PARLIAMENTARY DEBATE
Genetic Technology (Precision Breeding) Bill (First sitting) - 28 June 2022 (Commons/Public Bill Committees)
Debate Detail
Chair(s) Esther McVey, † Graham Stringer
Members† Bowie, Andrew (West Aberdeenshire and Kincardine) (Con)
† Brock, Deidre (Edinburgh North and Leith) (SNP)
† Churchill, Jo (Parliamentary Under-Secretary of State for Environment, Food and Rural Affairs)
† Clarke-Smith, Brendan (Bassetlaw) (Con)
† Duguid, David (Banff and Buchan) (Con)
† Fletcher, Katherine (South Ribble) (Con)
† Glindon, Mary (North Tyneside) (Lab)
† Green, Kate (Stretford and Urmston) (Lab)
† Howell, John (Henley) (Con)
† Jenkinson, Mark (Workington) (Con)
† Johnson, Gareth (Dartford) (Con)
† Jones, Fay (Brecon and Radnorshire) (Con)
† Jones, Ruth (Newport West) (Lab)
† Lewis, Clive (Norwich South) (Lab)
† McCarthy, Kerry (Bristol East) (Lab)
† Shelbrooke, Alec (Elmet and Rothwell) (Con)
† Zeichner, Daniel (Cambridge) (Lab)
ClerksAbi Samuels, Huw Yardley, Committee Clerks
† attended the Committee
Witnesses
David Exwood, Vice President, NFU (National Farmers Union)
Dr Helen Ferrier, Chief Science and Regulatory Affairs Adviser, NFU
Professor Gideon Henderson, Chief Scientific Adviser, DEFRA
Professor Robin May, Chief Scientific Adviser, Food Standards Agency
Professor Jim Dunwell, Chair, Advisory Committee on Releases to the Environment
Public Bill CommitteeTuesday 28 June 2022
(Morning)
[Graham Stringer in the Chair]
Genetic Technology (Precision Breeding) Bill
We will first consider the programme motion on the amendment paper, then a motion to enable the reporting of written evidence for publication and a motion to allow us to deliberate in private, if we so wish, about our questions before the oral evidence session. In view of the time available, I hope that we can take those matters formally. I ask the Minister to move the programme motion standing in her name, which was discussed yesterday by the Programming Sub-Committee.
Ordered,
That—
(1) the Committee shall (in addition to its first meeting at 9.25 am on Tuesday 28 June) meet—
(a) at 2.00 pm on Tuesday 28 June;
(b) at 11.30 am and 2.00 pm on Thursday 30 June;
(c) at 9.25 am and 2.00 pm on Tuesday 5 July;
(d) at 11.30 am and 2.00 pm on Thursday 7 July;
(e) at 9.25 am and 2.00 pm on Tuesday 12 July;
(2) the Committee shall hear oral evidence in accordance with the following Table:
Date | Time | Witness |
---|---|---|
Tuesday 28 June | Until no later than 10.10 am | NFU |
Tuesday 28 June | Until no later than 10.35 am | Professor Gideon Henderson, Chief Scientific Advisor, Department for Environment, Food and Rural Affairs |
Tuesday 28 June | Until no later than 11.00 am | Food Standards Agency |
Tuesday 28 June | Until no later than 11.25 am | Advisory Committee on Releases to the Environment |
Tuesday 28 June | Until no later than 2.35 pm | The Royal Society; The Royal Society of Biology |
Tuesday 28 June | Until no later than 3.15 pm | Angus Wheat Consultants Ltd; Rothamsted Research |
Tuesday 28 June | Until no later than 3.50 pm | Organic Farmers & Growers; Soil Association |
Tuesday 28 June | Until no later than 4.30 pm | NIAB; Crop Science Centre |
Tuesday 28 June | Until no later than 4.50 pm | British Society of Plant Breeders |
Tuesday 28 June | Until no later than 5.10 pm | The Center for Aquaculture Technologies |
Thursday 30 June | Until no later than 12.15 pm | The Roslin Institute; Genus; The Pirbright Institute |
Thursday 30 June | Until no later than 1.00 pm | Nuffield Council on Bioethics; Dr Madeline Campbell, Senior Lecturer in Human-Animal Interactions and Ethics, Royal Veterinary College; Compassion in World Farming |
Thursday 30 June | Until no later than 2.20 pm | RSPCA |
Thursday 30 June | Until no later than 2.50 pm | Beyond GM/A Bigger Conversation |
Thursday 30 June | Until no later than 3.30 pm | Professor David Rose, Professor of Sustainable Agricultural Systems, Cranfield University; Michael Edenborough QC, Serle Court Chambers; Professor Sarah Hartley, Associate Professor, University of Exeter |
Thursday 30 June | Until no later than 3.50 pm | Agricultural Industries Confederation (AIC) |
Thursday 30 June | Until no later than 4.10 pm | Paul Temple, Farmer, Member of the Science Agriculture Advisory Group |
Thursday 30 June | Until no later than 4.30 pm | Benchmark Genetics |
Thursday 30 June | Until no later than 5.10 pm | NIAB; John Innes Centre; KWS |
(3) the proceedings shall (so far as not previously concluded) be brought to a conclusion at 5.00 pm on Tuesday 12 July.— (Jo Churchill.)
Resolved,
That, subject to the discretion of the Chair, any written evidence received by the Committee shall be reported to the House for publication.—(Jo Churchill.)
Examination of Witnesses
David Exwood and Dr Helen Ferrier gave evidence.
Before calling the Minister to ask a question, I remind all Members that questions should be limited to matters within the scope of the Bill. We must also stick to the timings in the programme motion that the Committee has agreed. This session will finish at 10.10 am. With all witnesses, I will first call the Minister and then the shadow Minister, before opening up to questions from others in the Committee.
David Exwood: I think farmers welcome this Bill, because of the possibilities it offers. I am really clear that the big gains, the big changes, in farming are all around breeding. Yes, there are gains in productivity around my machinery, but really the exciting things in the future are all around breeding and the possibilities that brings, and the Bill will help with that.
For all my farming career, I have used pesticides as part of the process. I am very happy about that, but we now genuinely have an opportunity to produce as much food as we do now but with much less impact. So I think farmers welcome the Bill, which opens a world of possibilities and addresses the challenges we face at the moment. There is so much pressure on land use, and the ability to produce the same amount of food as we do now but with less environmental impact and more sustainably is something all farmers welcome.
