Towards the creation of the future fish farm
Correspondence to: Dr. Nikolaos Pitropakis, Blockpass ID Lab, Edinburgh Napier University, Edinburgh EH10 5DT, United Kingdom. E-mail:
Aim: A fish farm is an area where fish are raised and bred for food. Fish farm environments support the care and management of seafood within a controlled environment. Over the past few decades, there has been a remarkable increase in the calorie intake of protein attributed to seafood. Along with this, there are significant opportunities within the fish farming industry for economic development. Determining the fish diseases, monitoring the aquatic organisms, and examining the imbalance in the water element are some key factors that require precise observation to determine the accuracy of the acquired data. Similarly, due to the rapid expansion of aquaculture, new technologies are constantly being implemented in this sector to enhance efficiency. However, the existing approaches have often failed to provide an efficient method of farming fish.
Methods: This work has kept aside the traditional approaches and opened up new dimensions to perform accurate analysis by adopting distributed ledger technology. Our work analyses the current state-of-the-art of fish farming and proposes a fish farm ecosystem that relies on a private-by-design architecture based on the Hyperledger Fabric private-permissioned distributed ledger technology.
Results: The proposed method puts forward accurate and secure storage of the retrieved data from multiple sensors across the ecosystem so that the adhering entities can exercise their decision based on the acquired data.
Conclusion: This study demonstrates a proof-of-concept to signify the efficiency and usability of the future fish farm.
The aquaculture concept is a farming approach that comprises a similar method as agriculture but involves farming aquatic organisms such as fish rather than plants. Farming fish not only helps reduce the seafood supply gap but also provides a way to acquire an environmentally friendly protein option. Moreover, compared to other protein resources, it is also an efficient option for consumers. Aquaculture can comprise either extensive or intensive production approaches. Extensive aquaculture can have very little monitoring over the environment of the cultured organism, whereas intensive aquaculture is based on a highly controlled environment, which may include monitoring several requirements such as temperature, dissolved oxygen, and diet conserved within particular desired levels. A fish farm, which is a water-based agriculture, is a subset of aquaculture. Fish farming is increasing rapidly in order to sustain the growth of fish as a protein source. About 62.5% of the world's farmed fish are produced by utilising rivers, lakes, and fish farms, whereas the core functionalities of a fish farm can include breeding and hatching fish. A fish farm can use fresh water, sea, salt water, or brackish water to perform its operation. There are various factors that aquaculture needs to ensure when farming fish. Food is an essential substance as it supplies energy inputs to maintain proper growth. Similarly, as species continue to evolve, so do the feed needs of fish farm ecosystems. However, a traditional fish farm fails to guarantee sustainable food production, thus resulting in vast numbers of mortality. Moreover, water is also a crucial element in a fish farm and the key parameter required for the survival of major species. However, it may not always be possible to maintain the water quality variables at proper levels in order to ensure maximal growth. To tackle those challenges, collecting accurate data from multiple different sensors across the fish farm ecosystem is very important.
Overall, the demand for seafood continues to increase, and seafood consumption has doubled over the past five decades. On top of that, around 15% of the protein-calorie intake worldwide is related to seafood.
The seafood industry can also support economic development within rural areas. In Scotland, for example, the Scottish Government has defined aquaculture as a critical area of economic development. This includes areas around fish farming, especially in the north and west of Scotland. The key objective is supporting a healthy and sustainable Scottish aquaculture industry through world-leading science and research.
While many fish farms provide local data gathering capabilities, sharing the gathered data is often not supported. Additionally, the remote nature of farms makes gathering data difficult due to the expense involved in setting up remote communication channels. Satellite-gathered data fed directly into a cloud environment through satellite communications can thus offer many benefits to localised data gathering. However, the privacy of this type of communication is challenging and often questioned[6,7]. Additionally, the security and privacy of the collected data is an ongoing challenge that can only be assured via fundamentally secure digital technologies and approaches.
The rapid adoption of blockchain has transformed the operations of aquaculture, resolving many insoluble challenges, whereas, at the same time, it helps store trusted data in an immutable way while accelerating the overall processing of the endorsed task. Our work thus outlines the creation of a private-permissioned blockchain infrastructure for the collection of data from multiple sensors within a fish farm environment. While many fish farms provide local data gathering, there is often a lack of sharing of the gathered data and multiple security and privacy concerns. The remote nature of farms often makes gathering data difficult due to the introduced expenses involved in setting up remote communication channels. Our work manages to thoroughly investigate the state-of-the-art approaches, finally proposing a modern blockchain-accelerated connected fish farm system within Scotland.
1.1. Fish farming and modern approaches
Wang et al., after having monitored and analysed fish farming in China, came to the conclusion that the growing complexity of integrated fish farming required increased attention from the scientific community. Choi et al. suggested that the increasing demand for fishery products, along with the identified limitations within the fishing industry, could be potentially addressed by the aquaculture industry by providing fish stocks. Sangirova et al. also supported that fish farming can reduce the cost of fish while maintaining the supply of many types of commercial fish. By 2030, it is projected that aquaculture will account for 60% of the production and 40% of fishing.
