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Monday, June 16, 2025

Eliminating Hope as a City Design and Zoning Strategy

 Shelter capacity is provided for activity on an intensity scale that ranges from minimal to life threatening; but perception, intuition, and approximation have had to substitute for correlated mathematical guidance capable of consistently reproducing success and avoiding failure or variance compromise. The result has often been low-intensity, sprawling consumption of agriculture and the Natural Domain, or excessive intensity attempting to improve return on investment with the physical concentrations of building mass and pavement on limited land areas.

The challenge is to derive accurate, consistent measurements of shelter capacity, intensity, intrusion, and context that can lead the design and construction of shelter capacity in a Built Domain served by movement, open space, agriculture, and life support systems that must coexist with its source of life -- the Natural Domain.

SHELTER CAPACITY and INTENSITY

To begin with, shelter capacity is gross building area in square feet per buildable acre occupied. It is a mathematical function of a building design category choice, values entered in its design specification template, and a category master equation that predicts gross building area options in sq. ft. based on the specification values and floor quantity alternatives entered. These options, when divided by the land area consumed in buildable acres, form mathematical increments of shelter capacity. When shelter capacity is multiplied by the impervious cover percentage present or planned and divided by 10,000, the result is a measurement of physical intensity.

THE ECONOMIC IMPLICATIONS of SHELTER CAPACITY, INTENSITY, and ACTIVITY DECISIONS

Real estate profit and public revenue implications vary with the shelter capacity, intensity, and activity planned or present on a given land area. Activity produces income per square foot of gross building area occupied. Shelter capacity is the gross building area present or planned per buildable acre in square feet. The product of shelter capacity in sq. ft. times the expected income or revenue per sq. ft. of activity divided by the buildable acres occupied produces an estimate of the total income or revenue that can be expected per acre by the combination. This result has quality of life implications when the average revenue received per buildable acre from a city’s total shelter capacity, intensity, and activity allocation is less than the city’s total cost to provide the operational, maintenance, improvement, and debt management services required to maintain a desired quality of life per acre. This mathematical relationship adds economic meaning to the rather ambiguous planning term “balance”. A negative balance means that a city’s quality of life can be compromised, or even blighted, by the budget reductions required.

OUR LIMITED ABILITY TO MONITOR LAND USE ALLOCATION IMPLICATIONS

A city’s allocation of land for shelter capacity, intensity, and activity defines the composition of its physical investment portfolio and the annual income (revenue) it will receive from these decisions. Annexation of more land for new income with deficient revenue potential over time is a short-term Ponzi solution, but difficult to predict with the paucity of relevant data and processing ability available to lead a city’s long-term land investment portfolio.

Community satisfaction with the scope of services being provided is a political issue beyond the scope of this essay. In any case, the annual cost per acre for the public services provided must be less than, or equal to, the total revenue a city receives from its land use allocation of shelter capacity, activity, and intensity. Unfortunately, most if not all cities do not have the shared data, relational databases, algorithms, and geographic information systems required to measure, evaluate, debate, correlate, and adjust their land use allocation of shelter capacity, intensity, and activity in relation to their fluctuating annual operating, maintenance, improvement, and debt service expense.

THE OBJECTIVE

The challenge is to define and monitor a sustainable balance between the Natural and Built Domains on a limited planet, AND the sustainable correlation of shelter capacity, intensity, and activity needed to produce a desirable physical, social, psychological, environmental, and economic quality of life for growing populations within a limited Built Domain.

THE LEADERSHIP NEEDED

The spectrum of shelter capacity and intensity possibilities is vast. Sprawl is at one end of the spectrum and excessive intensity at the other. These extremes have been too-frequent results from market experimentation that continues to promiscuously consume available urban, rural, and natural land with annexation and rezoning that thrives on a city’s deficient analytical ability.

Experimentation without a mathematical language of measurement, prediction, and evaluation equal to the leadership evaluation and guidance needed will leave us without the correlation required to produce the coexistence expected by the planet’s unwritten Law of Limits. It directly contradicts our pursuit of unlimited growth.

THE SPECTRUM of SHELTER CAPACITY and INTENSITY CHOICES

It is possible to mathematically define the shelter capacity and intensity spectrum of possibilities along with their intensity, intrusion, and context implications. The graduated increments can be measured and predicted with the building design categories, design specification templates, master equations, and forecast models of Shelter Capacity Evaluation. They have been introduced in “The Equations of Urban Design” that I self-published on Amazon.com in 2020. Leadership choices will involve the correlation of project options and implications predicted by these equations.

RESEARCH

The consistent measurement of existing examples and evaluation of their implications is needed to improve our knowledge and leadership decisions regarding shelter capacity in a Built Domain because its sprawling expansion must be limited by public policy to prevent consumption of its source of life.

