Etkili sağımhane temizliği bakımı ve hijyen için neler yapmak gerekir

Guide to effective dairy parlour cleaning.

Zirve
May 12, 2021

Ineffective cleaning of the internal surfaces of the milking system increases the risk of bacteria and milk residues building up.

As well as potentially leading to higher Bactoscans, this raises the potential for cross-infection with diseases such as mastitis from contaminated milking equipment, according to Ian Ohnstad, milking technology specialist with The Dairy Group consultancy.

Thermoduric bacteria – heat-resistant, spore-forming bacteria that can survive pasteurisation and cause serious problems for milk processors – are also more likely to thrive.

Despite these risks, many cleaning routines on UK farms are both ineffective and inefficient and need closer attention.

It is critical that a regular, monitored routine is followed by all staff involved in the plant‐cleaning operation, Mr Ohnstad suggests.

Cleaning protocol

Step one

Clean the parlour using low-pressure water to remove muck and debris from liners, clusters, long milk and pulse tubes.

A common mistake is to clean the external surfaces of milking equipment after the hot water cleaning cycle has begun.

This can bake faecal material to the surfaces, making it far more difficult to remove, says Mr Ohnstad.

“Another reason to avoid applying cold water to the outside of a metal pipe is that it will significantly reduce the temperature of the water being circulated inside,” he says.

Maintaining a sufficiently high temperature to reduce bacteria and milk residues in the pipe is critical, so this attempt to save time is ineffective and wastes the energy used to heat the water.

sağımhane bakımı ve hijyen için neler yapmak gerekir

Step two

Once the clusters have been cleaned, they should be attached to the jetters.

This transfers vacuum to the wash manifold and leads to wash solution being drawn into the plant.

The jetters should also be cleaned as they may have become soiled during the previous milking and can introduce contamination into the circulating solution.

Any in‐line mastitis detectors should be checked and cleaned before circulation begins.

Then a three-phase cleaning cycle should begin.

2.1. Pre-rinse to remove milky residues.

This should be carried out using tepid water at about 30-40C at a rate of 12-15 litres per milking point, allowing this to run to waste.

If hot water volumes are limited, use cold water for the pre-rinse rather than compromising the temperature and volume of the hot circulation.

2.2. Circulation to remove fats, proteins and minerals.

This requires a total of 15 litres of water per milking point, heated to 77-85C.

First, allow five litres per milking point of hot water at 85C to go straight through the plant to the drain.

This is to begin cleaning the system and heat the metal pipework – much like warming a teapot, explains Mr Ohnstad.

The warmed metalwork will help maintain water temperatures in the following phase.

The main circulation should supply 10 litres of water per milking point for about 6-8 minutes ensuring the final circulation temperature is greater than 55C. Cleaning chemicals should be added at this stage.

Once the circulation is established, every jetter should be checked and a visual inspection should be carried out at all milking points to ensure adequate solution flow.

2.3. Final rinse – to remove chemicals from the plant, preventing milk contamination.

This is a cold rinse at about 15 litres per milking point. If mains water is used there is no need to add a disinfectant to the final rinse.

Step three

Then a three-phase cleaning cycle should begin.

3.1. Pre-rinse to remove milky residues.

This should be carried out using tepid water at about 30-40C at a rate of 12-15 litres per milking point, allowing this to run to waste.

If hot water volumes are limited, use cold water for the pre-rinse rather than compromising the temperature and volume of the hot circulation.

3.2. Circulation to remove fats, proteins and minerals.

This requires a total of 15 litres of water per milking point, heated to 77-85C.

First, allow five litres per milking point of hot water at 85C to go straight through the plant to the drain.

This is to begin cleaning the system and heat the metal pipework – much like warming a teapot, explains Mr Ohnstad.

The warmed metalwork will help maintain water temperatures in the following phase.

The main circulation should supply 10 litres of water per milking point for about 6-8 minutes ensuring the final circulation temperature is greater than 55C. Cleaning chemicals should be added at this stage.

Once the circulation is established, every jetter should be checked and a visual inspection should be carried out at all milking points to ensure adequate solution flow.

3.3. Final rinse – to remove chemicals from the plant, preventing milk contamination.

This is a cold rinse at about 15 litres per milking point. If mains water is used there is no need to add a disinfectant to the final rinse.

Tips on improving cleaning efficency

Beneath the practical cleaning steps there are four key components that underpin a successful parlour routine, suggests David Horton, UK sales manager for Deosan.

 

Water quality and mechanical action

The starting point is to ensure that water is of drinking quality, ideally from the mains.

Where water is drawn from private boreholes it is wise to test the supply regularly to ensure pathogens are not introduced.

With a consistent class-one supply achieved, water should be drawn through the system with a vigorous, mechanical action.

“Cleaning should not be a quiet, docile affair,” says Mr Horton. “Milk pipes should jostle as a slug of water is forced through the pipes.”

This slug is created by the impulse system – a controlled injection of air.