The key elements of maintaining the health of the fish within a fish farm relate directly to the quality of the water environment provided, and can be seen as follows:
● Turbidity level. Turbidity measures the cloudiness or haziness of a fluid and uses the units of nephelometric turbidity units (NTU). If there is a significant concentration of suspended material in the water, it will appear dirty. High levels of algae can create this issue, causing harm to fish, such as in the case of Trichodiniasis. High turbidity levels can also affect the proper growth of fish eggs and larvae by introducing levels of poisoning.
● pH level. Different types of fish prefer different pH conditions. The levels between 9–14 can damage the cellular membranes of a fish, while low pH levels can cause rock material in the sediment to relate metals into the water (and thus increase turbidity).
● Temperature level. Most freshwater fish are cold-blooded and absorb warmth from their surroundings. Thus, it affects their metabolism, and rapid temperature changes can reduce their growth and cause stress to the fish.
In 2015, Chen et al. defined an automated environment for fish farming consisting of a number of different sensors, such as temperature sensors, dissolved oxygen, pH sensors and water level sensors to monitor fish within a tank. They also used ultrasound to determine the water levels in the tanks. In terms of outputs, the main actuators were: (ⅰ) RGB light modulation system, to control light outputs by driving different colours of light and different intensities; (ⅱ) Heaters to heat the water to the required temperature; (ⅲ) Inflators to add oxygen into the tanks whenever the dissolved oxygen value falls below a given value; (ⅳ) Feeders to feed fish at any given times; and (ⅴ) Power supplies to support the sensor infrastructure and act as a fail-safe in case a power issue emerges. Kim et al. implemented a fish farm infrastructure using a range of sensors and actuators. Within their system, they created a private network with sensors connected to an Oxyguard unit and an Arduino.
Ullah et al. developed a method to optimize the water pump control, thus maintaining the desired water level by efficiently consuming energy. This is related to the pump flow rate and the tank filling level, using message queue telemetry transport (MQTT) for the control loops while applying a Kalman filter to remove sensor errors. Taniguchi et al. also used ultrasound to monitor fish movements, while Angani et al. used artificial intelligence (AI) within an Eel Fish Farm, along with an IoT infrastructure and MQTT. Lee et al. defined a method to optimize the water process control for water recirculating.
Quek identified a need for resilience of power supplies within offshore fish farms, proposing the implementation of an IoT-based direct current (DC) nanogrid, which used photovoltaic panels.
Arafat et al. defined a data set of IoT-related fish farm data focusing on monitoring the water quality. Their dataset contains 9, 623 data records, including temperature, pH factor and turbidity data for two different water levels.
Yang et al. outlined methods for applying deep learning, including live fish identification, species classification, behavioural analysis, feeding decisions, size or biomass estimation, and water quality prediction.
For fish identification, Yang et al. identified the usage of the Fish4Knowledge (F4K)[27-29] and Croatian fish datasets. Another common data set is LifeCLEF 2015 (LCF-15) which is extracted from F4K with 93 underwater videos with 15 fish species. It contains class labels with 20, 000 sample images. The two most popular machine learning methods for fish identification are convolutional neural network (CNN) and region-based CNN (R-CNN), with CNN being 15% and 10% more accurate than SVM and Softmax, respectively. Meng et al. used images of fish captured from Google to train the CNN, while Naddaf et al. used video recordings from remotely operated vehicles (ROV). Salman et al. used TensorFlow for CNN using the F4K and LCF-15 datasets.
One of the issues with CNN approaches is that they need to be trained through supervised learning, and the quality of the model produced depends on the quality of the training sets. For that reason, the modified deep convolutional Generative Adversarial Network approach of Zhao used a semi-supervised deep learning (DL) model. To overcome the difficulty in accessing training data, Mahmood et al. used synthetic data and an object detector approach and created the You Only Look Once (YOLO) v3 method.
There are more than 33, 000 different species of fish[26,37], which vary in size, shape and colour. Unfortunately, there can be many environmental changes and variations which may distort the classification. A deep learning model will often try to learn about these changes and make compensations. Again CNN methods are most often used for this. Siddiqui et al. used CNN and achieved a success rate of 94.3%, while Salman et al. achieved an accuracy of over 90% and compared CNN against other methods such as SVM, KNN, SRC, PCA-SVM, PCA-KNN, CNNSVM, and CNN-KNN for the LifeCLEF14 and LifeCLEF15 datasets. Along with visual methods, sound has also been used to identify species, such as when Ibrahim et al. used CNN and Long Short-Term Memory (LSTM) models and achieved an accuracy of around 90%.
Along with fish identification and classification, the care of fish often requires monitoring their behaviour, especially to support capturing and feeding decisions. Deep learning has thus been used based on time-series analysis and the ability to recognise visual patterns. CNN[26,42,43] and recurrent neural network (RNN) methods have been applied as they are useful in detecting localised behaviours. This has included crossing, overlapping and blocking the detection of fish populations.
A key element of effective planning in fish farms is the abundance, quantity, size and weight of the managed fish population. This is often estimated using length, width, weight and area characteristics. However, it can be challenging to monitor due to environmental conditions (such as variations in light intensity and water visibility), thus making necessary the application of methods using CNN, R-CNN and generative adversarial network (GAN).
