Features
‘Qingdao organic fertiliser shipment is pathogen free’: How scientifically acceptable is test report?
by Prof. Devika de Costa
(Chair Professor of Plant Protection, Faculty of Agriculture, University of Peradeniya)
Background
The bulk carrier, Hippo Spirit, carrying an organic fertiliser shipment of 20,000 metric tons manufactured by the Qingdao Seawin Biotech Group Co. Ltd., China,started to sail to its destination, Colombo, Sri Lanka, from Qingdao port, China, on the 22 September 2021. Seventy-two days after its departure, on the 04 December 2021, Hippo Spirit left the Sri Lankan waters heading towards Singapore without unloading its shipment of organic fertiliser at the planned destination.
The reason for not allowing the shipment to be unloaded by the Sri Lankan authorities was the detection of the contamination of the organic fertiliser onboard with a plant pathogenic bacterium named Erwinia spp. and another group of bacteria of Bacillus spp., as confirmed twice by the National Plant Quarantine Service, Sri Lanka (NPQS). As per the Plant Protection Act No. 35, 1999 of Sri Lanka, material containing any organism harmful to, or injurious to, or destructive of plants and for the sanitation of plants in Sri Lanka, is not allowed to be imported.
Qingdao Seawin Biotech Group Co. Ltd., the supplier, directed the Hippo Spirit, along with the bulk organic fertiliser shipment, to a test laboratory in Singapore, with the intention of getting a sample of the shipment tested for its quality by a third party and to initiate an international arbitration procedure.
The third party testing laboratory that the Qingdao Seawin selected was SGS Testing & Control Services Singapore Pvt. Ltd. (SGS). The reason for obtaining the services of a third party for the testing procedure was to support the allegations made by Qingdao Seawin against the NPQS. Qingdao Seawin denied the fact that their shipment was contaminated with the bacterium Erwinia, emphasising that NPQS had not conducted the test procedures scientifically and had not followed standard methodologies adopted by the International Plant Protection Convention (IPPC).
Accordingly, a sample of the organic fertiliser shipment in Hippo Spirit was submitted to the SGS laboratory for testing its microbial quality on the 13 December 2021. At the SGS laboratory, this sample was tested to detect the presence of a specific group of bacteria, according to a standard test procedure, and the test results were released on 20 December 2021.

SGS test report Figure 1
shows an image of the test report released by the SGS laboratory on the 20 December 2021. According to the report, the submitted sample was tested by two standard methods, namely ISO 21528-1 (2017) and ISO 21528-2 (2017), to detect bacteria belonging to the Family Enterobacteriaceae, a sub-group within the large taxonomic group of bacteria.
The testing period of the sample has been reported as seven days from the 13th to the 20 December 2021. Results released by the SGS laboratory reveal that bacteria belonging to Enterobacteriaceae have not been detected in the sample subjected to the above two testing procedures.
(see Figure 1: The SGS test report)
What are Enterobacteriaceae bacteria?
Enterobacteriaceae is a large family of bacteria consisting of 53 bacterial genera (Reference No. 1). According to ‘Gram Staining’, the standard staining technique used in bacteriology for initial categorisation of bacteria, the bacteria belonging to this Enterobacteriaceae are classified as ‘Gram negative’. A majority of the bacterial genera belonging to this family are inhabitants of the human and animal intestine. Such bacteria are termed as ‘enteric bacteria’. In addition to the enteric bacteria, some of the genera belonging to the family Enterobacteriaceae live in natural environments such as soil and water.
There are some bacterial genera of this family, which are pathogenic (i.e. having the ability to cause diseases) to plants and animals. Most of the bacterial members of this family grow well at a temperature of 37 oC but there are some bacteria that show a better growth at a temperature range of 25 – 30 oC. Therefore, it is clear that within the same bacterial family, there are different bacterial genera and species with different physical, nutritional and functional characteristics. It is equivalent to siblings of a given family having differences in terms of their external morphological features, behaviour, attitudes, performances, working efficiency, etc.
