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Edition 54 of Isis News - Isis Innovation

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<strong>News</strong><br />

Reviewing the latest innovations,<br />

collaborations and technology transfer<br />

<strong>Edition</strong> <strong>54</strong> AUTUMN 2008<br />

open <strong>Innovation</strong>


Open <strong>Innovation</strong><br />

Tom Hockaday<br />

The Oxford <strong>Innovation</strong> Society<br />

Meeting in April explored<br />

the policy and practice <strong>of</strong><br />

innovation management<br />

and technology transfer. The<br />

lectures from speakers Richard<br />

Lambert, Tim Cook and Phil<br />

Riman are described in the<br />

following pages.<br />

We are grateful to White &<br />

Tom Hockaday, Managing Black Corporate & Technology<br />

Director, <strong>Isis</strong> <strong>Innovation</strong> Ltd.<br />

Lawyers for sponsoring the<br />

excellent dinner at New College for the 140 guests that<br />

followed the talks. The guests included representatives from<br />

industry, business, the pr<strong>of</strong>essions and university researchers,<br />

all committed to transferring innovative technologies from<br />

the research base.<br />

Over the summer <strong>Isis</strong> has been heavily involved in concluding<br />

the important TB vaccine deal outlined on the next page.<br />

This unique public-private partnership provides a great<br />

opportunity to address the TB health crisis.<br />

This edition also features articles by OIS Members PA<br />

Consulting and James Cowper, technologies ready for<br />

commercialisation with industry partners, and news on the<br />

spin-out portfolio, and <strong>Isis</strong> Enterprise.<br />

<strong>Isis</strong> Enterprise grows from strength to strength, delivering<br />

seminars and running the Low Carbon Incubator as<br />

described here, and also developing its wide range <strong>of</strong> open<br />

innovation consulting activities.<br />

As always, please let me have your comments, and please<br />

register to receive E-<strong>News</strong> and Technology Updates at<br />

www.isis-innovation.com/news/enews.<br />

Yours<br />

Tom Hockaday, Managing Director<br />

Contents<br />

<strong>News</strong> and events 3<br />

<strong>Innovation</strong> and Public Policy 4<br />

Richard Lambert<br />

Using your Heads – 6<br />

getting it right with Heads <strong>of</strong> Terms<br />

White & Black – OIS seminar and dinner Sponsor<br />

Commercialising University Research – 8<br />

Threats and Opportunities<br />

Oxford <strong>Innovation</strong> Society Meeting April 2008<br />

Helping innovators make bigger waves 9<br />

Oxford <strong>Innovation</strong> Society Member: PA Consulting<br />

A better way to synthesise 10<br />

flavours and fragrances<br />

<strong>Isis</strong> Project Number 3159<br />

New way to fight inflammation 11<br />

discovered at Oxford<br />

<strong>Isis</strong> Project Number 3050<br />

Liquid crystal display devices with 12<br />

stabilised transient states<br />

<strong>Isis</strong> Project Number 3512<br />

Chilli Pepper Sensor 13<br />

<strong>Isis</strong> Project Number 3670<br />

MicroRNA: a powerful tool for cancer prognosis 14<br />

<strong>Isis</strong> Project Number 3203<br />

Greater efficiency from silicon solar cells 15<br />

<strong>Isis</strong> Project Number 3447<br />

Going dotty… nanodots made easy 16<br />

<strong>Isis</strong> Project Number 2992<br />

Strategies for selective protein modification 17<br />

<strong>Isis</strong> project numbers 1147 and 3620<br />

Cancer Research UK award adenovirus 18<br />

process development contract to the CBF<br />

Oxford University Consulting<br />

Finance Act 2008 19<br />

James Cowper<br />

Oxford Nanopore Technologies 20<br />

Spin-out company<br />

Portfolio news 21<br />

By James Mallinson<br />

An introduction to Technology Transfer 22<br />

<strong>Isis</strong> Enterprise Seminar<br />

Carbon Trust 23<br />

<strong>Isis</strong> Enterprise Incubator Services<br />

Oxford <strong>Innovation</strong> Society Meetings 24<br />

2


NEWS and events<br />

The latest developments in Oxford and the world <strong>of</strong> technology transfer<br />

Hopes for TB vaccine boosted<br />

The world’s leading candidate for a tuberculosis vaccine,<br />

developed at Oxford University, is to move into the next<br />

stage <strong>of</strong> development.<br />

Tuberculosis is a global problem, infecting millions worldwide.<br />

TB, which is caused by the Mycobacterium tuberculosis<br />

bacterium, is the world’s second leading cause <strong>of</strong> death from<br />

infectious disease in adults, after HIV/AIDS, according to the<br />

World Health Organization.<br />

Over one third <strong>of</strong> the world’s population is infected with<br />

the disease, and an estimated 1.7 million people die<br />

<strong>of</strong> tuberculosis every year. One <strong>of</strong> ten people infected<br />

will develop the active form <strong>of</strong> the disease during<br />

their lifetime. Drug-resistant strains including multi-drug<br />

resistant TB and extensively drug-resistant TB are on the<br />

rise, raising concerns about the efficacy <strong>of</strong> the current<br />

BCG vaccine and leaving many patients without effective<br />

treatment. This year, the World Health Organization<br />

reported the highest rates <strong>of</strong> multi-drug resistant tuberculosis<br />

ever recorded.<br />

A joint venture between the<br />

University <strong>of</strong> Oxford and<br />

Emergent BioSolutions Inc has<br />

been formed to develop the<br />

vaccine.<br />

<strong>Isis</strong> has exclusively licensed<br />

the MVA85A tuberculosis<br />

vaccine candidate and related<br />

A Gambian infant is inoculated<br />

as part <strong>of</strong> a previous<br />

technology to the Consortium.<br />

If successful, this would be the<br />

MRC study with the MVA85A<br />

first new vaccine licensed to<br />

vaccine.<br />

prevent tuberculosis in over 80<br />

years with major implications for control <strong>of</strong> the worldwide<br />

TB epidemic.<br />

The Oxford-Emergent Tuberculosis Consortium has secured<br />

£8 million from the Wellcome Trust and the Aeras Global<br />

TB Vaccine Foundation to fund a clinical trial to test the<br />

vaccine’s efficacy. The Phase IIb trial will involve 3,000<br />

infants in South Africa, and is likely to begin in 2009.<br />

Venturefest 2008 – 10 Years <strong>of</strong> Success<br />

Oxford Spin-out Equity Management<br />

<strong>Isis</strong> played its full role at Venturefest 2008, the 10th year<br />

that the event has provided pr<strong>of</strong>essional support, advice<br />

and funding for early-stage and fast growth business. This<br />

year’s event was held at the Unipart site in the south <strong>of</strong> the<br />

city. <strong>Isis</strong> has been involved from the outset and this year we<br />

continued with our sponsorship <strong>of</strong> the event, <strong>Isis</strong> Enterprise<br />

had a display stand, and we co-chaired the Universities<br />

Technologies Seminar with the Research & Business<br />

Development Office at Oxford Brookes University.<br />

Dr Chris Towler has started as the new Director <strong>of</strong> Oxford<br />

Spin-out Equity Management, a new group charged with<br />

managing the University’s shareholdings in its spin-out<br />

companies and investing where it sees fit.<br />

James Mallinson, whose role has included managing the<br />

relationship between the University and its spin-outs for<br />

a number <strong>of</strong> years, has now moved into OSEM to work<br />

with Chris.<br />

Four Oxford technologies were presented at the Seminar<br />

and we are grateful to the speakers for taking part:<br />

Dr Kevin Matthews; Pr<strong>of</strong>essor Alison Noble; Dr Richard<br />

Wade-Martins and Pr<strong>of</strong>essor Hagan Bayley.<br />

www.venturefest.com<br />

Chris’s arrival marks a significant step-up in this activity for<br />

the University and <strong>Isis</strong>. Whilst OSEM reports directly into<br />

the University, Chris and James are based in <strong>Isis</strong>’s <strong>of</strong>fices in<br />

Summertown. Chris has spent the last few years in a senior<br />

management position at Imperial College London.<br />

3


<strong>Innovation</strong> and Public Policy<br />

Richard Lambert – Director-General, CBI<br />

I was billed to speak to the Oxford <strong>Innovation</strong> Society dinner<br />

on the important subject <strong>of</strong> ‘Living with Open <strong>Innovation</strong>’.<br />

But I thought it would be odd to discuss innovation without<br />

focussing on the Government White Paper <strong>Innovation</strong> Nation.<br />

The White Paper gives us the clearest sense yet <strong>of</strong> the<br />

direction <strong>of</strong> travel intended by the new Department for<br />

<strong>Innovation</strong>, Universities and Skills (DIUS).<br />

And it is also going to shape the way in which very large<br />

sums <strong>of</strong> public money are invested in the future. According<br />

to this document, the Government has set aside more than<br />

£2.5 billion in the Comprehensive Spending Review to<br />

support innovation in the public services alone over the next<br />

three years.<br />

The White Paper also raises policy issues which need further<br />

debate.<br />

In the past, the Government has <strong>of</strong>ten given the impression<br />

that it thinks innovation is a linear process, driven by<br />

spending on research and development. The reality <strong>of</strong><br />

course is that R&D is important, but it doesn’t tell anything<br />

like the whole story.<br />

Many <strong>of</strong> Britain’s most innovative and successful companies<br />

are in the retail and financial services sectors, and simply<br />

don’t have an R&D line in their pr<strong>of</strong>it and loss accounts.<br />

Service sectors account for around 75 per cent <strong>of</strong> output<br />

in the UK, and R&D spending is absolutely not their most<br />

important source <strong>of</strong> innovation. Indeed only about a third <strong>of</strong><br />

