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Article

Integrated Management of Urban Landscape and Public Security

by
Rodrigo Sant’Ana Nogueira
1,2,
Letícia Peret Antunes Hardt
3,*,
Patrícia Costa Pellizzaro
4 and
Carlos Hardt
3
1
Post-Graduate Program in Urban Management, Pontifical Catholic University of Paraná (Pontifícia Universidade Católica do Paraná—PUCPR), Curitiba 80215-901, PR, Brazil
2
Law Program, Goiatuba University Center (Centro Universitário de Goiatuba—UniCerrado), Goiatuba 75600-000, GO, Brazil
3
Post-Graduate Program in Urban Management and Landscape Laboratory, Pontifical Catholic University of Paraná (Pontifícia Universidade Católica do Paraná—PUCPR), Curitiba 80215-901, PR, Brazil
4
Landscape Laboratory, Pontifical Catholic University of Paraná (Pontifícia Universidade Católica do Paraná—PUCPR), Curitiba 80215-901, PR, Brazil
*
Author to whom correspondence should be addressed.
Urban Sci. 2026, 10(8), 462; https://doi.org/10.3390/urbansci10080462
Submission received: 15 June 2026 / Revised: 28 July 2026 / Accepted: 3 August 2026 / Published: 10 August 2026

Abstract

Criminality represents one of the major challenges faced by Brazilian cities, particularly due to the limited state capacity to control violence. To provide support for addressing this issue, the research focuses on systematizing responses to the investigative question regarding the identifiable foundations for sharing urbanistic-criminal solutions within the framework of the urban agenda. With the aim of analyzing this reality through a case study in Itumbiara, Goiás, Brazil, the assessment relied on field surveys and relational analysis of criminal, landscape, and institutional data. Considering three temporal intervals—before, parallel, and after the coronavirus disease 2019 (COVID-19) pandemic—to recognize its influence on the phenomenon under review, the results on the distribution of thefts and robberies along a road sample show a decline in crime even after the official end of the health crisis. Socio-behavioral and socio-political parameters scored lower than socio-morphological ones but overall were classified as medium-low quality. The formulated guidelines combine analytical variables and criminological theories to support public policies for integrated management of safe scenarios, reinforcing the hypothesis that such interactions enable principles for coordinated measures in planning and security in urbanized areas.