Dr Ferrier: Ultimately, the market will decide whether this technology is adopted here, but I think that, before that happens, the regulatory system and the legislative process will decide whether farmers and growers have access. The technology is clearly being developed around the world, and regulatory processes are being reviewed and put in place around the world. Farmers and growers are not going to be able to access the products of the technology and realise those benefits that David has talked about if companies are discouraged or regulation is not enabling. So the impact of the Bill depends on how well it is written and whether it will be proportionate and fit for purpose and will therefore encourage the investment of breeding companies that then enables farmers to adopt the products of the technology.
David Exwood: Virus yellows in beet is something carried by aphids into the sugar beet crop in the spring and it can have a dramatic effect on yield. We saw two years ago reductions of up to 80% in the beet yield in affected fields. So that is a real-life example of a pest that can dramatically affect the productivity of a crop. We produce about 1 million tonnes of sugar beet in this country each year, and that can be dramatically reduced through virus yellows.
Through precision breeding, we have the ability to breed in genes resistant to virus yellows so that the plant just will not be impacted and all the issues of neonicotinoids and using synthetic insecticides to try to control the aphids and control the impact of virus yellows will disappear. That is a real gain in an industry that clearly needs support and could be really impacted. That is the really clear gain and potential of this technology that the Bill will allow. And there is the point about the sustainability of that business. It is such a concentrated business in a certain area of the country.
To move on to the trade environment, this technology absolutely has to be one that is used widely. I am really clear that the EU is moving on gene editing and precision breeding; it is very clear about that. Actually, my greatest worry is that the UK gets left behind on this technology. The rest of the world is moving, and we need to move with it. We absolutely live, work and trade in a European environment and a world environment, but, given that the EU is moving, my concern is more that we get left behind, rather than us moving ahead of them and nobody coming with us.
Dr Ferrier: Obviously, it is very difficult to predict, but the indications from companies are that, should this legislative change happen, it would be at least five years before products start come on to the market for farmers and growers to use. Clearly, the international trade impacts will depend on the harmonisation across trading partners in terms of the legislation in their jurisdictions. I believe that within the period necessary for those products to come on stream commercially, there will be much more harmonisation. As David said, that will also happen in the EU, which plans a legislative proposal by quarter 2 of 2023. We are not concerned about imminent trade issues, because no products are available for us to use at the moment.
David Exwood: Absolutely. We run our consultation process and work up our policy as one organisation that brings in all sectors—organics being one of them. I think everybody recognises the advantages of technology; everybody recognises the benefits that breeding brings. That goes for organic farmers and smaller farmers as well as large farmers. We have to co-exist alongside organic farming in all circumstances—we are very clear about that. We do not see that as a challenge; we already run slightly separate systems and it does not significantly alter business in any way.
The key element of the Bill for small farmers is that it is drafted in such a way as to make it as widely available as possible. It needs to be open to as many farmers as possible—that is how it will bring the most benefit. Breeding actually brings benefit to all farmers, and a good variety of wheat or sugar beet, say, is something that all farmers will benefit from, regardless of their size.
David Exwood: Yes, I do. As I said, we run existing codes, and conventional and organic already co-exist. This does not change that in any way. We have to make sure that we are able to do that. There has to be a co-existence—I am very happy about that—which is a key part of our policy and our ask. I do not see the Bill as being a challenge to that.
Dr Ferrier: The market for organic versus conventional or other systems currently enables segregation for different specifications that the market might ask for. We see that continuing to run as it does at the moment. When a buyer has particular specification, there is certification for organics. As we understand it, the certification for organics would not currently allow the use of precision bred organisms. Obviously, that could change, allowing for segregated supply chains, just as with food-grade versus industrial-grade oilseed rape, or with sweetcorn and forage maize, which are kept apart.
If you are getting a new variety of a particular crop, for example, and you grow a crop for seed multiplication purposes, the high-purity requirements for that seed are there and are managed within the supply chain. We see that continuing to apply for organic farmers.
Dr Ferrier: Certainly, the most recent development in countries reviewing their legislation, and one that I think would be really useful for you to look at, is what Health Canada, the Canadian authority, has done. It has recently reviewed its legislation and put out some technical guidance. The key thing is that it confirms that precision bred organisms do not pose any additional safety risks compared with conventionally bred plant varieties. That is driving Canada’s regulatory process. It is not proposing different authorisation and risk-assessment processes. It does not believe that that would add any significant benefit for consumers or the environment, because the science does not show any additional risks—that is very similar to the European Food Safety Authority opinion from the end of November 2020.
Argentina is certainly a very interesting case. Since it has put in place proportionate and enabling regulations—such as those that the Government propose in this Bill—it has seen a real increase in the number of small and medium-sized enterprises and public-good breeding R&D activities taking products through that regulatory process, so that it is not just the preserve of the largest companies that are able to pay for and absorb any uncertainty in a less ideal or dysfunctional regulatory process.
Japan is another example of where a product—a tomato—has been through that process. In countries that put in place proper regulation, the actual process is functional and works well for the companies. Those countries then see investment in R&D and into commercial companies. That is bringing through the products. South America, North America and Japan are investing in this. It is interesting to see how quickly the science develops into commercial opportunities once the regulations are right.
David Exwood: The challenges that we face as farmers in the UK—sustainability, climate change and so on—are the challenges faced by farmers across the world, and we are all looking for solutions to those problems. It is interesting that across the world, there is a move on this technology, which we are seeing quite widely. That is because everybody is looking for answers and solutions to the challenges that we all face.
Dr Ferrier: There is no evidence that that would be the case, but we understand that people have concerns about existing farming systems. We see that expressed, and we work hard to address it. To me, that is a separate issue from the Bill. We can have discussions about how to improve animal welfare, but I really do not think that it would be sensible, I guess, to design special elements of this particular Bill to address general concerns about farming systems.
The other important thing to be aware of is all the existing animal welfare rules and activities within Government and industry. Obviously the Animal Welfare Act 2006 applies, so we need not duplicate elements of that in the Bill, and there are codes of practice for each sector that are being reviewed all the time. Also, the action plan for animal welfare is in place, and the animal welfare pathway is being developed. We therefore think that concerns in the area, which are freely expressed, are being, and can be, dealt with through appropriate parts of legislation and industry action.
The Bill, which relates to just one particular technology, is not the place to address those areas. We have talked about the challenges. It is not just a challenge for growers of crops; there are a lot of difficulties that are climate change-related, and disease, health and welfare-related production challenges for farmers. There are genetic solutions to some of those challenges that we would like to see explored. We would like farmers to have the benefit of them, but we will only be able to explore them if the legislation enables companies to invest in the technologies to work out whether some of them could help. We can only see benefit from using this technology to address some of those problems.
