choice of sleeping spot, or as it became know as, the ‘MRI machine’.

 

Our night in the glacier was a memorable experience, but it felt like the caves had a lot more to show us had we been willing to push a little further. A few days later, we returned to Larsbreen.  Armed with ice climbing gear, Tom, Andi, and myself  would attempt to work our way down some of the larger drops that had stalled us on the previous visit, and see how deep we could get.

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Descent was carried out through the use of ladders, fixed ropes, and rappels for the longer drops.

 

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Climbing up

 

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Climbing down

 

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Climbing my way up through an ice chimney.

 

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Tom, about to drop over the edge of the first rappel section, which was extremely narrow.

 

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Close to the base of the glacier, looking upwards through the section we had just rappelled down. The dark bands in the ice are layers of debris and sediment (rock and soil) that has been picked up by the glacier as it moved along the valley floor.

 

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Getting narrow…

 

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Narrower…

 

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Wide. We reached the base of the glacier to find a cathedral of ice.

 

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Crawling through an R channel (a tunnel cut into the bottom of the ice by a stream running along the bed), with the entire glacier above our heads.

 

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(photo: Andi Alex)

 

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End of the line. The channel eventually became too narrow for us to proceed further.

 

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Belaying Tom up the last pitch of ice climbing (photo: Andi Alex).

 

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Back on the surface, and being watched by a distant reindeer (photo: Andi Alex).

 

We found the bed of the glacier, and it was an awe inspiring experience to have this entire mass of ice lying above us. My thanks to my like-minded companions on both trips for their company; the highlight of being in such incredible places is to share it with great people.

Svalbard Part 3: In search of Sun

The Sun has been absent since I’ve arrived here in Longyearbyen. The islands are deep inside the Arctic Circle; the line of latitude north of which it is possible to have 24 hour nights in winter. But Spring is fast approaching.

When a ray of sunlight was spotted hitting the mountain tops on the other side of the fjord, it was decided that a group of us would aim to get as much elevation as possible over the weekend, and try to catch some elusive light. Temperatures would remain well below -20°C over the two days, so warm clothes and moving fast would be essential.

Saturday morning saw us hiking up to Sverdruphamaren; an elevated plateau to the west of Longyearbyen. There is a real sense of wilderness here, and the view is an expanse of white peaks, sea ice, and reindeer. The sun however, remained just below the higher mountains to the south.

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Setting out from Longyearbyen on Saturday morning

 

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Ice mascara

 

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The Svalbard Cold Feet Dance

 

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Some opted just to get their feet off the ground altogether.

 

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Chasing the sun across Svalbard’s wilderness

 

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Returning back across the plateau after a cold but beautiful day

 

On Sunday morning, we aimed higher, and set out for Trollsteinen; the peak behind which the Sun had hidden from us the previous day. With temperatures at sea level forecast to be around -30°C, we knew we were in for a cold summit. Our route would bring us south of Longyearbyen, up the glacier of Larsbreen, before ascending onto the main ridge of the mountain. The winds were calm, and the skies were perfectly clear, promising excellent views, and potentially some vitamin D.

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Heading south, with Longyearbyen in the distance

 

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Lone hiker on Larsbreen

 

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Beginning to ascend towards the ridge

 

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The Sun! The end of polar night, as viewed from the main ridge of Trollsteinen

 

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The Sun is literally days away from reappearing here in the valley, and the community of Longyearbyen will mark its return this weekend with a festival in its honour. It’s certainly something worth celebrating, but I’ll still be happy to experience a few more Svalbard nights.

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The Aurora over Longyearbyen

 

Notes from Nordic

The winter snowpack was still hiding crevasses. Where it had melted, large swaths of cracked and yawning ice had been exposed, hinting at what may lie beneath the snow cover.

One day earlier, July  8th, Valentina Radic and I had left Vancouver, aiming for the town of Golden, near British Columbia’s eastern border. Our route brought us on a nine hour drive, passing from the Coastal Mountains, through the vast Interior Plateau, and into the Selkirk range near the edge of the Rockies.

