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Artificial Intelligence and Sensor Technologies in Dairy Livestock Export: Charting a Digital Transformation

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06 July 2023

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07 July 2023

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Abstract
This critical review illuminates the transformative potential of Artificial Intelligence (AI) and sensor technologies in the dairy livestock export industry, an area facing mounting pressure for heightened efficiency and sustainability. We rigorously scrutinize the uptake of these novel technologies in identifying 'shy feeders,' automating weight monitoring of individual livestock, and refining cattle enumeration procedures. The investigation unravels their capacity to bolster animal welfare standards, minimize supply chain discrepancies, and amplify operational productivity. Moreover, the research delves into how these innovations may enhance market access and competitiveness in a swiftly shifting global dairy landscape. We further highlight the challenges encountered and future trajectories, providing a strategic framework for technology integration within the livestock export sector. Ultimately, this review underlines the importance of adopting AI and sensor technologies, indicating a shift towards precision digital livestock farming that amalgamates efficiency, animal welfare, and profitability.
Keywords: 
Subject: Biology and Life Sciences  -   Animal Science, Veterinary Science and Zoology

1. Introduction

The onset of the AI and advanced sensor technology era is instigating paradigm shifts in tradi- tional sectors, including the dairy livestock export industry [1]. This technology, promoting humane, efficient, and sustainable practices, holds potential to redefine the sector's landscape [2].
The dairy sector, an essential pillar of global economies, plays a crucial role in food security, supporting livelihoods and contributing to nutritional wellbeing [3]. Despite its importance, it grapples with challenges like disease control, livestock welfare, and supply chain inefficiencies [4], which, if left unresolved, could limit productivity and sustainability.
Precision digital livestock farming, empowered by AI and sensor technology, proposes inno- vative solutions to these persistent problems. Through real-time monitoring, proactive inter- vention, and data-driven decision-making, these technologies promise enhanced animal wel- fare, productivity, and streamlined supply chain operations [5]. However, the extent of appli- cation of these disruptive technologies in the dairy livestock export industry necessitates further exploration.
Traditional practices are often ineffective (Figure 1) against evolving challenges, for instance, 'shy feeders' – animals that struggle to secure their nutritional requirements [6,7]. This phe- nomenon detrimentally impacts their health and productivity. Existing methods of managing 'shy feeders' have proved insufficient, highlighting the need for innovative solutions.
Similarly, tracking individual animal weights [8], a critical measure of animal health and per- formance, and cattle counting [10,11] during the export process, is laborious, time-consuming, and prone to errors using traditional methods. These inaccuracies can lead to supply chain dis- crepancies, causing financial losses and logistical issues.
The advent of AI and sensor technology provides a beacon of hope [13]. By facilitating real- time monitoring and data analytics, these technologies promise to address these issues, thereby enhancing operational efficiency and animal welfare, vital for the long-term sustainability of the dairy livestock export industry [14].

Objectives

This review aims to provide a thorough analysis of AI and sensor technology's role and poten- tial in transforming the dairy livestock export industry.
  • An in-depth analysis of AI and sensor technology applications in mitigating prev- alent challenges, such as 'shy feeders' identification, weight tracking automation, and accurate cattle counting.
  • Discussion of the implications of these technologies on animal welfare improve- ment, supply chain efficiency enhancement, and market accessibility and compet- itiveness augmentation.
  • Exploration of potential challenges and future scope of these technologies in the dairy livestock export industry.
The ultimate objective is to contribute to a sustainable, efficient, and humane dairy livestock export industry that effectively leverages cutting-edge technology.
'Shy feeders' are animals with lower food intake due to the lack of assertiveness in reaching feeding troughs in group feeding situations [15]. This behavior affects their health and produc- tivity, leading to undernutrition, weight loss, decreased productivity, increased disease suscep- tibility, and potentially a lower lifespan [16,17]. Hence, it is crucial to identify and manage shy feeders effectively.
AI and sensor technology can automate the tracking of individual animal feeding behaviors, including their time spent near feeding troughs, feeding frequency, and intake [20]. This data, analyzed using AI algorithms, can identify shy feeders for early interventions.
Monitoring feeding behaviors is essential for livestock management, providing insights into animals' health, productivity, and overall wellbeing. AI and sensor-based systems automate this process, offering real-time data [20]. The systems, typically using RFID tags or smart collars, track proximity to feeding troughs, feeding frequency [21], and duration. The data an- alyzed using AI algorithms provide insights into feeding behaviors and alert farmers of anom- alies. These systems reduce manual observation, allow early health issue detection [22,23], and provide data for optimizing feed management, thus enhancing productivity and sustaina- bility.

