Provincial College of Porterville Working Paper Series in Covenantal Political Economy Working Paper No. 17
Albrecht Wegmüller, Chair of Public Works and Civil Covenants with reference to the typological work of H. Tschudi Porterville, Eleventh Month 3015
Abstract
This paper extends the infrastructural analysis of preceding installments by addressing the question of energy supply across Bravia. The argument proceeds from two premises established in earlier papers: first, that Bravian infrastructure is sized and sited according to covenantal premises that constrain rather than maximize throughput; second, that the productive base of each settlement and region must be rooted in primary production rather than in derivative dependence on distant supply. Energy in Bravia accordingly exhibits a markedly polycentric pattern, with each region drawing principally on the energy sources native to its own geography and supplementing modestly through inter-regional transfer where this can be done without creating extractive dependencies. The paper sets out the principal energy sources, identifies the regional mix likely to obtain in each province and amphoe type, considers the comparative costs and the resulting price structures faced by households and producers, and traces the implications for settlement and productive life.
I. Introduction
Energy questions in Bravia are not principally questions of generation capacity or transmission technology, although both matter in their place. They are first questions of covenantal compatibility: what sources can a community draw on without compromising the rooted, multigenerational, and primary character of its productive base; what sources can be transferred between communities without creating the dependencies that the covenantal procedure exists to prevent; what sources are appropriate to the scale of settlement that the transportation and resource constraints permit. These prior questions shape the technical and economic choices in ways that distinguish the Bravian energy economy sharply from that of foreign nations.
This paper proceeds in five parts. The first sets out the principal energy sources available in Bravia and their general characteristics. The second traces the regional mix likely to obtain in each province. The third examines the cost structure and price differentials. The fourth considers the implications for household and productive life. The fifth indicates the foreseeable trajectory of energy development in the recently opened provinces.
II. The Principal Energy Sources
Eight energy sources constitute the substantive Bravian energy economy. Each is discussed in turn, with attention to its covenantal standing, its geographic distribution, and its characteristic uses.
Wood and charcoal are the foundational household and craft energy sources across most of Bravia. Wood is cut from managed forests under grange supervision, with rotation periods set to the regenerative capacity of each forest type and with mandatory replanting requirements that have been refined over generations of Bravian practice. Charcoal is produced by traditional kiln methods in the silvan amphoe and shipped to neighboring amphoe for forge work, glasswork, and other applications requiring the higher and cleaner combustion that charcoal provides. The covenantal standing of wood and charcoal is excellent — the grange-supervised rotation system makes wood production genuinely multigenerational — and the cost is modest in regions with substantial forest cover and rises with distance from such cover.
Hydroelectric power is the principal source of electricity in the developed provinces. The Eastern River and the Western River both support substantial run-of-river installations along their courses, and the smaller tributaries support smaller works in the amphoe through which they pass. The Delta confluence permits unusually rich hydroelectric development under the riparian commission’s framework, with generation shared among the six allied nations on terms specified by the commission’s protocols. The covenantal standing of hydroelectric power is good, with two reservations: large impoundments that flood substantial valleys are disfavored on grounds of displaced communities and disrupted agricultural land, and even small installations require careful coordination with the riparian commission to avoid disrupting fish migration and downstream agricultural water rights. The cost of hydroelectric electricity in regions well-served by it is among the lowest in Bravia.
Coal is mined at several substantial deposits, principally in the mountains of Middle and Northern Bravia, and is used both for industrial heat — particularly in the metalworking and glassmaking amphoe — and as a winter household fuel in the colder regions. The covenantal standing of coal is mixed: the mining itself is a legitimate productive activity within the framework developed for mining amphoe in earlier papers, with the standard requirement of multigenerational planning and orderly transition when deposits are worked out, but coal combustion produces smoke and ash that the Bravian preference for clean air and clean water finds undesirable, and coal use is therefore concentrated where wood and charcoal cannot meet the demand. The cost of coal at the mine mouth is modest; the cost delivered to amphoe distant from the mining regions reflects the substantial transportation costs imposed by the road and rail network.