1. Introduction

Directly linked to the state’s capacity for controlling violence, public security stands as one of the main indicators of social performance. The absence or ineffectiveness of policies aimed at its reduction intensifies instability and chaos within society [1,2]. The mitigation of urban criminality, including through spatial solutions, constitutes a critical global challenge [3]. In pursuit of this goal, several criminological theories, many of them linked to environmental planning, have been developed.
Aiming at the formulation of distinctive and original contributions of this research, the theoretical inputs of interest are especially connected to socio-behavioral issues, more directly related to offenders’ conduct, commonly influenced by societal practices; socio-morphological aspects, referring to features of urbanized landscapes that either facilitate or restrain criminal acts; and socio-political dimensions, aligned with processes of city governance and civic engagement. Evidently, such categorization is not definitive, since criminality constitutes a complex phenomenon characterized by multidimensional interactions [4]. It is, therefore, a generic systematization of the classical literature and contemporary references of the principal focal points within the main theories relevant to the subject under examination.
In the case of socio-behavioral issues, the Routine Activity theoretical framework emphasizes that illicit incidents emerge from the simultaneous occurrence of the existence of a vulnerable target, the absence of protective oversight, and the presence of a motivated perpetrator [5,6,7,8]. Complementarily, the Criminal Opportunities perspective underscores that individuals display limited inclination to maintain preventive dispositions toward illicit practices [9,10]. The Marginal Labeling lens further elucidates the mechanisms through which subjects are redefined according to externally imposed identities [11,12,13]. Building upon these insights, the Criminal Economy approach interprets deviant conduct through reasoned decision schemata, wherein actors weigh prospective benefits against anticipated drawbacks before acting [11,14]. This reasoning parallels Rational Choice postulates, which maintain that engagement in unlawful behavior results from comparative evaluations of expected advantages relative to possible sanctions [5,6,11,15,16,17,18]. Finally, Social Disorganization bases highlight the heightened probability of illegal expression in communities destabilized by weakened traditions and restricted access to collective resources [19,20].
Within socio-morphological aspects, the Locational Criminality theoretical model contends that deviant practices are linked to opportunities structured and facilitated by spatial configurations [21,22,23]. In turn, Personal Space analysis demonstrates that immediate surroundings exert influence on predispositions toward illicit behavior [24,25,26]. Social Cohesion study posits the premise that environments fostering urban continuity reinforce solidarity while simultaneously creating conditions conducive to criminal expression [27,28]. Territorial Defense perspectives emphasize the relevance of spatial context for collective maintenance and shared responsibility [29,30].
The Social Density standpoint proposes that elevated constructive population rates stimulate interactive tendencies, accompanied by regulatory mechanisms of both environmental and behavioral nature [31,32]. Complementarily, the Safe Spaces approach asserts that settings characterized by fluid access and enhanced mobility encourage the emergence of ‘natural guardians’ [9,24,25,33]. Among these formulations, the Environmental Design paradigm stands out as a foundational construct, underpinning the Crime Prevention through Environmental Design (CPTED) framework [15,34]. Its principles align with the Universal Design concept, which underscores the imperative of accessibility across spatial configurations [35,36].
The Defensible Space construct advocates for arrangements incorporating protective functions explicitly implemented by community members [34,37,38,39]. Concurrently, the Spatial Needs lens maintains that built environments shape perceptions of safety [24,25,40], while the Spatial Victimization frame reveals that locations of prolonged social interaction facilitate the identification of potential targets [24,25,41].