2. Application of AI and Sensor Technology in Livestock Management

Artificial Intelligence (AI) and sensor technologies are propelling industries into the future, and the dairy livestock export industry is no exception. A sector steeped in tradition, this in- dustry is beginning to feel the transformative impact of these advanced technologies (Figure 2). AI and sensor technologies are not only changing the way farmers and exporters operate but also shaping the future trajectory of the industry.
2.1. Shy Feeders: A Behavioral Challenge in Livestock Management
In any livestock population, certain animals stand out due to their lack of assertiveness in reach- ing feeding troughs, especially in group feeding scenarios. These animals, colloquially referred to as 'shy feeders,' exhibit lower food intake [15]. This behavior significantly impacts their health and productivity, often leading to undernutrition, weight loss, decreased productivity, heightened susceptibility to diseases, and in some instances, a reduced lifespan [16,17].
Given these repercussions, the identification and effective management of shy feeders become pivotal. Historically, this issue has been addressed through manual observation and interven- tion, both time-consuming and labor-intensive, not always accurate or timely. However, with the advent of AI and sensor technology, the management of shy feeders is poised for a signifi- cant shift.
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Figure 2. Impact of AI and Sensor Technology on Livestock Welfare and Productivity.
Figure 2. Impact of AI and Sensor Technology on Livestock Welfare and Productivity.
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2.1.1. Role of AI and Sensor Technology in Identifying and Managing Shy Feeders
AI and sensor technologies offer an innovative solution to the challenge of managing shy feed- ers. By automating the process of tracking individual animal feeding behaviors, these technol- ogies enable precise, continuous monitoring [20]. The tracked parameters include the time an- imals spend near feeding troughs, their feeding frequency, and their intake.
This granular data, when analyzed using advanced AI algorithms, can assist in identifying an- imals that exhibit shy feeder behavior. With early detection, necessary interventions can be designed and implemented, such as moving these animals to less competitive feeding environ- ments or adjusting feeding schedules. These interventions ensure that shy feeders receive their fair share of feed, thereby improving their health outcomes.
Additionally, AI's predictive capabilities can generate models to identify potential shy feeders based on historical data and patterns. This foresight facilitates early intervention, which could minimize the adverse effects associated with being a shy feeder.
2.2. The AI Revolution in Livestock Feeding Behavior Monitoring
The role of monitoring feeding behaviors in livestock management cannot be overstated. It provides invaluable insights into animals' health, productivity, and overall wellbeing. Changes in feeding behavior often serve as an early indicator of potential health problems, thereby ena- bling timely interventions.
AI and sensor-based systems have revolutionized this critical aspect of livestock management by offering real-time, automated monitoring capabilities [20]. These systems usually employ technologies like RFID tags or smart collars to track various parameters, including the prox- imity of animals to feeding troughs, feeding frequency [21], and feeding duration. This data is processed and analyzed using AI algorithms, converting raw data into meaningful insights about the animals' feeding behaviors.
Farmers and livestock managers can then use these insights to identify any anomalies or changes in feeding patterns, allowing them to intervene promptly. These interventions can range from adjusting feeding schedules and quantities to seeking veterinary attention for po- tential health issues.
Beyond the immediate benefits of early intervention, these systems have far-reaching implica- tions for the dairy livestock export industry. They minimize the need for manual observation, reducing labor costs and saving valuable time. This cost-effectiveness, coupled with the poten- tial for early detection of health issues [22,23], can significantly enhance overall operational efficiency.
Moreover, AI and sensor-based systems provide actionable data for optimizing feed manage- ment strategies, enhancing productivity and sustainability. By understanding the feeding pat- terns and preferences of livestock, farmers can tailor their feeding strategies [19], ensuring effective feed utilization and reducing waste.
2.2.1. Embracing the Future: AI and Sensor Technology in the Dairy Livestock Export Industry
The dairy livestock export industry, an integral part of the global food supply chain, is set to gain tremendously from the adoption of AI and sensor technology. In the face of increasing global demand for dairy products and the urgent need for more sustainable farming practices, these technologies offer a beacon of hope.
By addressing long-standing challenges like the management of shy feeders and the optimiza- tion of feeding behavior, AI and sensor technologies can significantly enhance animal welfare, streamline supply chain operations, and ultimately boost the industry's productivity and profit- ability. The future of the dairy livestock export industry will undoubtedly be shaped by the wider adoption and deeper integration of these technologies.
While the road ahead will undoubtedly be marked by challenges, the potential benefits of these technologies far outweigh the risks. The dairy livestock export industry stands on the cusp of a transformative era—an era that harmonizes efficiency, animal welfare, profitability, and sus- tainability through the power of AI and sensor technologies.
2.3. Automating Weight Collection: A Technological Leap in Livestock Management
2.3.1. The Critical Role of Individual Animal Weights and the Challenges of Traditional Practices
Within the sphere of livestock management, the weight of an animal serves as a vital health and productivity barometer. The continuous monitoring of individual weights can flag potential health problems, evident in weight loss, or point towards insufficient feed intake. Moreover, weight data is an indispensable tool in determining the appropriate dosages of veterinary med- icines [24] and influences critical decisions in breeding, feeding, and marketing.
Unfortunately, traditional methods of weight collection in livestock farming rely heavily on manual weighing - a labor-intensive, time-consuming, and error-prone process. The burden of these challenges is amplified in the dairy livestock export industry, where managing a substan- tial number of animals adds another layer of complexity.
2.3.2. AI and Sensor Technology: Revolutionizing Weight Collection Practices
AI and sensor technology emerge as game-changers in the landscape of weight collection, fos- tering an environment for automated data capture in livestock farming. Smart scales and imag- ing technologies play a significant role in this regard. For instance, smart scales are designed to record the weight of animals as they navigate through the scale to reach feeding or watering stations. Conversely, imaging technologies leverage animal size and body condition to estimate weight. A key advantage of this imaging-based technologies is that they are non-invasive and does not require to handle the cattle for weighing.
Data procured through these technologies undergoes processing and analysis using AI algo- rithms [25,26]. Consequently, individual animal weight records are updated automatically, trends in weight fluctuations are monitored, and farmers are alerted to significant weight changes. The merits of automated weight collection are multi-fold. Apart from time and labor savings, it enhances the accuracy and consistency of weight data while enabling real-time weight monitoring, thus allowing for prompt interventions for health issues or feeding discrep- ancies. Table 1 outlines the primary applications of AI and sensor technology in livestock man- agement, focusing on the identification of 'shy feeders', monitoring of feeding behaviors, and automation of weight collection.
The incorporation of AI and sensor technology in livestock management holds tremendous potential to redefine the dairy livestock export industry. In terms of shy feeder identification, feeding behavior monitoring, and weight collection automation, these technologies can provide solutions to long-standing challenges, elevating productivity, animal welfare, and sustainabil- ity within the industry.

