Tuesday, July 18, 2023

"Boosting Immunity: Essential Strategies for Veterinary Health"

 Define :- It is define as the ability of animal body that defend against harmful microorganisms, such as bacteria, viruses, parasites, and fungi etc.

Immunity


         Classification of immunity 

  1. Inherited / Innate immunity
  2. Acquired immunity 
Inherited immunity :- It is received by birth. It includes physical barriers like the skin and mucous membranes, as well as various cells and proteins that quickly respond to infections.

Difference between active and passive immunity

Also read about ruminantsRuminants


 It is of three types:- 

  1. Species immunity :- Some species are immune against some diseases, known as species Immunity. Eg- Fowls are resistant to tetanus and anthrax.
  2. Breed immunity :- Like species some breeds are also resistance to some diseases. Eg- Indian cattles breed are more resistant than the exotic cattles breed to FMD and theileriosis.
  3. Individual immunity :- Some individuals animals show resistance against certain disease.
  • Acquired immunity :- It is a type of immunity which is acquired by animal after birth. 
It is of two types :-

Active immunity :- It is that type of immunity which is developed in the animals body by itself against  infection or any antigen. It may be natural or artificial. 

Immunity and it's types


Artificial active immunity can be produced by injecting vaccines. 
Natural active immunity can be produced after any attack of infectious disease for short or long period.

2. Passive immunity :- It is that type of immunity which is borrowed by the animal from outside sources. It may be natural or artificial.

Natural passive immunity can be developed by feeding colostrum.

Artificial passive immunity can be produced in diseased animals by infecting antiserum.





Sunday, July 9, 2023

"Paws and Hearts: Understanding the Canine Cardiovascular System"

 Introduction:

The circulatory system, often referred to as the cardiovascular system, serves as the body's transportation network, carrying essential substances to every cell and tissue while removing waste products. It consists of the heart, blood vessels, and blood itself. In this blog post, we will embark on a fascinating journey to explore the circulatory system, its components, and its vital role in sustaining life. 


1.) Understanding Systemic Circulation:

Systemic circulation is the pathway through which oxygenated blood is transported from the heart to all the organs and tissues in the body, while simultaneously carrying away waste products and carbon dioxide. It begins when oxygenated blood leaves the heart's left ventricle, travels through arteries, passes through capillaries for exchange, and returns to the heart via veins.





2.) The Aorta: The Body's Main Artery:

The journey of oxygenated blood begins with the aorta, the largest artery in the body. It receives blood directly from the left ventricle and branches out to distribute the oxygenated blood to various arteries, which further divide and branch extensively, supplying blood to specific regions and organs throughout the body.





3.) Arteries: Delivering Oxygen and Nutrients:

Arteries carry oxygenated blood away from the heart, acting as pipelines that transport vital substances to the body's tissues. They have thick, elastic walls that allow them to withstand the pressure generated by the heart's contractions and maintain a continuous flow of blood. Arteries branch into smaller arterioles, which regulate blood flow to specific regions and organs.


4.) Capillaries: The Site of Exchange:

The smallest blood vessels in the body, capillaries, connect arterioles and venules. Their thin walls allow for the exchange of oxygen, nutrients, hormones, and waste products between the bloodstream and surrounding tissues. Oxygen and nutrients diffuse out of the capillaries into the cells, while waste products and carbon dioxide move from the cells into the capillaries to be carried away.


5.) Veins: Returning Deoxygenated Blood:

After exchanging oxygen and nutrients, blood becomes deoxygenated and rich in waste products. Veins collect this deoxygenated blood and carry it back to the heart. Initially, small venules merge to form larger veins, which eventually converge into two main veins, the superior and inferior vena cava. These veins return the deoxygenated blood to the right atrium of the heart, where it will be pumped to the lungs for oxygenation, initiating the pulmonary circulation.





6.) Supporting the Circulation: Valves and Muscular Contractions:

Throughout the systemic circulation, valves and muscular contractions play essential roles in maintaining blood flow. Valves in veins prevent backward flow, ensuring blood moves in one direction toward the heart. Meanwhile, the rhythmic contractions of muscles surrounding veins, especially in the limbs, aid in propelling blood against gravity and facilitating venous return.


Conclusion:

Systemic circulation is a vital process that ensures the delivery of oxygen, nutrients, and other essential substances to the body's organs and tissues, supporting their proper function and overall health. By understanding the intricacies of systemic circulation, we gain insight into how our cardiovascular system works tirelessly to nourish our cells and remove waste products. Appreciating the complexity of this circulation underscores the importance of maintaining a healthy lifestyle to support optimal systemic circulation and overall well-being.

Saturday, July 8, 2023

Ketosis

Thursday, July 6, 2023

Milk fever (parturient paresis)


 

 Definition: - Milk fever, also known as hypocalcemia or parturient paresis, is a metabolic disorder that commonly affects dairy cows in the early stages of lactation. It is characterized by a low blood calcium level, usually occurring within the first few days after calving.


Etiology:-  The main cause of milk fever is hypocalcemia  i.e. deficiency of calcium. It is mainly occurs in high lactating animals and old animals like 5-8 years old animals.

Normal level of calcium in blood is 10mg/100 ml of blood. But in milk fever it reduce to 3-7 mg/100 ml of blood.


Symptoms :- Mainly three type of symptoms are found in this disease.