Regarding socio-political dimensions, Social Defense theoretical premises establish that public safety is conceived as a responsibility extending beyond governmental authority [42,43]. On the other hand, Social Control propositions argue that collective accountability for societal equilibrium is exercised through the preservation of explicit norms, which function as fundamental mechanisms of deterrence [44,45,46,47,48]. The Natural Surveillance framework, widely acknowledged, situates individuals as ‘guardians’ of communal spaces [9,49]. Broken Windows tenets contend that manifestations of physical disorder contribute to the intensification of unlawful practices [40,50,51,52], while Results-Based Management models emphasize the necessity of systematic evaluation of security performance, covering both strategic initiatives and tactical measures [53,54], supported by Criminal Mapping procedures for data visualization on crimes to enhance security governance [24,25,55].
Concertedly, the articulation of these theoretical formulations converges to demonstrate the interrelation of behavioral, morphological, and political conditions in sustaining social and urbanistic stabilities while mitigating criminogenic dynamics. In association with empirical outcomes derived from a singular methodological experiment developed, the study yields distinct contributions and innovations relative to the international background.
In the Brazilian perspective, criminality is constitutive of the country’s urban context [56,57]. This assertion is reinforced by institutional data, which further highlights that the issue is more significant than official records suggest due to under-reporting [58]. Because of its morpho-functional characteristics, the urbanized space can both deter and facilitate criminal acts [15,16,17,34,37,38]. Consequently, its planning and upkeep play crucial roles in spatial security and local defense conducted by citizens themselves [9,34,37,38,39].
Despite progress in sectoral cooperation, significant gaps remain in the integrated management of Brazilian cities [58]. This scenario encompasses public safety and urban landscape concerns, particularly in open spaces, where theft and robbery are common crimes—respectively involving the unlawful taking of property without and with serious threat or violence against the victim [59].
Specifically in the case of Itumbiara, Goiás, Brazil, during the two years preceding the coronavirus disease (COVID-19) pandemic—namely 2018 and 2019—these offenses amounted to 3520 entries (73.5% thefts and 26.5% robberies). In the subsequent biennium marked by the health emergency, 2020 and 2021, the tally fell to 2574, reflecting a 26.9% decline, with thefts representing 80.6% and robberies 19.4% of the aggregate. Paradoxically, in the two years following the crisis (2022 and 2023), the totals continued to diminish, reaching 2140 occurrences (86.2% thefts and 13.8% robberies). These data indicate reductions of 39.2% and 16.9% compared to the first and second intervals, respectively [60].
The spatial distribution of these incidents across the city’s landscape varied according to the type of crime. Thus, in every period, thefts tended to accumulate in central districts, whereas robberies were more scattered, despite their higher concentration in the downtown area. In seeking to understand this issue, the research aims to analyze the study objects—defined as public urban spaces in Itumbiara, particularly streets—as a basis for policies aimed at integrated management of a safe urban environment. Its implementation is enabled by addressing the following investigative question: what identifiable underpinnings exist in these essential locations that support a collective process of sharing urbanistic-criminal solutions within the framework of the urban agenda?
The set of investigative findings is therefore directed toward testing the hypothesis that interactions between criminal and landscape variables enable principles for coordinated measures in planning and security in urbanized areas for the integrated management of public safety and the urban environment. To this end, a dedicated methodological essay is structured to guide the development of research.