It is particularly important for modern set-ups with a large-bore pipe for the slug to contact both the top and bottom internal surfaces to remove milk residues and bacteria.

Checking water volumes, to ensure target quantities are being met, can be achieved by catching water in buckets at the end of each stage as it is pumped through the delivery line to the drain, Mr Horton says.

Chemical use

Chemical cleaners are needed to tackle bacteria and should be selected with advice based on the installed system.

Chemicals are particularly important in reducing thermoduric bacteria which resist the action of the raised water temperature.

Active ingredients are manufactured to operate at a prescribed temperature and dose rate. These vary between products so it is essential to read the label and stick to recommendations.

The dose rate will be set at a level to clean but not damage rubber and silicone seals, pipes and liners.

There is always a temptation to “add a bit more chemical”, Mr Horton says, but that risks damaging equipment and is a waste of money.

“Another common mistake is to guess the quantity of water passing through the system,” he says.

“The best way to establish what is going through is to measure a quantity of water into a bucket over an amount of time and adjust the chemical dose accordingly.”

Etkili sağımhane temizliği bakımı ve hijyen için neler yapmak gerekir

Temperature

Temperature is critical in reducing bacteria and milk residues and should be in the range of 77-85C. It is also the key area where energy costs are wasted.

The important thing to remember is: don’t assume the gauge on the water heater is correct.

An additional digital thermometer, the type with a sensor at the end of a wire, can be used with the tank lid on. This should be checked routinely, advises Mr Horton.

Checking the water temperature throughout the system is also critical. This can be achieved using temperature-sensitive stickers on piping and, at the exit pipe, by drawing water into a bucket and using a digital thermometer.

Where heat losses occur, it may be that the parlour is older or poorly maintained and cold air is being drawn in at joints and seals.

Insulation may also have broken down over time. A common failing is to leave wash troughs without a lid.

Often the hot water system could benefit from a redesign – water heaters are frequently sited in boiler rooms and pipes carry water long distances, even externally.

The outlet on a heater may be too small, drawing water out slowly and allowing it to cool quickly as it contacts the pipework.

Five critical points where temperatures should be monitored

  • In the water heater
  • At the end of the inlet spout exiting the heater
  • At the parlour intake
  • Before the start of circulation
  • At the completion of circulation.

Time taken

For effective cleaning and disinfection it is advisable to perform the full hot wash routine after every milking, and not just on a once-a-day basis.

Most milking parlour equipment manufacturers will advise a 10-minute wash. However, a minimum of six minutes at the target temperature of 77-85C is better than 10 minutes at too low a temperature.

The world of dairy farming has undergone a remarkable transformation over the centuries. As one of the oldest agricultural trades, it has consistently sought new tools and practices to increase efficiency, improve animal welfare, and better meet the demands of consumers. One of the most significant milestones in modern dairy farming has been the emergence of robotic milking systems. Below, we explore the journey of milking—from humble hand-milking beginnings to the cutting-edge robotics shaping the future.

The Early Days of Milking

For thousands of years, milking was performed by hand. Dairy farmers relied on skill, patience, and deep knowledge of animal care and behavior. This process, while intimate, was also time-consuming and physically demanding. As small family farms increased in size and herds grew, the pressure to streamline milking practices intensified.

19th Century Advancements: The Industrial Revolution introduced the first mechanical milking machines, a quantum leap from the hand-milking tradition. These devices reduced human labor but still required significant oversight and maintenance.

20th Century Developments: By the mid-1900s, vacuum-based milking machines and pipeline systems became commonplace, allowing farmers to milk larger herds efficiently. Milking parlors standardized the process, improving hygiene and speed, yet manual involvement was still crucial.

Milking speed ( Cows/ per Day/ per Unit )

  • Before: 40-50 cows
  • Now: 60-70 cows

Milking frequency ( Times per Day )

  • Before: 2 – 2.5 times per day 22.5% 22.5%
  • Now: 2.5 – 3 times per day 27.5% 27.5%

The Present: Modern Robotic Milking Systems

Today’s robotic milking systems, also known as automated milking systems (AMS), represent the cutting edge of dairy technology. These systems can drastically reduce manual labor while enhancing milk production and providing a wealth of data on cow health.

How It Works: Cows voluntarily enter a milking station, guided by feed incentives. Sensors identify the cow, sanitize the teats, and attach the milking cups automatically. Data such as milk output, cow activity, and health indicators (e.g., udder temperature, conductivity measurements) are collected in real time and stored in farm management software.

 

Key Benefits:

Labor Efficiency: Farmers can spend more time on herd management and strategic planning rather than routine tasks.

Animal Welfare: Continuous monitoring ensures cows are milked when they want to be, reducing stress and improving overall comfort.

Data-Driven Insights: Automated systems offer robust analytics that help farmers make informed decisions on breeding, feeding, and healthcare.

 

Challenges:

Initial Investment: Robotic milking systems require a significant financial outlay.

Technical Complexity: The need for ongoing maintenance and potential downtime can be a hurdle for smaller operations.

