{"title":"Toddlers and terriers: a One Health partnership to combat antimicrobial resistance","authors":"M. Prodanuk, F. Emdin","doi":"10.1111/jsap.70136","DOIUrl":null,"url":null,"abstract":"<p>“Do you want to provide a free consult?” I ask Michael as I slide into the wobbly metal chair and kick my flattened gym bag under the table. The pita shop is crowded as always, and the table rocks slightly every time either of us touches it.</p><p>He raises an eyebrow. “Depends. Do I get paid in garlic sauce?”</p><p>“That's above my pay grade”, I say, pushing damp hair out of my face.</p><p>Our weekly post-workout pita lunch has become our ritual over the past year. We met in graduate school and are both studying clinical epidemiology. I'm a shelter medicine veterinarian patching up neglected dogs and anxious cats and Michael is a paediatric infectious diseases physician. Despite different clinical backgrounds, our “One Health” friendship blossomed over a shared interest in antimicrobial resistance (AMR) in humans and animals. As it turned out, Michael's patients were struggling with the same antibiotic-resistant “super bugs” as my furry friends.</p><p>“Of course”, he tells me, grinning across the table. He cracks his pop with a hiss of escaping air, “What's up in the world of puppies and kittens?”</p><p>“I have a middle-aged terrier mix with its third urinary tract infection (UTI) in three months. The owners finally agreed to a urine culture”.</p><p>I scroll through my phone until I find the results and rotate the screen towards him. “It grew <i>E. coli</i>, resistant to most antibiotics; looks like an extended-spectrum beta-lactamase (ESBL)-producer”. I tell him, “And before you ask”, I cut him off with a gentle wave of the hand, “No obvious underlying reason for the frequent UTIs. No stones on ultrasound, diabetes or other risk factors”. I continue, “I haven't seen this dog before, but her regular vet prescribed cephalexin for 14 days a couple of times. Sadly, resistant to that now too, so I'm going to prescribe a third-generation cephalosporin called cefovecin”.</p><p>“I haven't heard of that antibiotic before”, Michael quips, “You vets get all the new fancy drugs! Those previous 14-day courses sound long, though, and I worry they may have contributed to resistance”.</p><p>“Agreed”, I continue, “and that's why I'm debating the optimal duration. Since this is a recurrent case, should I stick with the standard three to five days (Weese et al., <span>2019</span>)? Or go longer?”</p><p>Michael ponders, “Well, I'm no expert in terriers, but in teens and adults, three days is often enough for uncomplicated UTIs (Nelson et al., <span>2024</span>), even when they've had UTIs before. We usually reserve longer durations for younger children and infections that have ascended to the kidneys”.</p><p>He pauses, scratching his head: “You know, your terrier reminds me of this little girl, a toddler, that I follow in clinic for frequent UTIs. Her doctor was prescribing longer and longer courses of antibiotics, but the infections kept coming back. She even had to be hospitalised for intravenous antibiotics once, since the bacteria were resistant to all oral options. I think ESBL <i>E. coli</i> grew in her urine too…”.</p><p>Overcome with excitement, I interrupt Michael mid-sentence. “You know what is weird? The owners of my terrier said their three-year-old daughter also has recurrent UTIs. I don't know much about human diseases, but I have seen reports of resistant skin organisms transferring between owners and their dogs, including methicillin-resistant <i>Staphylococcus aureus</i> (MRSA) (Manian, <span>2003</span>). I've also heard of resistant UTI-causing gram-negatives passing between humans and their pets, some of which can withstand even the most broad-spectrum antibiotics (Menezes et al., <span>2024</span>). I pause, looking down at the culture report on my phone. I'm not saying that's what's happening here, but you have to wonder…”.</p><p>He doesn't get a chance to answer because the kitchen bell dings and someone shouts our order number. I weave through crowded tables to grab our pitas, doing my best not to drop them or wipe out on the tile floor. As I slide back into my seat, Michael leans over our meal, “In people, we will often consider specific infections after animal contact, such as rabies from a bat bite or bartonellosis from a cat scratch, but we don't often consider the risk from organisms in the animal's microbiome that may have become antibiotic resistant”.</p><p>I chime in, “If these bacteria go back and forth between animal and owner, treatment could get really challenging”. Sighing, I add, “Treat one just to be re-infected by other”.</p><p>“Exactly!” he exclaims with a mouth half-full of food, “For my patients with recurrent infections from these resistant bugs, it could be helpful to screen other household members, maybe even the pets. We sometimes do that for the families of children with repeated MRSA infections”.