2. Materials and Methods

With a quali-quantitative approach applied, the study was guided by exploratory, descriptive, and synthetic–analytical methods, supported by field survey techniques and relational analysis of criminal, landscape, and institutional data. As previously mentioned, the research area encompasses the city of Itumbiara, specifically its districts, and the objects under investigation correspond to public spaces, with an emphasis on streets.

2.1. Research Area

Located in Brazil’s Central-West Region, the municipal territory spans 2447 km2 and is projected to have 113,322 inhabitants by 2025, with nearly 97% living in urbanized areas [61]. It lies in the south-central portion of the state of Goiás (Figure 1). The urban territory of the municipal seat, with an approximate extent of 70.3 km2, is in the east-central portion of the municipality [62]. It is composed of 83 districts, which more closely correspond to plots resulting from land subdivisions. Following these delimitations, the spatial units for investigation were defined.

2.2. Study Units

For the selection of specific analytical objects (street segments), the district with the highest incidence of thefts and robberies was preliminarily identified (Setor Central), considering the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of the COVID-19 pandemic. These data were obtained for restricted use from the Public Security Observatory of the State of Goiás (Observatório de Segurança Pública do Estado de Goiás—OSP-GO) [60], and during their tabulation in Excel for Windows 365 (Microsoft Corp., Redmond, WA, USA), values corresponding to rural zones (outside the official urban perimeter), as well as other inconsistencies, were excluded.
Using the statistical software R 4.6.0 (R Foundation for Statistical Computing, Vienna, Austria) to test whether the reduction in thefts and robberies across the intervals before, parallel, and after the pandemic is statistically significant, the Friedman Test was applied as the nonparametric alternative to repeated-measures of Analysis of Variance (ANOVA), suitable for comparing three or more time points measured on the same experimental units—in this case, the same districts observed across the three periods—without requiring data normality or homogeneity of variances. These procedures are followed by pairwise Wilcoxon Signed-Rank comparisons with Holm Correction—sequential p-value adjustment [65,66].
These assumptions are unlikely given the small number of selected districts (n = 12) and the presence of a clear outlier (Setor Central), whose volume of thefts and robberies is several times higher than that of other neighborhoods. The null hypothesis of the test is that the distribution of case counts is the same across the three periods; a p-value below 0.05 indicates that at least one period differs statistically from the others, without specifying which. When the global test is significant, pairwise comparisons are conducted using the Wilcoxon Signed-Rank test, appropriate because each district is measured in all three periods, generating dependent (paired) observations. Since three comparisons are made for each type of crime (before versus pandemic—2018–2019 versus 2020–2021; pandemic versus after—2020–2021 versus 2022–2023; and before versus after—2018–2019 versus 2022–2023), p-values are adjusted using the Holm method, which controls the family-wise Type I error rate while maintaining statistical validity. Effect size, which measures the magnitude of distributional differences across time, is reported by Kendall’s W for the global test (ranges from 0 to 1; values above 0.5 are considered large effects) and by Wilcoxon’s r for each pairwise comparison (|r| < 0.3: small effect; 0.3–0.5: moderate effect; >0.5: large effect) [65,66].
Subsequently, the mapping of streets was conducted to spatialize criminal points across the three temporal intervals (2018–2019, 2020–2021, and 2022–2023). These procedures were conducted using geoprocessing software such as Arc Geographic Information System (ArcGIS) Pro 3.6.4 (Environmental Systems Research Institute–ESRI, Redlands, CA, USA) and Quantum Geographic Information System (QGIS) 3.4 (Open Source Geospatial Foundation, Beaverton, OR, USA), along with online platforms like Google Earth Pro 7.3 (Google LLC, Mountain View, CA, USA). This enabled the visualization and analysis of geographic data, supporting the generation of heat maps in those programs, based on crime hotspots (active points) recorded by statistics from that observatory [60]. Due to the imprecision of municipal georeferenced databases, vector files of streets and districts boundaries were created in the same geoprocessing software, through the production of shapefiles within a Geographic Information System (GIS) environment.
For generating the heat maps, the Kernel Density Estimation (KDE) was executed with an output cell dimension of 7.42791878343212 × 10−5 and the search radius applied corresponded to a default value of 0.0011039395508422034 degrees. Spatial quantification was expressed in square map units, and the resulting raster contained density values as its primary output. The computational approach adopted was the planar method, ensuring that calculations were performed within a two-dimensional Cartesian framework.
The Getis-Ord Gi\* statistic method is used as a local indicator of spatial autocorrelation. For each street, it compares the sum of observed values (the number of thefts or robberies) on that street and its districts with the value expected under a random spatial distribution of cases. The result is expressed, for each street, by a z-score and an associated p-value. Positive and statistically significant z-scores indicate a clustering of high values around that street (hot spot), whereas negative and significant z-scores indicate a clustering of low values (cold spot). The absence of statistical significance indicates that the observed value does not differ from what would be expected under spatial randomness [67]. The software classifies each street into seven categories (Gi_Bin column), ranging from −3 (cold spot with 99% confidence) to +3 (hot spot with 99% confidence), with 0 representing no statistically significant spatial pattern.
In addition to the heat maps for spatial recognition of thefts and robberies across the three defined temporal intervals, aimed at selecting the most affected street in the Setor Central (Avenida Beira-Rio), the specific data of this roadway were also interpreted quantitatively and proportionally by months of the year and by time periods of the day. Using the Python 3.14 computational environment (Python Software Foundation, Wilmington, DE, USA), the nonparametric statistical test of Spearman’s Correlation Coefficient (ρ) was also applied, which assesses monotonic relationships based on variable rankings [68]. The adoption of this approach is justified by its greater robustness for small samples and in cases where the data contains extreme values (outliers), as observed in certain specific years of records. The strength of association was interpreted according to the Cohen Intervals: 0.10–0.29 (weak), 0.30–0.49 (moderate), and 0.50–1.00 (strong) [69].
These sets of procedures for interpreting the study units aimed at deepening the understanding of criminal behavior within the local analyzed, concurrently with the assessment of specific parameters.