3. Leveraging AI and Sensor Technology for Supply Chain Enhancement

3.1. Automated Cattle Counting and Ensuring Supply Chain Traceability
The count of cattle carries paramount importance in the livestock supply chain. Beyond mere numbers, cattle headcount is a pivotal factor in disease control, inventory management, animal movement tracking, productivity enhancement, and ensuring the profitability of livestock en- terprises. Traditionally, manual counting and tracking of cattle have been the norm. This prac- tice, however, is often fraught with inaccuracies and inconsistencies, requires substantial labor input, and struggles to manage large herds effectively.
AI and sensor technology offer a revolutionary solution to this enduring issue. Radio Frequency Identification (RFID) stands at the forefront of this change. The RFID tags, implanted in live- stock, automatically identify and track each animal [27] as they traverse different points in the supply chain. Strategically placed RFID readers along the supply chain route [28] gather this data, ensuring no animal is overlooked. The margin of error in this automated counting system significantly undercuts that of traditional manual counting.
Machine Learning, a branch of AI, further enriches this sensor technology by bringing analyt- ical depth to the data collected. The algorithms sift through the mountainous RFID data to identify patterns and generate insightful forecasts, vital for predicting potential supply chain bottlenecks [29], preparing for contingencies, and optimizing supply chain operations [30].
The synergy of RFID and Machine Learning forms a powerful tool, ensuring livestock supply chain traceability. Accurate tracing of an animal's journey facilitates the prompt identification of supply chain issues such as delays, overcrowding, or disease outbreaks, thereby safeguard- ing animal welfare and curtailing economic losses.
3.2. The Pivotal Role of AI and Sensor Technology in Supply Chain Enhancement
The livestock supply chain, encompassing stages from breeding and feeding to transportation and final product processing, presents a complex web of interconnected processes. While seem- ingly linear, the complexities of these interconnections mean that minor setbacks can have wide-ranging and severe repercussions.
AI and sensor technologies, however, hold the power to transform these potential vulnerabili- ties into improvement opportunities. Real-time monitoring and analytics provide insight into the intricacies of each stage, identify potential bottlenecks, and recommend remedial measures to enhance the flow. Sensors monitoring feed and water consumption at the breeding stage, for instance, can signal potential health risks. In response, AI algorithms can analyze this data to forecast disease outbreaks and propose preemptive interventions.
Additionally, AI-powered predictive analytics can help optimize logistics [31], a stage of the supply chain particularly sensitive to delays and capable of severely impacting animal welfare. Environmental conditions during transport can be monitored through sensors, while AI utilizes this data to suggest optimal transportation routes and schedules. Table 2 presents a detailed analysis of how AI and sensor technology contributes to enhancing supply chain efficiency in the livestock industry, particularly in areas such as automated cattle counting, traceability, and market development.
AI and sensor technology's contributions to enhancing supply chain efficiency in the livestock industry are far-reaching. In areas such as automated cattle counting, traceability, and market development, they hold transformative potential. These technologies revolutionize inventory management in the livestock supply chain, where traditional methods involving manual up- dates are both time-consuming and prone to errors. Automated systems, powered by sensor technology, can accurately record the inflow and outflow of animals [32]. Further, AI analyses these records to prevent overstocking or understocking, manage feed supply, and propose op- timal slaughtering schedules.

4. The Role of AI and Sensor Technology in Market Access and Development

The benefits of AI and sensor technologies extend beyond operational enhancements within the livestock export industry, reaching into market access and development. Traceability, ena- bled through RFID and AI technology, can meet the stringent safety and quality standards of import markets. As international markets grow increasingly aware of food safety and animal welfare, the ability to provide transparent, accurate, and reliable traceability data can enhance a country's access to these markets.
Moreover, AI can dissect and decipher patterns in the vast amounts of data collected by sensors at various supply chain stages [33]. These patterns can translate into valuable insights about market trends, consumer preferences, and price fluctuations. Infusing these data-driven insights into strategic planning allows livestock enterprises to explore new markets, optimize their prod- uct offerings, and carve a niche in the fiercely competitive global marketplace.
AI and sensor technologies present boundless opportunities to streamline supply chain opera- tions, enhance animal welfare, ensure traceability, and bolster market access in the livestock export industry. The responsibility now rests on livestock enterprises, policymakers, and re- searchers to foster an environment conducive to harnessing the potential of these technologies. Through their collective efforts, the future where every farm, every animal, and every product in the livestock supply chain becomes a cog in a well-oiled machine powered by AI and sensor technology, may be closer than we think.

