WEBVTT

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Breaking free from the chains of the past Where

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truth moves faster than a Holstein calf No law

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waiting on some printed page We're charting new

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ground in the digital age From genomic codes

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to robot facts We cut through the noise, no hold

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them back not your daddy's dairy news tonight

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we're sparking Welcome to the Bullvine Podcast,

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where we dig deep into the innovations reshaping

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dairy farming. Today's episode is a game changer.

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Imagine a world where a single genetic tweak

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could save a baby's life, and that same technology

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is now poised to revolutionize your herd. We're

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breaking down how CRISPR, the gene editing tool

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behind a recent medical miracle, is steering

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dairy farming into uncharted territory. From

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mastitis -resistant Holsteins to heat -tolerant

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jerseys, and the end of dehorning, this isn't

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sci -fi. It's the future of your farm. We'll

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unpack the science, the savings, and the ethical

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questions every dairy professional needs to ask.

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So grab your milk jug, settle in, and let's explore

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how gene editing could rewrite the rules of dairy

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genetics. Welcome to the Deep Dive. Today, we're

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tackling a topic that's really stirring things

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up in ag science, and it has, well, potentially

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huge implications for your dairy operation. We've

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put together a pretty comprehensive report for

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the Bullvine Newsroom, Gene Editing Revolutionizing

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Dairy Farming, and our job today is to pull out

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the crucial bits, the real need -to -know stuff

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for you. Exactly. This deep dive is all about

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navigating this fast -moving world of gene editing

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in dairy. We want to give you a clear picture

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of what it is, how it's different from older

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methods, the real benefits for farmers. And the

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timelines too, right? Plus costs, regulations,

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consumer thoughts, the whole package. The whole

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package. The goal is really to equip you with

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solid information so you can make smart decisions

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for your farm's future. Okay, let's get right

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into it then. What is gene editing exactly? The

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report uses this analogy I liked, like a molecular

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find and replace for DNA. And CRISPR -Cas9 is

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the big name here. That's a really good way to

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think about it, yeah. Find and replace. What's

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key is the precision. It's totally different

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from older genetic modification where you might

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stick in genes from, I don't know, a different

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species entirely. Gene editing lets scientists

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make really specific tweaks within the animal's

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own genetic code. The Journal of Dairy Science

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has a lot on this, calling it a super precise

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genetic selection tool, right down at the DNA

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level. So CRISPR is like, what, tiny scissors

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cutting and pasting DNA? Kind of, yeah. Very

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precise molecular scissors. They find a specific

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spot and make an edit. So it's about improving

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what's already there, not adding totally foreign

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stuff. The report says this lets you turn on

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good traits, switch off bad ones, or just fine

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-tune how genes work. Sounds way more efficient.

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Oh, it is. Dramatically so. I mean, think about

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traditional breeding. You could maybe get some

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of these changes over, well, decades? Right,

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a long time. Gene editing. The research we looked

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at suggests you could achieve what might take,

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say, 55 years of conventional breeding, potentially

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in just one generation. 55 years in one generation.

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Wow. That's a game changer right there. It really

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is. Compressing half a century of progress. That's

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the potential disruption we're looking at. Okay,

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but how does this actually happen on the ground?

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The report makes it clear, you know, farmers

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won't be doing... CRISPR in the barn. No, no,

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definitely not. This is high -tech lab work.

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It's done by breeding companies, research institutions,

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that sort of thing. So for you listening, access

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would come through things you already use, like

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AI or maybe embryo transfer, similar to getting

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top genetics from select sires or GenX now. Exactly.

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That's the likely route. The existing infrastructure?

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The systems you use every day, that's probably

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how these advanced genetics will be delivered.

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Dr. Allison Van Einemem at UC Davis put it well.

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She said something like, gene editing doesn't

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replace breeding programs. It enhances them.