2.3. Analytical Variables

For the interpretation of relevant characteristics, the variables systematized in Table 1 were considered, according to their descriptive and explanatory approaches. These parameters were further subdivided into socio-behavioral, related to public security (criminal practices of evasion, concealment, and shielding); socio-morphological, concerning the urban landscape (formal and functional conditions of dimensions, densities, accessibilities, attractiveness, and permanencies); and socio-political (institutional instruments and tactical tools).
In Table 2, the adopted classification system is presented. The measurement results of the parameters were grouped into four classes (high, medium-high, medium-low, and low quality), as products of the specificities of each variable, mostly expressed in average percentages or average proportions relative to the length of each segment or other measures. In certain situations, it was necessary to determine classification reducers and promoters, with the purpose of eventually lowering or raising a position, respectively.
The classification results were organized and tabulated in electronic spreadsheets of Excel for Windows, with the following values assigned per class: 4 for high; 3 for medium-high; 2 for medium-low; 1 for low. In the case of averages, the intervals corresponded to: 4.0 to 3.3 for high; 3.2 to 2.5 for medium-high; 2.4 to 1.7 for medium-low; 1.6 to 1.0 for low. After their joint interpretation in the form of an analytical synthesis, the findings were analyzed with the primary function of interpreting bases for management.
Statistical interpretations were conducted within the same Python environment, employing the Scientific Python (SciPy) library to estimate Spearman’s Correlation Coefficient (ρ) [68] across six spatial scenarios of Avenida Beira-Rio: three segments (North, Central, and South) versus two sides (Western and Eastern). A total of 15 parameters derived from socio-behavioral, socio-morphological, and socio-political variables were processed, with correlation magnitudes interpreted according to Cohen’s intervals: 0.10–0.29 (weak), 0.30–0.49 (moderate), and 0.50–1.00 (strong) [69].
Within this framework, an effort was made to connect socio-behavioral, socio-morphological, and socio-political variables with assumptions outlined in classical works and contemporary references on criminological theories. In doing so, the intention was to synthesize findings for an urban agenda aimed at integrated management of the urban landscape and public safety.

3. Results

In line with the previously detailed procedures, the findings are synthesized into analytical considerations regarding the selected district, the chosen street, and their respective segments.

3.1. Selecting the District

Table 3 presents the 12 districts (14.4% of the total) with records of thefts and robberies above the averages in each year. From the interpretation of this information, the clear prominence of the Setor Central is inferred and adopted, therefore, as the specific study area. Its situation confirms that rates of these crimes are normally higher in city centers than in other regions of urbanized areas [74], although the city context plays a significant role in shaping overall criminal trajectories [75].
For thefts, the Friedman Test (Table 4) revealed a significant overall difference across periods (p = 0.002; Kendall’s W = 0.52, large effect). Pairwise comparisons with Holm Correction showed significance between before (2018–2019) and during the pandemic (2020–2022 (adjusted p = 0.010), as well as between pre-pandemic and post-pandemic (adjusted p = 0.010), but not between the parallel and after COVID-19 periods (adjusted p = 0.556). This indicates that most of the decline in theft occurred during the pandemic and remained stable thereafter (Table 5). Regarding robberies, the Friedman Test also demonstrated a significant global difference across periods (p < 0.001; Kendall’s W = 0.86, large effect), with significance observed in all three pairwise comparisons after Holm Correction (adjusted p = 0.008), highlighting a consistent and progressive decrease in robbery throughout the three intervals.
As support for the pairwise comparisons above, Table 6 presents the descriptive statistics across the 12 districts, reflecting the difference in case numbers between each compared period (e.g., thefts during the pandemic minus thefts before, calculated district by district). A negative difference indicates a reduction in cases within the districts across the two periods.
The mean of the differences is strongly influenced by the Central Sector (the district with a volume often much larger than the others). For instance, the average reduction in thefts (−39.9) between the pre- (2018–2019) and post-pandemic (2022–2023) periods is considerably greater than the median (−20.5), precisely due to this neighborhood. The median, being less sensitive to this extreme value, represents more accurately the typical reduction observed in a district: approximately 18 fewer thefts and 20 fewer robberies between the before (2018–2019) and parallel pandemic (2020–2021) periods, with similar or greater reductions between before and after the pandemic, consistent with the statistical significance found in the tests.
Situated in the south-center portion of the urban perimeter of Itumbiara (Figure 2), the selected district—Setor Central—covers an area of about 1.35 km2. In 2025, it housed about 3300 residents [61,62]. To enable the interpretation of results within a specific location, the next step involves the identification of the street for detailed examination.