5. Future Perspectives: AI and Sensor Technology in Livestock Management

5.1. Identifying Opportunities and Overcoming Challenges
As we delve into the future of livestock management especially from a practical industry per- spective, it is evident that the role of Artificial Intelligence (AI) and sensor technology is in- creasingly vital. Cutting-edge innovations such as sophisticated machine learning algorithms, expansive big data analytics, widespread Internet of Things (IoT) connectivity, and drone tech- nology herald a new era in the realm of livestock farming.
Machine learning, for instance, has the potential to fine-tune predictive analytics, delivering even more accurate and timely insights into animal health, productivity, and potential supply chain issues. The proliferation of IoT devices could facilitate an expansive real-time tracking and monitoring system for livestock, bringing critical data to the fingertips of farmers and in- dustry stakeholders.
Nonetheless, these advancements come hand-in-hand with substantial challenges (Figure 3). A key concern is the enormous volume of data generated by these technologies. While the depth of big data is invaluable, it necessitates substantial storage, processing capabilities, and advanced analytics tools to convert it into actionable intelligence [34]. Further, integrating these sophisticated technologies into current livestock management systems can prove com- plex, disruptive, and capital-intensive, necessitating significant technical know-how.
The issue of data privacy and security also looms large. With vast amounts of data collected and shared, there are legitimate apprehensions regarding the security and potential misuse of this information [35]. A heavy reliance on technology simultaneously heightens the risk of cyber-attacks, with potential repercussions for the entire livestock management system.
These challenges call for a well-rounded, strategic response [36]. Technological solutions such as robust data encryption, cloud storage, and improved analytical tools can help manage and secure the data avalanche. Concurrently, there is a pressing need to establish comprehensive regulatory frameworks to safeguard privacy rights and prevent data misuse.
5.2. Navigating Towards a Sustainable and Competitive Livestock Sector
AI and sensor technology represent pivotal tools for steering the livestock industry towards a more sustainable and competitive future. By optimizing resource use, boosting productivity, and improving animal welfare, these technologies can catalyze a livestock industry that is eco- nomically robust, environmentally benign, and socially responsible.
For example, precise monitoring of animal health can mitigate the reliance on antibiotics, ad- dressing a critical environmental and public health issue. Similarly, efficient management of feed and water resources not only curtails costs but also minimizes waste and environmental degradation. Further, enhanced supply chain efficiency can strengthen competitiveness by re- ducing losses, elevating product quality, and ensuring punctual delivery. As the global demand for livestock products escalates, these efficiencies could provide a decisive advantage in the highly competitive international market.
Yet, realizing this vision necessitates a collaborative effort from all stakeholders. It requires continuous investment in technology development and deployment, supportive policies, and robust public-private partnerships. Above all, it mandates a paradigm shift: technology must be perceived not merely as an instrument for augmenting productivity but as an indispensable tool for achieving sustainability and resilience.
5.3. Applied Informatics for Dairy Livestock Export: Overcoming Big Data Challenges for Real-Time Analytics and Sustainable Practices
In the swiftly transforming world of dairy livestock export, the quest for proficient analyt- ics capable of dynamic and automated processing of the temporal-spatial distribution of ani- mals in real-time has surfaced as a crucial necessity. This necessity stems from the increasing demand for efficiency, transparency, and sustainability in the livestock industry, driven by both market forces and societal expectations. The capacity to precisely track and forecast the move- ment and behavior of livestock in real-time can dramatically augment operational efficiency, animal welfare, and overall productivity. It can also provide valuable insights into the health and well-being of the animals, thereby contributing to improved animal welfare standards and more sustainable farming practices.
However, the road to achieving this level of sophistication in livestock management ana- lytics is laden with hurdles. The most formidable of these challenges are scalability and robust- ness. The enormous volume of data generated in real-time from a myriad of sources, including GPS trackers, RFID tags, machine vision system cameras, and IoT sensors, can be daunting. This 'big data' scenario calls for scalable solutions that can efficiently process and analyze data on a colossal scale without compromising speed or accuracy.
The challenge of scalability is not just about handling large volumes of data, but also about integrating and making sense of diverse types of data. For instance, GPS data can provide in- formation about the location and movement of animals, while data from IoT sensors can pro- vide insights into their health status and environmental conditions. Integrating these diverse data sources and extracting meaningful insights from them requires sophisticated data pro- cessing and analytics capabilities.