Petroleum and refined petroleum products — gasoline for vehicles, kerosene for lamps and stoves, fuel oil for heating and industry, lubricating oils for machinery — are produced from the modest petroleum deposits in the Western and Southwestern provinces and supplemented by imports through the Free Port. The covenantal standing of petroleum is contested within Bravia. Domestic petroleum production is treated as an extraction-node activity in the Tschudian typology and is subject to the standard requirements of orderly extraction with planned transition; imported petroleum is subject to the standard cautions about the Free Port’s extraction basin and the covenantal hazards of dependence on distant suppliers. The result is a Bravian petroleum economy that is deliberately smaller than it would be in a comparable foreign nation, with petroleum consumption concentrated in vehicles, in certain industrial applications, and in lighting where electricity has not yet reached, and with active policy discouragement of petroleum substitution where wood, charcoal, or electricity could be used instead. The cost of petroleum is moderate where domestic supply suffices and rises with reliance on imports.
Wind is captured in two principal forms: traditional windmills for grinding grain and pumping water, which remain widespread in the agricultural amphoe and which represent one of the most covenantally satisfactory forms of energy in Bravia (rooted, multigenerational, locally maintained, modest in scale); and electrical wind generation at the larger scale, which is being introduced in suitable locations along the coast and on exposed ridges in the interior. Electrical wind generation faces the standard Bravian skepticism toward novel technologies that depart from rooted craft practice, but it has been gaining acceptance in suitable locations under careful provincial review. The cost of traditional windmilling is very low to the household and amphoe that maintains it; the cost of electrical wind generation is comparable to hydroelectric where the wind resource is good.
Solar energy is captured in two forms as well. Passive solar — the design of buildings to gather sunlight in winter and reject it in summer — is universal in Bravian construction, refined over generations of building practice and considered an integral part of competent Bravian architecture rather than a separate energy technology. Active solar — photovoltaic generation and solar-thermal water heating — is being deployed selectively in suitable locations, particularly in the southwestern provinces where insolation is high. Photovoltaic panels are imported through the Free Port and are accordingly subject to the standard cautions about import dependence; domestic Bravian manufacture of photovoltaic equipment is being developed in several producer towns but has not yet reached the scale at which the Free Port import channel could be substantially substituted. Solar-thermal water heating is widely manufactured in Bravia and is widely deployed where the climate permits.
Animal traction — work performed by horses, oxen, and donkeys — remains a substantial component of the Bravian energy economy and is usually omitted from foreign accounts because foreign analysts categorize it as agriculture rather than as energy. In Bravia it is correctly treated as an energy source, with feed calories converted to work output through animal husbandry that has been refined over generations. Animal traction performs the bulk of the field work in the agricultural amphoe, much of the local hauling on cartways and footways, and the steepest segments of the road network where mechanized transport is impractical. The covenantal standing of animal traction is excellent, given that the prohibition on sterile crossbreeds is observed and that the husbandry meets the standard humane requirements. The cost is bound up with the agricultural economy generally and is not separately tabulated in most amphoe accounts.
Human labor must also be recognized as an energy source, particularly in the older crafts and in the household economy. Hand tools, foot-powered machines (lathes, looms, sewing machines, pottery wheels), and the substantial human labor that goes into Bravian household production all represent real energy consumption that is again usually omitted from foreign accounts. Bravian craft practice deliberately preserves the human-powered scale of much production work, on the principle that work performed at human scale by competent hands produces a different and generally better result than work performed by mechanical substitution.
The deliberate omission of nuclear energy from this list reflects the Bravian rejection of the technology on covenantal grounds developed at length in a separate paper of this series. Bravia possesses the technical capacity to construct nuclear generation but has chosen not to, on the grounds that the multi-millennial waste management requirements exceed what any human community can undertake to bind future generations to, and the scale and centralization of nuclear generation are incompatible with the polycentric pattern of Bravian energy supply.
III. The Regional Energy Mix
Each Bravian region exhibits a characteristic energy mix determined by its geography, its productive base, and its position within the road and river network. The mixes can be set out by province as follows.
