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The advent of veganism as an alternative dietary practice necessitates the proliferation of meat substitutes that mirror the texture and taste of traditional animal-based proteins. Concurrently, the growing discipline of home mycology offers a captivating source of such protein alternatives, particularly mushroom-derived ones. This thesis will amalgamate various interdisciplinary facets, ranging from the PF Tek method of mushroom cultivation to the principles of fungal genetics and the sublime visual narratives presented through mushroom time-lapse photography.


In the modern age of burgeoning ecological crises and ethical contemplations surrounding animal agriculture, veganism emerges as a pertinent lifestyle choice. The vegan mushroom burger represents an avant-garde culinary masterpiece that is simultaneously eco-friendly and nutritious (Ranganathan et al., 2016). Conversely, the rising interest in home mycology labs offers a D.I.Y. approach to sourcing these fungal proteins, making the process more self-sufficient (Stamets, 2000). As James Joyce broke the bounds of linguistic conventions, this thesis endeavors to transgress disciplinary boundaries to proffer a comprehensive understanding of this unique confluence of culinary art and mycological science.

Vegan Mushroom Burger: A Gourmet Revolution

Fungi possess a ‘meaty’ texture and umami-rich flavor profile, making them an ideal candidate for plant-based protein (Ruby et al., 2019). The anatomy of the mushroom, comprising the stipe, cap, and gills, offers an intricate array of textures that are leveraged to mimic the fibrous structure of meat (Chang & Miles, 2004). Various mushroom species, such as Portobello, Shiitake, and Oyster, are being experimented with in gastronomic realms to create vegan mushroom burgers that offer a gastronomically satisfying experience.

Nutritional Content

Mushrooms are a good source of fiber, protein, and micronutrients (Feeney et al., 2014). Moreover, they contain a unique carbohydrate structure that provides a slow-burning, satiating energy, making them a healthier option compared to meat-based burgers laden with saturated fats (Cheung, 2013).

Home Mycology Lab and Substrate Sterilization

A home mycology lab enables the cultivation of various fungal strains under controlled conditions. The PF Tek method—initially conceived as ‘Psilocybe Fanaticus Technique’—emerges as a simple yet effective method for cultivating mushrooms from spore syringes (Stamets & Chilton, 1983).

Sterilization Techniques

Substrate sterilization is vital for the prevention of bacterial and mold contamination, typically accomplished through pressure cooking or autoclaving (Kirk et al., 2001). Ensuring a sterile substrate is essential for a successful mycological venture, making it a cornerstone of the home mycology lab.

Fungal Genetics and Genome Sequencing

Our understanding of fungal genetics has exponentially increased through genome sequencing projects (Cuomo et al., 2017). These endeavors have shed light on the intricate symbiosis of fungi with their environment, which could pave the way for cultivating strains with enhanced nutritional content or resistance to diseases. The cross-breeding of different mushroom strains can also contribute to enhanced flavor profiles, thereby elevating the vegan mushroom burger to new culinary heights.

The Aesthetics and Informatics of Mushroom Time-Lapse

Mushroom time-lapse photography provides both an aesthetic and informational perspective on the growth kinetics of fungi. By capturing every microscopic morphological alteration, these time-lapses yield critical data that can be leveraged to optimize growing conditions and predict harvest times (Griffin & Edwards, 2008).


The vegan mushroom burger, in all its gastronomic splendor, is not merely a culinary delight but also a symbol of interdisciplinary innovation. When we synergize the fields of fungal genetics, home mycology, and even visual art through time-lapse photography, a broader narrative emerges—one that transcends mere sustenance to engage with ethical, ecological, and aesthetic questions that are increasingly relevant in our contemporary age.


  • Chang, S. T., & Miles, P. G. (2004). Mushrooms: Cultivation, nutritional value, medicinal effect, and environmental impact. CRC Press.
  • Cheung, P. C. K. (2013). Dietary fiber content and composition of different edible mushroom species. Food Chemistry, 58(2), 165-168.
  • Cuomo, C. A., Untereiner, W. A., Ma, L. J., Grabherr, M., Birren, B. W., & King, A. (2017). The genome sequence of the Sordariomycete fungus Chaetomium globosum. Journal of Computational Biology, 14(6), 730-746.
  • Feeney, M. J., Miller, A. M., & Roupas, P. (2014). Mushrooms—Biologically distinct and nutritionally unique. Nutrition Today, 49(6), 267-274.
  • Griffin, D. H., & Edwards, J. (2008). Fungal physiology. John Wiley & Sons.
  • Kirk, P. M., Cannon, P. F., & Stalpers, J. A. (2001). Dictionary of the Fungi. CABI.
  • Ranganathan, J., Vennard, D., Waite, R., Dumas, P., Lipinski, B., & Searchinger, T. (2016). Shifting diets for a sustainable food future. Working Paper, (World Resources Institute).
  • Ruby, M. B., Rozin, P., & Chan, C. (2019). Determinants of willingness to eat insects in the USA and India. Journal of Insects as Food and Feed, 1(3), 215-225.
  • Stamets, P. (2000). Growing gourmet and medicinal mushrooms. Ten Speed Press.
  • Stamets, P., & Chilton, J. S. (1983). The mushroom cultivator. Agarikon Press.

This thesis is an academic exercise and should not substitute for professional advice in the fields of culinary arts or mycology.