</p><p>Finished chewing, Michael adds with a concerned face, “I'm worried about these carbapenem-resistant bacteria that are emerging too, since our broadest spectrum antibiotics don't touch them (Tamma et al., <span>2024</span>). We have started seeing children hospitalised with severe infections from these bugs, and the outcomes aren't always positive. Sure, there are a few new antibiotics available to treat them, but sadly in Canada, many are not approved, so therapy is often delayed as we request special access. And it's possible a child could pass these bugs to their pet and vice versa”.</p><p>I nod along as Michael speaks. Anecdotally, I've wondered about rising resistance in my own practice too, and some studies from the US (Cooke et al., <span>2002</span>) and Canada (Prescott et al., <span>2002</span>) confirm similar trends in dogs and cats. I can't help but wonder how much of this is linked to the use of antibiotics that aren't always first-line choices in veterinary medicine. For example, third-generation cephalosporins, a critically important antibiotic class in human medicine, are frequently prescribed without justification in cats and dogs (Burke et al., <span>2017</span>), which may be driving resistance.</p><p>Now wiping his hands, Michael continues, “We need veterinarians, physicians, public health officials, and others to team up to improve antimicrobial use and sort out these cases of animal-human transmission. Otherwise, how can we break the vicious cycle? Without integrated human-animal AMR surveillance, cases of owner-to-pet transmission of resistant bacteria may be difficult to catch. We need real-time ‘One Health’ reporting, so public health responses can match. You and I both know there have been some success stories with this approach (Delpy et al., <span>2024</span>); it can be done”.</p><p>“Totally agree”, I say as we stand and toss our napkins into the garbage, gym bags slung over tired shoulders. We push open the door and walk back onto the busy downtown Toronto sidewalk.</p><p>Over the din of traffic, Michael continues, “We should get some of our colleagues in vet med, infectious diseases, microbiology, and public health together – see what we can do locally. Same place, same time next week to hash out a plan?”</p><p>“You're on!” I exclaim, giving him a too-hard pat on the back.</p><p>While we have improved the integration of AMR data in some contexts (Public Health Agency of Canada, <span>2022</span>), most infrastructure for tracking AMR organisms is still siloed. Human, veterinary and environmental labs are often separate and don't report data together except at a high level and retrospectively. While resistant bacteria may be jumping between animals and humans, without improving surveillance, providers may be left in the dark while patients struggle with difficult-to-treat infections. Similarly, while antimicrobial stewardship guidelines exist to help clinicians select appropriate antibiotics and treatment durations, without integrated systems to stay on top of emerging resistance patterns, these guidelines may lag behind. If our data systems were integrated, real-time reporting of resistant organisms could improve and help inform actionable antimicrobial stewardship, one infection at a time.</p><p>Michael and I part ways at the corner. He heads west, and I head east, both of us returning to our separate clinics, our separate patients and our separate problems. Except they aren't separate at all, and until our systems reflect an integrated “One Health” approach to combat AMR, we'll stay one step behind the bacteria, reactive instead of proactive and running back and forth between toddlers and terriers.</p><p>Data sharing not applicable to this article as no datasets were generated or analysed during the current study.</p>","PeriodicalId":17062,"journal":{"name":"Journal of Small Animal Practice","volume":"67 9","pages":"755-757"},"PeriodicalIF":1.5000,"publicationDate":"2026-09-03","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://onlinelibrary.wiley.com/doi/epdf/10.1111/jsap.70136","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Journal of Small Animal Practice","FirstCategoryId":"97","ListUrlMain":"https://onlinelibrary.wiley.com/doi/10.1111/jsap.70136","RegionNum":2,"RegionCategory":"农林科学","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"2026/4/12 0:00:00","PubModel":"Epub","JCR":"Q2","JCRName":"VETERINARY SCIENCES","Score":null,"Total":0}
引用次数: 0
Abstract
“Do you want to provide a free consult?” I ask Michael as I slide into the wobbly metal chair and kick my flattened gym bag under the table. The pita shop is crowded as always, and the table rocks slightly every time either of us touches it.