Scientific basis of the test protocol to determine the quality of the sample
ISO 21528-1 (2017) and ISO 21528-2 (2017) are recommended test protocols to detect the presence of bacteria belonging to the Family Enterobacteriaceae in food samples used for human/animal consumption or to test the environmental samples used for primary food production, food production and food handling. Using the above test protocols it is possible to detect the presence of ‘culturable bacteria’ (i.e. bacteria which are capable of growing on synthetic culture media) belonging to the family Enterobacteriaceae. This means that the selected test protocols are suitable for detecting only a limited, focused group of bacteria and that these specific test protocols have not targeted the detection of all types of bacteria. The specificity of this test protocol to target only the culturable type bacteria of the Enterobacteriaceae family has been achieved through the specific synthetic culture medium used in the protocol. The culture medium used here is called the ‘Violet Red Bile Glucose Agar medium (VRBGA)’. Microbiologically, the culture media which specifically target a particular group of bacteria or microorganisms are termed ‘selective media’. Such selective media favour the growth of a particular group of microorganisms while suppressing the growth of all other types.
Selectivity of the VRBGA medium is determined by the ingredients used when preparing it. For example, the chemical stain called crystal violet and bile salts are used when preparing the VRBGA medium and both these chemical ingredients suppress the growth of Gram positive type bacteria. Moreover, the bile salts used in this medium encourages the growth of bacteria that are resistant to bile salts. In other words, only the bacteria which are not destroyed by the action of bile salts will grow on the VRBGA medium.
On the other hand, the bacteria which cannot tolerate bile salts will not grow on this selective medium even if they are present in the test sample.
Enteric bacteria naturally inhabit in an environment containing bile salts (i.e. the gut of animals and humans) and consequently are usually resistant to bile salts. Therefore, growth of such bacteria will not be suppressed when a test sample is allowed to grow on the VRBGA medium. However, non-enteric bacteria usually live in environments such as soil or plant tissue, and therefore, have no exposure to bile salts. Accordingly, they are not accustomed to grow in an environment containing bile salts. As a consequence, the growth of non-enteric bacteria is suppressed on the VRBGA medium. Therefore, it is clear that a test protocol using the VRBGA medium is not appropriate to test the presence of microorganisms or bacteria in a test sample of plant origin such as the organic fertilizer consignment from Qingdao Seawin Biotech Group Co. Ltd. More importantly, this renders the conclusion by the SGS test report invalid.
Erwinia spp. grow naturally in plant tissues which have no bile salts in them. Thus it is a group of non-enteric bacteria. As explained above, the growth of such non-enteric bacteria is heavily suppressed on the VRBGA medium. According to the results of the publication given as Reference Number 2, the VRBGA medium has been identified as a medium which underestimates the presence of plant bacteria such as Erwinia, despite Erwinia being a member of the Family Enterobacteriaceae. Therefore, it should be clear that even if bacteria belonging to Erwinia spp. had been present in the tested organic fertilizer sample from Qingdao, there was a very high probability for them not being able to develop colonies on the VRBGA medium. Thus, the conclusion that the sample is free from Erwinia is erroneous and inconclusive.
Scientific reasons for not agreeing with the conclusions made by the SGS report
The SGS report concludes that based on ISO 21528-1 (2017) and ISO 21528-2 (2017) test protocols, the sample does not contain bacteria belonging to the family Enterobacteriaceae, and therefore, the sample is free from Erwinia as well. Based on the above test report, news reports were released through public media (Daily News, 24th of December 2021 and News First, 22nd of December 2021) saying that the organic fertiliser shipment was free from plant, animal and human pathogens including Erwinia.

