Abdominal Radiography in Exotic Pets: Indications and Interpretation

By Dr. Zubair Khalid, DVM, MS, PhD · 2026-08-11

Key Takeaways

• Abdominal radiography in exotic pets necessitates species-specific anatomical knowledge and technical adaptation due to small patient size and rapid respiratory rates, with manual exposure techniques and short exposure times (ideally <0.05 seconds) being critical for diagnostic quality.
• Indications for radiography in exotic pets, including anorexia, reduced fecal output, and vomiting, warrant a lower threshold for imaging compared to dogs and cats, as physical examination findings are often nonspecific and can mask serious conditions like foreign body obstruction or gastric dilation and volvulus.
• Normal radiographic anatomy varies significantly; for instance, rabbits and guinea pigs characteristically have a large, gas-filled cecum, while ferrets have rapid gastric emptying, and birds require dorsoventral positioning to avoid compression of air sacs.
• Differentiating gastrointestinal stasis from mechanical obstruction is a primary goal, with stasis often showing a gas-filled stomach and cecum, whereas obstruction may present with marked gastric distension and a fluid-filled cecum, sometimes requiring serial radiographs for definitive assessment.
• Radiography's limitations in exotic pets include low soft tissue contrast, especially in patients under 2 kg, making ultrasound or CT superior for evaluating parenchymal detail, identifying subtle lesions, or characterizing masses.
• A systematic review sequence, starting with extra-abdominal structures and progressing through the peritoneal cavity and individual organ systems, is essential to avoid misinterpretation of normal species variations, such as the rabbit's large cecum or the guinea pig's large bladder.

Abdominal radiography in exotic companion mammals, birds, and reptiles presents a distinct diagnostic challenge. The small patient size, rapid respiratory rates, and species-specific anatomical variation demand a disciplined approach to positioning, exposure, and interpretation. This article serves the practicing veterinarian who sees rabbits, guinea pigs, ferrets, birds, and small reptiles and who needs a practical framework for deciding when abdominal radiographs are indicated, how to obtain diagnostic images, and how to interpret the common and clinically significant findings. The content assumes working familiarity with radiographic physics and general small animal interpretation, and it focuses on the differences that matter in exotic species.

The diagnostic question this article answers is direct: in a patient that cannot reliably localize abdominal pain or discomfort, how does the clinician use radiography to narrow a differential list, guide immediate therapy, and decide whether advanced imaging is warranted? Radiographs are rarely the final diagnostic step in exotic abdominal disease, but they are frequently the most informative first step when interpreted with species-specific expectations. The limitations of the modality, particularly in small patients with low contrast resolution, are as important as its strengths.

At a Glance

Indications and Clinical Triage

The indications for abdominal radiography in exotic pets mirror those in dogs and cats, but the threshold for imaging should be lower. Rabbits and guinea pigs with gastrointestinal stasis present with anorexia and reduced fecal output, and the physical examination findings are often nonspecific. DeCubellis and Graham recommend that practitioners recommend initial diagnostics, including radiographs and blood work, on guinea pigs and rabbits presenting with nonspecific signs of gastrointestinal stasis to better determine possible cause and make the best treatment recommendations. This guidance reflects the reality that the differential list for stasis includes foreign body obstruction, gastric dilation and volvulus in guinea pigs, and lead toxicity, colonic entrapment, and liver torsion in rabbits, all of which require different therapeutic paths.

Ferrets present with a different set of priorities. Vomiting, anorexia, and palpable abdominal masses prompt radiographs to screen for gastrointestinal foreign bodies, adrenal gland enlargement, and splenic or pancreatic masses. The ferret's rapid gastrointestinal transit time means that a normal gas pattern on a single study does not exclude obstruction, and repeat imaging after several hours may be necessary. Birds with coelomic distension, dyspnea, or a palpable mass benefit from radiography to differentiate organomegaly from ascites, though the respiratory component of the coelom means that thoracic and abdominal evaluation are inseparable. Reptiles are imaged for anorexia, constipation, egg retention, and suspected foreign body ingestion, but the clinician must recognize that radiographic interpretation in reptiles is constrained by the lack of a fat plane and the variable mineralization of the skeleton.

Physics and Technique Principles

The physical principles governing radiography in exotic patients are the same as in larger species, but the practical application differs. The small patient size means that scatter radiation is minimal, which paradoxically allows for lower exposure factors than a weight-based formula might suggest. The primary technical challenge is motion blur. Rabbits and guinea pigs have respiratory rates of 30 to 60 breaths per minute, and ferrets are rarely still without chemical restraint. Short exposure times, ideally below 0.05 seconds, are essential. Manual exposure settings are almost always required because automatic exposure control chambers are larger than the patient and will produce overexposed images.