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It lets us make those precise changes much, much

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faster. Right, like how genomic testing sped

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things up without changing the basic breeding

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pyramid structure. Precisely. Same idea. Just

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another powerful tool layered on top. Okay, got

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it. So we know what it is. Let's dig into the

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benefits the game -changing stuff mentioned in

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the report. First up, mastitis, called a $2 billion

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annual problem for the industry. Ouch. It's a

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staggering number, isn't it? Really highlight

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the economic weight of mastitis. And the report

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breaks it down. Just one clinical case, early

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lactation, could cost you around $444. Wow. Yeah,

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that's milk loss, treatment, dumped milk, labor,

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even higher culling risk. So the idea of gene

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editing creating mastitis -resistant hole schemes,

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that's huge. And research is happening, places

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like Cornell. That's right. They're looking at

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specific immune response genes aiming to boost

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resistance against bugs like Staph aureus, for

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example. The knock -on effects seem massive.

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The report lists them. Less antibiotic use. Crucial

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point, that one. Lower somatic cell counts, better

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animal welfare, fewer treatments, maybe even

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better milk quality premiums. It's a whole cascade

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of positives. And think about sustainability.

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Consumer views on antibiotics. Reducing antibiotic

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use is a major, major win. It really makes you

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ask, with these kinds of losses and this potential

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solution, can the industry afford not to pursue

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this? Good question. And lower SEC means healthier

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cows, better milk, better paychecks, hopefully.

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Exactly. Okay, next big benefit area in the report,

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dehorning. Gene editing could eliminate the need

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for it using the polled gene. That feels like

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a big step for welfare. A really big step. Dehorning

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is... You know, it's a tough procedure. Gene

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editing for the pole gene means calves are born

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naturally hornless. It's a permanent fix. And

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there are cost savings, too? Yep. University

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Extension folks estimate around $40 per animal

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saved just on the dehorning process itself. The

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report compares it to how A2A2 genetics became

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pretty standard. Colds could go the same way.

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So becoming just a baseline expectation. Potentially,

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yes. Yeah. And the USDA's Ag Research Service,

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they think this pole trait via gene editing is

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already in regulatory review. Could be commercially

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available in... say, three to five years. That

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seems relatively quick compared to maybe some

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other applications. It does seem to be one of

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the front runners, yeah. All right, another challenge,

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especially with climate change, heat stress.

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The report says gene editing has answers here,

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too. Increasingly critical, this one, when that

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temperature humidity index, the THI, gets over

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72, production just tanks. You know this if you're

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farming in hotter areas. Research down at the

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University of Florida, they've introduced the

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S -L -I -C -K gene. Gives cattle shorter, sleeker

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hair coats. Helps them handle the heat better.

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Slick gene, okay. And does it work? Field trials

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will look promising. Data from ag experiment

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stations shows maybe an 8 -12 % reduction in

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production losses from heat stress in these S

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-L -I -C -K cattle. 8 -12 % less loss during

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heat waves? That's significant. The report mentioned

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a California organic farmer losing maybe 15 %

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of summer production to heat? Exactly. So reducing

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that loss by 8 -12%, that hits the bottom line.

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Gene editing here offers a permanent built -in

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solution that works alongside your fans and sprinklers.

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It's not just about stopping losses and bad weeks.

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It's about consistency, right? Keeping production

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steadier through the heat. Precisely. It raises

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a question for you listening, especially if you're

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in a heat -prone area. How much is heat stress

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costing you now? What would cutting that loss

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by, say, 10 % mean for your farm's viability?

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Good questions to ask. Okay, the report also

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touched on something exciting. Using gene editing

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for specialty milk. Creating premium products,

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maybe alternatives to standard fluid milk. Yeah,

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this is really interesting. The potential to

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fine -tune milk composition is huge. For example,

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converting A1 cows to produce only A2 milk. Gene

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editing can do that efficiently by targeting

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the beta -casein gene. And people seem interested

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in A2 milk, right? Willing to pay more. Studies

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suggest so, yeah. Growing interest, premium potential.