3.2. Selecting the Street

The mapping of thefts in the Setor Central (Figure 3) identifies Avenida Beira-Rio as the roadway with the highest concentration of this offense throughout all examined periods. The cartographic depiction of robberies (Figure 4) likewise designates the same street as the site of the most notable incidents within analytical intervals. These patterns are further reinforced by the summary maps shown in Figure 5.
The Getis-Ord Gi\* statistic results indicates that in all the years analyzed (2018 to 2023) and across the entire period, between 1.6% and 3.1% of the streets were identified as statistically significant clusters (hot spots) at the 95% or 99% confidence levels, consistently concentrated in the same few road axes of the sector, with p < 0.001 in the vast majority of cases. Therefore, thefts and robberies are spatially concentrated in specific streets of the Central Sector, as identified for the spatial autocorrelation (Table 7), with particular emphasis on Avenida Beira-Rio.
From 2018 to 2023, theft and robbery records along Avenida Beira-Rio amounted to 146 active points categorized as ‘public place’ and ‘street/avenue’. The former accounted for 95 (65.1%), while the latter comprised 51 (34.9%). A gradual decline in both figures and proportions is further observed across each analytical period (Figure 6), registering a substantial reduction of 87.8% in the overall criminal occurrences examined throughout the six years.
The marked decline in thefts and robberies during the pandemic period can be explained by restrictions imposed for social isolation due to the disease. However, the persistence of similar or even lower levels in 2022 and 2023 may be linked to perceptions of behavioral change at both individual and collective scales [76].
The monthly distribution of offenses (Figure 7) does not reveal any significant pattern, meaning it fails to distinguish differentiated conditions for classifying analytical variables. Human activities in public spaces are often associated with seasonal factors and non-school periods. In this regard, it is worth noting that Itumbiara’s climatic characteristics are relatively stable, with average monthly maximum and minimum temperatures of 33 °C and 22 °C, respectively, even though rainfall varies from 2.0 mm to 281 mm, with heavier precipitation in summer [77]. Furthermore, there is evidence that hotter cities show a weaker correlation between climate and crime [78].
Based on the statistical assessment of Spearman’s Coefficient (ρ) [68] (0.186; p-value 0.600—weak), no significant correlation emerges between months of the year and thefts and robberies. This outcome suggests that seasonal drivers of thefts in June and October, for instance, do not necessarily align with periods of increased robberies. Monthly crime distributions appear to operate under distinct logics of opportunity for each modality [9,10].
Prior to the pandemic, there was a tendency for criminal activity to occur during nighttime hours (Figure 8). This inclination persisted in the first year (2018) of the pandemic period, while the second (2019) showed an unspecific shift.
The tendency for nighttime criminal activity reappears in the first year (2022) after the pandemic, remaining only for robberies in the following year (2023). Even so, there are sufficient indications to consider nocturnal conditions in the classification of analytical variables. This situation is common in areas of ‘night-time economy,’ where potential victims may be intoxicated or concentrated within a small geographic space [79]. After dusk, the external environment changes markedly, which can increase criminal opportunities—though these could be mitigated through appropriate public lighting solutions [80].
Through the evaluation of Spearman’s Coefficient (ρ) [68] (0.809; p-value 0.015—strong), unlike what was observed for months, a positive and statistically significant correlation is found for daily intervals. This indicates that the temporal dynamics of thefts and robberies are highly similar in the Setor Central, with periods of higher incidence of one crime (particularly at night, from 18:00 to 23:59) tending to coincide with elevated levels of the other. Such a condition underscores the relevance of locational aspects and public lighting [21,22,23,80]. Subsequently, the closest interpretation of the path is sought.

3.3. Segmenting the Route

Avenida Beira-Rio takes its name from bordering the Paranaíba River, which marks the boundary between the states of Goiás and Minas Gerais (Figure 9). Within its about 750 m stretch inside the Setor Central, it is defined as a roadway axis with a central median strip and lanes in opposite directions. From a morpho-urban perspective, it is divided into three main segments (Figure 10): Northern—from Avenida Trindade to Avenida Paranaíba, without intersections; Central—from the latter to Rua Damores Amaral Medeiros, intersected by Rua Dr. Valdino Vaz and Rua Sebastião Caldino; and Southern—from this point to Avenida Rogelina Maria de Jesus, crossed diagonally by Rua Antônio Marques. The Eastern Side of each portion borders the river’s permanent preservation area, in part arranged as a leisure park.
The Northern Segment (350 m in length) (Figure 11) features palm trees along much of its central median strip. Its Western Side is largely composed of spacious plots, marked by notable urban voids. In the Central Segment (280 m), the same type of lane divider continues, with identical Palmaceae species. Its Western portion contains plots displaying varied levels of building occupation and mixed functions. The Southern Segment (125 m) lacks vegetation in the central median strip. On the West Side, in the mid-northern area, it is bordered by a densely wooded square. In the mid-southern zone, there is a substantial urban void. Each side of the street segments is assessed according to the previously specified socio-behavioral, socio-morphological, and socio-political variables (see Section 2.3).