Digital radiography systems have improved the practicality of exotic imaging because post-processing can compensate for modest overexposure, but the clinician should not rely on this. The goal is a correctly exposed image with a small focal spot and a grid only if the patient thickness exceeds approximately 10 cm, which is rare in exotic pets. Positioning aids such as radiolucent foam wedges, tape, and sandbags are essential. Chemical restraint is often necessary for ferrets and birds, and it is frequently helpful for rabbits and guinea pigs, particularly when the patient is painful or dyspneic. The American College of Veterinary Radiology resources provide professional standards on positioning and radiation safety that apply to these patients, and the MSD Veterinary Manual offers species-specific guidance on sedation protocols and handling.

Normal Radiographic Anatomy by Species

Rabbits and Guinea Pigs

The rabbit stomach is large, thin-walled, and located in the left cranial abdomen. It normally contains a mixture of ingesta and gas, and the gas cap is a consistent finding on the lateral view. The cecum is the dominant abdominal organ, occupying the left caudal and mid abdomen, and it is frequently gas-filled. The normal cecal gas pattern is often misinterpreted as obstruction by clinicians unfamiliar with rabbit anatomy. The colon contains formed fecal pellets that are visible as round, mineral-opacity structures in the caudal abdomen. The liver is large and extends caudally beyond the costal arch, and the kidneys are visible in the retroperitoneal space, with the right kidney more cranial than the left.

Guinea pigs share the rabbit's gastrointestinal pattern but with important differences. The stomach is smaller and more horizontally oriented. The cecum is large and thin-walled, located on the right side, and it is often the most prominent abdominal structure on the ventrodorsal view. The guinea pig's adrenal glands are not visible radiographically, and the uterus in intact females may be mineralized in older animals, a normal finding that should not be mistaken for urolithiasis.

Ferrets

The ferret's gastrointestinal tract is short and simple. The stomach is small and located in the left cranial abdomen, and it empties rapidly, so a gas-filled stomach on a fasted patient is abnormal. The small intestine has a uniform, small-diameter gas pattern, and the colon is located peripherally. The spleen is elongated and lies along the left body wall, it is frequently enlarged in ferrets, and mild splenomegaly is a common incidental finding. The kidneys are located more caudally than in dogs, at the level of the second to fourth lumbar vertebrae, and they are surrounded by a variable amount of fat. The adrenal glands are not visible radiographically unless mineralized, which occurs in some cases of adrenal disease.

Birds and Reptiles

Avian abdominal radiography is complicated by the presence of air sacs that extend into the coelomic cavity. The dorsoventral view is preferred because it minimizes compression of the air sacs and provides a more natural coelomic conformation. The proventriculus and ventriculus are visible as soft tissue structures in the left cranial coelom, and the ventriculus may contain mineral-opacity grit. The liver occupies the ventral coelom, and the heart sits immediately cranial to it, making the cardiac silhouette and liver margin difficult to separate on the lateral view. The reproductive tract in laying females may be visible as a soft tissue mass in the caudal coelom.

Reptilian radiography is the most limited by anatomy. The coelomic cavity contains no fat in most species, so soft tissue contrast is poor. The stomach and intestines are rarely visible unless gas-filled or containing mineralized ingesta. The liver is not reliably identified, and the kidneys are located in the caudal coelom, often obscured by the pelvis. The primary value of radiography in reptiles is the evaluation of the skeletal system, the detection of mineralized eggs, and the identification of radiopaque foreign bodies. For soft tissue evaluation, the magnetic resonance imaging review of reptiles, rodents, and lagomorphs notes that MRI provides superior soft tissue contrast and is often the preferred modality when parenchymal disease is suspected.

Common Radiographic Signs and Their Interpretation

Gastrointestinal Stasis Versus Obstruction

The most common radiographic question in rabbits and guinea pigs is whether the patient has functional stasis or a mechanical obstruction. In simple stasis, the stomach contains gas and ingesta, the cecum is gas-distended but not fluid-filled, and the colon contains fecal pellets. In obstruction, the stomach is often markedly distended with gas and fluid, the cecum may be fluid-filled instead of gas-filled, and there is a transition point with no gas distal to the obstruction. Gastric dilation and volvulus in guinea pigs presents with a severely distended, gas-filled stomach that occupies most of the left abdomen, and the cecal gas pattern is absent. This is a surgical emergency, and the radiographic findings should prompt immediate surgical referral.