He raises an eyebrow. “Depends. Do I get paid in garlic sauce?”
“That's above my pay grade”, I say, pushing damp hair out of my face.
Our weekly post-workout pita lunch has become our ritual over the past year. We met in graduate school and are both studying clinical epidemiology. I'm a shelter medicine veterinarian patching up neglected dogs and anxious cats and Michael is a paediatric infectious diseases physician. Despite different clinical backgrounds, our “One Health” friendship blossomed over a shared interest in antimicrobial resistance (AMR) in humans and animals. As it turned out, Michael's patients were struggling with the same antibiotic-resistant “super bugs” as my furry friends.
“Of course”, he tells me, grinning across the table. He cracks his pop with a hiss of escaping air, “What's up in the world of puppies and kittens?”
“I have a middle-aged terrier mix with its third urinary tract infection (UTI) in three months. The owners finally agreed to a urine culture”.
I scroll through my phone until I find the results and rotate the screen towards him. “It grew E. coli, resistant to most antibiotics; looks like an extended-spectrum beta-lactamase (ESBL)-producer”. I tell him, “And before you ask”, I cut him off with a gentle wave of the hand, “No obvious underlying reason for the frequent UTIs. No stones on ultrasound, diabetes or other risk factors”. I continue, “I haven't seen this dog before, but her regular vet prescribed cephalexin for 14 days a couple of times. Sadly, resistant to that now too, so I'm going to prescribe a third-generation cephalosporin called cefovecin”.
“I haven't heard of that antibiotic before”, Michael quips, “You vets get all the new fancy drugs! Those previous 14-day courses sound long, though, and I worry they may have contributed to resistance”.
“Agreed”, I continue, “and that's why I'm debating the optimal duration. Since this is a recurrent case, should I stick with the standard three to five days (Weese et al., 2019)? Or go longer?”
Michael ponders, “Well, I'm no expert in terriers, but in teens and adults, three days is often enough for uncomplicated UTIs (Nelson et al., 2024), even when they've had UTIs before. We usually reserve longer durations for younger children and infections that have ascended to the kidneys”.
He pauses, scratching his head: “You know, your terrier reminds me of this little girl, a toddler, that I follow in clinic for frequent UTIs. Her doctor was prescribing longer and longer courses of antibiotics, but the infections kept coming back. She even had to be hospitalised for intravenous antibiotics once, since the bacteria were resistant to all oral options. I think ESBL E. coli grew in her urine too…”.
Overcome with excitement, I interrupt Michael mid-sentence. “You know what is weird? The owners of my terrier said their three-year-old daughter also has recurrent UTIs. I don't know much about human diseases, but I have seen reports of resistant skin organisms transferring between owners and their dogs, including methicillin-resistant Staphylococcus aureus (MRSA) (Manian, 2003). I've also heard of resistant UTI-causing gram-negatives passing between humans and their pets, some of which can withstand even the most broad-spectrum antibiotics (Menezes et al., 2024). I pause, looking down at the culture report on my phone. I'm not saying that's what's happening here, but you have to wonder…”.
He doesn't get a chance to answer because the kitchen bell dings and someone shouts our order number. I weave through crowded tables to grab our pitas, doing my best not to drop them or wipe out on the tile floor. As I slide back into my seat, Michael leans over our meal, “In people, we will often consider specific infections after animal contact, such as rabies from a bat bite or bartonellosis from a cat scratch, but we don't often consider the risk from organisms in the animal's microbiome that may have become antibiotic resistant”.
I chime in, “If these bacteria go back and forth between animal and owner, treatment could get really challenging”. Sighing, I add, “Treat one just to be re-infected by other”.