Northern Bravia is dominated by wood and charcoal for household and craft energy, supplemented by traditional windmilling in the more open districts, animal traction in the agricultural amphoe, and modest hydroelectric installations on the smaller mountain rivers. The province is deliberately underdeveloped as a strategic buffer, and consequently has not received the larger hydroelectric works or the rail-based coal supply that would substantially alter this mix. Coal use is limited to the mining amphoe themselves and to the few coastal towns that can receive coal shipments by sea. Petroleum use is modest, concentrated in the diplomatic and military vehicles that connect the province to the rest of Bravia. Electricity is available in the central settlements of the larger amphoe and in the priestly and governmental buildings, but is not yet universal in households. The energy economy of Northern Bravia is the most traditional in the country and is likely to remain so until the strategic premise of underdevelopment is revised.
Middle Bravia exhibits the most diverse and developed energy mix in the country. Hydroelectric power from the Eastern River and its tributaries supplies abundant electricity to the central settlements and to a substantial fraction of the surrounding farms. Wood and charcoal remain the principal household heating fuels, drawn from the well-managed forests of the Middle Bravian uplands. Coal is used in the metalworking and glassmaking amphoe and as a supplementary winter heating fuel in colder districts. Petroleum supplies vehicle and industrial demand at moderate volume. Wind and solar generation are being deployed selectively. Animal traction remains universal in the agricultural amphoe. The cumulative effect is an energy economy that is genuinely polycentric, with no single source dominating and no amphoe dependent on a single distant supply.
Over-The-Eastern-River Province, recently opened, exhibits a mix that is currently weighted toward wood, charcoal, animal traction, and the modest petroleum supply that can be moved into the province from New Porterville and Port Esperance. Hydroelectric installations on the smaller rivers of the province are under development and will gradually thicken the electrical supply. Coal use is currently modest, since the province has not yet developed substantial coal mining of its own and transportation of coal from elsewhere is expensive over the limited road network. The province’s energy economy will mature substantially over the coming decades as the road network thickens and as the hydroelectric installations come into service.
Southwest Bravia draws on a mix dominated by hydroelectric power from the Western River, supplemented by domestic petroleum production from the modest deposits of the southwestern coast, wood and charcoal from the upland forests, coal from the mining amphoe of the inland mountains, and an increasing share of solar generation in the warmer and sunnier districts. Wind generation along the southwestern coast is also under development. The province’s energy economy is well-developed and approaches Middle Bravia in diversity, although the absolute energy consumption per capita remains lower because the southwestern population is more dispersed.
Southeast Bravia is the most rural and least developed of the older provinces and exhibits a correspondingly traditional energy mix. Wood and charcoal dominate household and craft energy. Animal traction performs the bulk of agricultural work. Hydroelectric power from the rivers feeding the Delta is substantial in the central settlements but has not yet reached most outlying farms. Petroleum supply is moderate and concentrated at Port Esperance and along the principal road from Port Esperance into the province. Coal use is limited. Wind generation along the coast is under early development. The energy economy of Southeast Bravia will grow substantially as the Delta development matures and as the infrastructure connecting Southeast Bravia to the new Delta Province thickens.
Delta Province, in early development, will exhibit an energy mix dominated by hydroelectric power from the three rivers that converge there, with the riparian commission framework making the generation a shared resource of the six allied nations. Wood and charcoal will supply the bulk of household and craft energy from the substantial forests of the Delta interior. Petroleum will be modest, since the Delta has no domestic deposits of significance. Wind generation along the Delta coast is being planned. The Delta’s energy mix will be unusually electricity-rich once the hydroelectric works are completed, which will shape the productive specialization of the province in directions that the priestly and grange supervision will need to monitor — abundant cheap electricity is a genuine economic advantage but also a temptation toward energy-intensive industries that may not fit the broader covenantal pattern.