David Exwood: I understand the concerns about animal welfare, but it is really important to say that with animals the ability to produce sustainability with less impact applies just the same as with crops. I have dehorned thousands of cattle in my farming career, and the ability to breed out horns in cattle is a clear gain for people and livestock. It would be good for everybody. I would be very happy if I never had to dehorn another calf again. I understand the nervousness, but there are things that this Bill will offer that are clearly a gain. It is wrong to assume that it will just lead to an intensification of production.
David Exwood: Yes, we do have concerns. The main concern is that farmers across the UK should have access to this technology. I would urge that the gains we see are available to all. I understand the politics of the situation, but again I think that the fact that the EU is moving on this and has made clear signals about the direction of travel gives us some reassurance that across the whole continent we are moving to a different position on this technology. Therefore, the other countries of the UK should be looking to where everybody is moving and our market is moving, and think about how they might want to be in line, alongside what we could do in England.
Dr Ferrier: To be honest, I think it is a real shame, because clearly some of the best scientists and geneticists are operating in Wales and Scotland. There is a real strength. A lot of investment goes on under our devolved Administrations to invest in the science, but in order for there to be a return on that investment, it needs to lead to some kind of commercial adoption. It is a real shame for those scientists to consider that their work will not go beyond the lab if those Administrations’ positions remain the same. I do not think this should be a political issue, because it is about recognising a technology that has a lot of potential to do good things for the environment, society, animals, and farmers and growers; it would be a shame if it were a political issue. We will see. Time will tell whether movement within the EU—which certainly for the Scottish Government, as you know, is a key place where they are looking to see what approach they should take—will change the position. It would be a shame if this were derailed for political reasons when the issues are not political.
David Exwood: A key example might be soya beans. The current situation is that people have tried over a number of years to grow soya beans. Clearly, it is desirable to grow more of our own homegrown protein, but given that that is quite difficult, it is the sort of opportunity that this technology could give us—the opportunity to make varieties better adapted to our climate, so that we can grow such crops. I do not want to promise too much, but clearly breeding, as I said, offers some of the big solutions in the future. It is those sorts of solutions that we perhaps cannot quite see yet but that may well help us to be much more sustainable in what we do.
Dr Ferrier: We have really excellent scientists. We have some really world-leading plant science organisations here. An example is NIAB in Cambridge, as Daniel Zeichner will know very well. The scientific capability is certainly there. Obviously, it needs funding, and increasingly research funding is seeking to enable impact from research—impact beyond the academic world, but on society and the economy. Based on that, if research funders see that there is a route to market eventually for the science that they are funding, that will increase the investment in research and development. Of course, the statutory instrument passed a few months ago will enable and make easier the R&D for these particular technologies, which is a good first step. Then, if we have a clear route to market, that will be a further incentive to explore those funding streams.
Of course, with funding comes greater capability, because research organisations are then able to recruit the best researchers. When we were doing our consultation of our members on the Department for Environment, Food and Rural Affairs consultation last year, we had scientists come and talk to our members, including a wheat scientist from the John Innes Centre, who explained the science he was doing and the potential for that to address some of our members’ challenges. We have seen in the food White Paper the reference of protein crops and finding ways to get sources of plant-based protein. Some considerable investment in R&D is required in order for that to become a greater commercial proposition for growers in this country.
Dr Ferrier: I guess we are talking about a new, not genetically modified food. I have not done a comparison of current GM foods on the market—the chocolate bars and the oils, for example—so I am not sure where they sit. Organic commands are premium partly because of the greater cost of producing organic. Maybe David could talk about that. On potential products that might come through precision breeding, it depends on the product. I think there is potential, as we have already seen with some conventionally bred products, such as a broccoli with higher antioxidant levels or eggs high in nutrients, for some premium products that have nutritional benefits, but initially there may not be any difference in the final price in shop.
Dr Ferrier: From conventionally produced wheat, for example, for baking a conventional loaf. It depends on the products that come through. It is difficult to judge, but there are examples, such as a heart-healthy tomato in Japan that has an extra benefit that may command a premium in shops. It is very difficult to tell. I think organic always has that premium. As I said, currently that premium will include the fact that they do not use biotechnology. They do in some of their veterinary medicines, for example, but I mean in the actual production of organic food.
There is a premium for organic. I do not know whether there is a premium for GM or if it is cheaper. Clearly, if it is easier to grow a food product, there is potential to pass that on to the consumer. One relevant element that we may come to later is other requirements around the marketing of precision bred organisms. For example, extra labelling always increases the cost of getting food on a shelf. That could be a cost for the final consumer.
David Exwood: Could I just add to that? It is worth pointing out that, rather than perhaps massively increased yields, what this will increase is the sustainability and reliability of crops. Being able to grow crops consistently with less volatility is the real gain here. You will not see wild swings due to crop impact, or maybe a pest impact such as we were talking about with sugar beet earlier. Its sustainability is the great offer, and that is clearly a real advantage at a time when the global food supply chain is under pressure. That is probably one of the main advantages offered by this technology.
David Exwood: It is really interesting. What is happening in the world grain market is a coincidence of problems: the political situation in Ukraine, obviously, but also production problems in the rest of the world. We have serious drought in the US midwest and problems in India, so it is that combination of climate and politics that has created the current spike in prices. Clearly, for example, if we can breed varieties that are more drought-tolerant, that will help with the food supply chain. Again, it has the potential to offer quite significant gains in the sustainability of our food supply.
Dr Ferrier: It is many years away, but I am sure these kinds of shocks will return. Obviously, whatever happens with this Bill, we are not going to have an immediate silver bullet to answer our current issues and shocks within the supply chain.
David Exwood: I can make you aware that my counterparts—the presidents in Scotland, Wales and Northern Ireland—wrote to their respective Ministers in support of the Bill, and urged them to support this legislation. I hope that gives you comfort that farmers across the UK see the benefits of the Bill, want to have access to this technology, and are urging—as Helen said—that politics should not override the clear gains here. Yes, we have consulted: we all agree as the four unions, and we would all like to see this technology adopted and available to all farmers in the UK.
Dr Ferrier: Yes, they are. We are having to ensure that at the moment, as I said, the certification requirements are obeyed and can be delivered on. It is the same as for other things that the organic sector cannot use that the conventional sector can, or for certain specifications, so I definitely believe that the current segregation arrangements would also apply here, enabling that certification rule to be followed.
Dr Ferrier: We are definitely not opposed to transparency, and we are very much in favour of the notification arrangements that are set out in the Bill. That is something that we worked with Government on over a period of time—to be able to have a system within the supply chain, from breeder all the way along, as far as it needs to go, so that the supply chain is aware of the particular breeding technology used. That enables the transparency and the traceability to be there.