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But it goes beyond A2. You could enhance kappa

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casein for better cheese making, think higher

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yields, faster setting. A research actually showed

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they could potentially double kappa casein using

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gene editing. Double it. Wow. And then there's

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removing allergens like beta -lactoglobulin to

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create hypoallergenic milk options. With fluid

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milk consumption facing challenges, these specialty

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milks could be a real opportunity, couldn't they?

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New markets, added value. Absolutely. It fits

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right into diversification, meaning changing

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consumer tastes. Which leads to a question for

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the processors and co -ops listening. Are you

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exploring these specialty milk potentials? Are

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you looking at how gene editing could create

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new value streams? Okay, let's shift gears to

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the practical side. Timelines. Economics. When

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can farmers actually get these genetics and what's

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it going to cost? Right. The nitty gritty. Access,

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as we said, likely through the breeding companies,

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AI services, the usual channels. And because

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AI is so widespread, once a good gene edited

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trait gets into elite bulls. it can spread pretty

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quickly. Okay, so what are the estimated timelines?

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The report had some figures based on USDA, ARS,

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and university work. It did. So hornlessness,

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the polled trait, we mentioned three, five years,

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maybe $40 per animal saved. Mastitis resistance,

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targeting genes like CD18, looking more like

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five, seven years out. But with that huge $2

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billion potential industry impact, heat tolerance,

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the SLICK gene, maybe six, eight years, offering

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that 8 -12 % reduction in heat loss. And further

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out, maybe 8 -10 years. Things like tuberculosis

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resistance, targeting the NRAMP1 gene, which

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could save the industry $150 million a year.

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The report also mentioned an uncomfortable truth.

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that these timelines might drag on because of

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regulations or just industry inertia, not just

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technical hurdles. That's a really important

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caveat. Yes, the tech might be ready or nearly

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ready, but the pathway to market can be slow.

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Economic analyses suggest every year of delay

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costs the industry billions in lost opportunities.

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Billions. Billions lost. And what about the cost

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to the farmer for these genetics? Premium price

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expected. Probably. At least initially. You'd

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expect a premium over conventional semen or embryos.

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That reflects the R &D costs and the extra value

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these traits bring. We saw the same pattern with

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sex semen, with high genomic embryos when they

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first came out. But you have to weigh that initial

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cost against the long -term savings, right? That's

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the calculation. Exactly. The report stresses

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that. You weigh the upfront cost against, say,

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$40 saved per pulled calf, maybe $400 plus saved

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per avoided mastitis case. That 8 -12 % less

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production lost to heat. Plus, maybe better growth.

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Lower stress, better longevity. And feed efficiency,

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too. Potentially huge savings there. Huge. Feed

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is, what, 50, 60 percent of costs? And like genomic

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testing, the expectation is that access costs

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will probably come down over time as the tech

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becomes more common. Economies of scale kick

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in. So the report kind of asks farmers, are you

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going to wait until your neighbor has a resistant

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herd before you demand access yourself? Pretty

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much. Industry publications like Dairy Herd Management

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suggest the early adopters, the ones pushing

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for this, they'll likely see the benefits first.

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It's something to really think about in your

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long -term planning. Definitely food for thought.

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Okay, another massive piece of this puzzle. Consumer

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acceptance. Will people buy milk from gene -edited

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cows? The million -dollar question, isn't it?

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Crucial for the whole supply chain, co -ops,

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processors, everyone. Research seems mixed, but

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generally more positive than for older GMOs.

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Well, studies in the Journal of Agricultural

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Communications suggest more acceptance, especially

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if the edits are within the same species, not

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bringing in foreign genes. University surveys

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found something like 45 % of consumers think

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food from CRISPR -modified organisms is safe.

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Okay, 45%. That's not overwhelming yet. No, and

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there's a potential snag. The report notes that

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specifically labeling milk as from gene -edited

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cows might make people less willing to pay. So

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you could have farmers paying a premium for the

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genetics, but consumers wanting a discount. A

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bit like the RBST situation back in the day.