3.4. Evaluating Variables

The morpho-urban conditions across the three street segments establish distinct situations for classifying the analytical variables. For socio-behavioral variables (Table 8), escape routes show the lowest overall performance (1.3—low class), indicating a high potential for evasion along the roadway, which reduces the likelihood of offenders being apprehended. The highest average is attributed to physical barriers (2.8—medium-high class), revealing that the limited presence of obstacles makes potential targets more visible to other passersby, thereby increasing opportunities for natural surveillance and decreasing the chances of shielding the aggressor [5,9,82]. The Southern Segment is the most vulnerable to theft and robbery (overall average of 1.3—low class), with inferior performance across all evaluated parameters. The most favorable condition is recorded in the Northern Segment (overall average of 2.7—medium-high class), mainly due to the negligible presence of physical barriers that could conceal criminal activity. Without the adoption of promoters, classification reducers were applied in cases of possible escape through the crossing of the extensive wall on the Western Side of the Northern Segment, due to the idleness of the land plot, as well as concealment of offenders by the topographic slope of the riverbank throughout the first two segments.
For the socio-morphological variables, the lowest rating corresponds to local references (1.0—low class), followed by constructive population density (1.5—low class), highlighting problems of attractiveness, which may bring victims and aggressors closer through generated opportunities [10,31,32,83]. The best performance is observed for the urban scale (3.8—high class), confirming the importance of certain spatial–environmental metrics for appropriate relationships between the built environment and criminal occurrence, given their influence on criminal behaviors [15,37,84].
The Southern Segment is the least prone to theft and robbery (overall average of 2.9—medium-high class), with good ratings across all parameters, except for constructive population density, diversity of uses, local references, and arrangement of seating and/or stopping furniture. The poorest condition is observed in the Northern Segment (overall average of 2.2—medium-low class), resulting from nearly all attributes, except street and urban scales, relations between public and private space, spatial intervisibility, and public lighting.
The application of classification promoters was justified by the existence of a pedestrian promenade with universal accessibility solutions, the expansion of sidewalks into open areas, and the presence of high-efficiency lighting fixtures. Conversely, reducers were applied in cases of the existence of public lighting only along the median strip, the excessive distance between benches, and their inadequate quantity in some spaces.
For the two parameters of the socio-political variables evaluated, the lowest overall performance (1.2—low class) pertains to the monitoring of public and private spaces, revealing that the absence of devices for this purpose facilitates the occurrence of crimes [85]. In contrast, spatial maintenance is relatively satisfactory (3.0—medium-high class), indicating its positive influence on reducing criminality [40,50,51,52]. The only classification promoter is applied to the Western Side of the Central Segment, regarding its potential for natural surveillance through the presence of people [9].
By integrating the set of variables (Table 9), the lowest overall performance is found in the socio-political dimension, followed by the socio-behavioral (2.1 for both—medium-low class). The socio-morphological variables achieve a slightly higher score (2.6—medium-high class). In summary, all Avenida Beira-Rio segments fall within the lower median condition (values ranging from 2.1 to 2.4), with an overall average of 2.2.
Considering the total of 15 parameters derived from socio-behavioral, socio-morphological, and socio-political variables, the correlation matrix constructed through Spearman’s Coefficient (ρ) [68] (Table 10) reveals distinct patterns between the two sides of Avenida Beira-Rio. A perfect positive correlation (1.00) is observed between the Eastern Side of the Northern and Central segments. This occurs because both share a substantial portion of the parameters, presenting elevated levels (class 4—high) of public lighting, spatial intervisibility, and maintenance of public spaces, but low values (class 1—low) of diversity of uses and constructive population.
There is also notable coherence in the Southern Segment, with its Western and Eastern sides exhibiting a strong positive correlation (0.80). Unlike the others, it maintains uniformity in variables such as shading and urban scale (class 4—high on both flanks), with a more homogeneous morphology at this end of the street due to the presence of tree masses (square and park). Likewise, similarity is observed between the Eastern sides of the other two segments and the South, with remarkably high correlations, further highlighting the positive natural features of the urban landscape.
The Western sides of the Northern and Central segments display negative or insignificant correlations with almost all other relationships, except between themselves (0.51). Although more built-up scenarios, they reveal less favorable indices for evasion (particularly escape routes in the Northwestern Side—class 3—medium-low) and shielding (visual obstructions in the Northwestern Side—class 4—high), contrasting sharply with the East.
In summary, this statistical analysis demonstrates the spatial duality of the Eastern Side, strongly correlating with the Southern segment, whereas the Western sides of the Northern and Central segments exhibit morphological conditions that favor concealment and visual isolation, which may result in direct implications for integrated public security management.
Confirming the street as a platform for public life [86,87], these results support the diagnosis that theft and robbery occurrences align with factors facilitating criminal behavior, linked both to landscape features that intensify crime opportunities and to inefficient institutional instruments and tactical tools of public management. Thus, it becomes possible to discuss and organize foundations for structuring urbanistic-criminal policies relevant to the theme. In this regard, they should aim at integrating measures from different sectors.