“Exactly!” he exclaims with a mouth half-full of food, “For my patients with recurrent infections from these resistant bugs, it could be helpful to screen other household members, maybe even the pets. We sometimes do that for the families of children with repeated MRSA infections”.
Finished chewing, Michael adds with a concerned face, “I'm worried about these carbapenem-resistant bacteria that are emerging too, since our broadest spectrum antibiotics don't touch them (Tamma et al., 2024). We have started seeing children hospitalised with severe infections from these bugs, and the outcomes aren't always positive. Sure, there are a few new antibiotics available to treat them, but sadly in Canada, many are not approved, so therapy is often delayed as we request special access. And it's possible a child could pass these bugs to their pet and vice versa”.
I nod along as Michael speaks. Anecdotally, I've wondered about rising resistance in my own practice too, and some studies from the US (Cooke et al., 2002) and Canada (Prescott et al., 2002) confirm similar trends in dogs and cats. I can't help but wonder how much of this is linked to the use of antibiotics that aren't always first-line choices in veterinary medicine. For example, third-generation cephalosporins, a critically important antibiotic class in human medicine, are frequently prescribed without justification in cats and dogs (Burke et al., 2017), which may be driving resistance.
Now wiping his hands, Michael continues, “We need veterinarians, physicians, public health officials, and others to team up to improve antimicrobial use and sort out these cases of animal-human transmission. Otherwise, how can we break the vicious cycle? Without integrated human-animal AMR surveillance, cases of owner-to-pet transmission of resistant bacteria may be difficult to catch. We need real-time ‘One Health’ reporting, so public health responses can match. You and I both know there have been some success stories with this approach (Delpy et al., 2024); it can be done”.
“Totally agree”, I say as we stand and toss our napkins into the garbage, gym bags slung over tired shoulders. We push open the door and walk back onto the busy downtown Toronto sidewalk.
Over the din of traffic, Michael continues, “We should get some of our colleagues in vet med, infectious diseases, microbiology, and public health together – see what we can do locally. Same place, same time next week to hash out a plan?”
“You're on!” I exclaim, giving him a too-hard pat on the back.
While we have improved the integration of AMR data in some contexts (Public Health Agency of Canada, 2022), most infrastructure for tracking AMR organisms is still siloed. Human, veterinary and environmental labs are often separate and don't report data together except at a high level and retrospectively. While resistant bacteria may be jumping between animals and humans, without improving surveillance, providers may be left in the dark while patients struggle with difficult-to-treat infections. Similarly, while antimicrobial stewardship guidelines exist to help clinicians select appropriate antibiotics and treatment durations, without integrated systems to stay on top of emerging resistance patterns, these guidelines may lag behind. If our data systems were integrated, real-time reporting of resistant organisms could improve and help inform actionable antimicrobial stewardship, one infection at a time.
Michael and I part ways at the corner. He heads west, and I head east, both of us returning to our separate clinics, our separate patients and our separate problems. Except they aren't separate at all, and until our systems reflect an integrated “One Health” approach to combat AMR, we'll stay one step behind the bacteria, reactive instead of proactive and running back and forth between toddlers and terriers.
Data sharing not applicable to this article as no datasets were generated or analysed during the current study.