Golden was to be the staging point for this summer’s field campaign. The plan was to install a weather and glacier monitoring station on Nordic Glacier.  The station was to observe the melt rate of the surface of the glacier, and to record any meteorological varibles that may affect melting (see The Project).

Nordic was selected as its meltwater drains into the Columbia river. This is the largest river in the the Pacific Northwest, and the forth largest in the United States. It stretches for 2,000km, through BC and seven US states, with a drainage basin the size of France.  Its waters are used for irrigation and hydroelectric power production, with 14 dams on the main stem, and more on its tributaries.  I had encountered the Columbia before, but much further downstream in the state of Washington, while rock climbing (see Vantage Point).

On arriving in Golden, we drove straight to the home of our hosts for the night, Tannis and Steve. When initially planning this trip, we had intended to camp once we got into the mountains, but Tannis and Steve kindly offered us the use of their backcounty ski lodge (Sorcerer Lodge) which is located in the same valley as Nordic.  Operating in the area for over twenty years, they have seen firsthand the changes undergone by the glacier. It was inspiring to see the interest and enthusiasm (and knowledge) that they showed for the project, and was a reminder that this research wasn’t just an academic exercise. Joining us in Golden were Brian Menounus and Federico Ponce, two researchers from the University of Northern British Columbia. With our team of four assembled, we stocked up on some soon to be burned calories (with excellent burgers in Golden), and bedded down for an early departure.

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Line of action. Morning of departure for the mountains, with Steve (pictured) assisting with the logistics of the helicopter transport. (Click on images to expand)

 

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Loading the helicopter.

 

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Ascending the valley towards the mountains.

Our flight to the glacier the following morning went smoothly, with Steve lending us his experience with helicopter transports. Valentina and I went in on the first run to scan for a suitable site for the station, and to get dropped off on the glacier with the main equipment for the station. Brian and Federico were to travel in on the second run to bring equipment to the lodge.

After several months of looking at Nordic in photographs and maps, seeing it grow larger through the window of the helicopter, I felt excited and nervous. As we drew closer however, I was concerned to see the extent of the snow cover in the area we had been planning to deploy. Working on a ‘dry’ section of a glacier (where there is no snow) has the major advantage  of being able to see the location of the crevasses. Not only is this much safer, it allows you to move and work more efficiently, as precautions such as being roped together are not necessary. We had hoped that the winter snow pack would have melted from our site by the time we arrived, but it appeared that, for this season, we were a little early.

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Initial fly over of the glacier to select a suitable site. It became apparent at this point that there was still significant snow cover.

We landed on the glacier, and unloaded our equipment with the engines still running. As soon as we were clear of the downwash from the departing helicopter, we roped up and started surveying the area for the flattest spot for our station, probing the snow as we moved to check for crevasses. After the helicopter returned to deposit the larger pieces of equipment, we flew down as far as the lodge to  meet with Brian and Federico. With conditions the way they were, we decided we would hike up to the glacier together, and find the safest route to the site.

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Traversing the moraine at the beginning of the hike to the glacier. Smoke from forest fires further down the valley can be seen hanging in the background.

 

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Nordic Glacier. After descending the moraine, our route crossed the river, and followed the base of the mountain on the left side of the image as far as the patch of rust coloured rock to the left of the upper lake. This marks the beginning of the ‘Wedding Band’, which we ascended up to the left to gain access on to the glacier.

Each day, our hike to the glacier would begin with crossing the lateral moraine that separated the lodge from the main valley. From there, we would descend and traverse the valley to the other side, crossing the river to do so. The river crossing was a glacier monitoring exercise in itself. As the river’s source is the melt water draining from the glacier, there was a distinct daily pattern in the strength and level of the flow. In the morning, when there had been little melting during the colder night temperatures, the water level would be well below my knee. Returning in the evening, after a day of warm temperatures and sunshine, the flow would be much stronger, pulling at already tired legs. As you’d imagine, the water was pretty cold, and it was incredible to feel how quickly your heat could be drained away.