Hepatomegaly and Mass Lesions

Liver enlargement in rabbits and guinea pigs displaces the gastric axis caudally and dorsally on the lateral view. In birds, hepatomegaly displaces the ventriculus caudally and may cause the cardiac silhouette to appear elongated. Ferrets with adrenal disease may show a soft tissue mass in the cranial abdomen, but the sensitivity of radiography for adrenal enlargement is low, and ultrasound is the preferred modality. Splenomegaly in ferrets is common and usually incidental, but a markedly enlarged spleen with a rounded margin and displacement of adjacent organs warrants further investigation.

Urinary Tract Disease

Rabbits and guinea pigs frequently present with urinary tract signs, and radiographs are useful for detecting uroliths, which are typically radiopaque due to calcium carbonate content. The bladder is often large and may contain mineralized sediment that layers dependently. A bladder that is distended and does not change size between two views taken at different times suggests obstruction, particularly in male guinea pigs with urethral calculi. Ferrets with adrenal disease may show prostatic or paraurethral cysts as soft tissue masses in the caudal abdomen, but these are better characterized with ultrasound.

Limitations and the Role of Advanced Imaging

Abdominal radiography in exotic pets has a sensitivity that is limited by patient size and the lack of intra-abdominal fat. Structures smaller than a few millimeters are not reliably resolved, and early parenchymal disease is frequently invisible. A normal radiographic

Systematic Image Review and Reporting

A disciplined viewing sequence prevents the common error of reading the radiograph in the order the anatomy presents. For every exotic patient, begin with the extra-abdominal structures on the image, then assess the peritoneal silhouette, then individual organ systems. This order applies regardless of species.

Start with the thoracic portion of the film if included. Assess vertebral alignment, pulmonary opacity, and cardiac silhouette. In rabbits and guinea pigs, the stomach lies immediately caudal to the diaphragm, and a gas-filled gastric fundus can mimic a thoracic lesion on a slightly rotated view. Confirm the diaphragm is intact and continuous before attributing any opacity to the thorax.

Move to the body wall and subcutaneous tissues. Look for emphysema, which suggests bite wounds or recent surgery, and for mineralised masses that may represent abscesses. In ferrets, subcutaneous fat is normally scant, so a thick soft tissue stripe along the ventrum is abnormal and should raise suspicion for neoplasia or inflammation.

Assess the peritoneal cavity for loss of serosal detail. The term "serosal detail" is a shorthand for the contrast between soft tissue organs and surrounding fat. Rabbits and guinea pigs carry variable retroperitoneal and omental fat, so diminished detail can be a normal finding in thin juveniles or cachectic adults. Compare the cranial and caudal abdomen separately. Loss of detail in one region with preservation elsewhere points to a focal process such as abscess, granuloma, or intestinal foreign body. Diffuse loss of detail suggests peritonitis, ascites, or hemorrhage. In birds, the absence of a diaphragm and the presence of air sacs mean that the normal coelomic contrast comes from air, not fat, and the interpretive rules differ substantially.

Finally, evaluate each organ system in a fixed order. The following checklist is species-agnostic and can be committed to memory.

Decision Points in the Acute Abdomen

The most consequential decision in exotic abdominal radiography is distinguishing gastrointestinal stasis from mechanical obstruction. The two conditions require opposite management, and radiography is the first-line discriminator. DeCubellis and Graham, in their review of gastrointestinal disease in guinea pigs and rabbits, recommend radiographs and blood work as initial diagnostics for any rabbit or guinea pig presenting with nonspecific signs of stasis, because the differential list includes surgical emergencies such as gastric dilation and volvulus in guinea pigs and colonic entrapment or liver torsion in rabbits gastrointestinal disease review in guinea pigs and rabbits.

In rabbits, a stomach distended with gas and fluid, with a small amount of gas scattered through the caecum, supports functional ileus. A stomach that is severely distended, rounded, and accompanied by a gas-filled, displaced caecum raises concern for gastric dilation and volvulus. Serial radiographs taken four to six hours apart are often more informative than a single study. Static gas patterns with progressive gastric distension favour obstruction. Redistribution of gas with stable clinical signs favours ileus.

In guinea pigs, the same reasoning applies, but the threshold for surgical disease is lower. Gastric dilation and volvulus in this species can progress rapidly, and a single radiograph showing marked gastric distension with a fluid line and a gas-filled fundus should prompt immediate surgical consultation instead of a repeat study.