“你想提供免费咨询吗?”我一边问迈克尔,一边滑进摇摇晃晃的金属椅子,把压扁的健身包踢到桌子底下。皮塔饼店和往常一样挤满了人,每次我们碰到桌子都会轻微摇晃。他扬起眉毛。“视情况而定。我的工资是用大蒜酱吗?”“这超出了我的能力范围。”我说着,把湿漉漉的头发从脸上拨开。在过去的一年里,我们每周锻炼后的皮塔饼午餐已经成为了我们的惯例。我们是在研究生院认识的,都在学习临床流行病学。我是收容所的兽医,负责治疗被忽视的狗和焦虑的猫,迈克尔是儿科传染病医生。尽管临床背景不同,但我们在人类和动物抗微生物药物耐药性(AMR)方面的共同兴趣使我们的“同一个健康”友谊开花结果。事实证明,迈克尔的病人和我那些毛茸茸的朋友们一样,都在与耐抗生素的“超级细菌”作斗争。“当然,”他隔着桌子笑着告诉我。他发出嘶嘶的声音,“小猫小狗的世界怎么了?”“我有一只中年梗犬,三个月内第三次感染尿路感染。业主最终同意进行尿液培养”。我在手机上滚动,直到找到结果,然后把屏幕朝他的方向旋转。“它滋生了大肠杆菌,对大多数抗生素都有抗药性;看起来像一个广谱β -内酰胺酶(ESBL)生产者”。我告诉他,“在你问之前”,我轻轻地挥了挥手,打断了他,“频繁的尿路感染没有明显的潜在原因。超声检查无结石、糖尿病或其他危险因素”。我继续说:“我以前没见过这只狗,但她的兽医给她开了几次头孢氨苄,持续14天。不幸的是,现在也对这种药产生了抗药性,所以我要开一种第三代头孢菌素,叫做头孢菌素。”“我以前从来没听说过这种抗生素,”迈克尔打趣道,“你们这些兽医都有新的特药!不过,之前的14天课程听起来很长,我担心它们可能助长了耐药性。”“同意,”我继续说,“这就是为什么我在争论最佳持续时间。由于这是一种复发性病例,我是否应该坚持标准的三到五天(Weese et al., 2019)?还是更长时间?”Michael沉思着,“好吧,我不是小猎犬方面的专家,但对于青少年和成年人来说,即使他们以前有过尿路感染,三天通常也足够了(Nelson et al, 2024)。我们通常为年龄较小的儿童和已经上升到肾脏的感染保留更长的持续时间。”他停顿了一下,挠了挠头:“你知道吗,你的梗让我想起了一个小女孩,一个蹒跚学步的孩子,我经常在诊所跟踪她治疗尿路感染。医生给她开的抗生素疗程越来越长,但感染还是不断复发。由于细菌对所有口服药物都有抗药性,她甚至不得不住院接受静脉注射抗生素治疗。我想她的尿液里也有ESBL大肠杆菌……”我激动不已,打断了迈克尔的话。“你知道奇怪的是什么吗?”我的小猎犬的主人说他们三岁的女儿也有复发性尿路感染。我对人类疾病了解不多,但我看到过关于主人和他们的狗之间传播的耐药皮肤生物的报告,包括耐甲氧西林金黄色葡萄球菌(MRSA) (Manian, 2003)。我也听说过在人类和宠物之间传播引起耐药尿路感染的革兰氏阴性菌,其中一些甚至可以抵抗最广谱的抗生素(Menezes et al., 2024)。我停顿了一下,低头看了看手机上的文化报告。我不是说这就是这里发生的事情,但你不得不怀疑……”他没有机会回答,因为厨房的铃响了,有人喊我们的订单号。我穿过拥挤的桌子,去拿我们的皮塔饼,尽量不让它们掉在地上,也不把它们弄脏。当我滑回座位时,迈克尔俯下身来吃我们的饭,“在人类中,我们通常会考虑动物接触后的特定感染,比如蝙蝠咬伤引起的狂犬病或猫抓伤引起的巴尔通体病,但我们通常不会考虑动物微生物群中可能具有抗生素耐药性的有机体的风险。”我插话说:“如果这些细菌在动物和主人之间来回传播,治疗就会变得非常具有挑战性。”“没错!”他嘴里塞满了食物,大声说道,“对于那些反复感染这些耐药细菌的病人来说,筛查其他家庭成员,甚至是宠物,可能会有所帮助。我们有时会为反复感染耐甲氧西林金黄色葡萄球菌的儿童的家庭这样做。”嚼完后,Michael一脸担忧地补充道:“我也很担心这些耐碳青霉烯的细菌,因为我们最广泛的抗生素都不会接触它们(Tamma et al., 2024)。”我们已经开始看到儿童因这些细菌严重感染而住院,结果并不总是积极的。 当然,有一些新的抗生素可以治疗它们,但遗憾的是,在加拿大,许多抗生素都没有得到批准,所以治疗经常被推迟,因为我们要求特殊准入。孩子可能会把这些细菌传给宠物,反之亦然。”迈克尔说话时,我点头附和。有趣的是,在我自己的实践中,我也想知道耐药性的上升,一些来自美国(Cooke et al., 2002)和加拿大(Prescott et al., 2002)的研究证实了狗和猫的类似趋势。我不禁想知道,这在多大程度上与抗生素的使用有关,而抗生素并不总是兽医的一线选择。例如,第三代头孢菌素是人类医学中至关重要的一类抗生素,经常在没有正当理由的情况下给猫和狗开处方(Burke等人,2017年),这可能会导致耐药性。Michael擦了擦手,继续说:“我们需要兽医、医生、公共卫生官员和其他人合作,改善抗微生物药物的使用,并解决这些动物-人类传播的病例。否则,我们如何打破这种恶性循环?如果没有人与动物之间的抗生素耐药性综合监测,可能很难发现由主人向宠物传播耐药细菌的病例。我们需要实时的“同一个健康”报告,以便公共卫生应对措施能够匹配。