An important element within breeding and production efficiency is the feeding level given to the fish, which can be one of the most costly elements in the fish farming environment. There are many factors related to feeding, including physiological, nutritional, environmental, and husbandry factors. Måløy et al. used temporal and spatial flow with three-dimensional CNN (3D-CNN) and RNN to recognise feeding and non-feeding behaviours[26,48].
As previously mentioned, water quality is a key factor within the environment for fish production, and where dissolved oxygen provides one of the most important factors. Unfortunately, there can be a lag in the supply of oxygen and its effect on water quality. DL methods address this and create a prediction model by using CNN/LSTM, RNN and a deep belief network (DBN). Cordova-Rozas et al. focused on water quality for their cloud-based monitoring system. Their system monitored fish species in an aquarium of
Tawfeeq et al. also implemented a cloud-based infrastructure for a fish farm in Omar by integrating it into a Wi-Fi network with ESP8266 and a cloud database of Things Speak to gather temperature, water level, pH and Turbidity. Dzulqornain et al. outlined an aquaculture based on the "If This Then That" (IFTTT) model and cloud integration. The smart sensors included dissolved oxygen, the potential of hydrogen, water temperature and water level within a pond area of
1.2. Related work
Hang et al. defined a secure fish farm platform which uses blockchain to achieve trust. According to their solution, a smart contract is used to automate data gathering, and Hyperledger Fabric is used to create a prototype. Their system included a fish farm contract and a policy contract. The data gathered for the fish farm contract included: outlier filtering, water level, temperature level, and oxygen level, which then controlled a water pump. For the policy contract, the entities involved included a farmer, a farm owner, multiple devices, the network access policy and a business access policy. Regarding the trust, each entity - including the farmer, the farm owner and each device has a public and private key. These keys are used to identify the identities of each entity and are issued to a certificate authority. A revocation request is then issued if there has been a breach of the entity's private key. Elements of the transactions are: Collect Water Level, Predicted Water Level, Energy Consumption, Control Water Pump, User Management Farm, Sensor Management Farm, Actuator Management, Predicted Water Level History, Energy Consumption History, and Water Pump History.
To the best of our knowledge, our work is the first to introduce a fish farm developed with the privacy by design principle. Compared to the existing literature solutions, it allows specific participating organisations to query sensitive stored data according to their identity credentials, whereas it also blocks access from other non-verified participants. In specific, by enabling the use of a privacy-preserving feature, we thus allow fish farms to store sensitive data related to their business continuity strategies while eliminating the risk of getting compromised by their sensor providers. We should not neglect the fact that third-party providers are responsible for the economic decay of a variety of different organisations due to their inefficient security controls. It should be highlighted that in the related literature, during an insider attack scenario, a compromised sensor provider could be able to exfiltrate sensitive data collected by the sensors provided to the fish farm. The collected data can later be sold to the highest bidder, thus increasing even more the profit for the malicious parties behind the attacks. Such an attack is not feasible in the scope of our solution.
We can summarise the main contributions of our work as follows:
● We propose a novel distributed fish farm approach, the first of its kind to introduce the privacy by design feature while maintaining its coherence and robustness.
● We implement our suggested solution by leveraging Hyperledger Fabric's private data collection feature, thus creating a secure and private smart fish farm.
● We establish criteria based on the known literature and then empirically evaluate both the performance and robustness of our smart fish farm.
This paper is organised as follows; Section 2 details the methods and architecture used for the proposed implementation. Additionally, it explains the permissioned blockchain technology by focusing on the overall functionalities and policies of Hyperledger Fabric. Section 3 firstly presents the specifics about the implementation of the proposed future fish farm, and secondly, thoroughly presents the results and experimentally evaluates the metrics to evidence its efficiency and security. Finally, Section 4 discusses and draws the conclusions while offering some pointers for future work.
2.1. Distributed ledger technologies and hyperledger fabric
A distributed ledger technology (DLT) refers to the database which remains synchronised across many different locations. Its decentralised nature eliminates the necessity of an intermediary in order to validate or authenticate transactions. Blockchain is one of the most important innovations of recent years, bringing vast advancements by transforming traditional centralised approaches. It has appeared as a game-changer in the technology field and is currently being implemented in almost every sector. Blockchain comprises public and private options, where the validators and end-users can be given access based on the platform they joined. As our suggested future fish farm architecture is implemented utilising a private-permissioned blockchain, we emphasise on core functionalities of such approaches.
Hyperledger Fabric is a project supported by the Linux foundation. It is designed to form a private-permissioned blockchain architecture which can be leveraged in a multi-organisational approach where each organisation is connected to each other. Several key aspects make Hyperledger Fabric distinctive and robust compared to other approaches:
● Privacy: Hyperledger Fabric requires all of the nodes within a channel to be identified via a Membership Service Provider (MSP). The process is referred to as "private" membership as unlike public blockchains, such as bitcoin, only authorised members are permitted to join the Hyperledger Fabric network. Hyperledger Fabric is an eminent option for many enterprises and farms concerned about their data privacy. Furthermore, Hyperledger Fabric provides flexible design options for the architecture according to the requirements; hence, the necessity for the permissions can be flexible and set according to the requirements.
● Channels: Hyperledger Fabric comprises this unique feature which enables it to partition the blockchain ledger into separate channels, thus allowing the peer nodes to generate a separate set of transactions which can be isolated from other parts of the network. This approach is efficient when the architecture is formed with several domains and sensitive data required to be segregated from other entities within the network.