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Approaching the crossing. The river is fed directly by melt water from the glacier, meaning its temperature is very cold, and its flow varies greatly with the time of day.

 

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Rock Ptarmigan. I came across quite a few of these, usually only noticing them when I was within a couple of meters, and they would burst from behind a rock , freaking me and themselves out.

 

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The Wedding Band.

 

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Ascending alongside the glacier, significant crevasses were visible in the ice where the snow cover had melted.

 

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Setting out on the glacier towards the site where we had deposited our equipment by helicopter.

 

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Probing for crevasses on the snow covered sections of the glacier (Photo by Valentina Radic).

 

Installing the station came together relatively quickly. Although the glacier is a very different working environment to the lab or test field, I really felt the benefit of all the trial runs and lab assemblies. The station was constructed, wired, and operating after one, albeit long day, and it was fantastic to have the additional manpower of Brian and Federico, who obliged me with some serious ice drilling. A second day was spent testing to see how the data and power system was performing, and also securing the various components of the station in preparation for two months on the side of a mountain.

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A combination of steam drilling (above) and augering (below) was used to bore holes into the ice for mounting some of the sensors.

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Mounting and wiring the sensors on the main ‘quadpod’ (Photo by Federico Ponce).

 

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The completed station, looking northwest. The solar panel can be seen in the left background, which recharges the batteries housed in the yellow case.  The rain gauge and the snow/ice level monitor mast is behind the main station. The blue tarp contains the tools and equipment used for the installation, and will be left secured on the glacier until the station is dismantled.

 

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A camera for monitoring the glacier and the station over the season (see A Camera For all Seasons) was installed to the south, with its view similar to the previous image.

 

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The weather during our field work was relatively warm and sunny, and we would notice a significant difference in the surface of the glacier between ascending in the morning and descending in the evening. Crevasses and meltwater streams were appearing as the summer melt season kicked in.

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Mohammed Ali once said, ‘it isn’t the mountains ahead to climb that wear you out; it’s the pebble in your shoe.’ In this case, it was the mosquito inside your mosquito net. We carried out our field work during the buggiest few days of a particularly buggy season, and these mosquitoes couldn’t believe their luck when they saw us coming. I’ve spent time in the Amazon jungle, and this was comparable. Once on the ice however, the buzzing clouds would disappear, and we could work in peace.

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My buzzing hat. The locals were out in force to welcome us (Photo by Federico Ponce).

 

Each evening, with duties on the glacier finished, we would begin our return hike back to the lodge. Despite being tired, this was always my favourite part of the day.  No longer focusing on tasks that needed to be done, I could better appreciate the surroundings, particularly in the hour around sunset when everything would be painted gold and blue. To work in such an environment is a privilege, and time needed to be taken to set aside concerns and stresses, and simply take note of where we were.

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Sunset on Nordic mountain.

 

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Emerging stars.

 

On the morning of departure, we flew over the glacier to get our last view of the station for the next two months. I will return at the beginning of September to see how well it survived, to dismantle and transport it back to Vancouver, and to start working on what its data can tell us.

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The station through a telephoto lens, as seen from the lodge on the morning of departure.
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Flying over the moraine.
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Station from above as we flew out.

 

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Passing through the Selkirk range (images above and below) on the flight back to golden.

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Returning to base.

 

We tackled the drive back to Vancouver on the day we flew down, utilising several food/coffee/ice cream stops to keep sleep and the 35°C of the Interior Plateau at bay. Arriving back to the city, I was tired but content that the work had gone well, and looking forward to taking it easy for a few days before preparing for my next trip (Alaska). Calling into the lab to drop off a couple of items before going home, I was greeted by a delivery of 4 large boxes; the starting components for next year’s stations. It was time to get some sleep.

 

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The beginnings of next year’s field campaign.

 

 

Up Next: I’ve just returned from a glaciology summer school in Alaska; photo-journal coming in the next couple of days.