UK business spending on innovation is on R&D.<br />

What are the policy implications <strong>of</strong> this?<br />

Certainly not that we can afford to switch money away from<br />

the science budget. Despite this Government’s good record<br />

<strong>of</strong> increasing public investment in science over the past eight<br />

or nine years, the UK’s public and private spending on R&D<br />

is still most likely too low.<br />

But it does mean we should be looking for new ways to<br />

measure and understand the pace <strong>of</strong> innovation in our<br />

economy. To this end, the Government is tasking NESTA<br />

(National Endowment for Science Technology and the Arts)<br />

Richard Lambert – Director-General, CBI.<br />

<strong>Innovation</strong> Nation does not<br />

provide all the answers but<br />

it shows that Government<br />

thinking has now caught up<br />

with the way that innovation<br />

is working in a modern<br />

economy<br />

with developing a new <strong>Innovation</strong> Index from 2009 onwards<br />

to “provide a comprehensive assessment <strong>of</strong> the UK’s true<br />

capacity for innovation.”<br />

DIUS is also going to produce an Annual <strong>Innovation</strong> Report<br />

this year and – along with NESTA, the Economic and Social<br />

Research Council (ESRC) and the Technology Strategy Board<br />

– plans to create an <strong>Innovation</strong> Research Centre. This, it<br />

seems to me, could be a very worthwhile initiative.<br />

4


The White Paper also places much emphasis on the need<br />

for Government to improve its performance in driving<br />

innovation by way <strong>of</strong> the £150 billion it spends each year on<br />

procuring goods and services.<br />

Research Projects Agency (DARPA) in the US, but with a much<br />

broader remit and much more modest resources. It would be<br />

a great shame if this valuable initiative were crushed under<br />

the weight <strong>of</strong> unrealistic expectations.<br />

So, what’s been left out?<br />

It is rather startling that the paper makes no mention <strong>of</strong><br />

the Research Excellence Framework that is currently being<br />

designed by the Higher Education Funding Council for<br />

England to replace the Research Assessment Exercise,<br />

probably from next year. Like the RAE, the new framework<br />

will be easily the most important tool at the Government’s<br />

disposal for giving recognition, reward and motivation to<br />

academics in their research efforts.<br />

We are also going to have to wait for two papers in<br />

addition to the recent Higher Level Skills Strategy: a Science<br />

and Society Strategy and an International Strategy. Taken<br />

together, this little lot should tell us a lot more about what<br />

DIUS thinks it has been put on earth to achieve.<br />

The White Paper throws up two broader issues for debate.<br />

The Government has<br />

recognised the importance <strong>of</strong><br />

innovation<br />

What are the conclusions to be drawn from <strong>Innovation</strong><br />

Nation?<br />

First, the Government has caught up with the ideas <strong>of</strong> open<br />

innovation, whether the exchanging <strong>of</strong> ideas in a supply<br />

chain, or firms inviting the users <strong>of</strong> their products or services<br />

to contribute innovations over the internet.<br />

Second, the Government has recognised the importance<br />

<strong>of</strong> innovation in the services sector, which is especially<br />

important given the shape <strong>of</strong> the UK’s economic structures.<br />

One is about how DIUS is actually going to exercise its lead<br />

role in innovation. The day before <strong>Innovation</strong> Nation was<br />

published, the Department for Business launched its own<br />

10-year strategy on Enterprise, detailing five areas where<br />

government intends to focus its efforts. These include<br />

“business innovation” and “knowledge and skills”. What’s the<br />

overlap, and who is going to do the joining up?<br />

The other concerns the role and mission <strong>of</strong> the Technology<br />

Strategy Board. Even before the White Paper was published,<br />

there was good reason to be worried that the TSB would not<br />

have enough resources to accomplish its mission. It will have<br />

just £1bn to spend over three years.<br />

Now it looks as though a growing number and weight <strong>of</strong><br />

responsibilities and expectations are to be placed on this<br />

fledgling organisation – bringing about major societal<br />

change, playing an important leadership role across all<br />

sectors <strong>of</strong> the economy, stimulating innovation in those areas<br />

which <strong>of</strong>fer the greatest scope for boosting UK growth and<br />

productivity.<br />

This is a very big ask. We are talking in essence about<br />

something like the mission-oriented Defence Advanced<br />

Third, DIUS – like all other Government departments in the<br />

current very tight fiscal environment – is strapped for cash.<br />

Fourth, all the big questions about the role and funding <strong>of</strong><br />

universities have yet to be answered.<br />

Secretary <strong>of</strong> State, John Denham is realistic about the role<br />

<strong>of</strong> Government in stimulating commercial innovation. He<br />

likes to joke that his great undelivered speech is called ‘How<br />

Tesco could have been made more innovative by turning to<br />

the Government for help?’.<br />

<strong>Innovation</strong> Nation does not provide all the answers but it<br />

shows that Government thinking has now caught up with the<br />

way that innovation is working in a modern economy. And<br />

that is surely something to welcome.<br />

contact<br />

Richard Lambert, Director-General<br />

Confederation <strong>of</strong> British Industry<br />

Centre Point<br />

103, New Oxford Street<br />

London WC1A 1DU<br />

5


Using your Heads – getting it right with<br />

Heads <strong>of</strong> Terms<br />

White & Black – OIS seminar and dinner Sponsor<br />

These days, heads <strong>of</strong> terms (otherwise known as term sheets,<br />

letters <strong>of</strong> intent or memoranda <strong>of</strong> understanding) are very<br />

commonly used in corporate transactions. In this article,<br />

Phil Riman <strong>of</strong> specialist corporate and technology law firm<br />

White & Black discusses the benefits and pitfalls <strong>of</strong> this type<br />

<strong>of</strong> document.<br />

Heads <strong>of</strong> terms are now very much part <strong>of</strong> the standard<br />

transaction documentation and they can help to avoid<br />

misunderstandings and iron out any misconceptions right<br />

at the start <strong>of</strong> the deal. They are used to set out the main<br />

terms <strong>of</strong> the transaction and will <strong>of</strong>ten provide a “route map”<br />

<strong>of</strong> the steps required to get to completion. However, they<br />

are <strong>of</strong>ten produced with little thought being given as to<br />

whether they are appropriate in the context <strong>of</strong> the deal in<br />

question, and all too <strong>of</strong>ten they are produced without the<br />

same care and attention that goes into the main contractual<br />

documentation.<br />

Do you actually need a term sheet?<br />

Think carefully whether you need to use a full term sheet.<br />

There is a real risk that the parties can get bogged down in<br />

unnecessary detail at this initial stage, and this can delay the<br />

preparation <strong>of</strong> the full contractual documentation, as well<br />

as unnecessarily increase costs and tensions between the<br />

parties. Always make sure that the time taken to negotiate<br />

the heads is proportionate to the benefit, and bear in mind<br />

that it can sometimes be more efficient to get on with the<br />

main contract rather than worrying about the term sheet.<br />

Do not make the mistake <strong>of</strong> negotiating the main contract<br />

twice!<br />

Not binding? Not always…<br />

Term sheets are <strong>of</strong>ten prepared on the basis that they are not<br />

legally binding and will <strong>of</strong>ten include the words “subject to<br />

contract” in a prominent position, usually on the first page.<br />

Whilst this gives a strong indication that the parties did not<br />

intend the document to be legally binding, recent case law<br />

shows that the courts will sometimes conclude that a binding<br />

agreement was reached where the parties go on to do those<br />

things contemplated by the document, even where it was<br />

marked “subject to contract”.<br />

Always make sure that the<br />

time taken to negotiate the<br />

heads is proportionate to the<br />

benefit, and bear in mind that<br />

it can sometimes be more<br />

efficient to get on with the<br />

main contract rather than<br />

worrying about the term sheet<br />

You should not assume that you can rely on the “subject<br />

to contract” wording where you are dealing with a foreign<br />

party. Many foreign jurisdictions do not recognise the term<br />

and most continental European jurisdictions will impose an<br />

obligation to negotiate in good faith. This means you could<br />

be liable for damages if you break <strong>of</strong>f negotiations without<br />

6


good reason, or if you try to modify a key term that was<br />

agreed in the heads <strong>of</strong> terms.<br />

Even where the term sheet is not legally binding, it can create<br />

a strong moral obligation. Many parties will resist deviating<br />

from the principles agreed at the heads <strong>of</strong> terms stage, as<br />

they see this as “moving the goalposts”. It is <strong>of</strong>ten the case<br />

that one party to the deal has less information than the other<br />

(a buyer will know less about a business than a seller, and an<br />

investor will know less about a business than the company<br />

itself). Be cautious if you find yourself in this position, and use<br />

the heads <strong>of</strong> terms to set out any key assumptions you are<br />

making about the deal (such as the assumption that certain<br />

key contracts will be in place by completion, or that your due<br />

diligence exercise will not produce any material issues).<br />

If you do wish parts <strong>of</strong> the term sheet to be binding, you<br />

must make this clear in the document. It is quite usual for an<br />

exclusivity period given to a buyer to complete the deal and<br />

this provision, together with the obligations <strong>of</strong> confidentiality<br />

and possibly an agreement for one <strong>of</strong> the parties to pay the<br />

other’s costs in certain circumstances, are <strong>of</strong>ten expressed to<br />

be legally binding.<br />

When prepared properly,<br />

a term sheet can make the<br />

negotiation <strong>of</strong> the main<br />

documentation a smooth and<br />

painless process<br />

Make it very clear which parts <strong>of</strong> the heads <strong>of</strong> terms are<br />

intended to be binding and which are not. Involve your<br />

lawyer to make sure that you get this right.<br />

Set out any assumptions you’re relying on, particularly<br />

where your own knowledge about the business is not as<br />

great as that <strong>of</strong> the other party.<br />

Understand what you are signing (particularly where you<br />

are making any sort <strong>of</strong> concession to the other party)<br />

and make sure you have taken pr<strong>of</strong>essional advice on<br />

the document. This does not just include legal advice:<br />

you should also make sure you understand the tax<br />

consequences <strong>of</strong> the deal and, in the context <strong>of</strong> an<br />

acquisition, be aware that the mere act <strong>of</strong> signing heads<br />

<strong>of</strong> terms can sometimes restrict your ability to carry out<br />

any pre-sale tax planning.<br />

Identify the steps which have to be taken in order to<br />

complete the deal. Who will prepare the main documentation?<br />

Will a full due diligence exercise be required?<br />

Will updated accounts have to be produced? Will the<br />

consent <strong>of</strong> any third parties be required, or will tax<br />

clearance be needed? Make sure everyone is aware <strong>of</strong><br />

their responsibilities for dealing with all these points.<br />

Where appropriate, make it clear that the heads <strong>of</strong> terms<br />

are not intended to be exhaustive. This can be useful<br />

as it provides reassurance that you have not somehow<br />

conceded a point simply because it was not specifically<br />

addressed in the heads <strong>of</strong> terms.<br />

What makes a good term sheet?<br />

When prepared properly, a term sheet can make the negotiation<br />

<strong>of</strong> the main documentation a smooth and painless<br />

process. I always suggest that parties to a deal bear the<br />

following points in mind when preparing heads <strong>of</strong> terms:<br />

Set out the key components <strong>of</strong> the deal and, wherever<br />

possible, deal with any major points <strong>of</strong> principle which<br />

would otherwise have the potential to become “deal<br />

breakers” further down the line. State the underlying<br />

principles but leave the detail for the main documentation.<br />

contact<br />

Phil Riman, Senior Partner<br />

White & Black Corporate and Technology Lawyers<br />

The Great Barn, Chalford Park Barns, Oxford Road,<br />

Old Chalford, Oxfordshire OX7 5QR<br />

T +44 (0)800 035 2656<br />

7


Commercialising University Research –<br />

Threats and Opportunities<br />

Based on a talk given at the Oxford <strong>Innovation</strong> Society Meeting April 2008<br />