We are also not opposed to labelling, as such, because a lot of voluntary, market-led labelling exists already, outside of the statutory system, enabling a retailer, manufacturer or producer to alert the public to something that it particularly wants them to see to try to persuade them to buy that product. Market-led labelling is definitely something that could be achieved, if the market demanded it at the point where products were being used, because we have the notification transparency system within the Bill.
We are opposed to statutory labelling—I guess that position is in line with DEFRA and the Food Standards Agency—because there is no scientific basis for statutory labelling for products that could have been produced through conventional breeding or natural mutations. We therefore believe that, actually, it would be misleading for consumers to have products that were labelled as different when they are not different from their conventionally bred counterparts. We are pleased to see that in the Bill—that any marketing of these products must not mislead the consumer. Of course, the food information to consumers regulations mean that producers of food cannot mislead consumers anyway. So, there is not a scientific basis for statutory labelling, and it would not benefit the consumer. It is really about the safety of the food, so it would not apply to this particular technology because all of those authorisation processes would be in place.
On consumer surveys, which are often quoted, if you ask, “Would you like this particular thing to be labelled?” consumers will generally want that. However, with lots of other breeding techniques, such as radiation-induced mutagenesis, polyploidy induction—don’t ask me to explain what that means—or somatic hybridisation, if you asked consumers “Would you like to see that on a label if it is being used?” they would say yes. We need to be led by the science of whether these products are actually different if you are going to put a statutory labelling requirement in place. If the market wants to label when the time comes, that will certainly be possible with the transparency arrangements in place.
Dr Ferrier: I just do not think labelling is a way to deliver policy. It is very blunt.
Examination of Witness
Professor Gideon Henderson gave evidence.
Professor Henderson: Hello, I am Professor Gideon Henderson, and I am chief scientific adviser at the Department for Environment, Food and Rural Affairs. Apologies for not being in the Committee Room with you.
Professor Henderson: Yes, I would. I think I can reassure the Committee on both those questions. I have been involved since the very early stages of the preparation of this Bill in consulting widely with the scientific community, advising Ministers and officials in my Department and others, and talking to stakeholder groups about the science and its implications. The Bill has taken into account the science and the most expert views of it in a very diverse way. I am personally content that it is fit for purpose and will ensure the continued safety of the environment and food.
Professor Henderson: There is an interesting question about how far deregulation into genetic technologies ought to go in one step. Some groups of scientists would certainly favour a model in which you relax the regulation much more widely and base all the outcomes on the traits that are produced through that technology—the outcome in the product—rather than having any view about the technology or the process by which the product is made. That is certainly a view that some scientists would hold.
The view of Government—this has played out in a number of stakeholder groups— has been that moving more cautiously to deregulate or lower the regulation of some aspects of genetic technologies first is a cautious and stepwise way to move. That takes account of the science, enables us to be aware of the issues as they arise, and most importantly builds the confidence of the public as those technologies are used more widely in food production. That is the justification for moving first into the use of technologies only to mimic breeding processes through precision breeding, as described in the Bill.
There is a difficulty in describing the limits of what is possible with breeding. It is clear that some things that are possible—we know they are possible because we have done them—are very similar to things that have been done, and they are therefore clearly in scope. There are other examples that are clearly not possible through breeding. In between those, there is something of a grey area. There is now detailed advice from an expert group—the Advisory Committee on Releases to the Environment—that lays out the definition of the circumstances in which something would be considered possible through breeding, and therefore would be considered a precision bred organism, to define the line within that grey area.
You also asked about exogenous material, by which I take it you mean material from another species. That sort of material can occur entirely naturally, and it can occur during breeding processes as well, but in general it does not lead to any functional change or any phenotypic change. The Bill is designed not to allow exogenous material, if it has any functional or phenotypic outcome in the product. In that way, it does mimic the action of traditional breeding. I hope that answers your question.
Professor Henderson: The Bill is designed to exclude the intentional inclusion of exogenous material, or the residual accidental inclusion that has any outcome that matters. That is probably the shortest way of summarising it. If there happens to be a bit of exogenous material in there that is similar to what might happen through the natural breeding process, or entirely naturally, but it has no functional outcome—no phenotypic change on the crop or the livestock—that is not considered an issue. Any intentional or accidental change that leads to a phenotypic outcome—the crop being different in a way that could not have been possible through traditional breeding—is not allowed under the terms of the Bill.
Professor Henderson: GMO is a broad church of definition. A thing that is clearly outside of the terms of the Bill is the intentional insertion of a transgene—genes from another species—in order to create the effect that you wanted. That would be in order to make the product different in some way by bringing in an—[Inaudible.]
Professor Henderson: It is to do with intentionality, but it is also to do with the outcome—[Inaudible.]
Professor Henderson: I can. There is a very wide range of peer-reviewed literature that demonstrates the benefits that can arise from the use of gene editing for precision breeding, for building better crops. The list is long and I would be happy to share a long list of some of the references. There was a review paper published in Nature in 2019 that I often refer back to, which summarises the many routes by which we can use gene editing to enhance crops.
I am wary of time, but I could talk at some length about the different sorts of crops that might be beneficial in this context. There is also an extensive peer-reviewed literature that demonstrates the safety of these technologies and the fact that the unintended consequences through precision breeding are generally lower than those through traditional breeding, and particularly some of the more extreme mutagenic forms of precision breeding. There is very extensive scientific literature.
You started your question by pointing to the differences of opinion politically on the different sides of the national borders within the United Kingdom. I should say that scientifically, there is not a difference of opinion as you change nations in the country and certainly leading scientists in this sector in Wales and Scotland have also been very instrumental in the peer-reviewed literature that I have mentioned, and they agree with the sense of direction of this Bill, although their political leaders do not.
Professor Henderson: As a scientist, trade is less my area of expertise, but to some extent you could argue that this Bill would enable more trade, because it will enable better crops and more crops to be produced, and therefore they could be more readily traded overseas, giving more market opportunities for UK farmers and markets. [Inaudible.] Therefore, I do not see an immediate problem with any trade with the EU, either.
It is also true to say, as I believe your previous—[Inaudible.] Sorry, are you still there?
Professor Henderson: I am sorry; if it happens again, I will switch wi-fi on to my phone. I do apologise.
I was saying that, from an EU perspective, the final thing to say is that the EU itself is of course consulting on changing the law in a way similar to the way that we are considering, and it is quite likely to change on the same timescale that we will be producing marketable crops.
I note in the Bill that the definition of “animals” is not restricted to farm animals; therefore, it follows that it is obviously not just farm animals that we are talking about here. I just wondered what you see the Bill actually covering in terms of applications beyond farm animals—what sort of areas do you see the Bill taking us in?
Professor Henderson: I am sorry; could you repeat the question, please?
