
A most revealing cooking show
Were it not for the sight being so mentally scarring, Diane Kenwright's cooking show might make a great new dieting regime.
That is because the University of Otago pathology associate professor uses an offbeat Julia Child-style to present everyday foods that show you what diseases look like inside your body.
"There are some esoteric ones, like in pancreatitis ... an inflammation of the pancreas," she said.
"The pancreas has little islets that produce insulin and it also produces enzymes that digest food.
"So, if the pancreas is damaged, those enzymes are released into the abdominal cavities where they start dissolving the fat.
"The collection of that fluid inside the abdomen looks just like chicken broth — it's cloudy and it has little droplets of melted fat in it."
Another delicious dish on her show is a chickpea curry, which bears a remarkable resemblance to a badly infected gallbladder with gallstones.
"The thing is, pathology in general is full of food analogies, because the body is an organic substance and food is an organic substance.
"I just relate to the appearance of food in terms of something that we've not actually seen inside ourselves."
She recommended people who are not pathologists avoid watching the videos because "once you've seen it, you can't unsee it".
"It's a horrible thought, and I think part of the attraction of some of the videos is the slight horror feeling that you get from thinking about it."
Associate Prof Kenwright said her target audience for the shows were medical students and other health science students, because often pathology was seen as "quite dry and unapproachable".
"This shows pathology in an approachable and humorous way, so people might think, 'actually, it could be quite fun to learn about this'."
She has created about 20 short shows in her own kitchen, filmed on her iPhone, and posted to her YouTube channel, The Pathology Cooking Show.
She was a pioneer in online teaching, and in addition to her cooking show, she has more than 100 recorded lectures on her YouTube channel.
The popularity of the shows among her students recently earned her a Royal College of Pathologists of Australasia Konrad Muller Outstanding Teaching Award, which is given to those who show a passion for teaching and whose dedication to their subject inspires their students.
The University of Otago pathology and molecular medicine department head teaches pathology to undergraduate medical students in both Wellington and Dunedin, and she has worked for the university for more than 30 years.
She said she was delighted to be recognised by her peers across Australia and New Zealand.
"It's a real honour to receive this award.
"It is particularly special to have that acknowledgement come from my pathology colleagues."
john.lewis@odt.co.nz
Hashtags

Try Our AI Features
Explore what Daily8 AI can do for you:
Comments
No comments yet...
Related Articles

RNZ News
14 hours ago
- RNZ News
Genetic marker found for rare children's brain disease
A New Zealand-led research team has found new information about the cause of microcephaly, a disease that affects brain growth and function in children. Photo: Image by Gerd Altmann from Pixabay An Otago-led team has uncovered a genetic cause for a rare children's brain disorder. University of Otago associate professor Louise Bicknell, co-author of the study, said the international research team were investigating microcephaly, a developmental disorder where children's brains fail to grow. Dr Louise Bicknell says new research has helped pinpoint a genetic cause of the devastating children's brain disease microcephaly. Photo: Supplied/ University of Otago - Sharron Bennett They pinpointed specific changes in a gene called CRNKL1, and their findings were recently published in the prestigious American Journal of Human Genetics. It was the culmination of a seven-year study of a New Zealand family, Bicknell said. "Their wee girl had really severe microcephaly. Her brain was much smaller than we'd hoped for, and there were quite a few structural things that were abnormal about her brain, so quite unusual." Researchers compared her brain structure with that of nine children overseas who also had the condition. "It was only then that, we realised they all had similar features, of a really small brain, as well as these structural [aspects] of other parts of the brain not being so usual." In a striking discovery, nine of the families also showed genetic changes in the exact same spot in the CRNKL1 gene. It proved there was a strong link between these specific genetic changes and the disorder, and it was an exciting breakthrough, she said. "That's when the heart starts racing and you know you are onto something. Your gut instinct kicks in and says, this can't be a coincidence, this must be something." Lead author Dr Sankalita Ray Das, a postdoctoral fellow at Otago's Rare Disorder Genetics Laboratory, said the research findings clearly showed that CRNKL1 was "crucial" for healthy brain development. "Importantly, this knowledge has provided understanding for families affected by these severe conditions and lays the foundation for further research into why just the brain is affected by these genetic changes." The researchers received funding from the Neurological Foundation of New Zealand, Cure Kids and the University of Otago, Bicknell said. Sign up for Ngā Pitopito Kōrero, a daily newsletter curated by our editors and delivered straight to your inbox every weekday.