Adoption and Training: Farm staff must learn new technologies and adapt to data-centric farm management.

Milking yield ( Per cow/ per Year/ Liters )

  • Before: 7,500 – 10,000 Liters 29.1% 29.1%
  • Now: 9,000 – 12,000 Liters 35% 35%

The Future of Robotic Milking

The next decade promises even more sophisticated developments in milking robotics and dairy herd management. Here are some trends and innovations on the horizon:

Artificial Intelligence (AI) and Machine Learning
Advanced algorithms can help predict health issues—such as mastitis—by analyzing subtle changes in the data. AI tools will also optimize milking schedules, reduce energy consumption, and improve feed management.

Integration with Precision Agriculture
Robots will increasingly interact with other farm systems such as feed dispensing units, manure management, and climate-control technologies. With everything interconnected, dairy farming will become more holistic, sustainable, and data-driven.

Mobile Robotic Units
Future innovations may include flexible or mobile milking robots that can move to different parts of a farm as needed. This would reduce the requirement for centralized structures and potentially lower the barrier to entry for smaller dairy operations.

Enhanced Cow Wearables
Collars, ankle monitors, and implantable sensors will offer real-time vital statistics, helping farmers anticipate issues before they escalate. The combination of wearable tech and robotic milking can further optimize health and production.

Focus on Sustainability
With growing consumer concern about the environmental impact of agriculture, milking robots will likely incorporate features that minimize water and energy usage. Better data and refined processes will help reduce the carbon footprint of dairy operations.

From humble hand-milking to high-tech robotic systems, dairy farming has made extraordinary strides in efficiency and sustainability. Modern milking robots not only simplify daily chores but also generate invaluable data that can guide strategic farm decisions. And with upcoming advances in AI, sensor technology, and precision agriculture, milking robots are poised to become even more integral to the dairy sector’s success.

For farms looking to stay competitive and meet the evolving demands of consumers, embracing the future of robotic milking is more than just a progressive step—it’s an investment in both profitability and animal welfare. By understanding where milking technology has been, where it stands today, and where it’s headed, dairy farmers can confidently adapt and thrive in an ever-changing agricultural landscape.

Milking: Past, Present, and Future

Robotic milking systems evolved from hand-milking to advanced automation, reducing labor and improving animal welfare. Equipped with sensors and data analytics, they enhance efficiency, allow real-time health insights, and guide sustainable practices. Future innovations promise even more breakthroughs for ethical, data-driven dairy farming.

Strategies for Dairy Farmers to Sustain Milk Production in Challenging Economic Periods

Strategies for Dairy Farmers to Sustain Milk Production in Challenging Economic Periods

In challenging economic periods, dairy farmers face the task of sustaining milk production while navigating financial uncertainties. To achieve this, they can employ various strategies. First, optimizing herd health through regular veterinary check-ups and a balanced diet ensures healthy cows and increased productivity. Effective reproductive management, including accurate record-keeping and timely calving, maintains a consistent milk supply. Attention to milk quality and hygiene is crucial to meet regulatory standards and consumer demands. Managing input costs by evaluating expenses and seeking cost-saving measures helps maintain profitability. Additionally, exploring value-added opportunities, such as producing dairy products with higher profit margins, expands revenue streams. By implementing these strategies, dairy farmers can mitigate the impact of challenging economic periods, sustain milk production, and secure the long-term viability of their operations.

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Early detection and treatment of respiratory diseases in calves is crucial for minimizing damage to their respiratory system and ensuring their maximum production potential.

However, relying solely on calf cough to diagnose such diseases is not an effective early warning tool, as research from the US has suggested. Veterinary epidemiologist, Terri Ollivett, has pioneered an approach called WeanClean, which involves using lung ultrasonography to check calves for lung lesions before clinical symptoms are likely to be displayed. By carrying out ultrasounds at four strategic points, this approach aims to measure lung disease at weaning and administer treatment if necessary, so that producers can wean their animals with clean and healthy lungs. The use of ultrasound scanning as an effective tool for early detection and treatment of respiratory diseases in calves highlights the need to go beyond calf cough as an early warning sign.

ProMix in Animal Feeding: The Advantages and Applications

ProMix in Animal Feeding: The Advantages and Applications

ProMix in Animal Feeding: The Advantages and Applications

ProMix is a popular blend of soilless growing media that has revolutionized how plants are grown. But did you know that ProMix also has applications in animal feeding science? In this blog post, we will explore the advantages and uses of ProMix in animal feeding.

Promix is a complementary feed produced to enable businesses with sufficient amounts of their own barley to obtain a feed equivalent to Armoni. By mixing 1kg of Promix with 1kg of crushed barley, 2kg of a feed similar to Armoni can be obtained. The daily amount to be given varies according to the quality and characteristics of the roughage used.

Top tips for improving your calving setup

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Calving can be a stressful period fraught with danger but simple improvements every dairy and beef farm can make to their existing setup can minimise risk to the operator and the animal. Whether it is investing in a restraining yoke and gate for assisted calvings or...