Professor Henderson: I heard something about—[Interruption.] The application for animals outside the farm is something that will need to be addressed before secondary legislation can be enacted. It is not something that I am willing to discuss now, because I—[Interruption.]
Professor Henderson: Again, I can only apologise for the bad wi-fi I have here. I would be happy to come back to you at any time that suits the Committee.
Professor Henderson: I think your question was to do with animals that are not on farms—non-livestock animals—which I take to mean things like pets. In that area, there is a piece of work still to do to ensure that animal welfare is looked after and continues to be well looked after following the passage of any Bill on precision breeding. That is a piece of work that scientific information will need to feed into.
There is a body of evidence on animal welfare, including on-farm and off-farm welfare. That is a process that I believe will have to take place before secondary legislation can be enacted. The process for that is laid out in the Bill, and the timescale will be something like two to three years where scientific input will feed in.
Professor Henderson: That is our expectation.
What do you see as the parameters of that? How will the Bill protect animal welfare? Because of the popularity of those dogs, breeders may make use of the new technology to breed even more extreme examples. Would that be desirable? How can we prevent that from happening? You may have answered that in response to my colleague and said that it needs more time, but how do you see that in terms of the desire for increased yields and increased production on farms? Is there not an argument for not including animals in the Bill while this further research takes place?
Professor Henderson: Scientifically, the application of these technologies to cross to livestock or other animals is identical in terms of the changes it can cause. It can mimic the impact of breeding more efficiently, effectively and rapidly. In the livestock and animal area, this has identified more clearly a problem that was already there and the fact that we know, with respect to animal welfare, there are some negative outcomes that come from traditional breeding processes. If we are able to speed that process up through precision breeding, those negative outcomes may occur more quickly.
The passage of this Bill has pointed to those problems in animal welfare and made them clearer, and made it necessary to deal with them quite explicitly before we can enact legislation about precision breeding for animals. That is not because the science is different but because the existing regulation around animals differs from that needed around crops. That is why the instrument is set up as a secondary instrument, so that there is time to fully consider and deal with the animal welfare processes before that is changed in law.
Examination of Witness
Professor Robin May gave evidence.
Professor May: Certainly. I am Robin May, chief scientific adviser at the Food Standards Agency and a professor of infectious disease at the University of Birmingham.
Professor May: There are probably two answers to why this is necessary. Currently, precision bred foods and feeds will be encapsulated within the existing GM framework. If they are moving out of that framework, it is important to be sure that those products are safe. The key difference here with traditional breeding is one of pace. The entire point of this technology is to do things that could have been achieved through traditional breeding, but much faster. It is important that we have safety checks along that pathway.
On your question about balance, I think the key balance to strike here is between supporting innovation and ensuring safety. At the moment, our thinking around this is to have a two-streamed process for regulation, where there is a very light-touch process for anything where there is unlikely to be a substantive change in the food and more scrutiny of anything where the final food product is different. I think that is quite appropriate for this blend of technology.
Professor May: We have undertaken quite a lot of consumer research in this area, as have many others. There are various take-home messages from that. The first is that there has been a perceptible shift in public views over the last 10 or 20 years, and there has been more interest in the potential benefits of this technology. That is mirrored by a really strong view that the public want some level of regulation and safeguards in this and other genetic technologies.
Specifically around labelling, there is a very strong majority of the public that we have polled, and that others have seen, who would like labelling of these products. There is some difference of views about what that labelling should entail, but there is a strong feeling around it. From an FSA perspective, we would in principle support that, because we stand very strongly for transparency. The problem, sitting here as a scientist, is that this is not really achievable for this particular group of foods, because the entire nature of the precision breeding legislation is to consider things that could have been produced traditionally.
Consequently, you may end up in the future with two apples, for instance, and one was produced by precision breeding that involves gene editing and the other was produced by traditional methods. It would be scientifically impossible—at least, at the moment—to tell those two apart.
Then, from my perspective, my view is that a label that is not enforceable and that might be misleading is actually worse than no label at all, because you then start to spread doubt about the validity of other labels in the food system: allergen labels, nutritional labels. While in principle I think labelling would be a good thing, the fact that we cannot enforce it makes me feel that this is not appropriate for this type of food.
Professor May: Labelling in the UK is quite a complex system. There are different legislative responsibilities in the different devolved Administrations, for instance. Broadly speaking, there are a whole variety of things, as we know, on a food label. The most obvious that most of us look at are things such as calories, fat content and salt content. There are very tight legal guidelines around what must be present on the label and that it must be accurate. Clearly, if you say that it contains 6 grams of salt and it contains 7 grams, that is not legal.
That holds also for other aspects. There are safety aspects of labelling, such as allergen information, which is critical for many of us, and country of origin. Then there are a raft of labels that may not have a legal framework, but which have recognition under guidelines—Red Tractor and animal welfare standards, those kinds of things. There is quite a lot on the label already. Under the current legislation, any food that is approved as a genetically modified food is labelled as such.
Professor May: That is a good example of somewhere where I think we would have a different approach. Just to go back on the approach we are currently proposing—I stress that there is nothing set in stone yet. This is an approach that we are working quite closely on with our advisory committee on novel foods and processes to develop firm guidelines. At the moment, our thinking is around this two-tier process. Tier 1, for instance, would be foods where there is no compositional change in the thing you eat. A strawberry with a different root system, but the strawberry itself is identical, would not need substantial regulation. In contrast, with the vitamin D tomato that you mentioned, the thing you eat is now different; there is vitamin D in there. Those would be risk assessed and under that risk assessment the key issue there would be one of safety.
In an example such as that one, where there may be a subset of the population for whom this is dangerous, absolutely, we would incorporate that into the risk assessment and our guidance to Ministers then would be that it would be entirely right and appropriate to label that food, possibly with a label that says, “Not suitable for certain groups.” You could imagine a scenario where a food is not suitable for pregnant women, for example, and we would certainly stand strong on the fact that the bottom line is that the food needs to be as safe as it is today. Anything that might compromise safety should clearly be labelled as such.
Professor May: That is correct. At the moment, part 3 of the Bill encompasses the direction of travel, but not the details. That is something we are working on at the moment.
Professor May: Happily, I am here as a scientist, so I can say that, scientifically, we have an extremely close working relationship with FSS and other regulators around the world, but the closest is with FSS.
If I give an example, at the moment, risk assessments that we might do in FSA are shared very closely with FSS. All that process is done together. Often we are using the same sets of experts—for example, to provide information. Once the risk assessment is done, it passes to a risk management process. I cannot think of an example where there is a difference in the risk assessment part between nations, because the science is the science.