The Free Port draws on whatever energy supply is cheapest, which in practice means imported petroleum and imported coal supplemented by hydroelectric power from the lower Eastern River and by the limited wind generation on the immediate coast. Free Port energy consumption per capita is several times the Bravian average, reflecting the luxurious style of Free Port life, and the energy supply is largely independent of the rest of Bravia in the sense that it operates on its own price structure and its own import channels. The Free Port’s energy supply is the energy supply of an entrepôt city embedded in a covenantal nation, and exhibits all of the advantages and pathologies that the Tschudian typology associates with the parasite-city pattern.
IV. Cost and Availability
The cost of energy varies substantially across Bravia by region, by source, and by the character of the consumer. The principal patterns can be set out as follows.
Wood and charcoal are inexpensive in the silvan and forested amphoe, where they are produced; moderate in the agricultural amphoe of Middle Bravia, where they are imported from the nearer silvan amphoe; and more expensive in the open country and in the coastal cities where forest cover is thinner. A typical Middle Bravian household pays perhaps a tenth to a fifteenth of its annual income on wood and charcoal for heating and cooking, with substantial regional variation around this figure.
Hydroelectric electricity is inexpensive in the amphoe near the major rivers, where transmission distances are short, and rises with distance as transmission losses and infrastructure costs accumulate. The price structure across an electrified region typically shows a doubling or tripling of the per-unit price between the amphoe nearest the generating station and the most remote amphoe served by the same grid. Households in well-served amphoe pay perhaps a twentieth to a thirtieth of annual income on electricity; producers operating electricity-intensive crafts pay proportionally more.
Coal is inexpensive at the mine mouth and rises substantially with transportation distance, since coal is bulky and the road and rail network is not optimized for high-volume coal traffic. A coal-using amphoe at substantial distance from the mining regions pays perhaps three to four times the mine-mouth price by the time the coal reaches its furnaces and stoves.
Petroleum is moderate in price near the domestic refineries of Southwest Bravia and at the Free Port, and rises with distance and with reliance on imports. Vehicle gasoline at a central Middle Bravian amphoe costs perhaps twice what it costs at the southwestern refineries; in the recently opened provinces, the price multiple is higher and the supply is less reliable.
Wind energy from traditional windmills costs essentially nothing beyond the maintenance of the mill itself, which is performed by the household or amphoe that owns it and is not separately priced. Electrical wind generation costs are comparable to hydroelectric in suitable locations.
Solar energy costs are dropping as Bravian manufacture of solar-thermal equipment expands and as photovoltaic prices in foreign supply chains continue to fall. Solar is currently competitive with other sources in the southwestern districts and is becoming so elsewhere.
Animal traction costs are bound up with the broader agricultural economy, but a working horse or ox represents perhaps a year’s wages of a journeyman tradesman in capital cost and consumes feed equivalent to perhaps a quarter of that annually in operating cost. The work output per dollar of cost compares favorably with mechanized alternatives at the scale at which Bravian farming operates.
The cumulative effect on household budgets is that Bravian households in the developed provinces spend perhaps a tenth to a fifth of their income on energy of all forms taken together — heating, cooking, lighting, transportation fuel, electricity, and the share of food cost attributable to animal traction in production. This is comparable to foreign nations of similar latitude, although the composition of the spending is markedly different. Households in the recently opened provinces spend a higher share, both because their incomes are lower and because energy supply is less developed and accordingly more expensive. The Free Port’s energy spending per household is several times the Bravian average in absolute terms, reflecting both the higher absolute consumption and the higher per-unit prices of imported supply.
V. Implications for Settlement and Productive Life
The energy patterns described above shape Bravian settlement and productive life in several important ways.
The polycentric pattern of energy supply reinforces the polycentric pattern of settlement. An energy economy in which each region draws principally on its native resources is one in which each region remains genuinely self-sustaining and is not reduced to dependence on a distant supply. The amphoe of Middle Bravia would be greatly weakened, and would shift in covenantal character, if their wood, hydroelectric power, and coal were replaced by piped natural gas or grid electricity from a few large central installations. The energy mix is one of the substrates of amphoe autonomy, and changes to it have political consequences that extend well beyond the technical questions of generation and distribution.