Given below are the scientific reasons to emphasise that the conclusion drawn is erroneous:
(a) Because of the highly selective nature of the VRBGA medium, all bacteria in the Enterobacteriaceae family will not develop colonies on it when the sample is tested by the above ISO procedures. Accordingly, Non-enteric bacteria and bacteria which are usual inhabitants of bile salt-free environments, and hence are not resistant to the effect of bile salts will not develop on the culture medium even if they are present in the test sample. Therefore, it is erroneous to conclude that the sample is free from Erwinia;
(b)
As a selective medium, VRBGA targets the detection of bacteria belonging to the Enterobacteriaceae family only. This medium suppresses the growth of all Gram positive type bacteria and other non-Enterobacteriaceae bacteria. There are many plant, animal and human pathogenic bacteria which belong to many other taxonomic families (i.e. other than Enterobacteriaceae/non-Enterobacteriaceae). Therefore, based on this test report, it is not possible to conclude that the sample is free from plant, animal and human pathogens from taxonomic families other than Enterobacteriaceae;
(c)
In giving their conclusion, the SGS report assumes that Erwinia belongs to the family Entereobacteriaceae. However, according to the most recent taxonomic classification of bacteria as given in Reference No. 3, the genus Erwinia is no longer a member of the Family Enterobacteriaceae. Accordingly, Erwinia genus is now included in a separate family named Erwiniaceae. This recent taxonomic classification is based on molecular biological methods of bacteria identification. In contrast, the previous classification, under which the genus Erwinia had been classified within the Family Enterobacteriaceae, was based on morphological and biochemical features of bacteria. It is widely acknowledged that molecular biological methods of bacteria identification are superior to methods based on morphological and biochemical features. This is equivalent to identifying a person by his/her genetic make-up as opposed to his/her external features and performance.
Organisms/microorganisms belonging to different taxonomic strata have unique behaviours and unique characteristics. These specific behaviours and features should be considered carefully when selecting appropriate methods for detecting microorganisms. Inappropriate selection of detection methodology leaves a very high possibility for a majority of microorganisms passing undetected, leading to erroneous conclusions about test samples.
If the fertiliser supplying company had the intention of clearing its good name that the shipment was free from Erwinia, the most appropriate methodology was to use specific, standard microbiological methods that are available to specifically detect the genus Erwinia or selected species of Erwinia. Or, the most logical and scientific approach should have been to test the sample for the presence of any culturable microorganism (using a standard microbiological technique suitable for this purpose) and if microorganisms were detected, to confirm their identity for genus Erwinia or species of Erwinia, subsequently. Instead what has been attempted through the test procedures that have been adopted by the SGS laboratory in Singapore was to try to convince the absence of Erwinia in an indirect way using a less sensitive and highly selective method targeting a particular group of bacteria with a questionable approach.
According to ISO 21528-1 (2017) and ISO 21528-2 (2017) test procedures, there is no specific guideline on the way of sampling. It is stated that the sampling is done on a case-specific way (if standard procedures are available for a given sampling material) and when such standards are not available, it is done via mutual agreement of the relevant parties.
According to the SGS report, the sample submitted for testing (Figure 2) is a parcel with approximate dimensions of 30 cm x 15 cm. The content within it could be estimated to be about 500 – 1000 g. It is highly questionable whether the amount of fertiliser sample submitted for testing was truly representative of the whole bulk of the 20,000 metric ton shipment. Furthermore, the number of samples submitted for testing seems to be only one, which is also not a sufficient number to represent the bulk of the shipment. There are widely-accepted sampling protocols that should have been used to obtain a series of representative samples. In scientific research, results based on a single sample are rarely, if ever, accepted as valid.
(See Figure 2: The sample used for testing as shown in the SGS test report)
ISO 21528-1 (2017) and ISO 21528-2 (2017) test procedures emphasise that the samples used for testing should be a proper representation of the bulk. In addition they provide clear guidelines on the quality of the sample at the time of its submission for testing. Accordingly, the sample should not have been damaged or changed during transport and storage. It is highly doubtful if the latter requirement could have been fulfilled from a shipment that had been stored in a bulk carrier for more than three months. Therefore, the validity/accuracy of the test results is questionable as the results do not reflect the initial quality/status of the shipment.