Otago Daily Times
2 days ago
- Otago Daily Times
Bid to help families results in discovery
Louise Bicknell. PHOTO: SUPPLIED A journey to help 10 New Zealand families get answers for rare brain disorders affecting their children has led to the discovery of the genetic cause. Co-author and associate professor at the University of Otago Rare Disorder Genetics Laboratory Louise Bicknell said the discovery shed new light on the "incredibly complex" process by which human bodies created the "instruction manuals" essential for building and maintaining our brains. "Our bodies rely on a precise process called 'splicing', to read and process genetic instructions from our DNA and help generate the building blocks required in our body. "While it's known that problems with the machinery that co-ordinates splicing can cause various genetic disorders, this new finding adds to a small but growing recognition of the potential severe impact on brain development in particular." The research team studied 10 New Zealand families impacted by a severe genetic disorder that resulted in affected individuals having profound pre- and postnatal microcephaly (smaller head circumference), with pontocerebellar hypoplasia (underdevelopment in brain stem and cerebellum), seizures and severe intellectual disability. The findings, published in the American Journal of Human Genetics, pinpointed specific changes in a gene called CRNKL1. "Our journey to this discovery began here in New Zealand, through trying to help New Zealand families get answers for genetic disorders affecting their children," Prof Bicknell said. "Then, using our international connections, we were able to identify other families around the world, which was crucial for confirming our findings and understanding the full impact of these genetic changes." In a striking discovery, nine of these families showed genetic changes in the exact same spot in the CRNKL1 gene, she said. All the affected children shared the same severe features, highlighting the strong link between these specific genetic changes and the disorder. Lead author and postdoctoral fellow at the University of Otago Rare Disorder Genetics Laboratory Dr Sankalita Ray Das said the research showed CRNKL1 was crucial for healthy brain development, and that specific parts of the splicing machine had highly specialised roles — far more intricate than scientists previously thought. She said the finding also offered further clues into the complex ways human genes guided brain development.


Otago Daily Times
4 days ago
- Otago Daily Times
Med school project launched
Medical students look on as Sir James Parr, minister of education, lays a foundation stone for the new University of Otago medical school building in Great King St (then simply "King St"), in Dunedin. — Otago Witness, 23.6.1925 One of the most up-to-date The ceremony of the laying of the foundation stones of the new Otago Medical School in King street took place yesterday afternoon. The buildings, with which substantial progress already been made, were beflagged for the occasion, and in view of the threat of rain a large platform had been covered with canvas. Members of the University Council and of the teaching staff accompanied in procession to the platform by Sir James Parr, Minister of Education. A large number of students took up their stand close by in King street, and occasionally enlivened the proceedings with comments and untimely applause. Sir James Parr, on rising to lay the first foundation stone, was greeted with some cries of "Sit down" and cheers from the students. He thanked the chancellor, and the students particularly, for the very cordial reception of the Minister of Education that afternoon. (Laughter.) As a memento of the occasion Sir James was presented with a suitably inscribed greenstone and gold trowel from the contractor, Mr McLellan. Sir James then placed one of the two foundation stones in position and said "Ladies and gentlemen, as Minister of Education, I declare this stone well and truly laid." (Cheers.) Sir Lindo Ferguson then proceeded to lay the other foundation stone. The proceedings closed with the singing of the National Anthem, and the students joined in a stirring haka. The building is of brick and Oamaru stone, the dimensions being 230 feet x 100ft — three storeys and basement on the street frontage and four storeys and basement over a section in the rear. The King street frontage is of striking appearance, and is designed in Renaissance style. The new building will accommodate the anatomy, physiology, and pharmacology etc. The special features in the anatomy department are the dissecting room, measuring 69ft x 49ft, museum 105ft x 51ft, and two lecture rooms, tho larger of which is 49ft x 35ft, the seats being arranged in amphitheatre type. The new histology department has a very modern classroom measuring 45ft x 40ft, with the necessary preparation room and laboratories all having direct communication. Physiology has a very fine lecture room measuring 37ft x 36ft, being on the amphitheatre principle; adjoining are preparation, diagram, and apparatus room. The larger of the chemistry rooms in this department measures 61ft x 49ft, and is to be fitted up on the most approved lines. The numerous laboratories, research, and experimental rooms are spacious, well lighted and airy. The main room in the pharmacology department measures 52ft x 21ft, and has operating and preparation rooms adjoining. Throughout the building are spacious rooms for professors, students, cloak rooms and laboratories. Large common rooms for both men and women students, the former measures 50ft x 23ft 6in, the latter 31ft x 25ft 6in. The main staircase is of concrete, and occupies a very central position just beyond the spacious entrance hall. This new structure, when completed, will be one of the most up-to-date medical schools of the present day. — ODT, 19.6.1925 Compiled by Peter Dowden