6 Pre-industrial Fisheries and Historical Fishing Methods
6.1 Introduction
Before industrial engines, synthetic gear, and standardized management categories, fisheries were already technologically rich. Pre-industrial fishing methods were not “simple” in any useful sense. They were tuned to current, tide, season, fish behaviour, and locally available materials. In many places, the fishing device itself was a condensed ecological model: it worked only if its maker understood where fish moved, how they oriented to flow, what materials resisted teeth or abrasion, and when a site could be fished safely.
This chapter creates space for that record. The point is not antiquarian curiosity. It is to show that historical fishing technologies can be read as evidence of accumulated knowledge, selective harvesting, and environmental design. Seen this way, pre-industrial fisheries belong to the research background for ethnofishecology because they preserve relationships among craft, ecology, and social organization that later industrial gear often obscured.
A working pre-industrial fishing device encodes assumptions about flow, substrate, season, and fish behaviour. Read the device and you recover the ecological model; read the ecological model and you recover the device.
6.2 Methods and Evidence
Evidence for pre-industrial fisheries comes from several partial archives: museum collections, oral histories, community organizations, ethnographic writing, and the surviving use of older methods in living fisheries. None of these sources is complete on its own. Museum objects preserve materials and form but often lose context; oral traditions preserve process and meaning but may not be widely documented; archaeological remains can show structures such as weirs or sinkers without capturing the full practice around them.
The chapter therefore treats fishing technologies as socio-ecological systems rather than isolated artifacts. The emphasis is on what these methods reveal about selectivity, habitat knowledge, labour, and continuity.
For the Pacific Islands in particular, Robert D. Gillett’s work provides one of the strongest bridges between historical and contemporary fisheries analysis. His FAO syntheses treat coastal fishing as a central part of Pacific Island food systems, culture, and employment, and document the major types of coastal fishing and their relationship to offshore tuna development (Gillett 2010, 2011). His short history of industrial fishing in the Pacific Islands is especially useful because it shows how older inshore and reef-based methods were not simply replaced by industrial systems but persisted alongside and were transformed by later commercial and tuna-centered fisheries development (Gillett 2007). His earlier case studies of traditional tuna fishing in Tokelau and at Satawal document tuna-specific techniques, gear, and ecological knowledge at island scale (Gillett 1985, 1987).
6.3 Why Historical Methods Matter
Historical fishing methods matter for three reasons. They show that fisheries knowledge was often encoded in material design, not only in spoken tradition. They document forms of selectivity and effort control that do not map cleanly onto modern categories of “gear type.” They preserve regional distinctiveness that disappears when fisheries history is summarized only as a transition from subsistence to commercialization.
6.4 Distinctive Technologies
- Leaf kites, aerial lines, and spider-web lures. Pacific kite-fishing traditions show how little material was needed to build a functional fishing system. Museum collections from the Solomon Islands preserve fishing kites made from leaf material and spider web, indicating a method in which lift, line placement, and lure design were all integral to catching surface-feeding fish such as needlefish (British Museum n.d.a). Related Kiribati records show that fishing kites were also part of Gilbert Islands material culture, not an isolated curiosity (DigitalNZ and Auckland War Memorial Museum Tāmaki Paenga Hira n.d.). Read broadly, these traditions include extremely light leaf-based kite forms, including single-leaf kite practices using large leaves such as breadfruit elsewhere in Oceania, alongside more built-up fishing kites. Capture could therefore depend on aerodynamic control and delicate lure materials rather than metal or bone hooks.
- Kiribati eel traps and reef-trap engineering. I-Kiribati eel trapping shows how trap design can encode species knowledge, household organization, and ritual practice at the same time. Recent documentation records that eel traps were built by experienced fishers from ngea wood, sized in relation to the target eel, and fitted with an internal throat that guided the eel into an interior chamber while making exit difficult (Singh et al. 2025). British Museum records describe the full-sized rabono ni u as a moray-eel trap made from hard coastal wood and coconut fibre (British Museum n.d.b). The same Kiribati research describes permanent fish traps built from coral or stone, with openings oriented by observing the drift of a coconut shell and timed to the movement of the tide (Singh et al. 2025). These are not generic basket traps; they are hydraulic devices based on close reading of lagoon flow and animal movement.