Since the change <strong>of</strong> government in 1997 there has been<br />

increasing government interest and government resource<br />

devoted to the so-called “third mission” <strong>of</strong> Universities<br />

i.e. the commercialisation <strong>of</strong> the knowledge they generate,<br />

the first two missions being teaching and research. This<br />

increasing focus is both a boon and a potential threat to<br />

the intrinsic values <strong>of</strong> a university, particularly a researchintensive<br />

one, since it diverts resource away from curiositydriven<br />

activity to more practical investigations. However<br />

results in Oxford show that, properly managed, the interaction<br />

between University and Industry can provide useful<br />

resources to both.<br />

Although “Knowledge Transfer” is thought by many to be a<br />

recent invention, universities have always been transferring<br />

knowledge. The current priorities seem to concentrate on<br />

the direct, and therefore relatively short-term, results <strong>of</strong><br />

commercialising inventions. This could detract from the<br />

much more significant economic impact <strong>of</strong> teaching students<br />

and exploratory research <strong>of</strong> which the commercial outputs<br />

are usually long term and <strong>of</strong>ten initially undefined.<br />

Over ten years Oxford University has developed policies<br />

and processes which recognise the equally valid, but very<br />

different, value sets which apply in academic and commercial<br />

environments and has found ways to maximise their<br />

constructive symbiosis whilst avoiding, or at least managing,<br />

the inevitable conflicts.<br />

The University also invests in resources to support the<br />

commercialisation <strong>of</strong> research results. The Science Enterprise<br />

Centre, located in the Saïd Business School, runs courses<br />

on commercialisation for researchers which have an average<br />

attendance <strong>of</strong> over 300 per session. The Research Services<br />

Office, located in the University’s central administration, but<br />

with satellite <strong>of</strong>fices in the academic divisions, is currently<br />

administering over £250 million <strong>of</strong> research grants and<br />

contracts per annum as well as working with <strong>Isis</strong> <strong>Innovation</strong><br />

to check ownership <strong>of</strong> the Intellectual Property Rights in<br />

inventions before they are commercialised.<br />

Since 1997 <strong>Isis</strong> <strong>Innovation</strong> has filed 620 patents, signed<br />

400 options and licences and helped researchers establish<br />

59 spin-out companies which between them have raised<br />

£334 million in external investment. Since 2003 Oxford<br />

University Consulting, part <strong>of</strong> <strong>Isis</strong> <strong>Innovation</strong>, has assisted<br />

Oxford researchers in signing 380 consultancy agreements.<br />

Finally the University’s wholly owned science park<br />

at Begbroke provides incubation space for start-up and<br />

spin-out companies as well as longer term accommodation<br />

for them as they grow.<br />

However a university can only become an effective part<br />

<strong>of</strong> its regional commercial infrastructure when the other<br />

participants (companies, pr<strong>of</strong>essional service providers,<br />

consultants, etc.) become part <strong>of</strong> a network that includes<br />

the university. Such a coherent network takes some time to<br />

develop and it is only through sustained commitment from<br />

the University (both in policies, resources and “attitude”)<br />

over perhaps ten years that commercial organisations<br />

(whether companies, accountants, lawyers, patent agents or<br />

investors) come to see the University as a resource for their<br />

own businesses. The results in Oxford have shown that this<br />

is indeed possible to the benefit both <strong>of</strong> the University and<br />

its commercial partners.<br />

contact<br />

Pr<strong>of</strong>essor Tim Cook, Director<br />

<strong>Isis</strong> <strong>Innovation</strong> Ltd<br />

T +44 (0)1865 280837<br />

E tim.cook@sbs.ox.ac.uk<br />

W www.isis-innovation.com<br />

8


Helping innovators make bigger waves<br />

Oxford <strong>Innovation</strong> Society Member: PA Consulting<br />

Adrian Howson and Ian Dunckley describe how PA Consulting<br />

(PA) helps companies, such as packaging innovator Burgopak,<br />

to ring-fence their Intellectual Property safely<br />

Realising the full potential <strong>of</strong> innovative ideas<br />

When a company collaborates with one that is larger or<br />

has key technology, it is hard to do so on equal terms. In<br />

particular, disputes can arise about ownership <strong>of</strong> Intellectual<br />

Property (IP); unless the smaller company has taken its<br />

invention to a fairly advanced stage before revealing the<br />

details to a prospective partner, it can find itself sharing, or<br />

even forfeiting, some pr<strong>of</strong>its from its innovation.<br />

PA’s client Burgopak had invented a highly novel packaging<br />

format, and initially had the packs hand-assembled in China<br />

and India; these hand-made packs were soon in demand<br />

for high-value products such as mobile phones and DVDs.<br />

However, in order to apply the concept to mass-produced<br />

applications such as pharmaceutical blister packs, it would<br />

be necessary to move to an automated manufacturing<br />

process. To make this possible, Burgopak needed to join<br />

forces with a manufacturing company, but it realised that it<br />

needed to be well-prepared before describing its product<br />

to the wider world.<br />

Learning to swim with the big fish<br />

Exploring alternative manufacturing methods<br />

In addition, we not only defined the optimum way <strong>of</strong><br />

manufacturing the pack, but also explored several alternative<br />

manufacturing methods in considerable depth. As well as<br />

allowing Burgopak to be sure that our chosen solution was<br />

the best, this also meant that we could patent the alternative<br />

manufacturing methods, in addition to our chosen method.<br />

This precaution ensured that Burgopak’s IP could not be<br />

threatened by a rival using a slightly different manufacturing<br />

process to produce an equivalent product.<br />

Bright future for Burgopak<br />

With its IP safeguarded, Burgopak was well-positioned to<br />

explore the marketplace for suitable partners. It subsequently<br />

formed an alliance under which Bosch-Sigpak would<br />

build machines to assemble the packs. The first production<br />

line for manufacturing the ‘Pocketpaks’ with these machines<br />

is due to open in 2008 at Brecon Pharmaceuticals Limited<br />

in Wales.<br />

Burgopak knew that its particular point <strong>of</strong> vulnerability was a<br />

lack <strong>of</strong> definition <strong>of</strong> the manufacturing process. PA therefore<br />

<strong>of</strong>fered to develop the manufacturing process, defining as<br />

many aspects as possible including the architecture for the<br />

machines, and then building risk demonstration hardware.<br />

This we did, working closely with both Burgopak and the<br />

patent agents who would protect its IP. The architecture that<br />

emerged in the area <strong>of</strong> the band assembly involved a simple<br />

heat sealing and cutting mechanism, and more importantly a<br />

patentable high-speed flow-forming mechanism.<br />

“After three months <strong>of</strong> working with PA, we had a gained a<br />

realistic idea <strong>of</strong> what was and wasn’t possible, for example<br />

in terms <strong>of</strong> the speed <strong>of</strong> manufacture. This knowledge has<br />