Ferrets present a different pattern. Gastric foreign bodies are common, and a radiopaque object such as a rubber toy fragment is usually visible. Radiolucent foreign bodies are not. In a ferret with vomiting and a normal plain study, the decision to proceed to contrast radiography or ultrasonography should be made early, because delayed diagnosis of intestinal obstruction worsens outcome. The American College of Veterinary Radiology resources on diagnostic imaging practice support the use of additional modalities when plain radiography is inconclusive ACVR diagnostic imaging resources.

Contrast Studies and When to Use Them

Positive contrast radiography retains a role in exotic patients when ultrasonography is unavailable or when the question is specifically about luminal patency. Barium sulphate suspension is the standard agent. In rabbits and guinea pigs, administer it by orogastric tube instead of by syringe feeding, because aspiration risk is high and the esophagus is easily traumatised. Serial radiographs at 15, 30, 60, and 120 minutes are typical. Normal gastric emptying in rabbits is rapid, with most contrast reaching the caecum within two hours. Delayed emptying with a persistent gastric pool suggests obstruction or severe ileus.

Iodinated contrast agents are preferred when perforation is suspected, because barium peritonitis is a severe complication. Use water-soluble agents in any patient with fever, severe pain, or loss of serosal detail on the plain study.

In birds, contrast studies of the gastrointestinal tract are technically demanding. The crop and proventriculus fill rapidly, and the ventriculus holds contrast for several hours. A normal study showing contrast retained in the ventriculus beyond six hours is not diagnostic of obstruction. Interpret avian contrast studies with reference to the species-specific normal transit times, which vary widely between granivores and carnivores.

Documentation and Reporting Standards

The radiographic report should record the study performed, the views obtained, and the radiographic technique used, including kVp, mAs, and focal film distance. This allows comparison with follow-up studies. Describe findings using standard terminology: "increased," "decreased," "normal," "absent." Avoid interpretive labels such as "suggestive of" in the findings section, reserve interpretation for the assessment.

Include the patient's body condition in the report. A thin rabbit with poor retroperitoneal fat will have reduced serosal detail as a normal finding, and this should be stated explicitly so that a subsequent reader does not misinterpret it as peritonitis.

Store images in a format that allows windowing and magnification. Digital radiography systems permit adjustment of brightness and contrast, which is essential for evaluating the thin soft tissue structures of small exotic patients. The MSD Veterinary Manual professional edition provides species-specific reference values for organ size and position that can be consulted when writing the report MSD Veterinary Manual professional edition.

When Plain Radiography Is Not Enough

Plain radiography has defined limits in exotic patients. The small size of most species means that subtle lesions, particularly in the liver, pancreas, and adrenal glands, are below the resolution of the modality. Ultrasonography is superior for evaluating parenchymal architecture and for guiding aspiration of fluid collections. Cross-sectional imaging with MRI provides detailed soft tissue contrast and is increasingly used in exotic species for evaluating the brain, spine, and abdominal organs, as reviewed in the literature on MRI of reptiles, rodents, and lagomorphs MRI review for reptiles, rodents, and lagomorphs.

The decision to advance to another modality depends on the clinical question. If the plain study is normal but the patient remains unwell, proceed to ultrasonography. If the plain study shows a mass but cannot define its origin, ultrasonography or CT is indicated. If the question is about the central nervous system or the adrenal glands, MRI is the modality of choice.

Cost and availability are practical constraints. Ultrasonography is widely available in general practice. CT and MRI are not. Referral to a specialty center should be discussed with the owner when the clinical picture warrants advanced imaging, and the discussion should include the expected diagnostic yield of each modality for the specific question at hand.

Recognized Complications and Early Detection

Radiography in exotic patients carries several failure modes that differ from those in dogs and cats. The most consequential is misclassification of normal species variation as disease. Rabbits and guinea pigs normally have a stomach that is never fully empty, and the caecum occupies much of the left caudal abdomen. A novice reader may interpret these as gastric dilation or a mass. The discriminating check is repeat imaging after 6 to 12 hours of supportive care, a normal stomach changes shape and content position, whereas a true obstruction does not.

Another recognized complication is patient compromise during restraint. Rabbits and guinea pigs can develop stress hyperthermia, and birds may become dyspnoeic when positioned in dorsal recumbency. Detection is clinical, not radiographic: monitor respiratory rate, mucous membrane color, and body temperature throughout the study. Any deterioration warrants immediate repositioning and termination of the examination.