你和我都知道这种方法有一些成功的故事(Delpy et al., 2024);这是可以做到的。”“完全同意”,我们站起来,把餐巾扔进垃圾桶,疲惫的肩膀上挂着健身包,我说。我们推开门,回到多伦多市中心繁忙的人行道上。在嘈杂的车流中,迈克尔继续说:“我们应该召集兽医、传染病、微生物学和公共卫生方面的同事,看看我们能在当地做些什么。下周同一时间,同一地点制定计划?”“你!”我叫道,用力拍了拍他的背。虽然我们在某些情况下改进了抗菌素耐药性数据的整合(加拿大公共卫生署,2022年),但大多数用于追踪抗菌素耐药性生物的基础设施仍然是孤立的。人类、兽医和环境实验室通常是分开的,除非在高水平和回顾性的情况下,否则不会一起报告数据。虽然耐药细菌可能会在动物和人类之间传播,但如果不加强监测,当患者与难以治疗的感染作斗争时,医疗服务提供者可能会被蒙住了眼睛。同样,虽然现有的抗微生物药物管理指南可以帮助临床医生选择适当的抗生素和治疗时间,但如果没有综合系统来掌握新出现的耐药模式,这些指南可能会落后。如果我们的数据系统得到整合,耐药生物的实时报告可以改善并帮助告知可操作的抗微生物药物管理,一次一个感染。迈克尔和我在拐角处分道扬镳。他往西走,我往东走,我们都回到各自的诊所,各自的病人,各自的问题。除非它们根本不是分开的,除非我们的系统反映出一种综合的“同一健康”方法来对抗抗生素耐药性,否则我们将落后于细菌一步,被动而不是主动,在幼儿和小猎犬之间来回奔波。数据共享不适用于本文,因为在当前研究期间没有生成或分析数据集。
期刊介绍:
Journal of Small Animal Practice (JSAP) is a monthly peer-reviewed publication integrating clinical research papers and case reports from international sources, covering all aspects of medicine and surgery relating to dogs, cats and other small animals. These papers facilitate the dissemination and implementation of new ideas and techniques relating to clinical veterinary practice, with the ultimate aim of promoting best practice. JSAP publishes high quality original articles, as well as other scientific and educational information. New developments are placed in perspective, encompassing new concepts and peer commentary. The target audience is veterinarians primarily engaged in the practise of small animal medicine and surgery.
In addition to original articles, JSAP will publish invited editorials (relating to a manuscript in the same issue or a topic of current interest), review articles, which provide in-depth discussion of important clinical issues, and other scientific and educational information from around the world.
The final decision on publication of a manuscript rests with the Editorial Board and ultimately with the Editor. All papers, regardless of type, represent the opinion of the authors and not necessarily that of the Editor, the Association or the Publisher.
The Journal of Small Animal Practice is published on behalf of the British Small Animal Veterinary Association and is also the official scientific journal of the World Small Animal Veterinary Association