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Ah, right. That parallel again. So how do you

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bridge that gap? The benefit story. That seems

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absolutely critical. Research by the American

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Dairy Science Association shows public support

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goes way up when the benefits are clear. Like

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what kind of benefits? Animal welfare is a big

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one. Pulled cattle, no dehorning. That gets around

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71 % support. Also clear health advantages like

00:13:00.200 --> 00:13:02.580
less antibiotic use or environmental benefits.

00:13:03.179 --> 00:13:05.139
And just explaining clearly how gene editing

00:13:05.139 --> 00:13:07.860
is different from old GMOs, that alone can boost

00:13:07.860 --> 00:13:11.159
acceptance maybe 19%. So communication is key.

00:13:11.759 --> 00:13:15.460
Framing it around animal well -being, lower environmental

00:13:15.460 --> 00:13:17.539
impact. Absolutely. The industry needs to be

00:13:17.539 --> 00:13:20.279
proactive, tell that positive story, address

00:13:20.279 --> 00:13:23.039
concerns head on. It really puts the onus on

00:13:23.039 --> 00:13:25.700
dairy marketers and communicators. What's the

00:13:25.700 --> 00:13:28.379
plan to educate consumers effectively about why

00:13:28.379 --> 00:13:31.019
this is beneficial? Okay, let's tackle the regulatory

00:13:31.019 --> 00:13:34.200
maze. The report says it's very different depending

00:13:34.200 --> 00:13:36.179
on where you are in the world. Let's start with

00:13:36.179 --> 00:13:39.149
the US. Right. In the States, the FDA treats

00:13:39.149 --> 00:13:41.889
gene -edited animals under the banner of Intentional

00:13:41.889 --> 00:13:45.149
Genomic Alterations, or IGAs. Basically, they

00:13:45.149 --> 00:13:47.090
regulate them kind of like new animal drugs.

00:13:47.370 --> 00:13:49.769
Like drugs. So lots of hoops to jump through.

00:13:49.889 --> 00:13:52.110
Pretty much. Extensive safety assessments, you

00:13:52.110 --> 00:13:53.769
need data showing the trade is stable across

00:13:53.769 --> 00:13:56.450
generations. And with cattle having long generation

00:13:56.450 --> 00:13:58.769
times, getting that multi -generational data

00:13:58.769 --> 00:14:01.710
can add years, maybe four years or more, to the

00:14:01.710 --> 00:14:04.250
approval process. That sounds slow. Are there

00:14:04.250 --> 00:14:06.769
any signs of it speeding up? Well, the report

00:14:06.769 --> 00:14:09.009
mentions some positives, like the FDA giving

00:14:09.009 --> 00:14:11.490
low -risk determinations for some IGAs, like

00:14:11.490 --> 00:14:14.230
the SLICK trait in beef cattle, but it also asks

00:14:14.230 --> 00:14:16.809
a pretty pointed question. Should regulatory

00:14:16.809 --> 00:14:20.169
agencies, who might not fully grasp day -to -day

00:14:20.169 --> 00:14:23.070
farm realities, be setting the pace for this

00:14:23.070 --> 00:14:26.289
kind of innovation? Hmm. A fair question. Is

00:14:26.289 --> 00:14:28.309
the current system maybe overly cautious, treating

00:14:28.309 --> 00:14:30.789
gene editing as riskier than the science suggests?

00:14:31.309 --> 00:14:34.970
That's the concern raised, especially for precise...