stood us in good stead in our subsequent negotiations with<br />

machine builders and manufacturers.”<br />

contact<br />

John O’Neill, PA Consulting<br />

Cambridge Technology Centre<br />

Melbourn Herts SG8 6DP<br />

T +44 (0)1763 267133<br />

W www.paconsulting.com<br />

9


A BETTER WAY TO SYNTHESISE<br />

FLAVOURS AND FRAGRANCES<br />

ISIS PROJECT NUMBER 3159<br />

Research from the Department <strong>of</strong><br />

Inorganic Chemistry has led to a new<br />

series <strong>of</strong> altered CYP enzymes for<br />

use in the flavour and fragrances<br />

(f&f) industry and beyond. This new<br />

series includes the first highly active<br />

single-site alteration to a natural CYP<br />

enzyme.<br />

Marketing opportunities<br />

Sales by the top 10 f&f companies<br />

reached $14bn in 2007, and the total<br />

sales volumes are estimated at $20bn.<br />

The market has experienced steady<br />

growth over the last 5 years, and<br />

growth is expected to rise over the<br />

next decade as pressure on food and<br />

energy sources continues.<br />

Current ‘chemical’ oxidation methods<br />

are energy intense and lack activity<br />

and selectivity. By comparison, our<br />

biochemical transformation methods<br />

are low energy, and thus provide an<br />

attractive alternative for a low-carbon<br />

future.<br />

The Oxford invention<br />

Oxford University’s researchers have<br />

developed novel enzyme based ‘white<br />

biotechnology’ that has the capability<br />

to perform regioselective oxidation on<br />

small chain (C3-C15) linear and cyclic<br />

hydrocarbons.<br />

Hydroxyl groups can readily be introduced<br />

into specific sites in the molecule<br />

with a high degree <strong>of</strong> stereoselectivity.<br />

Non-activated C-H groups can<br />

be targeted. Typically the oxidation<br />

produces high yields <strong>of</strong> relatively pure<br />

compounds.<br />

Active sites and access channel residues in<br />

CYP102A.<br />

Applications<br />

The initial applications are in the<br />

production <strong>of</strong> speciality chemicals in the<br />

f&f industry. Materials <strong>of</strong> interest include<br />

Menthol, Nootkatone and Verbenone.<br />

Beyond this the technology has potential<br />

for biosensing and bioremediation.<br />

Advantages<br />

The new CYP enzymes:<br />

Offer a range <strong>of</strong> activities and<br />

regioselectivity<br />

Require in some cases only singlesite<br />

modification <strong>of</strong> the natural<br />

enzyme<br />

Provide low-energy and clean<br />

routes to the production <strong>of</strong> high<br />

value chemicals.<br />

Patent status<br />

<strong>Isis</strong> <strong>Innovation</strong> has filed a patent<br />

application on the new technology. In<br />

addition, <strong>Isis</strong> is building a portfolio<br />

<strong>of</strong> CYP intellectual property which<br />

includes granted patents. This portfolio<br />

will allow a company to take a strategic<br />

position in the emerging world <strong>of</strong> CYP<br />

oxidation. We welcome discussions<br />

with companies who have an interest<br />

in driving the commercial development<br />

<strong>of</strong> the technology.<br />

Detailed technical description<br />

CYP102A1 from Bacillus megaterium is<br />

an attractive target as it is catalytically<br />

self-sufficient and can be expressed<br />

in gram-scale. Directed evolution and<br />

site-specific mutagenesis have been<br />

employed to engineer new CYP102A1<br />

variants that greatly enhance product<br />

formation rates with substrates as<br />

diverse as naphthalene, alkylbenzenes<br />

and short-chain alkanes. New selectivity<br />

options have also become available.<br />

One variant involves a single mutation<br />

at a residue not previously subjected to<br />

mutagenesis, which appears to constrict<br />

the active site, resulting typically in<br />

altered selectivity patterns, and <strong>of</strong>ten<br />

improved product yields. The other<br />

new variants show little overlap with<br />

previously reported variants.<br />

contact<br />

Dr John Wilson, Project Manager<br />

Technology Transfer Group<br />

T +44 (0)1865 280844<br />

E john.wilson@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

10


New way to fight inflammation<br />

discovered at Oxford<br />

<strong>Isis</strong> project number 3050<br />

<strong>Isis</strong> <strong>Innovation</strong>, the technology transfer<br />

arm <strong>of</strong> the University <strong>of</strong> Oxford,<br />

presents a new drug candidate for<br />

treatment <strong>of</strong> inflammatory disorders.<br />

Background<br />

Inflammation is the natural protective<br />

response <strong>of</strong> vascular tissue to injury and<br />

infection. Tissue damage leads to the<br />

production <strong>of</strong> a series <strong>of</strong> inflammatory<br />

mediators that recruit neutrophils,<br />

monocytes and macrophages into the<br />

site <strong>of</strong> injury. As well as protecting the<br />

host, inflammation initiates the healing<br />

process.<br />

Despite the beneficial role <strong>of</strong> inflammation<br />

in host defence, excessive<br />

inflammatory responses and prolonged<br />

macrophage activation can lead to a<br />

multitude <strong>of</strong> inflammatory disorders.<br />

Oxford invention<br />

Researchers at the University <strong>of</strong><br />

Oxford have discovered a series <strong>of</strong><br />

new peptide molecules that have<br />

potential as treatments <strong>of</strong> inflammatory<br />

disorders, including endotoxic<br />

shock, inflammatory bowel disease,<br />

rheumatoid arthritis, uveitis and<br />

atherosclerosis.<br />

The peptides work by reducing the<br />

production <strong>of</strong> inflammatory cytokines<br />

and signaling proteins which play an<br />

important role in the body’s response to<br />

infection and injury, but are also implicated<br />

in excessive immune responses<br />

in inflammatory diseases.<br />

Dr David Greaves, at the University <strong>of</strong><br />

Oxford’s Sir William Dunn School <strong>of</strong><br />

Pathology, said his group’s work could<br />

Dr David Greaves.<br />

Inflammation in rheumatoid arthritis,<br />

macrophages are stained in brown and the<br />

numerous T and B cells have round blue<br />

nuclei.<br />

provide a new approach to developing<br />

treatments for chronic inflammation:<br />

“All the drugs that we currently have<br />

for treating inflammation target<br />

pro-inflammatory molecules, and all<br />

have side-effects. Essentially they’re<br />

dampening down pro-inflammatory<br />

signals, not controlling the underlying<br />

inflammation. Our approach taps into<br />

the body’s naturally occurring antiinflammatory<br />

mechanism.”<br />

The peptides work by inhibiting<br />

activated macrophages via the G<br />

protein-coupled receptor (GPCR),<br />

ChemR23 – substantially reducing the<br />

production <strong>of</strong> inflammatory cytokines<br />

such as TNFα, MCP-1, IL-6 and IL-1β.<br />

In addition, the same peptides dramatically<br />

enhance clearance <strong>of</strong> pathogens<br />

and debris, potentially speeding up<br />

the body’s ability to recover from<br />

inflammation. This might be important<br />

for treatment <strong>of</strong> diseases such as<br />

age-related macular degeneration<br />

and Alzheimer’s disease.<br />

The Greaves laboratory has established<br />

that the peptides exhibit potent antiinflammatory<br />

activity in pre-clinical<br />

models <strong>of</strong> inflammation.<br />

“The attraction <strong>of</strong> these peptides is that<br />

they’re active at very low concentrations<br />

(picomolar), and they have a great<br />

deal <strong>of</strong> promise for use as new therapeutic<br />

drugs,” said Greaves.<br />

The work recently formed the basis<br />

<strong>of</strong> a paper published in the Journal<br />

<strong>of</strong> Experimental Medicine (Cash et al,<br />

2008, JEM Vol. 205, No. 4, 767-775).<br />

Patent status<br />

This work is the subject <strong>of</strong> a patent<br />

application, and <strong>Isis</strong> would like to talk<br />

to companies interested in developing<br />

the peptides as new therapeutics.<br />

contact<br />

Dr Weng Sie Wong, Project Manager<br />

– Technology Transfer Group<br />

T +44 (0)1865 280842<br />

E weng.wong@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

11


LIQUID CRYSTAL DISPLAY DEVICES WITH STABILISED<br />

TRANSIENT STATES<br />

<strong>Isis</strong> Project Number 3512<br />

Liquid Crystal Displays utilising stabilised non-permanent<br />

liquid crystal states providing devices that are brighter and<br />

handle higher quality moving images by reducing image<br />

distortion, breaking and ghosting effects.<br />

Conventional LC Devices<br />

Marketing opportunity<br />

Display manufacturers are committed to continuous innovation<br />

and performance enhancement <strong>of</strong> the Liquid Crystal Displays<br />

(LCDs). Conventional LCD devices only employ the permanent<br />

states <strong>of</strong> a liquid crystal (LC). The non-permanent LC states<br />

can have improved properties leading to LCD Televisions,<br />

Mobile Phones and PDAs having:<br />

(a)<br />

(b)<br />

Oxford LC devices<br />

Figure 1 above compares the intensity dynamic range for conventional<br />

and Oxford LC devices (a) ON-state (bright level) at 0 Volts (b) OFF-state<br />

(dark level) at 7 Volts.<br />

O Vrms<br />

A faster (sub-millisecond) response time enabling<br />

reduction in moving picture artefacts<br />

Increased battery life due to lower power consumption<br />

Higher brightness<br />

(a)<br />

(b)<br />

(c)<br />

(d)<br />

However, the short lifetime <strong>of</strong> these LC states makes them<br />

difficult to be studied, and they have not been commercially<br />

utilised.<br />

The Oxford invention<br />

Oxford researchers have demonstrated a novel poly merisation<br />

method that stabilises the non-permanent liquid crystal<br />

states and enhances the performance <strong>of</strong> these LCDs over<br />

the conventional technology. For example by stabilising the<br />

non-permanent state in a pi-cell results in:<br />

Fig. 2 The LC devices using Oxford polymerization method show no<br />

dynamic range suppression and unwanted recovery<br />

Compared with the conventional devices the Oxford devices<br />

have brightness enhancement <strong>of</strong> the ON-state by a factor <strong>of</strong><br />

1.18. Moreover, by placing the rubbing direction parallel to<br />

the crossed polarizers, the Oxford devices are stabilized in the<br />

transient RB state (Figure 2(b)).<br />

Furthermore, Oxford devices could be used with a switching<br />

backlight technique to achieve a much higher dynamic range.<br />

Higher intensity dynamic range as compared to the<br />

conventionally polymerised devices (see figure 1)<br />

Lower power consumption and faster response time<br />

No unwanted recovery into the splay or twist states (see<br />

figure 2)<br />

Figure 2(a) demonstrates that the conventional devices (normal<br />

pi-cell) have the problem <strong>of</strong> unwanted recovery (at 0 V rms),<br />

which is not suitable for display operation. As a result we need<br />

to apply 2 Vrms to the conventional devices (normal pi-cell)<br />

to prevent this, however Oxford LC devices (RB pi-cell) have<br />

no unwanted recovery into topologically distinct states when<br />

the field is removed (figure 2(c)). Figure 2 (d) compares the<br />

OFF-state (at 7 Vrms) <strong>of</strong> the conventional and Oxford devices.<br />