● Scalability: Scalability is another notable characteristic of Hyperleder Fabric, especially when creating a large-scale architecture, since, regardless of the number of nodes, the participating nodes can scale quickly, whereas the system is still able to execute significant amounts of data with minimal resources. This is very helpful when a blockchain infrastructure is developed with a few nodes and the scale is based on demand.
● Modularity: Modularity is another advantage which makes Hyperledger Fabric unique from other blockchain platforms. Hyperledger Fabric is designed to allow separate components to be added and implemented at various stages. Moreover, many components are optional; therefore, those can be removed entirely or initiated at a later stage if required. This offers the authority to the associated domains to determine what parts are necessary to implement at what stage. Some of the modular or "plug-and-play" components that Hyperledger Fabric comprises are consensus, ledger storage, particular access to APIs, and integration of chaincode.
In Hyperledger Fabric, depending on the acquired policies, all transactions are required to be validated by the majority of the nodes within the network. The whole process of transaction validation occurs in a few stages, which is often referred to as consensus. The process of validating, committing and approving the chaincode takes place through a consensus mechanism. Reaching consensus is a process that ensures that the blockchain operates according to the set policies. Hence, the liable nodes are required to provide a guaranteed ordering of the transactions as well as take part in the validation of the transactions.
The complete consensus process in Hyperledger Fabric may consist of 3 phases: Endorsement, Ordering, and Validation. The policy drives the endorsement, requiring endorsing peers to acknowledge it. The ordering nodes set the order that requires to be committed, whereas the validation phase verifies the correctness. Regarding the ordering, in Hyperledger Fabric, some nodes are designated as orderers, ensuring that all the peer nodes comprise the same updated ledger. In a way, the orderer ensures that the consistency of data is maintained to protect the integrity of the blockchain. The peers (or nodes) that are specially designated as orderers ensure that all the peers within a channel have the same updated ledger. In this sense, orderer peers ensure data consistency and protect the ledger's integrity. Orderers also construct the blocks after the endorsement of a transaction and enter the record into them. The orderer peers, collectively known as the ordering service when working in cohesion, mail out the new blocks to each peer within a channel to update their respective ledgers. The ordering service is a modular component. It is important to acknowledge that there are several methods for implementing this ordering service within a Fabric network. Finally, every peer node validates the transactions that are ordered in sequence. Since the transactions are placed by order, the peer nodes can verify if any later transactions were rejected by earlier transactions. Such verification checks will prevent the possibility of double-spending or inconsistency in data.
In Hyperledger Fabric, policies can be defined according to the participating organisations. The endorsement policy specifies that the set of peers on a channel can participate in the transaction validation process by executing chaincode and endorsing the results. Although the endorsement policy does not ensure the correctness of the chaincode on the right peer, another mechanism, "endorsing" and installing chaincode packages, carries out such checks. A few examples of endorsement policies include: (ⅰ) All peer nodes in the channel can endorse a transaction; (ⅱ) A majority of peers in the channel can take part in the endorsement; and (ⅲ) At a certain channel, peers must endorse a transaction.
The architecture of the proposed solution is illustrated in Figure 1. The technical architecture derives from a computational testbed consisting of an Ubuntu 20.04 LTS operating system, with an 8th generation i7 CPU with 6 cores at 3.20GHz, 32GB of RAM, and 1TB SSD. The chosen distributed ledger technology is the Hyperledger Fabric private-permissioned blockchain framework which offers quicker transaction times than other public blockchains. Additionally, since the consensus mechanism in Hyperledger Fabric is flexible, the technology's specifications can be adapted according to the implementation of the use case; hence, the infrastructure can be extended to other similar use cases that allow the adoption of data-gathering tools.
Figure 1. Fish Farm architecture overview. The two participating organisations have different levels of access to the system. The Sensors Providers organisation has access only to the non-private data ledger, whereas the Fish Farm organisation also has access to the private data ledger. Access to unauthorised participants is being denied.
The topology and the specified technical details of our implementation derive as:
1. Each sensor provider acts as a Hyperledger Fabric peer with storing access to the blockchain ledger.
2. Each fish farm is a Hyperledger Fabric peer too, but with viewing access only to the blockchain ledger. Additionally, the viewing access to the blockchain ledger is further configured to separate each participant's viewing privileges utilising the Private Data Collection feature[62,63]. This feature is similar to access control policies found in other computational systems.
3. The peers in our infrastructure, namely developers.sensorsprovider.org, support.sensorsprovider.org, admin.fishfarm.org, and user.fishfarm.org, hold the blockchain ledger, the defined private data collections according to the set policies, and record any data tampering. The used state databases that peers are using are CouchDB instances.
4. The identity of each peer is an X.509 certificate that is being verified by the Membership Service Provider (MSP) entity for its validity.
5. Group of peers can form Hyperledger Fabric organisations. The role of the organisations in our architecture is to accept/reject each blockchain transaction according to the defined policy. In the technical experimentation, there are two specified organisations, namely sensorsproviders.org and fishfarm.org.