- Haenyeo breath-hold diving and collective stewardship. Jeju’s haenyeo show that fishing technology can reside in trained bodies, social institutions, and marine knowledge as much as in external gear. The UNESCO inscription of the Culture of Jeju Haenyeo describes women divers, including many elders, harvesting abalone, sea urchins, and other shellfish by breath-hold diving without oxygen tanks, while knowledge is transmitted through families, schools, cooperatives, associations, and the Haenyeo Museum (UNESCO 2016). For ethnofishecology, the case matters because it joins fine-grained knowledge of sea conditions and marine life with gendered labour, ritual practice, apprenticeship, and community involvement in managing harvest. Fishing methods are not only tools and traps; they are also embodied skills and institutions that organize access, safety, and sustainability.
- Dipnets, platforms, and river hydraulics. Columbia River salmon fisheries illustrate another kind of engineering intelligence. Oregon Historical Society material on Celilo Falls records that dipnets were the most common traditional nets there prior to dam construction and distinguishes between movable dipnets swept through current and set dipnets positioned where fish fell back or rested in eddies (Oregon Historical Society n.d.). Columbia River Inter-Tribal Fish Commission documentation adds that platform fishing depended on wooden scaffolds built at favorable sites and passed within families, with nets, hoops, bindings, poles, and pitch all selected for particular hydraulic conditions (Columbia River Inter-Tribal Fish Commission n.d.). In smaller rivers, dipnetting remained viable precisely because it gave fishers fine control in swift, rocky currents. The gear cannot be separated from the river architecture around it.
- Spears, weirs, and selective capture. Historical salmon fisheries across the Northwest Coast and Columbia Basin also relied on spears and weirs — technologies that directed fish movement rather than simply intercepting a random catch (Smithsonian Ocean n.d.). Their importance for ethnofishecology lies in selectivity and site knowledge: such methods require intimate familiarity with runs, migration timing, channel geometry, and fish behaviour under changing water conditions.
- Harpoons as living knowledge systems. Harpoons are often misread as merely archaic weapons. Indigenous sturgeon fisheries show a different picture. The Beaty Biodiversity Museum’s collaboration with the Musqueam First Nation presents the sturgeon harpoon not just as an artifact but as a living knowledge web linking language, territory, technology, and responsibility (UBC Beaty Biodiversity Museum n.d.). In that framing, the harpoon is a tool of precision and relationship. Its use depends on judgement about fish position, depth, and movement, and on the ethical responsibilities attached to harvest. That is a different epistemic model from industrial extraction, and it deserves analytical attention on its own terms.
6.5 Interpretation
Across these examples, several patterns recur. First, pre-industrial fisheries were often highly selective, even when they did not resemble modern regulatory notions of selectivity. Second, the skill required to use the gear was inseparable from place: a dipnet without the right current, a kite without the right wind, or a trap without the right tidal opening is not really the same technology. Third, many of these methods joined material efficiency with ecological sophistication. Spider web, leaf fibre, saplings, stone, coral, wood, and sinew were not signs of technological absence; they were local solutions fitted to local fisheries.
These methods also reveal how fishing technologies were embedded in social organization. Household ownership of traps, family control of platform sites, intergenerational teaching, women’s diving associations, and rituals around harvest all point to fisheries as institutional systems as much as technical ones.
6.6 Conclusion
Pre-industrial fisheries deserve a full chapter because they supply texture that broad histories often flatten. They show that fishing methods were historically diverse, materially inventive, and ecologically informed long before industrialization. For ethnofishecology, they matter not as relics but as evidence: they document how knowledge of wind, current, behaviour, habitat, and social rules became durable in gear, craft, and fishing place.