Patent status<br />

This work is the subject <strong>of</strong> a UK patent application, and <strong>Isis</strong><br />

would like to talk to companies interested in commercialising<br />

this opportunity. Please contact the <strong>Isis</strong> Project Manager to<br />

discuss this further.<br />

contact<br />

Dr Rakesh Roshan,<br />

Project Manager – Technology Transfer Group<br />

T +44 (0)1865 280853<br />

E rakesh.roshan@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

12


Chilli Pepper Sensor<br />

<strong>Isis</strong> Project Number 3670<br />

Pr<strong>of</strong>essor Richard Compton and<br />

co-researchers have developed a novel<br />

way to determine the “hotness” <strong>of</strong><br />

chilli peppers.<br />

Hot topic<br />

Look around any high street or supermarket<br />

and it is clear that consumer<br />

demand for spicy foods is growing.<br />

Indeed, world demand for hot chilli<br />

peppers is over 2 million tonnes<br />

annually, most <strong>of</strong> which is produced in<br />

India, Pakistan and China.<br />

Out with the old…<br />

Capsaicin is the chemical responsible<br />

for the hot taste or piquancy <strong>of</strong> chilli<br />

peppers, and measuring the concentration<br />

<strong>of</strong> capsaicin is an indicator <strong>of</strong><br />

“hotness” <strong>of</strong> any given chilli pepper,<br />

hot sauce and other related foodstuff.<br />

Currently capsaicin concentration in<br />

foods is measured using the Scoville-unit<br />

based system, which can be traced back<br />

to 1912. Five tasters are given increasingly<br />

diluted samples until they can<br />

no longer taste the heat; clearly very<br />

subjective. High Performance Liquid<br />

Chromatography (HPLC) is also used for<br />

quality assurance in the food industry,<br />

but is disfavoured on grounds <strong>of</strong> its<br />

requirement for bulky and expensive<br />

equipment that is impractical to use in<br />

remote producing regions.<br />

is a fantastic detection technique for<br />

capsaicinoids because it’s so simple – it<br />

integrates over all <strong>of</strong> the heat creating<br />

constituents because all the capsaicinoids<br />

have essentially the same electrochemical<br />

response.” MWCNTs <strong>of</strong>fer the<br />

advantage <strong>of</strong> having a huge surface<br />

area for the adsorption <strong>of</strong> capsaicin,<br />

leading to an enhanced electrochemical<br />

response. Compton’s invention determines<br />

capsaicin concentration electrochemically<br />

and results tally very well to<br />

the existing methods.<br />

Commercialisation<br />

This analytical method, patented by <strong>Isis</strong><br />

<strong>Innovation</strong>, has been further developed<br />

into a screen-printed electrode, demonstrating<br />

that this approach can be incorporated<br />

into a sensing device that is<br />

easy to use, accurate and inexpensive<br />

to produce. According to Compton,<br />

“The sensor could be used by the<br />

food industry to ascertain capsaicin<br />

concentration in a much more straightforward<br />

manner than human tasting or<br />

HPLC,” he explains, “there is a possibility<br />

for making a low cost device, with<br />

simple handheld electronics, for use<br />

on chilli producing farms and also as a<br />

gourmet gadget for the restaurant or<br />

domestic market!” <strong>Isis</strong> is keen to speak<br />

to companies interested in partnering<br />

this opportunity.<br />

Compton’s<br />

invention<br />

determines<br />

capsaicin<br />

concentration<br />

electrochemically<br />

and results tally<br />

very well to the<br />

existing methods<br />

In with the new…<br />

This invention is a sensitive electroanalytical<br />

methodology for the determination<br />

<strong>of</strong> capsaicin using adsorptive<br />

stripping voltammetry (ASV) with multiwalled<br />

carbon nanotube (MWCNT)<br />

based electrodes. Compton says, “ASV<br />

contact<br />

Dr Jamie Ferguson, Project Manager<br />

– Technology Transfer Group<br />

T +44 (0)1865 280851<br />

E jamie.ferguson@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

13


Micro-RNA: a powerful tool for cancer<br />

prognosis<br />

<strong>Isis</strong> Project Number 3203<br />

The accurate prediction <strong>of</strong> how an individual cancer patient’s<br />

tumour will develop is critical in guiding clinicians’ treatment<br />

strategies. A variety <strong>of</strong> prognostic factors are typically<br />

assessed, from tumour size to histological grade, but these<br />

are <strong>of</strong>ten poorly effective in determining whether a patient<br />

will benefit from adjuvant therapies, which are now in<br />

widespread use in the clinic.<br />

Adjuvant therapies are given to patients in addition to primary<br />

therapies such as surgery and radiotherapy. For example, in<br />

breast cancer, pharmaceutical adjuvant therapies have been<br />

shown to help prevent the original cancer from returning,<br />

and also to help prevent the development <strong>of</strong> new cancers.<br />

However, while these therapies can be very effective in some<br />

cases, and have improved the prospect <strong>of</strong> survival for many<br />

cancer patients, other individuals do not respond, and <strong>of</strong>ten<br />

suffer unpleasant side effects. Identifying at the point <strong>of</strong><br />

diagnosis which patients will benefit from adjuvant therapy<br />

is therefore highly desirable.<br />

Researchers at the University <strong>of</strong> Oxford (Pr<strong>of</strong> Adrian Harris, Dr<br />

Jiannis Ragoussis, Dr Carme Camps) and at Flinders Medical<br />

Centre (Pr<strong>of</strong> Jonathan Gleadle) have used a new approach<br />

to help establish at an early stage whether a breast cancer<br />

patient is likely to respond positively to adjuvant therapies.<br />

Based on the knowledge that small RNA molecules called<br />

microRNAs are differentially expressed in tumours, the<br />

researchers sought to identify whether specific examples<br />

were associated with patient mortality. More specifically, they<br />

looked at microRNAs associated with hypoxic (low oxygen)<br />

conditions, hypoxia being a characteristic <strong>of</strong> many tumours.<br />

219 breast cancer tumour samples collected from patients<br />

over a period spanning initial diagnosis through to clinical<br />

outcome. This enabled the researchers to determine whether<br />

and to what extent expression <strong>of</strong> the specific microRNAs<br />

corresponded to the survival <strong>of</strong> the patients.<br />

One microRNA (miRNA-210) was found to exhibit a highly<br />

significant inverse correlation with both recurrence-free<br />

and overall survival <strong>of</strong> the patients – i.e. the data show that<br />

patients with the highest levels <strong>of</strong> expression <strong>of</strong> miRNA-210<br />

are more likely to develop a recurrence <strong>of</strong> breast cancer and<br />

are more likely to die from breast cancer than those patients<br />

with lower levels <strong>of</strong> expression. Given that it is known<br />

that patients with the poorest survival prognosis are those<br />

which are more likely to benefit from adjuvant therapies,<br />

miRNA-210 analysis could be an important tool in informing<br />

clinicians’ prescribing decisions.<br />

MiRNA-210 therefore potentially represents a single molecule,<br />

cost effective prognostic for breast cancer. A patent has been<br />

filed by <strong>Isis</strong> <strong>Innovation</strong> Ltd and further research is underway at<br />

the University to further characterise the prognostic potential<br />

<strong>of</strong> the molecule. In particular, the applicability <strong>of</strong> miRNA-210<br />

to other cancers is being explored, and the methods for<br />

detection in tissue and blood samples will be refined.<br />

The intellectual property protecting miRNA-210 is available<br />

for licensing from <strong>Isis</strong>, and companies interested in working<br />

with Oxford to develop the invention into a commercial<br />

product should contact the <strong>Isis</strong> Project Manager.<br />

MicroRNAs represent attractive clinical and commercial<br />

targets for use as prognostic factors. They are known to be<br />

highly important in (down) regulating gene expression, and<br />

are stable and easy to analyse compared to messenger RNA,<br />

which degrades rapidly.<br />

The researchers initially identified microRNAs for which<br />

there was a significant change in expression associated<br />

with hypoxic conditions. Eleven microRNAs were found to<br />

be differentially expressed between cells grown in normal<br />

and low oxygen levels, and <strong>of</strong> these only three exhibited a<br />

greater than two-fold induction in response to hypoxia. The<br />

microRNA candidates were then analysed against a bank <strong>of</strong><br />

contact<br />

Dr Adam Stoten<br />

Project Team Manager – Technology Transfer Group<br />

T +44 (0)1865 280909<br />

E adam.stoten@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

14


Greater efficiency from silicon solar cells<br />

<strong>Isis</strong> Project Number 3447<br />

University <strong>of</strong> Oxford researchers have developed a method<br />

for treating solar cell multicrystalline silicon to increase its<br />

efficiency<br />

Background<br />

The solar cell market is currently growing at 40% or more<br />

per year with the dominant technology being based on<br />

multicrystalline silicon. Compared to single crystal material<br />

multicrystalline silicon is cheap to produce but it also<br />

contains more electrically active defects that serve to reduce<br />

the overall efficiency <strong>of</strong> the completed cells. The most<br />

important <strong>of</strong> these defects is widely acknowledged to be line<br />

defects (dislocations).<br />

Optical micrograph showing typical defects in multicrystalline silicon.<br />

The Oxford invention<br />

Researchers at the University <strong>of</strong> Oxford have developed a<br />

method for treating multicrystalline silicon that counteracts<br />

the problem <strong>of</strong> the electrical activity <strong>of</strong> dislocations. The<br />

technique is:<br />

low cost<br />

low temperature<br />

a simple process carried out on the device surface<br />

Preliminary studies have shown that the electrical effects <strong>of</strong><br />

dislocations can be modified to a depth <strong>of</strong> 30 microns or<br />

more, whilst still maintaining structural integrity <strong>of</strong> the silicon<br />

substrate.<br />

Researchers at the University<br />

<strong>of</strong> Oxford have developed<br />

a method for treating<br />

multicrystalline silicon that<br />

counteracts the problem<br />

<strong>of</strong> the electrical activity <strong>of</strong><br />

dislocations<br />

Patent status<br />

This work is the subject <strong>of</strong> patent application, and <strong>Isis</strong> would<br />

like to talk to companies interested in developing the<br />

commercial opportunity that this represents. Please contact<br />

the <strong>Isis</strong> Project Manager to discuss this further.<br />

contact<br />

Dr Stuart Wilkinson<br />

Project Manager – Technology Transfer Group<br />

T +44 (0)1865 280907<br />

E stuart.wilkinson@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

15


Going dotty… nanodots made easy<br />

<strong>Isis</strong> Project Number 2992<br />

University <strong>of</strong> Oxford researchers have developed a simple,<br />

quick and reliable method for producing nanostructured<br />

arrays for optical, electronic & magnetic applications.<br />

A method for forming arrays <strong>of</strong> nanostructures has been<br />

developed at the University, which does not require the use<br />

<strong>of</strong> templates or serial writing. The structures have promising<br />

applications in a wide variety <strong>of</strong> optical, electronic and<br />

magnetic applications, including magnetic force microscopy<br />

and photoluminescence.<br />

Background<br />

The properties <strong>of</strong> one-dimensional nanostructures arise from<br />

their large surfaces and possible quantum confinement<br />

effects. However, current methods <strong>of</strong> making nanostructured<br />

arrays using focussed ion beam (FIB) technologies require<br />

the use <strong>of</strong> masks or templates, which have limited accuracy,<br />

