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Wings for Life<br />
“Unlike most government institutions,<br />
we can fund highly original<br />
projects and think outside the box”<br />
Dr Verena May, Wings for Life<br />
railway near Colorado Springs – with a mate holding his<br />
legs. “I just want to surprise people and show what you can<br />
do with a positive mindset.”<br />
Nathalie McGloin was just 16 when, as a passenger in<br />
a car crash, she broke the C6-C7 vertebrae in her neck,<br />
leaving her paralysed from the waist down. She is now<br />
the world’s only female quadriplegic racing driver,<br />
piloting an adapted, hand-controlled Cayman S in the<br />
Porsche Club Championship. “<strong>The</strong> adrenalin is part of the<br />
appeal, but I also get to race alongside able-bodied people,”<br />
she says. “I’d never had that parity since my injury. But all<br />
that matters here is your skill and bravery.”<br />
During her traumatic time in hospital, McGloin focused on<br />
“surviving each day” and “just dealing with being a teenager<br />
while coping with my new ‘broken body’”. Some days, she<br />
wanted to die. But now the Northampton racer talks excitedly<br />
about her first win at Silverstone – “I’d never taken the flag,<br />
so I didn’t know what to do” – the joy of racing in the rain,<br />
and hitting that perfect sweet spot between speed and<br />
control: “I call it ‘driving on the edge’.”<br />
Arriving at our photoshoot, these three pioneers share a<br />
natural athletic presence: Jackson is tall and chiselled with<br />
a military bearing; Tansley has a tanned, muscular torso; and<br />
McGloin radiates the sparkle of a self-confessed “adrenalin<br />
junkie”. She talks about the thrill of testing rally cars. Jackson<br />
discusses his new ‘Walk <strong>The</strong> Spine’ challenge – a 431km hike<br />
along the Pennine Way, over the ‘backbone’ of England. And<br />
Tansley, who can now take tentative steps with crutches, is<br />
happy to do wheelchair pull-ups for the camera.<br />
Together, they’ve demonstrated how people with SCIs<br />
can enjoy extraordinary new experiences. But what if a lifechanging<br />
cure could be found? Could outliers like Jackson<br />
become the new normal? Only 75 years ago, those lucky<br />
enough to survive an SCI would succumb to fatal infections or<br />
complications. But although medical advances have extended<br />
life expectancy, until recently a cure was deemed impossible.<br />
One reason for this pessimism was biological. <strong>The</strong> spinal<br />
cord contains a billion nerve cells (neurons) with ear-like<br />
dendrites and tongue-like axons that ‘listen’ and ‘talk’ to<br />
each other, constantly firing signals between your brain and<br />
your body. <strong>The</strong>y control movement, but also regulate your<br />
temperature, blood pressure, and bladder, bowel and sexual<br />
functions. But whereas most cells regenerate naturally,<br />
neurons in your spine do not, suggesting the rampant cell<br />
death triggered by an SCI must be irreversible.<br />
<strong>The</strong> other reason was financial. SCIs represent a tiny<br />
market for drug companies and medical bodies in comparison<br />
with the rewards of curing more widespread issues such as<br />
cancer. As a result, funding has been low and hope even<br />
lower. A shocking 1994 survey found that only 18 per cent of<br />
medics would be glad to be alive with a severe SCI, compared<br />
with 92 per cent of people actually living with one.<br />
But progress was made through the activism of Christopher<br />
Reeve – the Superman actor who became quadriplegic after<br />
falling from a horse in 1995. Along with his wife, he launched<br />
the Christopher & Dana Reeve Foundation to fund innovative<br />
research. Critics branded him a pedlar of false hopes, and<br />
some claimed talk of a ‘cure’ undermined injured people’s<br />
struggles to accept reality. But Reeve’s hope was founded in<br />
fact. Back in 1981, Canadian neurologist Dr Albert Aguayo<br />
and neuroscientist Dr Sam David had discovered that by<br />
transferring the leg nerves of paralysed rats into the animals’<br />
spinal cords, axons began to regrow. Human application was<br />
a distant dream, but the dogma-shattering revelation that<br />
axons could regenerate gave Reeve hope. Although he died in<br />
2004, his charity has now funded $136m (£105m) of research.<br />
Today’s game-changing research is still driven by grassroots<br />
campaigns. Wings for Life is a non-profit SCI research<br />
foundation set up in 2004 by <strong>Red</strong> Bull owner Dietrich Mateschitz<br />
and his friend, former motocross champion Heinz Kinigadner,<br />
whose son Hannes was paralysed in a motocross accident in<br />
2003. It has already funded 211 research projects in 19<br />
countries. Events such as the Wings for Life World Run, which<br />
takes place on May 3 (see page 67), help to fund its work.<br />
“To find a cure for spinal cord injury is one of the last<br />
huge riddles in medical research, but everyone is now<br />
certain that the goal can be achieved,” insists CEO Anita<br />
Gerhardter. “<strong>The</strong> question is not if, but when.” Scientific<br />
Coordinator Dr Verena May agrees: “Those who research<br />
such a complex area know it’s not easy, but you can feel that<br />
determination now.”<br />
But what does a ‘cure’ actually mean? “Foremost, we are<br />
looking for an actual biological cure,” says Gerhardter.<br />
“But the way to get to that cure is to restore functions<br />
like arm movement or bowel and bladder function. It<br />
is about much more than being able to walk.”<br />
Some Wings for Life researchers are working to restore<br />
movement. Professor Grégoire Courtine of the Swiss Federal<br />
Institute of Technology Lausanne and Professor Jocelyne<br />
Bloch at the Lausanne University Hospital are conducting a<br />
clinical trial, ‘Stimulation Movement Overground’ (STIMO),<br />
which combines two treatments: precise epidural electrical<br />
stimulation of the spinal cord and intensive robot-assisted<br />
movement training. <strong>The</strong> former places an electrode over the<br />
‘dura’, or protective coating, of the spine during rehabilitation<br />
to stimulate dormant neurons, enabling subjects to voluntarily<br />
flex their legs. <strong>The</strong> latter is a robotic system supporting their<br />
bodyweight as they move. Within a week, participants began<br />
to walk around the room with the support, and eventually<br />
cover 1km on a treadmill, even though some had shown<br />
64 THE RED BULLETIN