Where there are sometimes differences is in the risk management area. A current example is raw drinking milk, because the science around the risks of drinking such milk is the same, but England and Scotland have different views on how much risk is acceptable. Under this framework, I would fully intend that we would share all the science around the risk assessments of a precision-bred product. Ultimately, though, the decision on a risk management basis and whether to authorise it would fall to Ministers in each of the individual countries.
Professor May: Previously, prior to Brexit, everything was handled at the European level. As I just mentioned, we share informally the scientific advice, which is very international. Often the people who are providing evidence for a risk assessment are the same people—they may not even be within the EU, but wherever that expertise is available in the world—so there is quite a lot of sharing at that level. Currently, our only formal arrangement with the EU on food safety is around alerts. An alert for a food safety issue that may have an impact on the UK is passed to us, but something that affects countries outside and has no impact on the UK would not necessarily be shared.
I think all of us hope that there will be a reciprocal arrangement for sharing information in future. It is in everyone’s interest to share as much evidence and data as possible, but that is obviously not in my gift to control. There is recognition in the EU that the current GM framework is not fit for purpose for these kinds of products, so the process is already rolling in the EU to look at how it might be changed. How long that will take, and what the outcome might be, will obviously be very different. I would anticipate that it is going to take longer than it will in the UK to get resolution on that.
Professor May: Sitting here as a scientist, obviously I hope very much that there will be good sharing. As I said before, it is in everyone’s interest to share the best science and the best evidence around this. Happily, building those relationships is not in my purview to organise, but I hope that there will be sharing, particularly around the horizon-scanning function. For us as a regulator, it is really critical to think about not just what is on our desks now, but what will be there in two, three or five years’ time. What is the science that we will need to assess the potential risks of products that I have not even thought of yet? Collaborative agreement around what might be coming down the road is really critical for all of us.
Professor May: That is a very good question. It is hard to predict based on the estimation of what might be coming to our desks. On the one hand, the Bill will remove a tranche of products that would otherwise have been assessed as GM products. We already regulate GM products, and there is the capacity. On the other hand, the purpose of the Bill is to stimulate development in this area, so we may end up with a lot more applications, in which case we are going to need additional resource. We have taken steps in that direction, including recruiting independent experts in this area to provide scientific expertise, but if there were a large volume of applications needing consideration, we would need additional support.
Professor May: Our statutory mandate is to protect consumers and represent their interests as they pertain to food. That includes a communication role ranging from allergy alerts and food withdrawals through to a more nuanced understanding of the food system—food security, food poverty and those kinds of questions. At the moment, we do a fair bit of public communication around issues that we know consumers are interested in. Precision breeding, on which we have done some work, is a good example. An explainer on what genome editing and precision breeding are, and what impact they might have, is available on our website, for example.
We do a limited amount of work with schools—particularly in some regions of the UK—mostly on food hygiene. There is an opportunity to do more to explain to people the honest truth about food, and to help them to make decisions about safety and their purchasing decisions in that space. There is always room to do more. There is a lot of consumer interest in this class of foods, and I anticipate that we will do more to make sure that people have the facts about it that they will want.
Professor May: That depends very much on the type of misinformation. Local authorities usually enforce in that area. When a product is not what it says it is, for instance, it gets seized or withdrawn from retailers at local authority level. We issue alerts, and we have a national food crime unit that is very actively involved in looking at deliberate crime in the food sector, including people selling things that should not be sold or that are misrepresented. We also do quite a lot in the detection and enforcement of large-scale issues, including supply chain problems, incorrect labelling and so on.
In the case of precision breeding, it will clearly depend on what Parliament decides, but if there were a regulation on labelling, we would need to look carefully at how that responsibility goes out to the different regulators. We would undoubtedly have a view, and we would issue information for local authorities to enforce on what should and should not be on a label.
Professor May: That is exactly right. As the legislation stands, you might introduce what is called a single base pair chain—a tiny, one letter change in the DNA code of that apple. Those single letter changes happen all the time. If you have a field of apple trees, they will all be slightly different, even if you cloned them all initially, so we would not be able to take that apple, sequence the DNA and definitively say, “This one was created by someone using genome editing, and this one just turned up by chance in the field.” As you cannot tell those two apples apart, if there were a label on one saying “Precision bred” and a label on the other saying “Not precision bred”, I could not, as a scientist, say that that was true. That therefore raises questions in my head about why you would have a label if you cannot be sure, in the first place, that what it says is true.
Professor May: In principle. There are ways that you might do that. One way that some developers are thinking of—in the context of protecting their intellectual property—is to make that single letter change in a background of lots and lots of other single letter changes that you already know, as a kind of barcode. Then, the concept would be to mount a defence, so that if someone steals my apple, I would be able to say, “But this apple that you are selling has that single letter change, and the other 15, all of which were in my original stock apple, so this is my apple, not yours.”
That is a reasonably good way of protecting intellectual property if you are trying to claim that something is yours. It is very difficult to use that the other way around and say, “That is definitely precision bred.” I could be growing my apples and say that those 15 changes occurred spontaneously. Again, it is not currently possible to say definitively that they cannot have appeared naturally.
Professor May: The idea behind the register is to have a public awareness of the products that are going through this pathway and are ultimately out on the market, in a similar way to the public registration of foods at the moment. To take a current example, if you applied to us with a novel food, you would apply with a dossier of data that says, “This is the food. This is how I produced it. Here is how I have considered safety risks.” At the point that we say the dossier is complete and sufficient for us to consider, we publish and say, “This company has put its proposal in. We are now considering that product.” In the fullness of time, we will either recommend approval or not for that product. If we recommend approval, that will get registered publicly as well, so people can see what this novel food is and where it came from, and be reassured that there has been a due process behind it.
My view as a scientist is that this should be the same for precision breeding. We should have a register that says, “Here is a product that has been considered. We have looked at it; it hasn’t rocked up without any kind of due diligence around it.” It is there in the public domain for people to see what process it has gone through and be reassured that those products have had some level of scrutiny.
Professor May: It is aimed at some consumers, and that is true now. On average, most of us spend less than six seconds considering each food item we purchase in the supermarket, which is not enough time to consider the label. Some consumers, depending on their concerns, spend more time looking at labels. If you are an allergen sufferer, you spend a lot of time looking for allergens. If you are a vegetarian, you check that the label says it is vegetarian. We know most consumers are a bit uninterested in some of these issues, so they probably will not stop in that garage and check whether the product is on the register or not, but there will be some consumers who have strong views on this, and they may or may not wish to purchase something accordingly. It is important that the information is available for them, so that they can pause if they want to and find out. Even if most people do not, it is available, should they wish to do so.