and achieve poor aspect ratios.<br />

Enhancing data storage<br />

The Oxford nanostructures have exciting prospects for<br />

data storage; the multilayer structures exhibit vortex state<br />

magnetization, which can enhance data records and magnetic<br />

random access memories.<br />

The Oxford invention<br />

The Oxford technology uses lithographic patterning, followed<br />

by rastering with FIB to create an array which allows a variety<br />

<strong>of</strong> nanostructures to be produced, including nanoneedles,<br />

nanodots, nanorings and nanorods.<br />

The technique produces an array in less than three minutes.<br />

Its structure depends on the ion dose or exposure time. A<br />

lower dose creates the rounded dots, while a higher dose<br />

produces pointed needle shapes.<br />

The method requires no wet chemical etchants, and<br />

produces precisely positioned features, <strong>of</strong> the order <strong>of</strong> a few<br />

nanometres, by an efficient, simple and low cost procedure.<br />

Electron micrographs showing the range <strong>of</strong> nano-structure arrays which<br />

can be produced.<br />

Patent status<br />

This work is the subject <strong>of</strong> patent application, and <strong>Isis</strong> would<br />

like to talk to companies interested in developing the<br />

commercial opportunity that this represents. Please contact<br />

the <strong>Isis</strong> Project Manager to discuss this further.<br />

contact<br />

Dr Stuart Wilkinson<br />

Project Manager – Technology Transfer Group<br />

T +44 (0)1865 280907<br />

E stuart.wilkinson@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

16


STRATEGIES FOR SELECTIVE PROTEIN<br />

MODIFICATION<br />

<strong>Isis</strong> project NUMBERS 1147 and 3620<br />

Oxford Researchers have developed new strategies for<br />

selective protein modification.<br />

Background<br />

Post-translational modification (PTM) is an important step in<br />

protein biosynthesis that increases the range <strong>of</strong> functions <strong>of</strong> a<br />

protein. Protein function can be adjusted by the attachment <strong>of</strong><br />

other biological entities (e.g. carbohydrates, lipids, phosphates),<br />

or by inducing chemical changes that can, for example, cause<br />

the protein to adopt a new 3-dimensional structure.<br />

sulphur-containing amino acid, is converted to dehydroalanine<br />

(Dha) via an oxidative elimination. Dha provides a convenient<br />

chemical handle for further post-translational modifications,<br />

enabling selective attachment <strong>of</strong> other molecules to proteins.<br />

The method is advantageous over other PTM methods because<br />

it produces one well-defined protein conjugate rather than an<br />

heterogeneous mixture. The method is also simple, quick and<br />

relatively inexpensive compared to enzymatic techniques.<br />

Marketing opportunity<br />

Selective engineering <strong>of</strong> proteins has been used to develop<br />

therapeutic proteins for the treatment <strong>of</strong> cancer, cystic<br />

fibrosis, diabetes, anaemia, and more. The market for therapeutic<br />

proteins is large ($37 billion in 2003) and growing<br />

(>15% growth p.a.), and is expected to reach $90 billion by<br />

2010. However, the accurate and consistent bioprocessing <strong>of</strong><br />

therapeutic proteins is very difficult, due to their sensitivity<br />

to preparative conditions. This presents challenges for the<br />

manufacture, regulation and safety <strong>of</strong> therapeutic proteins.<br />

There is an immediate need for methods that enable specific<br />

and controllable modification <strong>of</strong> proteins.<br />

The Oxford inventions<br />

Pr<strong>of</strong>essor Benjamin G. Davis (Dept. <strong>of</strong> Chemistry) leads a<br />

large and active research programme in the fields <strong>of</strong> carbohydrate<br />

and protein chemical biology. Several technologies<br />

developed in the Davis research group are available for<br />

licensing from <strong>Isis</strong> <strong>Innovation</strong>. Here we highlight some new<br />

strategies for the site-selective modification <strong>of</strong> proteins.<br />

Strategy 1 (<strong>Isis</strong> project 1147) uses site directed mutagenesis<br />

and chemical modification to tailor the substrate specificity<br />

<strong>of</strong> carbohydrate processing enzymes 1 . The enzymes can<br />

perform selective glycosylation <strong>of</strong> proteins or may be used to<br />

purify mixtures <strong>of</strong> glycoproteins via selective deglycosylation.<br />

This method <strong>of</strong>fers a general and versatile route to highly<br />

pure glycoproteins which may be therapeutically effective.<br />

Strategy 2 (<strong>Isis</strong> project 3620) is a new method for the siteselective<br />

modification <strong>of</strong> proteins 2 . In this method, cysteine, a<br />

Strategy 2: Conversion <strong>of</strong> cysteine to dehydroalanine.<br />

The Oxford researchers have exploited the Dha handle<br />

afforded by strategy 2, to enable attachment via an olefin<br />

metathesis reaction <strong>of</strong> various molecules (e.g. polyethylene<br />

glycol, carbohydrates, peptides, proteins, lipids, phosphates)<br />

to proteins 3 . The method, which can be carried out in water<br />

at room temperature, is extremely rapid and site selective,<br />

and provides access to highly pure glycoproteins.<br />

Patent status<br />

These technologies are the subject <strong>of</strong> three international<br />

patent applications, and <strong>Isis</strong> would like to talk to companies<br />

interested in developing the commercial opportunities that<br />

they represent. Please contact the <strong>Isis</strong> Project Manager to<br />

discuss this further.<br />

Ref 1: S.M. Hancock, K. Corbett, A.P. Fordham-Skelton, J.A.<br />

Gatehouse, B.G. Davis, ChemBioChem, 6, 866 (2005).<br />

Ref 2: G.J.L. Bernardes, J.M. Chalker, J.C. Errey, B.G. Davis, J.<br />

Am. Chem. Soc, 130, 5052 (2008).<br />

Ref 3: Y.A. Lin, J.M. Chalker, N. Floyd, G.J.L Bernardes, B.G. Davis,<br />

J. Am. Chem. Soc. ASAP Article (2008).<br />

contact<br />

Dr Emma Sceats<br />

Project Manager – Technology Transfer Group<br />

T +44 (0)1865 280856<br />

E emma.sceats@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

17


Cancer Research UK award adenovirus<br />

process development contract to the CBF<br />

Oxford University Consulting<br />

Cancer Research UK has awarded the University <strong>of</strong> Oxford’s<br />

Clinical BioManufacturing Facility (CBF) its first commercial<br />

process development contract for the production <strong>of</strong> an<br />

adenovirus vector, for use in treating patients with recurrent<br />

ovarian cancer and hepatic metastases associated with<br />

colorectal cancer.<br />

The CBF already possesses a distinguished history in the<br />

production <strong>of</strong> biological products for use in medicine, in<br />

particular, monoclonal antibodies and related biologics*.<br />

Originally known as the Therapeutic Antibody Centre (TAC),<br />

the unit was a leading academic GMP (Good Manufacturing<br />

Practice) facility for the production <strong>of</strong> monoclonal antibodies<br />

and part <strong>of</strong> the Sir William Dunn School <strong>of</strong> Pathology.<br />

However, in November 2005 the unit became the CBF<br />

and joined the Nuffield Department <strong>of</strong> Clinical Medicine.<br />

Today the CBF’s focus is upon the challenges faced in the<br />

production <strong>of</strong> viral vectors for use as novel recombinant<br />

vaccines and for cancer therapy. Its most notable recent<br />

success has been in the production <strong>of</strong> their first vaccine for<br />

the prevention <strong>of</strong> malaria, which is in Phase I Clinical Trials<br />

at the Centre for Clinical Vaccinology and Tropical Medicine.<br />

Two novel vaccines against hepatitis C have full approval<br />

from the Medicines and Healthcare products Regulatory<br />

Agency (MHRA), and are about to start Phase I clinical trials<br />

this summer.<br />

CBF’s objective is to provide the link between academic<br />

research and clinical drug development, thereby facilitating<br />

the rapid progress <strong>of</strong> promising biologics into clinical trials.<br />

A suite <strong>of</strong> clean rooms with supporting QC (Quality Control)<br />

laboratories and a nominated Qualified Person enables the<br />

production <strong>of</strong> master cell banks, master virus seed stocks<br />

and clinical grade material. The CBF is unusual in that it also<br />

<strong>of</strong>fers a fill and finish service. It is therefore able to <strong>of</strong>fer a<br />

complete service, starting with DNA, and ending up with the<br />

final clinical drug product in its finished form.<br />

All work at the CBF is in compliance with the Manufacturer’s<br />

Authorisation for Investigational Medicinal Products, known<br />

as MIA(IMP), from the MHRA which ensures that the CBF<br />

is manufacturing and releasing final clinical trial products<br />

in accordance with the European Clinical Trials Directive,<br />

2004. The CBF’s MIA(IMP) permits the importation <strong>of</strong> certain<br />

product categories <strong>of</strong> investigational medicinal products<br />

from outside the EU, for use in clinical trials inside the<br />

European Union.<br />

Within the field <strong>of</strong> cancer gene therapy, adenoviruses are<br />

particularly promising vectors because they achieve efficient<br />

cell cycle-independent infection, they mediate a significant<br />

inflammatory effect, and they do not integrate into cellular<br />

DNA. Indeed the first two cancer gene therapy products,<br />

now licensed in China, are both adenoviruses. Adenovirus<br />

can be used to deliver therapeutic transgenes (e.g. encoding<br />

tumour suppressors or immunostimulatory proteins) or the<br />

virus can be designed to replicate selectively within cancer<br />

cells and cause destruction <strong>of</strong> them before spreading to<br />

infect adjacent cells, so called ‘virotherapy’.<br />

The work for Cancer Research UK will involve scaling up the<br />

production methodology <strong>of</strong> an adenovirus for virotherapy,<br />

known as VTP-1, so that sufficient quantities can be produced<br />

to permit its use in two Phase I clinical trials.<br />

Dr Shamim Kazmi-Stokes, a Principal Project Manager in<br />

Cancer Research UK’s Drug Development Office, said: “We<br />

selected the CBF for this contract as our previous experience<br />

with the team during the production <strong>of</strong> a chimeric monoclonal<br />

antibody – which is now in Phase I clinical trial – was very<br />

positive. Cancer Research UK recognises that the CBF team<br />

has an excellent skill set for virus production which will be<br />

invaluable to rise to, and overcome the challenges <strong>of</strong> viral<br />

vector process development and GMP manufacture.”<br />

Oxford University Consulting (OUC) negotiated this<br />

contract with Cancer Research UK on behalf <strong>of</strong> the Clinical<br />