A third failure mode is underpenetration in obese ferrets or overpenetration in birds. Both produce images that cannot support diagnostic conclusions, yet the clinician may still attempt interpretation. The corrective action is to repeat the study with adjusted technique instead of to read a technically inadequate film. The American College of Veterinary Radiology resources provide technique charts and quality standards that should be consulted before repeating exposures.

Common Errors and Corrective Action

Less experienced clinicians frequently overcall hepatomegaly in rabbits because the liver extends further caudally than in dogs. The corrective action is to compare the liver margin against the twelfth rib and the gastric axis, and to recognize that a rounded liver margin with a normal gastric silhouette is often normal. Conversely, a small, irregular liver with poor serosal detail in a rabbit with anorexia should raise suspicion for hepatic torsion, a syndrome described in the review of gastrointestinal disease in guinea pigs and rabbits.

Another common error is dismissing a single lateral view as sufficient in birds. The ventriculus and proventriculus overlap in lateral projection, and a proventricular dilation can be missed. The corrective action is to obtain a ventrodorsal view whenever gastrointestinal disease is suspected.

Limitations of the Current Evidence

The evidence base for exotic abdominal radiography is thinner than for canine and feline imaging. Much of the published guidance derives from case series, institutional experience, and extrapolation from domestic species. The MSD Veterinary Manual provides species-specific reference material, but it does not resolve all interpretive controversies.

Expert opinion still differs on several points. Whether gastric dilation and volvulus in guinea pigs is an emerging syndrome or an under-recognized sporadic event remains unsettled. Similarly, the radiographic criteria for distinguishing intestinal obstruction from severe ileus in rabbits are not validated. Some clinicians advocate contrast studies in every equivocal case, while others rely on serial plain radiographs and clinical progression. Both approaches are defensible, and the choice should reflect patient stability and available resources.

There is also genuine uncertainty about normal radiographic dimensions in exotic species. Published reference ranges for organ size are sparse, and most clinicians rely on subjective assessment of silhouette proportions. This limitation should be acknowledged in the report.

Referral, Consultation, and Reporting

Referral to a veterinary radiologist is warranted when the study is technically difficult, when findings are equivocal but the patient is unstable, or when advanced imaging is likely to change management. The American College of Veterinary Radiology resources list diplomates and practice standards that support such referrals. Ultrasonography or CT may be indicated when plain radiography cannot distinguish a mass from fecal impaction, or when peritoneal effusion obscures detail.

Laboratory involvement is appropriate when radiographic findings suggest a specific metabolic or toxic cause. For example, a rabbit with radiographic evidence of gastrointestinal stasis and a history of possible lead exposure should have blood lead testing, as lead toxicity is a recognized cause of stasis in this species per the review of gastrointestinal disease in guinea pigs and rabbits. Radiographic findings alone cannot confirm the diagnosis.

Regulatory reporting obligations vary by jurisdiction. Suspicion of a notifiable disease, such as certain zoonotic or trade-relevant conditions, should be checked against the WOAH terrestrial animal health standards and local veterinary authority requirements. The AVMA practice resources also provide guidance on professional obligations in diagnostic imaging and case documentation.

When referral is declined or unavailable, document the limitations of the study explicitly in the medical record, including the technical quality, the interpretive uncertainty, and the recommended follow-up interval.

Frequently Asked Questions

How should I adapt my radiographic approach when only single-view or low-power equipment is available?

Obtain the view most likely to answer the specific clinical question. For suspected gastrointestinal stasis in rabbits or guinea pigs, a lateral projection often provides the most information about gastric size, gas distribution, and cecal contents. If only one view is possible, note this limitation explicitly in the record. Low-power units require longer exposure times, so increase manual restraint or sedation precautions to prevent motion blur. Collimate tightly to the abdomen to improve contrast and reduce scatter. When image quality is marginal, repeat the study after addressing motion instead of interpreting a nondiagnostic image. Consult American College of Veterinary Radiology resources for technique charts and quality standards applicable to smaller patients.

What are the practical cost and resource considerations when recommending abdominal radiographs for exotic pets?

Radiography is generally less expensive than CT or MRI and often represents the first-line imaging choice for acute abdominal presentations. The cost differential matters when clients face repeated studies, such as serial radiographs to monitor gastrointestinal transit. Discuss the expected number of views and the possibility of follow-up imaging before the first study. For practices without in-house capability, referral for radiography may still be more economical than advanced imaging. When advanced imaging is indicated but cost-prohibitive, radiographs combined with ultrasound often provide sufficient diagnostic information for common conditions like urolithiasis or gastrointestinal stasis. The MSD Veterinary Manual offers species-specific guidance on diagnostic planning that can inform client discussions.