6. The ordering service, in our case, the crash-fault tolerant RAFT service, creates the new blockchain blocks and broadcasts them to all the participating peers according to the defined policy. Hence, three orderers handle each storing transaction to avoid potential single point of failures that single-orderer infrastructures face. It should be noted that any number of orderers could be used, and we have specifically chosen three only for experimental purposes. There is no correlation between the number of orderers with the number of other Hyperledger Fabric components.
7. The smart contract of our solution, namely chaincode in Hyperledger Fabric, is being approved and installed in all the peers of the participating organisations and the ordering service. Chaincode is written using the Go programming language.
8. We have generated and utilised synthetic data based on the data fields of the infrastructure.
9. The infrastructure's policy is specified during the initialisation of the blockchain but can also be further updated to include new blockchain rules. In update scenarios, the new policy needs to be approved by a number of participating organisations and the ordering service, similar to chaincode updates.
3.1. Proof-of-concept and access control policy
This subsection defines the developed proof-of-concept (PoC) and our system's detailed access control policy. The PoC involves setting up a permissioned blockchain that is based on Hyperledger Fabric version 2.3.0, using the Minifabric framework1.
1 Minifabric framework: https://github.com/hyperledger-labs/minifabric
There are two distinct private data collections, namely collectionFishFarm and collectionFishFarmPrivateDetails. It was considered that the sensorsprovider.org organisation is the provider of the sensors that monitor the fish farm and the fishfarm.org organisation is the fish farm that installs these sensors. However, sensor providers often require access to the sensors for maintenance purposes; consequently, they get access to the data collected from their sensors. In the presented testbed, the fish farm can utilise the infrastructure to reveal only necessary information to the sensors' providers and not expose any collected sensitive details. These sensitive details may include information about specific fish farm metrics that the fish farm can further utilise, commercialise, receive government funding and more.
Hence, there are 14 total data fields that derive to data fields that both organisations can access, such as windspeed, rainfall, airpressure, temperature, waveheight, and watercurrent, as well as, private data fields that only the fishfarm.org organisation can access, such as fdom (Fluorescent Dissolved Organic Matter), salinity, ph, turbidity, algae, orp (Oxidation-Reduction Potential), nitrates. Finally, there is an extra data field, namely name, which is the key that connects the two data collections. As mentioned in our topology, the data utilised in these data fields have been synthetically generated. In a real-world scenario, the equivalent data fields could be collected from physical sensors carefully placed in a fish farm.
Every node involved in this PoC is developed as a docker container and is authorised by the network administrators prior to joining the channel. The administrators issue digital certificates to the peers in the fish farm ecosystem. The Membership Service Provider (MSP) is responsible for defining the rules by which identities are validated, authenticated, and allowed access to a network. The MSP leverages the certificate authority (CA), the entity responsible for creating and revoking identity certificates. Similarly, every entity that is part of the network is issued X.509 certificates. The modular infrastructure of the Hyperledger Fabric permits to impose of external CAs.
In this subsection, the system's results and experimental evaluation can be seen in terms of performance and security. As observed in the literature[62,63], the Hyperledger Fabric is very efficient compared to other similar systems developed using different technologies. However, despite the fact that the addition of the Minifabric framework aided the PoC's development activities, the system's performance is degraded. A write transaction required approximately 7.3 seconds to be conducted [Appendix A], whereas approximately 6.9 seconds were required for a read transaction [Appendix B]. Hence, as visualised using Hyperledger Explorer, the PoC's throughput is between 7 and 8 transactions per minute, as seen in Figure 2. This computational overhead occurs due to the execution of the minifab script (part of the Minifabric framework) that manages the Hyperledger Fabric environment. However, this overhead could be avoided in production environments, whereas the infrastructures are being developed using traditional Hyperledger Fabric practices. Although, when the PoC scaled up to 100, 000 stored records, the system's performance remained the same, which was an expected outcome of the proposed solution that proves its superiority against other technologies [Appendix B]. Additionally, the system's performance has been experimentally evaluated and visualised in plots using Python's Matplotlib. The CPU performance of our system to store 100, 000 records in the system is depicted in Figure 3. This figure shows that the CPU usage of each participating peer constantly fluctuates to store each record in the blockchain system. However, in most cases, these fluctuations occur within the 0%-20% range (as visualised with purple colour regarding the command line interface), with CPU usage spikes for all the participating peers after a certain timeframe. Hence, it is speculated that these CPU usage spikes occur from utilising the Minifabric framework outside of our control, as well as potential hardware limitations and other environmental impacts.
The CPU performance to Read a record on any number of records, as well as the RAM usage for any read or write transactions, are negligible (< 5% CPU performance and < 1% RAM usage); hence, they are not plotted. Fair performance comparison with other works in the literature that utilise the private data collection feature, such as PREHEALTH and PRESERVE DNS, cannot be done since they are using the "vanilla" Hyperledger Fabric, instead of Minifabric framework, that the Future Fish Farm is built upon. As reported previously, in this work, a read transaction occurs in approximately 6.9 seconds instead of approximately 0.83 seconds in PREHEALTH and PRESERVE DNS.
Regarding the two data collections, as specified in the previous sections, only the peers of the fishfarm.org organisation have access to the private data collection, namely collectionFishFarmPrivateDetails, whereas all the peers from the two participating peers have access to the collectionFishFarm [Appendix C]. No other parties can access data stored in these two data collections since their identity certificates are not included in the specified policy [Appendix C].