00:14:35.210 --> 00:14:38.750
within species edits and studies show these regulatory

00:14:38.750 --> 00:14:41.269
delays aren't just theoretical they cost the

00:14:41.269 --> 00:14:44.409
industry billions in lost opportunities and you

00:14:44.409 --> 00:14:47.480
could argue prolong animal suffering from things

00:14:47.480 --> 00:14:49.720
we could potentially prevent okay what about

00:14:49.720 --> 00:14:52.480
canada how are they handling it canada looks

00:14:52.480 --> 00:14:54.980
at products with novel traits no matter how they

00:14:54.980 --> 00:14:57.679
were created interestingly health canada and

00:14:57.679 --> 00:15:00.860
cfia recently exempted some gene edited plants

00:15:00.860 --> 00:15:02.980
and feeds from certain assessments if they don't

00:15:02.980 --> 00:15:05.440
have foreign dna but not animals animals with

00:15:05.440 --> 00:15:07.899
novel traits even from gene editing still face

00:15:07.899 --> 00:15:10.919
significant scrutiny the key distinction in canada

00:15:10.919 --> 00:15:14.230
seems to be no foreign dna versus having a novel

00:15:14.230 --> 00:15:16.750
trait. That difference dictates the level of

00:15:16.750 --> 00:15:18.730
regulation. It's a bit like the difference between,

00:15:18.769 --> 00:15:20.950
say, grass -fed and organic, different labels,

00:15:21.070 --> 00:15:22.809
different rules. I see. And then there's the

00:15:22.809 --> 00:15:26.149
EU, known for being pretty strict on GMOs. Extremely

00:15:26.149 --> 00:15:28.970
strict. Gene -edited animals fall under their

00:15:28.970 --> 00:15:32.889
comprehensive GMO laws. And to date, zero GM

00:15:32.889 --> 00:15:34.909
animals have been approved for food in the EU.

00:15:35.129 --> 00:15:38.850
Zero. Zero. There's talk about maybe easier paths

00:15:38.850 --> 00:15:41.389
for some gene -edited plants, but not animals

00:15:41.389 --> 00:15:44.700
right now. So EU dairy farmers could find themselves

00:15:44.700 --> 00:15:47.220
at a competitive disadvantage compared to farmers

00:15:47.220 --> 00:15:49.700
elsewhere using these technologies. Again, echoes

00:15:49.700 --> 00:15:52.019
of the RBST situation there. Okay, the report

00:15:52.019 --> 00:15:54.720
brings up a really fascinating, maybe tricky

00:15:54.720 --> 00:15:58.460
area. Organic dairy and gene editing. Ideology

00:15:58.460 --> 00:16:01.399
versus animal welfare. It's a really complex

00:16:01.399 --> 00:16:03.980
intersection. Current organic rules, the NOP

00:16:03.980 --> 00:16:06.279
standards, flat out prohibit genetic engineering,

00:16:06.440 --> 00:16:09.159
and that includes gene editing. So organic farmers

00:16:09.159 --> 00:16:11.480
simply can't use these genetics and stay certified.

00:16:11.639 --> 00:16:13.480
Correct. Can't use the animals, can't use their

00:16:13.480 --> 00:16:16.139
products. But the report poses this ethical question.

00:16:16.340 --> 00:16:19.720
Is it truly upholding organic principles to potentially

00:16:19.720 --> 00:16:22.720
let animals suffer from, say, severe heat stress

00:16:22.720 --> 00:16:25.440
when a specific genetic could offer a humane

00:16:25.440 --> 00:16:27.659
solution? That's a tough one for organic producers.

00:16:28.039 --> 00:16:30.580
The report mentioned that California organic

00:16:30.580 --> 00:16:34.000
farmer, again, saying they would consider S -L

00:16:34.000 --> 00:16:36.220
-I -C -K cattle for heat stress if the rules

00:16:36.220 --> 00:16:38.720
allowed it and it didn't hurt productivity. Right.

00:16:38.799 --> 00:16:42.100
It shows there might be openness. if the benefits,

00:16:42.220 --> 00:16:45.419
especially welfare benefits, are clear. It suggests

00:16:45.419 --> 00:16:47.360
maybe there needs to be a conversation within

00:16:47.360 --> 00:16:49.919
the organic community as these technologies mature

00:16:49.919 --> 00:16:52.779
and their impacts become undeniable. A bit like

00:16:52.779 --> 00:16:55.340
how robotics were maybe viewed skeptically at

00:16:55.340 --> 00:16:57.539
first in organic circles, but are now being adopted