Furthermore, the analytics solutions must exhibit robustness to deliver reliable predictions and insights in real-time, under fluctuating conditions and potential system anomalies. This requires not only robust algorithms but also robust data infrastructure and data management practices. For instance, data quality issues, such as missing or erroneous data, can significantly impact the accuracy and reliability of analytics results. Therefore, robust data cleaning and data quality management practices are essential.
Traditional statistical techniques and machine learning approaches, such as decision trees or random forests, have been utilized in the past to analyze livestock data. While these methods have their merits, they may fall short in handling the complexity and scale of real-time, big data scenarios in the livestock export industry. These techniques often grapple with high-di- mensional data and may not provide the level of accuracy required for real-time decision-mak- ing.
In light of these limitations, there is a burgeoning consensus in the agrifood domain that advanced machine learning and deep learning approaches could be the panacea to these chal- lenges. Deep learning, a subset of machine learning inspired by the structure and function of the human brain, has demonstrated remarkable success in handling high-dimensional data and delivering accurate predictions in various fields, including image recognition, natural language processing, and autonomous vehicles.
In the context of dairy livestock export, deep learning models could be trained to recognize patterns and make predictions based on a multitude of factors, including the spatial-temporal distribution of animals, their health status, environmental conditions, and market trends. These models could potentially provide more accurate and timely insights, enabling farmers and ex- porters to make better-informed decisions, optimize their operations, and ultimately, enhance the sustainability and profitability of their enterprises. However, the adoption of deep learning in the agrifood sector is not without its challenges. These include the need for large amounts of labeled training data, the complexity of model development and tuning, and the interpreta- bility of model predictions. The need for large amounts of labeled training data can be partic- ularly challenging, as it requires significant time and effort to collect and label data. Moreover, the complexity of model development and tuning requires specialized skills and expertise, which may not be readily available in the agrifood sector.
Moreover, the successful integration of deep learning models into the livestock manage- ment workflow would require significant investment in infrastructure, skills development, and change management. This includes not only the physical infrastructure for data storage and processing but also the software infrastructure for data management, model development, and deployment. Skills development is another critical aspect, as it requires training and upskilling of staff to effectively use and manage the advanced analytics solutions. Change management, on the other hand, involves managing the organizational changes associated with the adoption of new technologies and practices.
In addition to these challenges, the interpretability of model predictions is another critical issue. Deep learning models, often referred to as 'black boxes', can make highly accurate pre- dictions but may not provide clear explanations for their predictions. This lack of interpretabil- ity can be a significant barrier to the adoption of deep learning in the agrifood sector, where decision-makers often need to understand the reasons behind the predictions to make informed decisions. Despite these challenges, the potential benefits of adopting advanced analytics and deep learning in dairy livestock export are immense. These benefits extend beyond improved operational efficiency and productivity to include enhanced animal welfare, more sustainable farming practices, and increased competitiveness in the global market. By providing real-time, accurate, and actionable insights, advanced analytics can enable farmers and exporters to make better-informed decisions, optimize their operations, and respond more effectively to market trends and changes.
Moreover, by improving the tracking and monitoring of animal health and welfare, ad- vanced analytics can contribute to higher standards of animal welfare and more ethical farming practices. This, in turn, can enhance the reputation and brand value of dairy livestock exporters, making them more attractive to consumers and investors who value sustainability and animal welfare.
While the path towards advanced analytics in dairy livestock export is challenging, the potential benefits in terms of improved efficiency, animal welfare, and profitability make it a journey worth undertaking. As researchers, developers, and industry stakeholders continue to explore and innovate in this space, the future of dairy livestock export looks set to be increas- ingly data-driven, intelligent, and sustainable. The journey towards this future will require not only technological innovation but also collaboration and partnership among various stakehold- ers, including farmers, exporters, technology providers, researchers, and policymakers. By working together, these stakeholders can overcome the challenges and unlock the full potential of advanced analytics in dairy livestock export.