Fish farming is the fastest-thriving channel of animal food production. Half of the fish consumed worldwide is produced within an artificial ambience. In this paper, we have proposed the concept of a future fish farm to demonstrate the intelligent observation of acquired data in order to reach an informed decision. The architecture of the future fish farm is based on a complex approach where the accuracy and reliability of the acquired data, the decision-making models, and the correlation among various intelligent systems must function correctly.
Our solution is implemented within our testbed, clearly demonstrating the functionalities that were proposed by our novel architecture, thus resulting in a future fish farm with improved effectiveness and performance efficiency. It should be highlighted that the implemented solution is the first of its kind to enable fish farms to collect sensitive data without risking potential exposure to compromised or malicious sensor providers. In the world of malicious data brokers, a malicious sensor provider may involve the exfiltration of critical fish farm data, thus either selling them to other third parties or even tampering with the data to potentially influence the fish farm to make unnecessary buying decisions. This will have consequences not only for the specific fish farm but for the supply chain as a whole, introducing issues to the business continuity of a variety of organisations. However, our solution disables such attack vectors and guarantees both security and privacy.
For our future work, we aim to extend the development of the future fish farm infrastructure by adding more functionalities and participants in a more complex scenario that mimics a real-world use case. Additionally, adding AI techniques to gather further insights from the stored data is a compelling future step to determine the usability of the future fish farm in real-world environments.
Made substantial contributions to conception and design of the study and performed data analysis and interpretation: Papadopoulos P, Buchanan WJ, Sayeed S, Pitropakis N
Performed data acquisition and provided administrative, technical, and material support: Papadopoulos P
Availability of data and materials
Financial support and sponsorship
Conflicts of interest
All authors declared that there are no conflicts of interest.
Ethical approval and consent to participate
Consent for publication
© The Author(s) 2023.
1. Global Seafood Alliance. What Is Aquaculture and Why Do We Need It?; 2019. Online; accessed 19-May-2022. https://www.globalseafood.org/blog/what-is-aquaculture-why-do-we-need-it/. [Last accessed on 16 Dec 2022].
2. Peter J Allen. Aquaculture: Challenges and Promise; 2011. [Online; accessed 19-May-2022].
3. Kim H. ChirpStack, open-source LoRaWAN(R) Network Server stack; 2021. Available from: https://sentientmedia.org/fish-farmer. [Last accessed on 16 Dec 2022].
4. Hang L, Ullah I, Kim DH. A secure fish farm platform based on blockchain for agriculture data integrity. Computers and Electronics in Agriculture 2020;170:105251.
5. Government S. Aquaculture; 2021. Available from: https://www.gov.scot/policies/aquaculture/. [Last accessed on 16 Dec 2022].
6. McKenna AT, Gaudion AC, Evans JL. The role of satellites and smart devices: data surprises and security, privacy, and regulatory challenges. Penn St L Rev 2018;123:591.
7. Stoyanova M, Nikoloudakis Y, Panagiotakis S, Pallis E, Markakis EK. A survey on the internet of things (IoT) forensics: challenges, approaches, and open issues. IEEE Commun Surv Tutorials 2020;22:1191-221.
8. Amiri-Zarandi M, Dara RA, Duncan E, Fraser ED. Big data privacy in smart farming: a review. Sustainability 2022;14:9120.
9. Andreas A, Mavromoustakis CX, Mastorakis G, et al. Towards an optimized security approach to IoT devices with confidential healthcare data exchange. Multimed Tools Appl 2021;80:31435-49.
10. Wang HX. Current status and prospects of integrated fish farming in China. In: Integrated Fish Farming. Taylor & Francis; 2020. pp. 45–54.
11. Choi J, Lee J, Kim Y, Shin Y. A study on the construction plan of smart fish farm platform in the future. KIPS Transactions on Computer and Communication Systems 2020;9:157-64.
12. Sangirova U, Khafizova Z, Yunusov I, Rakhmankulova B, Kholiyorov U. The benefits of development cage fish farming. In: E3S Web of Conferences. vol. 217. EDP Sciences; 2020. p. 09006.
13. Cordova-Rozas M, Aucapuri-Lecarnaque J, Shiguihara-Juárez P. A cloud monitoring system for aquaculture using iot. In: 2019 IEEE Sciences and Humanities International Research Conference (SHIRCON). IEEE; 2019. pp. 1–4.
14. Arafat AI, Akter T, Ahammed MF, Ali MY, Nahid AA. A dataset for internet of things based fish farm monitoring and notification system. Data in Brief 2020;33:106457.
15. Auld AH, Schubel J. Effects of suspended sediment on fish eggs and larvae: a laboratory assessment. Estuarine and Coastal Marine Science 1978;6:153-64.
16. El-Sayed AF, El-Ghobashy A, Al-Amoudi M. Effects of pond depth and water temperature on the growth, mortality and body composition of Nile tilapia, Oreochromis niloticus (L.). Aquaculture Research 1996;27:681-87.
17. Solstorm D, Oldham T, Solstorm F, et al. Dissolved oxygen variability in a commercial sea-cage exposes farmed Atlantic salmon to growth limiting conditions. Aquaculture 2018;486:122-29.