(1) Stage of excitement

(2) Stage of sternal recumbency

(3) Stage of lateral recumbency





Stage of excitement:- 
a.)  Excitement

b.) Off feed

c.) Pupil dilated and muscles stiffness.

d.) Generally temp. Normal but sometimes due to excitement 103-104 F

Stage of sternal recumbency: -

a.)    NO excitement.

b.)    Animal is lying on sternum area.

c.)     Temp. subnormal i.e. Hypothermia.

d.)     Slightly blindness

e.)    Difficulty in giving I/V due to weal blood pressure.

f.)     Dullness, Depression, Dry muzzle, cold skin.

g.)    Constipation due to relax muscles of anus.






Stage of lateral recumbency: -

a.)    Unconsiousness

b.)    Blood circulation is weak

c.)     Subnormal temp.

d.)    Animal assume lateral recumbency.

e.)    Tympany & death within 12-24 hours if not treated.




Diagnosis:-

1.)    By history and symptoms (milk yield, time of parturition, sudden onset of colostrum/Milk.

2.)    Blood examination – hypocalcemia.

 

 

Treatment: -

1The treatment of milk fever in cattle typically involves administering calcium to correct the low blood calcium levels. There are several methods commonly used to treat milk fever:


Calcium Gluconate or Calcium Borogluconate Injection: Intravenous administration of calcium gluconate or calcium borogluconate is the most effective and immediate treatment for milk fever. It rapidly raises blood calcium levels and helps restore normal muscle function. The dosage and administration should be performed by a veterinarian, as incorrect administration can lead to complications.






Subcutaneous Calcium Injection: In some cases, subcutaneous administration of calcium may be used as an alternative to intravenous injection. Calcium borogluconate is typically given in this manner. Although not as rapidly effective as the intravenous route, it can still help restore calcium levels over time.


Oral Calcium Supplements: Once the cow is able to swallow and has regained some appetite, oral calcium supplements can be administered. These supplements often come in the form of drenches, gels, or boluses. They provide a slower but sustained release of calcium to maintain blood calcium levels.


Supportive Care: In addition to administering calcium, supportive care is crucial for the cow's recovery. This may include providing warmth, proper bedding, and ensuring access to fresh water and palatable feed. Encouraging the cow to stand and walk can also aid in muscle function recovery.


It is important to consult a veterinarian for the diagnosis and treatment of milk fever. They can assess the severity of the condition and provide appropriate treatment based on the individual cow's needs. Additionally, prevention strategies such as proper nutrition, balancing dietary calcium and phosphorus ratios, and monitoring calcium levels in the prepartum period can help reduce the risk of milk fever in dairy cows.

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Stomach of ruminants

 Introduction:

Welcome to our blog, where we delve into the fascinating world of cattle digestion. In this edition, we shine a spotlight on the stomach of cattle and the intricate processes that enable ruminants to efficiently break down and extract nutrients from plant-based diets. Whether you're a cattle enthusiast, a farmer, or simply curious about bovine biology, join us as we uncover the wonders of the bovine stomach.


Anatomy of the Ruminant Stomach:

Rumen: The Rumen is the largest compartment of a ruminant's stomach, housing billions of microbes that ferment and break down plant-based feed. It serves as a fermentation vat, producing volatile fatty acids for energy. This complex chamber allows cattle to efficiently digest cellulose and extract nutrients from fibrous plant materials, contributing to their unique digestive capabilities.

Reticulum: The reticulum , or "honeycomb," is a compartment of the ruminant stomach that aids in regurgitation and further breakdown of feed. It assists in the formation of cud, which is later re-chewed for better digestion. The reticulum plays a vital role in particle sorting and the movement of food through the digestive system.





Omasum: Uncovering the "manyplies" and its unique role in water absorption and particle size reduction.

Abomasum: Understanding the bovine "true stomach" and its function in enzymatic digestion.





Rumen Fermentation Process:

Microbial Community: Introducing the diverse ecosystem of microbes residing in the rumen and their crucial role in digestion.

Fermentation Pathways: Explaining the breakdown of complex carbohydrates into volatile fatty acids (VFAs) and microbial proteins.

Gas Production: Investigating the production of gases, such as methane, and its implications for cattle and the environment.

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Feed and Nutrition:

Ruminant Diets: Analyzing the ideal components and ratios of forages, grains, and supplements for a well-balanced bovine diet.

Nutrient Absorption: Examining the absorption of VFAs, proteins, vitamins, and minerals in the ruminant digestive system.

Impact of Feed Quality: Discussing the significance of high-quality forage and its effects on rumen health and overall cattle well-being. 




Health and Management:

Ruminal Acidosis: Identifying the causes, symptoms, and prevention strategies for this common digestive disorder.

Bloat: Exploring the factors contributing to bloat, its consequences, and management techniques.

Feedlot Considerations: Addressing the specific challenges and practices related to feeding and managing cattle in a feedlot environment. 


Environmental Impacts and Sustainability:

Methane Emissions: Discussing the ecological implications of cattle methane production and exploring strategies for reducing emissions.

Manure Management: Highlighting the significance of proper manure handling and its impact on soil health and nutrient cycling.

Sustainable Farming Practices: Introducing sustainable approaches to cattle farming that promote both environmental stewardship and productivity.

Conclusion:

Understanding the complexities of the cattle stomach and ruminant digestion is key to optimizing bovine health, nutrition, and sustainable farming practices. We hope this exploration of the bovine stomach has deepened your appreciation for the remarkable processes that allow cattle to thrive on a plant-based diet. Stay tuned for more insightful articles, as we continue to unravel the wonders of the animal kingdom and its interconnectedness with our environment.