THE MEANING of ARCHITECTURAL INTENSITY

The concept of “physical intensity” has often been associated with extreme relationships perceived but not defined with an adequate mathematical vocabulary.

In the context of this essay, and all others I have published, the term “intensity” (INT) is not an extreme condition. It is a mathematical spectrum, or range of building mass, pavement, parking, and unpaved project open space relationships that range from non-existent to life-threatening. Its implications are measured with the following sequence of equations when a gross land area, building design category, and template of design specification values is given as illustrated in Table 1.

(1)   Gross building area potential GBA = ((af) / (a+(fs))) * CORE. The value (a) is equal to the gross building area in sq. ft. permitted per parking space provided. The value (f) is a floor quantity option. The value (s) is the parking lot area in sq. ft. per space provided. The value (CORE) is the gross land area remaining for building and parking cover after all other existing and/or anticipated unbuildable areas, rights-of-way, impervious cover, shared spaces, reserve areas, unpaved project open space quantities, and so on are subtracted from the gross land area given. This core area quantity varies with the design specification template topics and values associated with a given building design category and specification values entered.

(2)   Shelter capacity implications SFAC = GBA / BAC. The gross building area GBA found in equation (1) is divided by the buildable acres BAC derived in the design specification template of a given building design category to find the shelter capacity options under consideration.

(3)   Intensity implications INT = SFAC * IMP% / 10,000. The shelter capacity SFAC found in equation (2) is multiplied by the total impervious cover percentage present or planned for the project area. The product is divided by 10,000 to find the intensity represented.

(4)   Intrusion implications INTR = f / 5. The effect of floor quantity (f) on the relationship of building mass, parking, pavement, and unpaved project open space is considered by equation (1), but its influence can be buried in the result without the attention provided by equation (4).

(5)   Context implications CTX = INT + INTR. The spatial impact of a shelter project on pedestrians at street level, without considering building façade appearance, is defined by combining the intensity found in equation (3) with the intrusion found in equation (4). This purposely emphasizes the impact of floor quantity on the spatial context represented by the measurement since floor quantity is also a factor in equation (1).

The point is that shelter capacity, intensity, and intrusion combine to produce physical context on a scale that ranges from excessive shelter concentration to natural absence. The range is intuitively perceived but has never had an accurate method of measurement and evaluation that could identify a desirable shelter intensity range within specified land areas for all seven building design categories.

TABLE 1

Table 1 is included to point out the context measurements CTX in cells J44-J53. They are a function of all the design specification values entered into the shaded boxes of the table, the cascading equations in the design specification template, and the implication calculations presented in cells B44-J53. There are no judgments assigned to these context calculations.

OPPORTUNITY

The use of shelter capacity evaluation for consistent measurement and evaluation of existing shelter projects can produce the knowledge needed to successfully correlate shelter capacity, intensity, activity, and economic decisions within a sustainable Built Domain. This is the future challenge associated with the seven primary building design categories and the shelter capacity evaluation system of urban design. 

ECONOMIC DEVELOPMENT

The mathematical correlation of shelter capacity, intensity, and activity on every parcel within a city has revenue implications that combine to affect a city’s physical, social, psychological, environmental, and economic quality of life.

I doubt that any city has recorded its shelter capacity, intensity, and intrusion measurements with the context and total revenue per acre it receives per parcel, block, tract, or zone. This, however, would permit it to compare the total average revenue per acre received per parcel, block, tract, or zone with its total expense per acre. The comparison could not help but contribute to the debate and decisions needed to produce an advanced comprehensive strategy for improvement.

The alternative has been piecemeal economic development hoping for “big scores” to offset revenue deficiencies. This includes mistaken annexation for “new money per acre” that cannot keep pace with a city’s increasing average annual expense per acre. It results from an inadequate ability to accurately monitor and understand the shelter capacity, intensity, activity and revenue relationships present per block, tract, and zone within its boundaries. This prevents comprehensive adaptation and adjustment with the knowledge required to eliminate hope as a strategy.

FUTURE WORK

There are no current examples of the effort I suggest to my knowledge. All my work has been a theoretical attempt to answer the question: “How do we shelter the activities of growing populations within geographic limits that protect their quality and source of life?” 

During this effort I have suggested the question and a method of pursuing the answer with shelter capacity evaluation based on proposed building design categories and equations for urban design definition of leadership solutions. It represents a new vocabulary and language. The use of these tools to build and apply leadership knowledge will not be proven without technical applications pursued by interested readers around a planet we cannot pollute and consume without consequence.

Walter M. Hosack, June 2025

PS: Don’t be distracted by legal solutions that overlook the mathematical, architectural fundamentals required for shelter correlation and urban design leadership. Annexation and variance approvals attempting to reconcile a lack of mathematical correlation have never been an adequate, comprehensive answer to the issues of population growth, land consumption, encircled cities, budget deficits, and deterioration.




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