00:16:57.539 --> 00:17:00.500
more. Possibly a similar dynamic, yeah. A careful

00:17:00.500 --> 00:17:02.879
weighing of principles versus practical benefits,

00:17:03.100 --> 00:17:05.599
especially for animal well -being. So pulling

00:17:05.599 --> 00:17:07.299
this all together, we've covered the science,

00:17:07.339 --> 00:17:09.799
the benefits, the hurdles. What's the bullvine

00:17:09.799 --> 00:17:12.099
bottom line? What are the actionable takeaways

00:17:12.099 --> 00:17:14.240
for farmers listening right now? Okay, several

00:17:14.240 --> 00:17:17.420
key things. First, stay informed. This stuff

00:17:17.420 --> 00:17:20.250
is moving fast. And importantly, advocate. Talk

00:17:20.250 --> 00:17:22.170
to your co -op, your breed association, industry

00:17:22.170 --> 00:17:25.049
groups. Push for sensible regulations and faster

00:17:25.049 --> 00:17:27.089
adoption of where it makes sense. Use your extension

00:17:27.089 --> 00:17:29.369
services. They're great resources. Okay, stay

00:17:29.369 --> 00:17:33.170
informed, advocate. What else? Second, look at

00:17:33.170 --> 00:17:34.789
your farm. What are your biggest challenges?

00:17:35.630 --> 00:17:39.670
Mastitis, heat stress, dehorning labor. Figure

00:17:39.670 --> 00:17:41.869
out which of these potential gene -edited traits

00:17:41.869 --> 00:17:43.789
would give you the biggest bang for your buck.

00:17:44.559 --> 00:17:46.740
Think about it like any other major farm investment.

00:17:46.960 --> 00:17:49.880
A barn upgrade, new equipment. Where's the best

00:17:49.880 --> 00:17:53.519
ROI? Makes sense. Prioritize based on your specific

00:17:53.519 --> 00:17:56.880
needs. Third, think long -term breeding strategy.

00:17:57.279 --> 00:17:59.579
How could these traits fit into where you want

00:17:59.579 --> 00:18:02.380
your herd to be in 5 -10 years? Is it pulled

00:18:02.380 --> 00:18:04.799
for easier management? Mastitis resistance for

00:18:04.799 --> 00:18:07.000
lower costs and better milk. It's really just

00:18:07.000 --> 00:18:08.900
an extension of the genetic planning you're already

00:18:08.900 --> 00:18:11.380
doing. Right, integrating it into existing plans.

00:18:11.700 --> 00:18:14.589
Fourth, get involved in the conversation. Industry

00:18:14.589 --> 00:18:16.890
discussions matter. Farmer input shapes research.

00:18:17.089 --> 00:18:19.150
It shapes public perception. Bring these topics

00:18:19.150 --> 00:18:20.990
up at your co -op meetings, your breed meetings.

00:18:21.190 --> 00:18:23.829
And fifth, prepare your marketing story. Yes,

00:18:23.930 --> 00:18:26.970
crucial. Think now about how you talk about the

00:18:26.970 --> 00:18:30.009
benefits to consumers. Animal welfare, fewer

00:18:30.009 --> 00:18:32.869
antibiotics, environmental pluses. The communication

00:18:32.869 --> 00:18:35.430
piece is huge, as we discussed. The report frames

00:18:35.430 --> 00:18:38.430
this historically, right? Like AI in the 40s,

00:18:38.450 --> 00:18:41.769
genomics in the 2000s. Gene editing is the next

00:18:41.769 --> 00:18:44.579
big step. That's the perspective. The dairy industry

00:18:44.579 --> 00:18:48.000
always evolves by adopting technology. Gene editing

00:18:48.000 --> 00:18:50.660
looks like the next frontier. So the question

00:18:50.660 --> 00:18:53.700
is, do you want to lead the charge or risk falling

00:18:53.700 --> 00:18:55.880
behind? But approach it carefully, right? Like

00:18:55.880 --> 00:18:58.319
not breeding your whole herd to one unproven

00:18:58.319 --> 00:19:01.220
bull. Absolutely. Measured steps. But the core

00:19:01.220 --> 00:19:04.420
message from university research is clear. The

00:19:04.420 --> 00:19:06.480
farmers who are informed, who understand this,

00:19:06.640 --> 00:19:08.720
they'll be the ones best positioned to benefit.