Based on above questionable/doubtful test procedures, it is not possible to conclude that the organic fertiliser sample tested by the SGS laboratory is free from plant, animal and human pathogens including Erwinia. The biggest concern arising from the conclusions of this nature is their negative impact on policy decisions and thereby the potential catastrophes that could be encountered by the nation as a whole. For example, the potential disease damage to a wide range of crops grown in Sri Lanka that could be caused by application of an organic fertiliser containing a plant pathogen such as Erwinia is enormous and could last for a very long period, incurring billions of rupees. Similarly, diseases to plants, animals and humans that could be caused by the wide range of microorganisms that are not detected by these highly-selective test protocols adopted by the SGS could lead to substantial economic and environmental damage along with human health hazards. These could take several years and several billions of rupees to be brought under control.
The meek response of the Sri Lankan authorities to the legal challenge of Qingdao based on the erroneous and questionable SGS test report from Singapore demonstrates their readiness to accept anything coming from an international agency while ignoring the scientifically-valid tests and conclusions of the Sri Lankan scientists. This sends a very negative detrimental signal to the national scientific community and to the nation as a whole.
References:
1. UK Standards for Microbiology Investigations: Identification of Enterobacteriaceae (2013), Issued by the Standards Unit, Microbiology Services, Public Health England, 32 pp.
2. Baruzzi, F., Cefola, M., Carito, A., Vanadia, S. and Calabrese, N., (2012). Changes in bacterial composition of zucchini flowers exposed to refrigeration temperatures. The Scientific World Journal, https://doi.org/10.1100/2012/127805, 6 pp.
3. Adeolu, M., Alnajar, S., Naushad, S. and Gupta, R.S., (2016). Genome-based phylogeny and taxonomy of the ‘Enterobacteriales’: proposal for Enterobacterales ord. nov. divided into the families Enterobacteriaceae, Erwiniaceae fam. nov., Pectobacteriaceae fam. nov., Yersiniaceae fam. nov., Hafniaceae fam. nov., Morganellaceae fam. nov., and Budviciaceae fam. nov. International Journal of Systematic and Evolutionary Microbiology, 66(12), 5575-5599.
Features
Combining local resources,traditional knowledge and science to build a food-secure Sri Lanka
World Food Day 2026: Innovating today for a better food future
by Dr. Kaushalya Wijayasekara
What will be on the Sri Lankan dinner table ten years from now? Will our children be able to get nutritious food at a price their families can afford? Will farmers be able to grow enough despite changing weather and rising costs? And how much of the food we produce will actually reach the consumer, instead of being lost or wasted along the way?
These questions can’t wait. A farmer faces unpredictable weather. A family faces rising food costs. Fruit goes unsold after a good harvest. Some children do not get enough nutrition. The future of food is tied to the future of Sri Lanka itself.
World Food Day 2026 is a chance to look beyond the immediate problems and ask whether we can build a food system that feeds our people well, gives farmers better opportunities, protects the environment and makes better use of what we already have. The answer can be yes, but we will have to think differently.
We are not starting from zero. Sri Lanka has diverse crops, fisheries, traditional food knowledge, indigenous varieties, research institutions, universities and a young generation able to create new solutions. What we need is to bring these together and act. Producing more will not secure our food future on its own. It will depend on how intelligently we produce, process, preserve, distribute and consume food.
Making more of what we already have
Innovation does not always mean inventing something new. Often it means finding better uses for the resources we have.
Sri Lanka grows traditional rice varieties, kurakkan, green gram, cowpea, jackfruit, breadfruit, cassava, sweet potato, coconut and palmyrah. All of them have great potential for modern, nutritious, value-added foods. Jackfruit and breadfruit can be made into flour and other convenient products. Traditional rice varieties can go into new foods that suit changing consumer needs. Palmyrah, with its strong cultural heritage, can create new income through better processing, packaging, quality assurance and market development.
The aim is to connect our traditional food knowledge with modern consumer needs and technology, while keeping our food heritage.
Stop wasting the food we produce
Reducing food loss and waste should be a major priority. Seasonal fruits such as mango, banana, papaya and pineapple can be lost in large quantities when production exceeds demand or when storage, transport and processing facilities are inadequate. With suitable technology, these fruits can become dried products, pulps, powders, beverages and other shelf-stable foods.