Professor May: There is a slight threshold—yes, that is true. That is not unique to precision breeding. People are quite rightly demanding more and more information about their food. The labels are not getting any bigger, and certainly my eyesight is getting worse, so there is already a shift, and we see that. Many of us are doing more and more of our purchasing online. We actually never look at the sticky label on the food item because it is on a webpage instead. People are getting more used to looking elsewhere for information, so it is not the hurdle it used to be. You are quite right: there is a limit on how much we can fit on a physical label, and it is jostling for space with allergen, nutritional and the country of origin information, so there is limited real estate on the back of the label to get this information across.
Professor May: That is correct, yes.
Professor May: There is a range of approaches across the world. It is probably true to say that no two countries have exactly the same approach at the moment. Perhaps I may give some examples.
At one end of the scale, you would have the current approach in the European Union, where all genetic modification, even genome editing that would fall within precision breeding, is regulated as GM and goes through a full risk assessment, often involving toxicology and quite a lot of analytics. At the other end of the scale, you have the US, for example, which has a default setting: if it is similar to something that was traditionally bred, there is no regulation.
Perhaps in between, the Canadian example is an interesting one. In Canada, they regulate the product and not the technology that has created it. They ask—let us go for an apple—“If you have created this apple, is it different from an apple I can buy currently?” If it is not different, it is not a novel food and it is not regulated; if it is different, it is a novel food and it gets assessed, regardless of how you made it. If I made that apple by precision breeding and it is different, it would be regulated; if I made it by crossing two apples in my orchard and creating a new apple tree that was different, it would still be regulated through that process. Scientifically, that is a very valid approach, but it means that you encompass within it all of traditional breeding and all the things that are done but not regulated in that way in this country.
Examination of Witness
Professor Jim Dunwell gave evidence.
Professor Dunwell: I am Jim Dunwell, professor of plant biotechnology at the University of Reading. I am also chair of ACRE, the Advisory Committee on Releases to the Environment, and have been for the past nearly three years.
Professor Dunwell: Absolutely not. Some people suggest that speed, when it is applied in this kind of science, somehow has an intrinsic risk attached to it. That is slightly strange, as in most areas of science and innovation we are striving towards efficiency, whether it be in producing better vaccines or better batteries for electric cars. We are in a competitive world, and we can be sure that, as a nation and a scientific group, we are up against people who are having the same discussions elsewhere. If you are a plant breeder—not that it is a particularly profitable business—the ones who are successful are those who make genetic gains more efficiently and more quickly. Ever since we have known how genes control plant development, there have been advances in plant breeding to try to go through generations more quickly, so that people can capture, create and select genetic variation more quickly, and get their products to market more quickly. This is another element in that, which allows further increase in efficiency. Therefore, I have no intrinsic doubt about it.
Professor Dunwell: No, not at all. It is something that ACRE as a group has had discussions about in the past decade, saying that the traditional methods of regulation were not really keeping pace with the change in the scientific information. Some 10 years ago nearly, we produced a report leading the way on that. Some of those issues have now fed through into the present proposal for regulation. Something you do with gene editing is to make slightly different, smaller genetic changes—that is the precision—enabling you to take a good variety and make it slightly better, just by making an existing change. In the past, you would have to put together different hybrid combinations. You would then have to go through massive selections of the best progeny, and that takes time. In terms of breeding a new variety, it may take five, eight or 10 years. That, now, can be cut back substantially.
Professor Dunwell: I think it is very appropriate. Obviously, it follows on from our removal from the EU. As for the legal case that created this, I suppose, concern, most scientists in the UK and the EU realised that it was a sort of perverse judgment when it comes to traditional so-called mutagenesis, where you apply chemicals or radiation—that is considered a traditional method and has been for 50 years. If you go back to the ’50s, there was a society of atomic gardening. That was when atomic energy was “good”. There was a very popular and interesting character who set up the atomic gardening group. She used to demonstrate her plants at Chelsea; she used to have dinner parties and carry round irradiated peanuts to offer to people. It was considered a good thing, but it was a complete unknown. But there was no evidence of any problems relating to it. We can now make particular small genetic changes in a much more precise way, and I think it is a good time for the UK to take a lead and apply the best scientific principles that we have at our disposal.
Professor Dunwell: I think this comes back to our understanding of genomes. Some of the wording in here comes out of the discussions that we have had within ACRE and the recognition that, probably 20 or 30 years ago, we assumed that one crop had one genome and that was it, but we now know, because you can sequence genomes very easily and quickly, that in fact there is an enormous underlying diversity of genetic material. The number of genes in one variety of maize or corn is different from the number of genes in another. There are also structural rearrangements. You can have great pieces of chromosomes interchanged or moved; it is still a maize plant. These so-called structural variations are an intrinsic part of plant breeding—and also animal breeding. The more we see the diversity of this variation, the more we pick up the fact that many, many plants have DNA that has come from other organisms throughout their evolution; it is the same with animals. Plants have segments of DNA from, say, virus infections hundreds or thousands of years ago perhaps. They have been incorporated into the genome and so, in old-fashioned definitions of GM, those organisms would be considered genetically modified organisms, because they have material from another organism in them. But we accept now that that is the baseline—that many, many organisms have small parts of DNA from many, many organisms. We have nematodes that have plant DNA. We have insects that have plant DNA. These have been moved around during evolution. They do not change the purity of the species. In evolutionary terms, they create the diversity that enables evolution to take place.
That is the background in which the term “natural transformation” has been created. The simple presence of a small fragment or a bit of DNA from another species, which might have been there anyway, is not something that has any impact on hazard or risk.
I want to press you a bit further on some of these vexed issues of definition. We have “precision bred organism”, “qualifying higher plant”, and the EU now has “new genetic techniques”. We have three new definitions, which the learned societies have suggested in their evidence do not really mean very much. I may be being slightly unkind, but they are not very precise in their definition. The evidence that your committee, ACRE, produced to give guidance, which unfortunately came after the statutory instrument a few months ago, makes for very interesting reading. I will not read it all out—I assure you, Mr Stringer—but it is a very nuanced account of how you might go about coming to conclusions about what any of these things are, but it lacks precision and certainty. As legislators, we are trying to put into a Bill some fairly precise definitions. Am I wrong about that?
Professor Dunwell: No, it is a nuanced approach. It is nuanced because it takes account of the developing science. That is something that our committee does; part of the responsibility of all committees is horizon scanning. We want to see where techniques that we think of as traditional now are in a few years. There will be even better means of changing not just bits of DNA, but perhaps epigenetic effects, which is where you change not the sequence of the DNA but whether the DNA is expressed in a particular cell. That can also have an advantage.
What you see in these definitions is something that takes account of the advance in science. As I said, it takes account of the background genetic variation that exists. There were a couple of papers recently in Nature, for which something like 50 potato genomes were sequenced, and something like half a million quite big genetic variations were identified, in terms of the position of genes. It is against that background that this definition is pitched. That is where we have to take account of the variation. You cannot say now that one particular fragment of DNA is going to produce any particular risk.