6. Conclusions

Artificial Intelligence and sensor technology are propelling the livestock export industry towards an era of transformation. By providing innovative solutions to age-old challenges, these technologies have the capacity to revolutionize livestock management, particularly in the dairy sector. From automating the identification and management of 'shy feeders', facilitating precise weight tracking, to efficient cattle counting, AI and sensor technology can exponen- tially enhance productivity, animal welfare, and supply chain efficiency. However, this journey towards transformation is riddled with significant obstacles.
The complexity of these technologies, privacy concerns, and the requisite for significant capital investment and expertise are substantial hurdles that must be surmounted to fully lev- erage these technologies. Consequently, the livestock export industry needs to acclimate to these technological shifts, necessitating a sweeping overhaul of traditional practices and an adoption of a mindset centered around data-driven, automated operations. Yet, the scope of these technologies extends beyond operational enhancements. They pave the way for a more sustainable and competitive livestock industry, harmonizing economic growth with environ- mental conservation and animal welfare. They promise a future where livestock farming tran- sitions from being merely a food production source to an epitome of efficiency, sustainability, and humane animal treatment.
As we forge ahead, maintaining a focus on technological innovation, advocating for pro- active policy support, and fostering robust stakeholder collaboration will be pivotal. This re- view underscores that we stand on the precipice of a technological revolution in livestock man- agement. The challenge now is to cross this threshold and embark on the journey towards a future where AI and sensor technology are embedded in the fabric of the livestock export in- dustry.