00:19:08.980 --> 00:19:11.079
The report ends with a real zinger. Oh, yeah.

00:19:11.369 --> 00:19:14.009
It asks, if gene editing can save a baby's life,

00:19:14.230 --> 00:19:17.109
what could it do for your herd's health, welfare,

00:19:17.349 --> 00:19:20.190
profitability? Are you ready for that next revolution?

00:19:20.450 --> 00:19:22.490
Because according to the major research institutions,

00:19:22.789 --> 00:19:25.539
it's not if. It's when. Okay, so let's recap

00:19:25.539 --> 00:19:27.519
this deep dive. We've seen the huge potential

00:19:27.519 --> 00:19:29.880
of gene editing for precise improvements in dairy

00:19:29.880 --> 00:19:32.420
cattle, big benefits for farmers tackling tough

00:19:32.420 --> 00:19:35.700
issues like disease, heat stress, but also critical

00:19:35.700 --> 00:19:38.740
hurdles, regulations, cost, and maybe the biggest

00:19:38.740 --> 00:19:41.819
one, consumer trust. The need for farmers to

00:19:41.819 --> 00:19:45.039
be proactive, informed, and really own the narrative

00:19:45.039 --> 00:19:47.579
about the benefits seems paramount. That sums

00:19:47.579 --> 00:19:50.180
it up well. Gene editing offers targeted solutions,

00:19:50.460 --> 00:19:52.420
but realizing that potential means navigating

00:19:52.420 --> 00:19:55.079
regulations. smartly, handling the economics

00:19:55.079 --> 00:19:57.920
and building consumer confidence. This report

00:19:57.920 --> 00:20:00.599
is basically a call to action for farmers. Stay

00:20:00.599 --> 00:20:03.359
informed, get engaged, and be ready to make strategic

00:20:03.359 --> 00:20:05.380
choices about incorporating these innovations.

00:20:05.759 --> 00:20:07.480
So we'll leave you with this final thought to

00:20:07.480 --> 00:20:09.980
chew on. What happens long term? For your farm,

00:20:09.980 --> 00:20:12.779
for the whole industry? If we embrace these technologies

00:20:12.779 --> 00:20:15.539
thoughtfully versus if we ignore them, what does

00:20:15.539 --> 00:20:18.119
dairy farming look like in 10 or 15 years? And

00:20:18.119 --> 00:20:21.319
what part will gene -edited cows play? It's about

00:20:21.319 --> 00:20:23.450
shaping the future, really. Are you ready to

00:20:23.450 --> 00:20:25.950
dig deeper and be part of that? Thanks for joining

00:20:25.950 --> 00:20:28.809
us on The Bullvine Podcast. If this episode sparked

00:20:28.809 --> 00:20:31.549
your curiosity, share it with a fellow farmer.

00:20:31.950 --> 00:20:35.029
Leave us a review and subscribe wherever you

00:20:35.029 --> 00:20:38.190
get your podcasts. Want the full story? Dive

00:20:38.190 --> 00:20:40.750
deeper into the research and resources we discussed

00:20:40.750 --> 00:20:44.650
today at www .thebullvine .com. Got questions

00:20:44.650 --> 00:20:47.049
or topics you'd like us to tackle? Slide into

00:20:47.049 --> 00:20:50.069
our DMs or drop us an email. We're here to amplify

00:20:50.069 --> 00:20:53.339
your voice in this conversation. Until next time,

00:20:53.339 --> 00:20:55.839
keep your herds healthy, your margins sharper,

00:20:56.000 --> 00:20:57.099
and your vision bold.