How does the radiographic approach differ between a ferret and a rabbit with the same presenting sign of anorexia?

Anorexia in a rabbit most often reflects gastrointestinal stasis, and radiographs should focus on gastric dilation, gas patterns, and cecal contents. In a ferret, anorexia more commonly signals insulinoma, adrenal disease, or foreign body obstruction, so the radiographic search pattern must include pancreatic mass effect, adrenal mineralization, and intestinal foreign material. Ferrets have minimal abdominal fat, which reduces serosal detail and makes subtle organomegaly harder to detect. Rabbits have a large cecum that normally contains heterogeneous ingesta, which can obscure adjacent structures. Blood work should accompany radiographs in both species, as the review of gastrointestinal disease in guinea pigs and rabbits emphasizes that initial diagnostics including radiographs and blood work improve treatment recommendations.

What should I document in the medical record when abdominal radiographs are nondiagnostic or technically limited?

Record the specific technical limitation, such as motion blur, underexposure, or inability to obtain a second orthogonal view. State which structures could not be assessed and why. Document the number and type of views obtained, the exposure factors used, and any sedation administered. If the study is repeated, note what changed. Include a clear statement that the absence of radiographic abnormalities does not exclude disease, particularly in species with limited abdominal fat. When referral for advanced imaging is recommended but declined, document the discussion and the client's decision. The AVMA practice resources provide guidance on medical record standards that support defensible documentation.

When is it appropriate to recommend advanced imaging instead of repeating plain radiographs?

Repeat radiographs are appropriate when the clinical question involves change over time, such as progression of gastrointestinal stasis or resolution of a suspected obstruction. Advanced imaging is preferred when a mass lesion is suspected but poorly characterized, when neurologic signs suggest a spinal or intracranial process, or when surgical planning requires precise anatomic detail. Magnetic resonance imaging offers superior soft tissue contrast for evaluating organs and the musculoskeletal system in rodents and lagomorphs, as described in the review of MRI in reptiles, rodents, and lagomorphs. CT is superior for bony detail and pulmonary assessment. If the first radiographic study is technically adequate but diagnostically inconclusive, advanced imaging usually provides more information than a repeat plain study.

How should I explain the limitations of abdominal radiography to a client who expects a definitive diagnosis?

Frame radiography as one step in a diagnostic process, not a standalone answer. Explain that radiographs show size, shape, position, and density of organs, but cannot always distinguish between similar conditions, such as stasis versus early obstruction. Use the specific findings from the study to guide the conversation. For example, if the radiograph shows a gas-distended stomach in a guinea pig, explain that this finding narrows the differential list but that blood work and possibly ultrasound are needed to confirm the cause. The review of gastrointestinal disease in guinea pigs and rabbits supports this staged approach by recommending radiographs and blood work together for nonspecific signs of gastrointestinal stasis. Offer a clear next step and an estimated cost for each additional test.

Related Clinical & Scientific Guides

• MRI Monitoring of Brain Tumor Response to Therapy in Dogs
• Ultrasound-Guided Drainage of Abscesses in Small Animals
• Radiographic Monitoring of Total Hip Replacement in Dogs

References and Further Reading

• Gastrointestinal disease in guinea pigs and rabbits.. 2013.
• Magnetic Resonance Imaging of Reptiles, Rodents, and Lagomorphs for Clinical Diagnosis and Animal Research.. 2016.
• American College of Veterinary Radiology Resources. American College of Veterinary Radiology.
• MSD Veterinary Manual, Professional Edition. MSD Veterinary Manual.
• American Veterinary Medical Association Practice Resources. American Veterinary Medical Association.
• WOAH Terrestrial Animal Health Code. WOAH.

Related Articles

• Thoracic Radiography in Exotic Pets: Techniques and Normal Anatomy
• Ultrasonography in Exotic Pets: Applications and Limitations
• Veterinary CT Angiography: Indications and Interpretation
• Musculoskeletal Radiography in Small Animals: Positioning and Interpretation
• Contrast Radiography in Veterinary Practice: Indications and Protocols

This article is educational professional reference material for veterinary audiences. It is not a substitute for veterinary diagnosis, individual clinical judgment, current product labeling, or applicable regulatory requirements.