BioManufacturing Facility.<br />

* Biologics are medicines produced by biological processes usually<br />

involving recombinant DNA technology.<br />

contact<br />

Gill Rowe<br />

Project Manager, Oxford University Consulting<br />

T +44 (0)1865 280825<br />

E gill.rowe@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

18


Finance Act 2008<br />

James Cowper<br />

Following the passing <strong>of</strong> the<br />

Finance Act 2008, Sharon<br />

Bedford, Tax Partner at James<br />

Cowper highlights the mixed<br />

news for early stage technology<br />

companies.<br />

Research and development<br />

tax incentives<br />

Sharon Bedford, Tax Partner<br />

James Cowper.<br />

R&D tax incentives have<br />

helped fund the technological advances <strong>of</strong> many innovative<br />

companies by reducing their corporation tax bill or providing<br />

cash payments.<br />

There are two schemes, the large company scheme and the<br />

Small Medium Sized company (SME) scheme. Following the<br />

passing <strong>of</strong> the Finance Act 2008, companies qualifying under<br />

the SME scheme will benefit from an enhanced tax deduction<br />

which will increase from 150% to 175% <strong>of</strong> qualifying R&D<br />

expenditure; whilst for other companies the increase is from<br />

125% to 130%. The effective date <strong>of</strong> these changes has yet<br />

to be announced.<br />

Companies qualifying under the SME scheme have, subject<br />

to certain limits, been able to surrender R&D tax losses for<br />

cash <strong>of</strong> approx 24% <strong>of</strong> the eligible R&D spend. Despite the<br />

increase in the enhanced tax deduction percentages above,<br />

the cash back % has risen only slightly to 24.5%.<br />

It has also been confirmed that from 1 August 2008 more<br />

companies will qualify under the SME scheme, as the upper<br />

qualifying limits have doubled to 500 employees, €100m<br />

turnover and €86m balance sheet total.<br />

Capital Gains Tax (CGT) changes<br />

Since 6 April 2008 the standard rate <strong>of</strong> CGT has been fixed<br />

at 18%, irrespective <strong>of</strong> the type <strong>of</strong> asset and the length<br />

<strong>of</strong> ownership. Although this may reduce the tax payable<br />

on some capital assets (e.g. buy to let properties) it will<br />

generally increase the CGT payable on the sale <strong>of</strong> private<br />

trading companies: most investors previously qualifying for a<br />

10% rate after two years <strong>of</strong> ownership.<br />

The Finance Act 2008 enacts “entrepreneurs’ relief” which<br />

reintroduces the 10% rate on the first £1 million <strong>of</strong> lifetime<br />

gains for individual investors who have owned at least 5% <strong>of</strong><br />

a company for 1 year and are an employee or <strong>of</strong>ficer <strong>of</strong> the<br />

company. Future funding rounds may have to be structured<br />

with these new rules in mind.<br />

Enterprise Investment Scheme (EIS)<br />

For companies who can establish EIS status the changes<br />

in CGT rules may be less important in seeking funding.<br />

If properly structured EIS share investments can be CGT<br />

free after three years <strong>of</strong> ownership. The Finance Act also<br />

increases the EIS limit per individual in any one tax year from<br />

£400,000 to £500,000.<br />

This has, perhaps unintentionally, made EIS temporarily even<br />

more attractive for taxpayers who have CGT gains in the last<br />

three years between 20% to 40%. The tax on these gains can<br />

be deferred by rolling over into EIS shares; when the gain<br />

comes back into charge following the disposal <strong>of</strong> the EIS<br />

shares it should only be taxed at 18%.<br />

In order to enable to obtain EU approval to the above<br />

changes, concessions have had to be made. In future the<br />

total R&D relief on a given project will be capped at €7.5m<br />

and no cash back will be paid to companies whose last<br />

published accounts show they are not a going concern. As<br />

a result in future it may be harder to rely on R&D tax incentives<br />

to tie over the company’s finances until the next funding<br />

round; not ideal given the current credit crunch.<br />

contact<br />

Sharon Bedford, Tax Partner<br />

James Cowper<br />

Willow Court, 7 West Way, Oxford OX2 0JB<br />

T +44 (0)1865 200500<br />

W www.jamescowper.co.uk<br />

19


Oxford Nanopore Technologies<br />

Spin-out Company<br />

2008 is proving to be a busy and exciting year for Oxford<br />

Nanopore Technologies, one <strong>of</strong> Oxford’s most successful<br />

spinouts. First, in March, Oxford Nanolabs (as it was then)<br />

announced that it had secured £10m ($20.1m) in new<br />

investment from institutional and private investors, then<br />

in May the company changed its name to become Oxford<br />

Nanopore Technologies, or ‘Oxford Nanopore’. Reflecting<br />

this confidence, the company announced in June that it had<br />

appointed Dr John Milton as Director <strong>of</strong> Nanopore Chemistry<br />

and Clive G. Brown as Director <strong>of</strong> Bioinformatics and IT. So<br />

what’s behind this flurry <strong>of</strong> activity? The short answer is some<br />

great technology and, according to Pr<strong>of</strong>essor Bayley, founder<br />

<strong>of</strong> the company and Pr<strong>of</strong>essor <strong>of</strong> Chemical Biology at Oxford:<br />

“a model partnership between academia and industry.”<br />

Based on the research <strong>of</strong> Pr<strong>of</strong>essor Bayley, Oxford Nanopore<br />

is developing nanopore technology to provide a revolutionary<br />

method <strong>of</strong> molecular detection and analysis. This<br />

has a broad range <strong>of</strong> potential applications including DNA<br />

sequencing, diagnostics and defence.<br />

BASE technology, Oxford Nanopore’s proprietary system<br />

for DNA sequencing, employs nanopores to process, identify<br />

and record DNA bases in sequence. In contrast to current<br />

sequencing technologies, nanopores can measure single<br />

molecules directly, without the need for nucleic acid amplification,<br />

chemical labelling, optical instrumentation and the<br />

need to convert photon signals into digital data. The system<br />

will be massively scalable as single nanopores can be set<br />

within individual wells in an arrayed silicon chip.<br />

<strong>Isis</strong> has been associated with the company since its inception<br />

– helping it to spin-out from the University in 2005, licensingin<br />

core technologies and patents, and supplying academic<br />

consultants through <strong>Isis</strong>’s dedicated consultancy arm –<br />

Oxford University Consulting. We wish Oxford Nanopore<br />

every success as it embarks on the next chapter <strong>of</strong> its development,<br />

and we look forward to continuing to support it in<br />

its quest to achieve a step-change in the power and cost <strong>of</strong><br />

DNA sequencing.<br />

This novel and scalable technology has the potential to<br />

transform both the speed and cost <strong>of</strong> DNA sequencing and<br />

comes at a time when there is an explosive interest in the<br />

race for the ‘$1000 genome’. The company believes that its<br />

technology will enable a new era in medicine, agriculture,<br />

energy, biodiversity, evolutionary biology, genealogy and<br />

many other fields.<br />

The nanopore molecular detection system can be adapted<br />

to detect a wide range <strong>of</strong> molecules, including other nucleic<br />

acids, proteins, small organic molecules and ionic species.<br />

“The power and versatility <strong>of</strong> nanopores will make nanopores<br />

the technology <strong>of</strong> choice for molecular analysis,” says CEO,<br />

Gordon Sanghera.<br />

contact<br />

Andrew G<strong>of</strong>f<br />

Project Manager, Oxford University Consulting<br />

T +44 (0)1865 280866<br />

E andrew.g<strong>of</strong>f@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

Dr Gordon Sanghera<br />

Oxford Nanopore Technologies<br />

E Gordon.Sanghera@nanoporetech.com<br />

20


Portfolio news<br />

By James Mallinson<br />

Pharminox completes £2 million funding round<br />

NaturalMotion and NVIDIA bring a new level <strong>of</strong> realism<br />

to games<br />

NVIDIA Corporation (Nasdaq: NVDA), the worldwide leader<br />

in programmable graphics processor technologies, and<br />

NaturalMotion Ltd, Oxford spin-out and the developer<br />

behind the highly acclaimed euphoria motion synthesis<br />

technology, today announced that the companies have<br />

teamed up to <strong>of</strong>fer game developers and publishers easyto-use,<br />

highly integrated solutions for adding animation and<br />

physics in next-generation games.<br />

Pharminox Limited, an oncology R&D company spun out<br />

from the Department <strong>of</strong> Chemistry in 2002, announced that<br />

it has successfully completed a new round <strong>of</strong> equity funding,<br />

raising just over £2 million from new and existing investors.<br />

The proceeds <strong>of</strong> the funding will be used to progress the<br />

Company’s portfolio <strong>of</strong> novel small molecule cancer therapeutics.<br />

The Company also announced that following the fundraising,<br />

Mr Alan Miller, former Chief Investment Officer <strong>of</strong> New Star<br />

Asset Management, has joined the Pharminox Board as a<br />

Non-executive Director.<br />

Peter Worrall, Chief Executive <strong>of</strong> Pharminox said, “The new<br />

funds will be used primarily to advance the lead candidates<br />

from our telomere targeting and redox homeostasis<br />

modulator programmes into full preclinical development,<br />

and I am very grateful to our shareholders for their continued<br />

support. I am also delighted to welcome Alan Miller to the<br />

Board. Alan brings a wealth <strong>of</strong> investment and financial<br />

experience, which will be invaluable as the Company moves<br />

to the next stage in its development.”<br />

Pharminox has signed an agreement with the Schering-Plough<br />

Research Institute, the research arm <strong>of</strong> Schering-Plough<br />

Corporation, to undertake a joint research programme aimed<br />

at discovering novel small molecule anti-cancer therapies.<br />

“The introduction <strong>of</strong> NaturalMotion’s AI and Adaptive<br />

Behaviors is the next big breakthrough in gaming,” said<br />

Roy Taylor, Vice President <strong>of</strong> Content Relations at NVIDIA.<br />