18. Null SE, Mouzon NR, Elmore LR. Dissolved oxygen, stream temperature, and fish habitat response to environmental water purchases. Journal of Environmental Management 2017;197:559-70.
19. Chen JH, Sung WT, Lin GY. Automated monitoring system for the fish farm aquaculture environment. In: 2015 IEEE International Conference on Systems, Man, and Cybernetics. IEEE; 2015. pp. 1161–66.
20. Kim Y, Lee N, Kim B, Shin K. Realization of IoT based fish farm control using mobile app. In: 2018 International Symposium on Computer, Consumer and Control (IS3C). IEEE; 2018. pp. 189–92.
21. Ullah I, Kim D. An optimization scheme for water pump control in smart fish farm with efficient energy consumption. Processes 2018;6:65.
22. Taniguchi Y. Evaluation of acoustic data communication for fish farm monitoring. Proceedings of DNCOCO 2015 2015:195-99.
23. Angani A, Oh SM, Kim ES, Shin KJ. Realization of eel fish farm with artificial intelligence part2: IoT based flow control using MQTT. In: 2019 IEEE International Conference on Architecture, Construction, Environment and Hydraulics (ICACEH). IEEE; 2019. pp. 97–100.
24. Lee J, Angani A, Thalluri T, jae Shin K. Realization of water process control for smart fish farm. In: 2020 International Conference on Electronics, Information, and Communication (ICEIC). IEEE; 2020. pp. 1–5.
25. Quek Y. Implementation of an IoT-based DC nanogrid in an offshore fish farm. In: 2020 IEEE REGION 10 CONFERENCE (TENCON). IEEE; 2020. pp. 1147–52.
26. Yang X, Zhang S, Liu J, et al. Deep learning for smart fish farming: applications, opportunities and challenges. Rev Aquacult 2021;13:66-90.
27. Salman A, Jalal A, Shafait F, et al. Fish species classification in unconstrained underwater environments based on deep learning. Limnol Oceanogr Methods 2016;14:570-85.
28. Sun X, Shi J, Liu L, et al. Transferring deep knowledge for object recognition in Low-quality underwater videos. Neurocomputing 2018;275:897-908.
29. Fisher RB, Chen-Burger YH, Giordano D, et al. Fish4Knowledge: collecting and analyzing massive coral reef fish video data. vol. 104. Springer; 2016.
30. Zhao J, Li Y, Zhang F, et al. Semi-supervised learning-based live fish identification in aquaculture using modified deep convolutional generative adversarial networks. Transactions of the ASABE 2018;61:699-710.
31. Joly A, Goëau H, Glotin H, et al. LifeCLEF 2015: multimedia life species identification challenges. In: International Conference of the Cross-Language Evaluation Forum for European Languages. Springer; 2015. pp. 462–83.
32. Labao AB, Naval Jr PC. Cascaded deep network systems with linked ensemble components for underwater fish detection in the wild. Ecological Informatics 2019;52:103-21.
33. Meng L, Hirayama T, Oyanagi S. Underwater-drone with panoramic camera for automatic fish recognition based on deep learning. IEEE Access 2018;6:17880-6.
34. Naddaf-Sh M, Myler H, Zargarzadeh H, et al. Design and implementation of an assistive real-time red lionfish detection system for auv/rovs. Complexity 2018;2018:1-10.
35. Salman A, Siddiqui SA, Shafait F, et al. Automatic fish detection in underwater videos by a deep neural network-based hybrid motion learning system. ICES Journal of Marine Science 2020;77:1295-307.
36. Mahmood A, Bennamoun M, An S, et al. Automatic detection of Western rock lobster using synthetic data. ICES Journal of Marine Science 2020;77:1308-17.
37. Oosting T, Star B, Barrett JH, et al. Unlocking the potential of ancient fish DNA in the genomic era. Evol Appl 2019;12:1513-22.
38. Siddiqui SA, Salman A, Malik MI, et al. Automatic fish species classification in underwater videos: exploiting pre-trained deep neural network models to compensate for limited labelled data. ICES Journal of Marine Science 2018;75:374-89.
39. Joly A, Goëau H, Glotin H, et al. Lifeclef 2014: multimedia life species identification challenges. In: International Conference of the Cross-Language Evaluation Forum for European Languages. Springer; 2014. pp. 229–49.
40. Ibrahim AK, Zhuang H, Chérubin LM, Schärer-Umpierre MT, Erdol N. Automatic classification of grouper species by their sounds using deep neural networks. The Journal of the Acoustical Society of America 2018;144:EL196-202.
41. Papadakis VM, Papadakis IE, Lamprianidou F, Glaropoulos A, Kentouri M. A computer-vision system and methodology for the analysis of fish behavior. Aquacultural Engineering 2012;46:53-59.
42. Li J, Xu C, Jiang L, et al. Detection and analysis of behavior trajectory for sea cucumbers based on deep learning. IEEE Access 2020;8:18832-40.
43. Romero-Ferrero F, Bergomi MG, Hinz RC, Heras FJ, de Polavieja GG. Idtracker. ai: tracking all individuals in small or large collectives of unmarked animals. Nat Methods 2019;16:179-82.
44. Zhao J, Bao W, Zhang F, et al. Modified motion influence map and recurrent neural network-based monitoring of the local unusual behaviors for fish school in intensive aquaculture. Aquaculture 2018;493:165-75.