Agricultural and fisheries by-products are resources too. They could be turned into food ingredients, animal feed, bio-based products and other useful materials, which would move us toward a more circular food economy.
Technology alone is not enough. We need stronger local processing facilities, cold storage, efficient transport, collection centres and market information systems, especially close to where food is produced. Cutting food loss raises the value of what our farmers and fishers already produce.
Nutrition and food safety come first
Food security means more than having enough food. People also need food that is safe and nutritious.
Sri Lanka can develop affordable, nutritious foods from local pulses, grains, vegetables, fruits and fish. Children and other vulnerable groups should get particular attention. Schoolchildren in particular deserve a focus: safe, nutritious, locally sourced products for school feeding programs would support child nutrition, local farmers and domestic food industries at the same time.
Food safety must stay at the centre of food innovation. Good hygiene, quality control, laboratory testing, traceability and appropriate food safety systems are what make new products safe as well as attractive and nutritious.
A food system that can cope with climate change
Climate change is already affecting agricultural production, water availability, crop yields and food prices. We need food systems that can handle changing conditions. That means climate-resilient crops, efficient water use, soil and water conservation, better storage and resource-efficient food processing.
Traditional knowledge matters here. Generations of Sri Lankan farmers have developed practices suited to local climates and ecosystems. Combining that experience with modern science can give us solutions that fit local conditions and are sustainable. Technology alone will not build the future of food. Science, experience and local knowledge together can.
Give young people a bigger role
Sri Lanka’s universities have an important part to play in shaping our food future. Young people should be encouraged to identify real problems in the food system and work on practical solutions in areas such as food waste, sustainable packaging, nutrition, food safety, modernising traditional foods and digital technologies.
A good research project should not always end as a research paper. Where appropriate, research should be supported to move on to products, technologies, enterprises and community solutions. That needs stronger partnerships between universities and industry, along with mentoring, research funding, business support and market connections. If young researchers and entrepreneurs can turn their ideas into viable food innovations, both consumers and producers will benefit.
A pathway designed for Sri Lanka
We do not need to copy food-system models from other countries. We can build a pathway that suits our own resources, culture and needs. It would bring together local resources, traditional knowledge, scientific research, appropriate technology and entrepreneurship, with farmers, fishers, universities, research institutions, food industries, entrepreneurs and policymakers working side by side.
The goal goes beyond selling raw materials. We need to create more value, reduce waste, improve nutrition, generate jobs and strengthen rural livelihoods. This matters especially for small and medium-scale food enterprises, which can drive local economic development when they get the right technical, financial and market support.
The choices we make today
The food future will not create itself. It will be shaped by what we grow, what we research, what we process, what we consume and what we choose not to waste.
So, the question for World Food Day 2026 is this: what can we do today so that every Sri Lankan has safe, nutritious, affordable and sustainable food tomorrow?
The answers are already around us, in our farms, fisheries, food businesses, universities, laboratories and communities. We have the resources, the traditional knowledge, the scientific expertise and talented young people. What we need now is to connect them and act.
A better food future begins with the choices we make today.
Dr. Kaushalya Wijayasekara
Senior Lecturer, Department of Biosystems Technology, Faculty of Technology, University of Ruhuna
Features
20th Anniversary of Digampathana blast – the day Sri Lanka Navy cried
By Admiral Ravindra C Wijegunaratne
WV, RWP and Bar, RSP, VSV, USP, NI (M) (Pakistan), ndc, psn, Bsc
(Hons) (War Studies) (Karachi) MPhil (Madras)
Former Navy Commander and Former Chief of Defence Staff
Former Chairman, Trincomalee Petroleum Terminals Ltd
Former Managing Director Ceylon Petroleum Corporation
Former High Commissioner to Pakistan
The Digampathana suicide truck attack on 16th October 2006 remains the deadliest single strike in Sri Lanka Navy history, leaving scars that time cannot erase.