The cost gradients across Bravia create natural specialization patterns. Energy-intensive crafts concentrate in the amphoe with cheap electricity or cheap coal; energy-light crafts can be performed anywhere; the long-distance transportation of energy-intensive goods is generally avoided in favor of regional specialization in producing them where energy is cheap. This pattern is the technical correlate of the producer-city framework developed in earlier papers: each region produces what it can produce well at its own characteristic energy cost, and trades for what other regions produce well at theirs.
The high petroleum cost in remote regions reinforces the slow pace of road development there. Vehicle operation in the recently opened provinces is expensive both because the roads are poor and because the gasoline is expensive, and the two effects compound. This is consistent with the broader covenantal restraint on rapid development in those provinces, but it also means that the energy and transportation development must proceed together: improvements to one without the other yield disappointing returns.
The Free Port’s energy economy is one of the principal channels through which Free Port pathologies could spread to the rest of Bravia. Cheap imported petroleum, cheap imported coal, and cheap imported manufactured energy goods (lamps, stoves, vehicles, generators) from the Free Port could in principle undercut the domestic Bravian energy economy and pull producer towns into dependence on Free Port supply. The covenantal procedures that contain Free Port pathologies in other respects — the grange supervisory functions, the priestly visitation circuits, the provincial pricing arrangements — apply equally to energy and are exercised vigorously by the relevant authorities.
Household practice is shaped by the energy mix. Bravian households cook, heat, light, and conduct their daily lives within the constraints and possibilities of their local energy supply. The wood-stove kitchen of a Middle Bravian household is a different kitchen than the electric kitchen of a Delta household, and the differences propagate through the daily rhythms of household life. Bravian household manuals — including the unleavened baking guidebook produced by Prof. Hochstrasser earlier this year — accordingly treat the local energy mix as one of the substantive variables of household practice rather than as a uniform background.
VI. Trajectory in the Recently Opened Provinces
The energy mix of Over-The-Eastern-River, the Delta, and (eventually) Northern Bravia after the strategic premise of underdevelopment is revised will mature along a foreseeable trajectory. The early stage will be dominated by wood, charcoal, animal traction, and modest petroleum, as is currently the case in Over-The-Eastern-River. The middle stage will see the construction of the principal hydroelectric works on the major rivers and the gradual electrification of the central settlements and the larger surrounding farms. The mature stage will see the development of the local energy specializations that match each province’s geography — coal mining where deposits warrant, wind generation along suitable coasts and ridges, solar in the sunnier districts, the full deployment of the energy mix that the geography permits.
The pace of this maturation is constrained by the same covenantal logic that constrains the broader development. Hydroelectric works require multi-year construction programs, careful coordination with the riparian commission where applicable, and extensive consultation with the affected amphoe; they cannot be rushed without compromising the institutional fabric they are meant to serve. The road and rail network thickening that supports coal and petroleum distribution is itself paced to the broader provincial development. The result is an energy maturation timetable measured in decades rather than years, and the provincial governments and granges are accordingly thinking in those terms.
VII. Conclusion
The Bravian energy economy is polycentric in supply, modest in absolute consumption per capita relative to comparable foreign nations, diverse in regional mix, and constrained in its development by the same covenantal premises that constrain the rest of Bravian infrastructure. The cost gradients across the country reinforce regional specialization in directions consistent with the producer-city framework. The Free Port’s energy economy stands apart from the rest in the same way that the Free Port itself stands apart from the rest, and is contained by the same procedures. The recently opened provinces will mature along a foreseeable trajectory measured in decades. The whole arrangement is consistent with the broader Bravian preference for rooted, multigenerational, primary production over the centralization and dependence that a different energy choice would entail.
Subsequent papers in this series will examine the specific question of urban water supply across the provinces, the food-storage and preservation infrastructure that sustains Bravia through the closed months of the year, and the comparative analysis of Bravian energy practice against the practice of the five allied nations of the riparian commission, where energy questions take on a regional rather than a national character.