“This technology takes us into a new level <strong>of</strong> immersion as<br />

characters roll, jump, duck and react to the players’ actions<br />

and the environments around them. We are delighted to<br />

be working with NaturalMotion to bring this new level <strong>of</strong><br />

character animation to the world.”<br />

Starting with the upcoming release <strong>of</strong> NaturalMotion’s morpheme<br />

animation engine, NVIDIA’s PhysX technology will provide<br />

rigid body dynamics functionality across its product portfolio,<br />

supporting both console (PS3, Xbox 360 and Wii) and PC<br />

platforms. In addition, PC titles will benefit from GeForce GPU<br />

acceleration for both PhysX and future versions <strong>of</strong> morpheme,<br />

bringing additional motion fidelity to the PC game experience.<br />

“We’re deeply impressed by NVIDIA’s commitment and their<br />

investment in development and support infrastructure across<br />

all platforms,” said Torsten Reil, CEO <strong>of</strong> NaturalMotion.<br />

“NVIDIA’s PhysX technology provides a robust, high-fidelity<br />

foundation for our advanced character animation algorithms<br />

and tools. Through our close collaboration, we will help<br />

game developers bring fully interactive and believable<br />

characters to a wide range <strong>of</strong> games.”<br />

contact<br />

James Mallinson<br />

Portfolio Manager<br />

T +44 (0)1865 280903<br />

E james.mallinson@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

21


An Introduction to Technology Transfer<br />

<strong>Isis</strong> Enterprise Seminar<br />

In April <strong>of</strong> this year <strong>Isis</strong> Enterprise hosted an event at the<br />

Begbroke Science Park on behalf <strong>of</strong> the Institute <strong>of</strong> Physics<br />

Consultancy Group. The title <strong>of</strong> the event was ‘An Introduction<br />

to Technology Transfer: Consulting for New Businesses.’<br />

<strong>Isis</strong> Enterprise provides consultancy services for technology<br />

transfer activities. The specialist skills <strong>of</strong> individual members<br />

<strong>of</strong> pr<strong>of</strong>essional organisations (such as the Institute <strong>of</strong> Physics)<br />

are keenly sought by new companies as are research and<br />

development organisations.<br />

The membership <strong>of</strong> the Consultancy Group <strong>of</strong> the Institute<br />

<strong>of</strong> Physics is a broad church <strong>of</strong> highly skilled individuals with<br />

many years <strong>of</strong> industrial experience. Members have joined<br />

the group to share their experiences <strong>of</strong> doing business and<br />

to develop their marketing contacts with the view to winning<br />

more business. The purpose <strong>of</strong> the event was to introduce<br />

the members to the world <strong>of</strong> technology transfer, with an<br />

emphasis on the work done in Oxford, by incorporating and<br />

growing new technology businesses with <strong>Isis</strong> <strong>Innovation</strong> and<br />

the Begbroke Science Park.<br />

The event was hosted at Begbroke Science Park, operated<br />

by Academic Director, Pr<strong>of</strong>essor Peter Dobson. He gave a<br />

presentation on the activities <strong>of</strong> Business Research Fellows<br />

and the companies generated from these activities. Pr<strong>of</strong>essor<br />

Dobson also gave the membership a tour <strong>of</strong> the park,<br />

showing the fully occupied building, filled with many Oxford<br />

spin-outs and the recently completed Enterprise Building.<br />

The members also visited Oxford Medical Diagnostics, (now<br />

part <strong>of</strong> Avacta Group) where Dr Wolfgang Denzer explained<br />

the technology and its application in detecting gases such<br />

as carbon dioxide, water vapour, hydrogen sulphide in<br />

industrial processes and also in clinical applications for the<br />

diagnosis <strong>of</strong> diseases. The visit was a good opportunity to<br />

see a real life technology spin-out that has grown from an<br />

idea in a university laboratory to a company that has had a<br />

successful commercial ‘exit’ through a trade sale.<br />

The first talk was given by Pr<strong>of</strong>essor Tim Cook (the previous<br />

Managing Director <strong>of</strong> <strong>Isis</strong> <strong>Innovation</strong>) now Pr<strong>of</strong>essor in<br />

Science Entrepreneurship at the Saïd Business School. He<br />

is a consultant and a non-executive director for a number <strong>of</strong><br />

technology companies. Tim, as always, gave a highly entertaining<br />

and edifying talk on the pros and pitfalls <strong>of</strong> being a<br />

consultant, illustrated by many past examples.<br />

Following Tim’s talk, Henmans, a local law firm, gave two<br />

presentations. Stephen Brett gave a presentation on intellectual<br />

property and what to look out for when engaging<br />

with clients to protect your know-how, copyright, and inventions.<br />

This was followed by James Simpson, an employment<br />

specialist, who outlined some <strong>of</strong> the legal issues concerned<br />

with the legal status <strong>of</strong> consultants on how to avoid the<br />

Inland Revenue viewing the consultant as an employee;<br />

this has financial implications for both the client and the<br />

consultant.<br />

The final talk was from Dr Peter Hotten, who has much<br />

experience in technology transfer and new company<br />

formation.’ Peter was a director <strong>of</strong> Oxford Gene Technology<br />

(OGT) for six years, a successful Oxford spin-out in the life<br />

sciences. Peter left OGT after successfully defending their<br />

patent portfolio against their American rivals, and has now<br />

embarked on the journey <strong>of</strong> an independent consultant.<br />

Again, Peter gave a highly entertaining presentation on his<br />

experiences and the opportunities he sees going forward.<br />

The day was an enjoyable event with excellent speaker<br />

contributions, and located at Oxford’s finest business park<br />

for the incubation <strong>of</strong> technology companies.<br />

Thank you to all those involved.<br />

contact<br />

Dr Roger Welch<br />

Project Manager, <strong>Isis</strong> Enterprise<br />

T +44 (0)1865 2808<strong>54</strong><br />

E roger.welch@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

22


Carbon Trust<br />

<strong>Isis</strong> Enterprise Incubator Services<br />

<strong>Isis</strong> Enterprise can provide funded<br />

business support to entrepreneurs,<br />

early-stage companies and SMEs<br />

with technologies that promise to<br />

significantly reduce CO 2<br />

emissions<br />

whilst delivering commercial returns.<br />

Successful applicants benefit from<br />

skills and expertise built up over many<br />

years at the University <strong>of</strong> Oxford, in<br />

taking cutting-edge technology and<br />

building successful companies. Since<br />

1997 <strong>Isis</strong> has executed more than 350<br />

technology-licensing agreements, and<br />

assisted in the creation <strong>of</strong> 59 spin-out<br />

companies. These companies have<br />

gone on to raise £334m in investment<br />

and 6 are now publicly listed on Stock<br />

Exchanges.<br />

Who should apply for Carbon Trust<br />

Incubator support?<br />

Entrepreneurs in university or corporate<br />

spin-outs, and other early-stage<br />

companies with innovative, commercially<br />

viable, environmental technologies.<br />

Applicants must be in a position<br />

to take full advantage <strong>of</strong> up to 18<br />

months <strong>of</strong> intensive business support.<br />

Our services<br />

Assessment <strong>of</strong> technical and<br />

commercial viability<br />

Market and related clean-energy<br />

sector research<br />

Guidance towards an Intellectual<br />

Property strategy<br />

Development <strong>of</strong> targeted business<br />

skills<br />

Structured preparation <strong>of</strong> an<br />

investor-ready business plan<br />

Identification <strong>of</strong> potential investors<br />

and customers<br />

How to apply?<br />

The selection process to receive support<br />

from the Carbon Trust incubator is<br />

competitive, and requires commitment<br />

and preparation. After an initial<br />

assessment <strong>of</strong> each applicant’s case,<br />

the incubator team will work with those<br />

short listed on a final submission to the<br />

Carbon Trust evaluation panel, who will<br />

then make the decision to approve the<br />

required support.<br />

Companies or individuals interested<br />

in receiving support from the Carbon<br />

Trust and <strong>Isis</strong> Enterprise should contact<br />

<strong>Isis</strong> Enterprise<br />

Hands-on business support and<br />

coaching can be <strong>of</strong> real assistance to a<br />

company during business planning and<br />

fund raising, to maximise the chances<br />

<strong>of</strong> success and <strong>of</strong> delivering full<br />

commercial potential to shareholders.<br />

<strong>Isis</strong> can provide selected entrepreneurs<br />

and companies with a wide range<br />

<strong>of</strong> technical and business consultancy<br />

services:<br />

contact<br />

Dr Mark Mawhinney<br />

General Manager<br />

T +44 (0)1865 280902<br />

E mark.mawhinney@isis.ox.ac.uk<br />

W www.isis-innovation.com<br />

23


an intelligent partnership<br />

Providers <strong>of</strong> innovative banking, legal, accountancy<br />

and business advisory solutions for technology<br />

based businesses in Oxford and beyond.<br />

For further information on how our services can help you contact:<br />

Andrew Davies Simon Smith Sue Staunton<br />

Corporate Technology Manager Partner - Biotechnology team Partner - Technology group<br />

Barclays Bank Blake Lapthorn Tarlo Lyons James Cowper<br />

T: 07775 <strong>54</strong>8803 T: 01865 253284 T: 01865 200500<br />

E: andrew.j.davies@barclayscorporate.com E: simon.smith@bllaw.co.uk E: sstaunton@jamescowper.co.uk<br />

Meetings<br />

Forthcoming meetings <strong>of</strong> the<br />

Oxford <strong>Innovation</strong> Society<br />

will be held on the following dates:<br />

Thursday 25 September 2008<br />

Thursday 11 December 2008<br />

Thursday 26 March 2009<br />

Meetings are held in Oxford for OIS Members and invited guests, and are followed by a formal reception<br />

and dinner in an Oxford college hall. For information about the OIS contact Cynthia Warmington,<br />

Marketing Administrator on: T +44 (0)1865 280837 E cynthia.warmington@isis.ox.ac.uk<br />

Published by <strong>Isis</strong> <strong>Innovation</strong> Ltd The Technology Transfer Company <strong>of</strong> the University <strong>of</strong> Oxford<br />

<strong>Isis</strong> <strong>Innovation</strong> Limited, Ewert House, Ewert Place, Summertown, Oxford OX2 7SG<br />

T +44 (0)1865 280830 F +44 (0)1865 280831 E innovation@isis.ox.ac.uk www.isis-innovation.com<br />

Design: Franks and Franks Cover illustration: Jack Noel / Franks and Franks Page 3: Martin Ota, MRC laboratories, Fajara Pages 4, 6 and 8: Photovibe<br />

Paper: 70% FSC certified recycled fibre from sources with sustainable forest development policies

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