It was a seemingly ordinary Monday morning on 16 October 2006, but the calm of that day would soon be shattered in a way none of us could have imagined. As the Commandant of the Naval and Maritime Academy and Flag Officer Commanding Naval Fleet at Trincomalee, I was aware that a number of my cadets were travelling that morning, part of a convoy of fifteen buses carrying naval personnel from Trincomalee, Colombo, and other bases, heading toward Dambulla to rendezvous with another group. The convoy also included trucks and escort vehicles, a routine movement planned and coordinated with the army to ensure the roads were clear. The morning started quietly. Some personnel greeted friends, handed over their weapons, or strolled to a nearby tea shop. It all seemed so ordinary—too ordinary for what would come next.

Sri Lanka Navy sunk LTTE Ships carrying arms, ammunition and warlike materials thousand miles away from Sri Lanka in Indian Ocean in September and October 2007.
By late morning, both convoys had reached the small ground at Digampathana, near the Sigiriya junction, and personnel mingled briefly, unaware that a carefully orchestrated act of terror was waiting. Then, suddenly, an empty half-truck veered directly into the convoy. It exploded with a ferocity I can still recall as if it were yesterday. Nuts, bolts, and high explosives tore through the air. Pandemonium erupted instantly. I later learned that 107 of our naval personnel were killed on the spot and another 153 critically injured. The scene was indescribable—bodies scattered, vehicles mangled, personal effects strewn across the ground. I remember later hearing that the head of the suicide bomber was recovered more than 100 meters away from the blast, a grim testament to the sheer force of the explosion.
I was in my office at the Naval and Maritime Academy when my mobile phone rang. A young midshipman from the 21st intake called, his voice trembling: “Sir, there was a huge explosion at the convoy point! Many are dead … my batch mate Wijesundara is among them.” I immediately jumped into my jeep with my escort Chief Petty Officer and driver and rushed to Digampathana, relying on every ounce of my driving skill to reach the scene. The journey, which usually took little more than an hour, felt endless that day, each passing mile weighed down by dread.
When I arrived, I was confronted with a sight that no training can prepare you for. The injured were being rushed to Dambulla Hospital, where doctors and nurses worked tirelessly, improvising in ways that saved lives despite the overwhelming chaos. I went back to the site after visiting the hospital. The remains of our naval personnel were scattered across the ground, and someone had begun collecting weapons and protective gear. I immediately contacted Surgeon Rear Admiral Nico Jayasekara and received his instructions: collect all body parts in separate bags and transport them to the Trincomalee Naval Hospital mortuary. This gruesome work had to be done with care and dignity, and it filled the icebox in my vehicle. Through DNA testing initiated by Rear Admiral Nico, we were able to identify every naval personnel lost that day, bringing some closure to grieving families.
The Navy Commander at the time, Vice Admiral Wasantha Karannagoda, was devastated. I had worked closely with him and knew how deeply he cared for his men. He ensured that the fallen were honoured with full ceremonial naval funerals at Welisara Naval Base, attended by families and comrades. Sixty-seven funerals were conducted in a single day—a number that still haunts me.
The Digampathana attack remains the largest single loss of naval life in our history. It was a day of sorrow, but also a day that reinforced our resolve. The tragedy galvanized the Navy to target the LTTE Sea Tiger wing with renewed determination and reshaped our maritime operations forever. Every time I think of that day, I remember not just the lives lost, but the courage, professionalism, and dedication of those who survived, those who treated the injured, and those who ensured the fallen were honored properly. May the souls of our naval hero’s rest in peace, their sacrifice guiding us and inspiring generations of naval personnel to come.
Features
‘Murder at Whitby Abbey’
Tales of Mystery and Suspense – 24
I was intrigued by the title of a book I found in a book drop at the condominium of a friend, Murder at Whitby Abbey, and I brought it home with me though I will not be able to return it in the near future. It was described on the cover page as ‘a standout in the crowded medieval mystery field’, though I fear I do not know of other books in this field, apart from the Cadfael series, which I have dealt with earlier.
The book, by Cassandra Clark, is set during the reign of Richard II and has as a backdrop his precarious position, which led to his being replaced, and murdered, by his cousin Henry, who reigned as Henry IV. It is a gloomy book, the action taking place in the twelve days of Christmas leading up to the Epiphany. And the gloom is pervasive, even though this is supposed to be a time of festivity, with mummers performing, and many of those in the guest house where the heroine stays going to town to enjoy themselves, with much drinking and much music, which also fills the guesthouse.