Funding

This research received no external funding.

Conflicts of Interest

The authors declare no conflict of interest.

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Figure 1. The Livestock Management Process: Traditional vs AI and Sensor Technology- Powered.
Figure 1. The Livestock Management Process: Traditional vs AI and Sensor Technology- Powered.
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Figure 3. The Roadmap to a Sustainable and Competitive Livestock Industry with AI and Sensor Technology.
Figure 3. The Roadmap to a Sustainable and Competitive Livestock Industry with AI and Sensor Technology.
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Table 1. Key Applications of Artificial Intelligence and Sensor Technology in Livestock Man- agement.
Table 1. Key Applications of Artificial Intelligence and Sensor Technology in Livestock Man- agement.
Applica- tion AI and Sensor Technology Role Specific Technol- ogy Used Benefits Limitations
Identifica- tion of 'Shy Feed- ers' Uses AI and video analytics to spot 'shy feeder' behavior through RFID tag data analysis. RFID Tags, Com- puter Vision, Ma- chine Learning algo- rithms Aids early identification and intervention, improv- ing herd health and productivity. Enables personalized nutrition plans. Needs sensor setup and careful AI cali- bration to minimize false results.
Monitor- ing of Feeding Behaviors Sensors track feed- ing metrics with AI identifying abnormal patterns in real-time, offering actionableinsights. Feed intake sensors, IoT (Internet of Things) connectiv- ity, Cloud Compu- ting, MachineLearning algorithms Gives real-time insights into animal health and nutrition status, enabling timely interventions.
Helps prevent over/un-
derfeeding.		 Requires robust connectivity and sensor maintenance for real-time moni- toring.
Automa- Sensor-based walk- Walk-over-weighing Provides accurate, has-
tion of over-weighing sys- systems, IoT con- sle-free weight tracking. Requires animal
Weight tems with AI inter- nectivity, Cloud Allows continuous moni- training to use the
Collection pretation for auto- Computing, Ma- toring of animal perfor- system, sensor cali-
matic weight collec- chine Learning algo- mance. Assists in adjust- bration and mainte-
tion. rithms ing feeding strategies. nance for accurate
readings.
Table 2. Impact of AI and Sensor Technology on Supply Chain Management in Livestock Industry.
Table 2. Impact of AI and Sensor Technology on Supply Chain Management in Livestock Industry.
Aspect AI and Sensor Technology Role Specifics Benefits Challenges
Auto- mated Cattle Counting Facilitates accurate, effi- cient cattle counting using AI-powered image pro- cessing. Machine Vi- sion systems, Image Recog- nition algo- rithms Minimizes human er- rors, accelerates counting, allows real- time livestock track- ing. Setup needs for cam- eras and processing systems, varying ac- curacy due to light- ing and cattle move- ment.
Supply Chain Tracea- bility Uses sensors for location and condition tracking throughout the supply chain, coupled with AI for real- time tracking and issue pre- diction. GPS trackers, RFID tags, IoT connectivity, Big Data Ana- lytics Boosts traceability, promotes animal wel- fare through timely interventions, assists in regulatory compli- ance. Demands robust sen- sor network and data management, poten- tial privacy concerns with location track- ing.
Market Develop- ment Leverages AI for market trend analysis, demand-sup- ply dynamics, and price fluctuations, offering pre- dictive insights for produc-
tion and exports.		 Machine Learning algo- rithms, Big Data Analytics Promotes proactive decision-making, op- timizes market de- mand fulfilment, po- tentially increases
profits.		 Relies on compre- hensive market data, requires advanced AI models for accurate
predictions.
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