45. Levy D, Belfer Y, Osherov E, et al. Automated analysis of marine video with limited data. In: Proceedings of the IEEE Conference on Computer Vision and Pattern Recognition Workshops; 2018. pp. 1385–93.
46. Álvarez-Ellacuría A, Palmer M, Catalán IA, Lisani JL. Image-based, unsupervised estimation of fish size from commercial landings using deep learning. ICES Journal of Marine Science 2020;77:1330-39.
47. Sun M, Hassan SG, Li D. Models for estimating feed intake in aquaculture: a review. Computers and Electronics in Agriculture 2016;127:425-38.
48. Måløy H, Aamodt A, Misimi E. A spatio-temporal recurrent network for salmon feeding action recognition from underwater videos in aquaculture. Computers and Electronics in Agriculture 2019;167:105087.
49. Ta X, Wei Y. Research on a dissolved oxygen prediction method for recirculating aquaculture systems based on a convolution neural network. Computers and Electronics in Agriculture 2018;145:302-10.
50. Liu Y, Zhang Q, Song L, Chen Y. Attention-based recurrent neural networks for accurate short-term and long-term dissolved oxygen prediction. Computers and Electronics in Agriculture 2019;165:104964.
51. Lin Q, Yang W, Zheng C, et al. Deep-learning based approach for forecast of water quality in intensive shrimp ponds. Indian J Fish 2018;65:75-80.
52. Sivakumar S, Ramya V. An Intuitive Remote Monitoring Framework for Water Quality in Fish Pond using Cloud Computing. In: IOP Conference Series: Materials Science and Engineering. vol. 1085. IOP Publishing; 2021. p. 012037.
53. Blynk. Blynk IoT platform; 2021. Available from: https://blynk.io/. [Last accessed on 16 Dec 2022].
54. Tawfeeq A, Al Wahaibi HAS, Vijayalakshmi K. IoT based Aquaculture system with Cloud analytics. International Journal of Applied Engineering Research 2019;14:4136-42.
55. Speak T. IoT Analytics - ThingSpeak; 2021. Available from: https://thingspeak.com/. [Last accessed on 16 Dec 2022].
56. Dzulqornain MI, Al Rasyid MUH, Sukaridhoto S. Design and development of smart aquaculture system based on IFTTT model and cloud integration. In: MATEC web of conferences. vol. 164. EDP Sciences; 2018. p. 01030.
57. Dubendorfer T, Wagner A, Plattner B. An economic damage model for large-scale internet attacks. In: 13th IEEE International Workshops on Enabling Technologies: Infrastructure for Collaborative Enterprises. IEEE; 2004. pp. 223–28.
58. Network MP. Difference Blockchain and DLT; 2021. Available from: https://sentientmedia.org/fish-farmer. [Last accessed on 16 Dec 2022].
59. Gorenflo C, Lee S, Golab L, Keshav S. FastFabric: Scaling hyperledger fabric to 20 000 transactions per second. International Journal of Network Management 2020;30:e2099.
60. Baliga A, Solanki N, Verekar S, et al. Performance characterization of hyperledger fabric. In: 2018 Crypto Valley conference on blockchain technology (CVCBT). IEEE; 2018. pp. 65–74.
61. Papadopoulos P, Pitropakis N, Buchanan WJ. Decentralized Privacy: A Distributed Ledger Approach. In: Handbook of Smart Materials, Technologies, and Devices: Applications of Industry 4.0. Springer; 2022. pp. 1–26.
62. Stamatellis C, Papadopoulos P, Pitropakis N, Katsikas S, Buchanan WJ. A privacy-preserving healthcare framework using hyperledger fabric. Sensors 2020;20:6587.
63. Papadopoulos P, Pitropakis N, Buchanan WJ, Lo O, Katsikas S. Privacy-preserving passive dns. Computers 2020;9:64.
64. Moses Sam Paul. Hyperledger Fabric Components — Technical Context; 2018. [Online; accessed 12-August-2021]. https://www.linkedin.com/pulse/hyperledger-chapter-2-frameworks-modules-moses-sam-paul-johnraj [Last accessed on 16 Dec 2022].
Cite This Article
Papadopoulos P, Buchanan WJ, Sayeed S, Pitropakis N. Towards the creation of the future fish farm. J Surveill Secur Saf 2023;4:1-13. http://dx.doi.org/10.20517/jsss.2022.16
Papadopoulos P, Buchanan WJ, Sayeed S, Pitropakis N. Towards the creation of the future fish farm. Journal of Surveillance, Security and Safety. 2023; 4(1): 1-13. http://dx.doi.org/10.20517/jsss.2022.16
Papadopoulos, Pavlos, William J. Buchanan, Sarwar Sayeed, Nikolaos Pitropakis. 2023. "Towards the creation of the future fish farm" Journal of Surveillance, Security and Safety. 4, no.1: 1-13. http://dx.doi.org/10.20517/jsss.2022.16
Papadopoulos, P.; Buchanan WJ.; Sayeed S.; Pitropakis N. Towards the creation of the future fish farm. J. Surveill. Secur. Saf. 2023, 4, 1-13. http://dx.doi.org/10.20517/jsss.2022.16
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