The heroine Hildegarde is a nun, sent to try to acquire a relic being sold by Whitby Abbey, though this was also a penance set by the Abbot of the monastery that governed her abbess because she had had sex with a man. Soon after she and her companions reach the Abbey set high on a cliff, she finds that there are other bidders, and soon suspects that the hierarchy, not perhaps the Abbot who seems a weakling, but his rapacious bursar, is determined to make money, and not above creating false relics to sell to several aspirants.
After Hildegarde and her Cistercian companions – Whitby is a Benedictine Foundation – two monks, Gregory and Egbert, and a young priest Mark, reach the abbey, they find that Aelwyn, a monk they had met on their way to the guesthouse had died. This was in the apple store, and they realize, when they find the surplices of novices stuffed into the air vents, that he had been left to suffocate in the overwhelming scent of apples.
The Cistercians are asked to look into the death, perhaps because they are likely to get no cooperation from the Abbey folk, but perhaps because those in charge are keen to know what happened. And the infirmarer, an old monk, suggests Hildegarde talk to a man called Edred who worked for the bursar, and had been a friend of Aelwyn’s. But Edred too is killed, before he can keep an appointment he had made with Hildegarde, drowned in a pool near the farmhouse of the Abbey.
Meanwhile tensions arise between the fisherfolk and the abbey for the bursar wants to charge them for using the beach that technically belongs to the abbey to dry their fish and their nets. This leads to physical battles, when the guards used by the abbey, under the command it seems of the bursar whose determination to make money is not resisted by the abbot and the prior, try to storm the area where the fishermen live.
Hildegard finds out more about what had happened through two youngsters, one of whom Torold is the son of Aelwyn by a woman who worked as a prostitute for a cartel, and with whom Mark fell in love. The other works on the farm and had seen Edred meet someone near the pool, after which that someone left the place by himself. And the boy had also found in the pool a sort of dagger with the seal of the abbey.
He and his dog, and Torold who follows her, rescue Hildegarde from a man at arms who has waylaid her and tries to rape her earlier. Escaping into the abbey she was nearly been raped then by the bursar, but she managed to escape, in the process setting fire to him and the muniments room, which led, when he was rescued, to the discovery of a box with the money he said had been stolen, blame being cast on both Aelwyn and Edred.
Matters come to a head when the fisherfolk try to storm the abbey, being resisted by the men at arms stationed on the towers. But then Hildegarde realizes that behind the murders was the bursar’s clerk, whom she pursued to the cathedral. There is great drama then as she escapes from him when he tries to kill her, and then from the man at arms who had tried to both rape and kill her, but they both fall from the scaffolding she had climbed, the latter coming from a tower where he had been stationed.
Both of them think they run the rapacity of the abbey, the latter claiming to work for the nobles opposed to Richard, who is presented throughout the book as devoted to his subjects, not to power or money. But though the villains die, the bursar continues, having got over the hysteria the fire had caused and his acknowledgment then of guilt – and though the abbot and the prior seem less vicious, whether they will be able to assert themselves is questionable.
Before the climax, when the others in the guesthouse were leaving, Hildegarde found that two of them were in possession of the relic, for which they seem to have paid well. Hildegarde herself had made a derisory offer, but before she leaves the abbot gives her the relic, perhaps in gratitude for what she and her fellow Cistercians had discovered, the abbey having made as much money as it needed and more from the gullible other buyers.
Mark’s inamorata is saved from the stews because she moves in with Edred’s widow whom the bursar had thrown out of the rooms he occupied when her husband was found dead. Hildegarde had paid for lodgings, in a house run by the man who ran the brothels, but he had a kindly side and was going to finance them to make nets for the fishermen.
So, the Cistercians set off for their home as swiftly as they can to get there on the day of the Epiphany, having stopped en route to pray for King Richard whose birthday it was.
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