Professor Dunwell: Well, we realise that the jurisdiction is different. We have observers at ACRE meetings from the devolved authorities—not at every meeting, but they are clearly invited to attend, and some of them do. They can add their own input into the discussions, even though it will not apply within their jurisdiction. Then of course we have the fact that much of the good science goes on at the James Hutton Institute, the Roslin Institute and elsewhere. Those are world-class centres of science doing this type of research. I am sure that among those scientists there is an intrinsic frustration about the political environment that exists, but I am not going to comment on the policy at that level. ACRE as a committee had sessions in Edinburgh some three or four years ago, and we have spoken to the relevant committees directly. I was part of those discussions.
Professor Dunwell: Under the EU system a lot of the discussion was part of EFSA. Obviously it is different now, but in those days it fed back information to ACRE. Even though we have kind of split, we still take account of and look at the EFSA reports on a regular basis. We keep up to date with the discussions in the whole area of science looking forward, because it is our responsibility to make sure that ACRE is not just an isolated UK silo. We have those reports and there still are UK people who sit on EFSA committees, even though we are not part of the official system. It has not disqualified the scientific input from the UK into the EU, which is an interesting element in its own right.
Professor Dunwell: Well, it is the terminology “escape”. Perhaps it comes from releasing things into the environment, which has some implication to it, but there is no evidence that any existing genetically modified things that are on the market have any greater impact on the environment either through pollen dispersal or propagule dispersal than any existing variety has. Just because it is genetically modified or, in the future, gene edited, it will not intrinsically expand the danger of gene contamination, which is often an objection.
Professor Dunwell: It is not relevant. There is no evidence for that.
Professor Dunwell: No, they would be excluded. You have taken a gene or genes, and you accumulate the numbers of genes. Some of the things that are being grown in the States now might have eight or 10 transgenes —separate genes—all inserted into the same variety. That is completely different from what we are discussing today, which is minor changes that are much more equivalent to forms of mutation that have existed for ever. The domestication of crops relied on mutations, but we did not know at the time what they were. Agriculture and what you eat today is a product of natural mutation.
Professor Dunwell: There are lots of maize varieties that have been proposed and are grown commercially in the States over large areas. Initially, 20 or so years ago, they just had one or two genes, which were to do with insect resistance or herbicide tolerance, but over time the numbers of genes have been pyramided together, either by introducing them all at once or by crossing together a transgenic plant that has one insert and one that has two, so there are varieties now with six, eight or 10 different genes from different sources in one commercial product.
Professor Dunwell: Yes, and it has been done by—
Professor Dunwell: Yes. The science is clearly not different. A plant grown in England or Wales or Ireland or wherever is no different. But there are differences in jurisdiction. Where you have devolved authorities, that element of allowing or not allowing cultivation is a devolved issued.
Professor Dunwell: We could debate the precautionary principle for a long time.
Professor Dunwell: Yes, but the discussions and the recommendations we have had are proportionate to the scientific debates that ACRE takes part in. Under the traditional remit, our major remit is to advise on potential risks of GM to human health and the environment. That is the core of our debate. At the same time, we have to do that in this area of moving scientific expertise. We continually adjust that, but those are the core features in what we are tasked to do. Clearly, more tasks might come out of the Bill. In that area, we have for years had flexibility about elements of those core principles. Yes, we are satisfied that the precautionary principle is not an issue.
This might not be a fair question, but has science ever got to the point where it could effectively give us a legal definition that we could use to erase some of the confusion on the Opposition Front Bench, or is biology itself too complicated?
Professor Dunwell: Biology is not physics—you cannot measure every charge of every atom. The appearance of any plant depends on not just the genes that are in it, but where you grow it.
Professor Dunwell: Yes. The so-called genotype-environment interaction is what determines how big the weeds in your garden grow. It depends on whether they are watered, whether they have fertiliser, whether they get mildew on them and so on. The plant itself is a consequence of that interaction.
As you say, that is an extraordinarily difficult thing to put down in words to be subject to legal enforcement. I am not a lawyer; I admire the people who put our advice into this Bill. There may be bits that people can tweak, but it is the job of the lawyer to try to compose something that fits legal standards but is also compatible with the kinds of—
Professor Dunwell: I have not spoken to the drafting lawyers, but I imagine they have struggled at times with trying to pin down something that is, as you say, flexible and messy. Biology is something that perhaps does not always fit or meet strict definitions.
Professor Dunwell: Yes.
Professor Dunwell: Taking one step back, any form of agriculture and any form of domestication and multiplication of a crop in the last 10,000 years has been to put something into the environment that was not there. In the case of maize 10,000 years ago, someone somewhere in Mexico found a unique plant with characteristics that they had never seen before, and he or she—that very bright individual—said, “This has got attributes that I can see are good and I want to keep.” That was the beginning of the agricultural system.
Professor Dunwell: Yes. That is the context, and I think it is important just generally that people—well, that is me producing a sermon. That is the context in which we are now working.
Professor Dunwell: That is a whole other area. Science in this area has not been applied in the same way to a micro-organism. Obviously, it has been applied to animals. You talked before about asking the question about gene edited animals. One of the things I should add before I get to the other question is that the best example of that on the market at the moment is gene edited fish in Japan. There are two varieties of fish whose growth rate has been modified through gene editing, which have been on the market—I do not know whether successfully commercially, but they are one of the prime examples of that.
On micro-organisms, we hope at the next ACRE meeting—we have not had an in-person meeting since covid started—to start to explore the applications in the microbiology area. We have invited people along from outside, as we do quite regularly, for consciousness raising at a scientific level, to get the best experts to say where they see this type of technology going. Microbiology at the moment is not specifically described in here. It will develop over time because there is an increasing interest in applying different microbes—often ones that have been selected, because the soil is full of tens of thousands of microbes, and some of them are good and some are bad. Many companies now have huge collections of hundreds of thousands of microbes that they go through to try to pick ones that may have an antagonistic effect on other microbes, so they can be applied as inoculants into the soil to improve soil health.
All that is really admirable and exciting stuff. It depends, again, on our ability to identify, extract and sequence genetic information. I went to a meeting probably 20 years ago in Paris, when somebody for the first time said that their PhD student, having spent three years, had got the sequence of one bacterium. He was so proud of that student. Now, you can probably do hundreds in a day. The rate of change is orders of magnitude just in 20 years. It is in what grows out of that and how we develop the regulatory boundaries that the challenges lie.
Ordered, That further consideration be now adjourned. —(Jo Churchill.)
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