4. Discussion

Based on the case studied, and for the shared management of a safe landscape, several guidelines can be highlighted for an urban agenda based on the analytical variables. In this context, the recommendations can be linked to both classical and contemporary criminological theories, as synthesized in Table 11. Following the same sequence established in Section 1 (Introduction), where theoretical postulates were arranged according to their primary emphasis on socio-behavioral issues—principally associated with offenders’ actions and shaped by collective customs; socio-morphological aspects—denoting attributes of urban form that either facilitate or restrict unlawful practices; and socio-political dimensions—connected to mechanisms of municipal administration and civic participation, the synthesis panel of guidelines highlights the interrelations between the theories discussed and all analytical variables employed in the research undertaken.
The examination of the content of the synthesis panel of guidelines for the urban agenda elucidates that many criminal solutions address multiple theoretical postulates, while at the same time there is simultaneity in the alignment of principles with different analytical variables. These conditions reveal, on one side, the multidisciplinary nature of criminology [88], and on the other, the intricacy of urbanism [89].

4.1. Key Theoretical–Practical Contributions

In terms of socio-behavioral theories, emphasis should be placed on controlling evasion by minimizing factors that enable escape routes for offenders and hinder police pursuit, such as short blocks, proximity to corners, and other elements that define dispersal paths and facilitate concealment, restricting apprehension. Likewise, progressive elimination of components that create physical or visual hiding places for aggressors is essential, as these enable surprise attacks and limit victims’ reaction [5,9,82].
Except, at least partially, in relation to physical barriers, what emerges from the case study in Itumbiara is almost the reverse of the prescribed conditions, thereby substantiating, in particular, a considerable share of the approaches advanced by theories of Routine Activities [5,6,7,8], Criminal Opportunities [9,10], Criminal Economy [11,14], and Rational Choice [5,6,11,15,16,17,18], since existing conditions for the convergence of available targets, absence of guardianship, and criminal presence amplify both the limited willingness of citizens to adopt preventive behavior and the offenders’ evaluation of costs and benefits prior to acting, with perpetrator decisions ultimately shaped by perceived advantages weighed against eventual sanctions. It should be emphasized that incorporating additional parameters could further strengthen perspectives associated with Marginal Labeling [11,12,13] and Social Disorganization [19,20], avoiding the transformation of individuals into identities imposed by categorization and preventing crime within communities weakened by eroded customs and diminished social opportunities.
Regarding socio-morphological theories, guidelines include adjustments to dimensions, both at the street scale—with sidewalks that facilitate the circulation of spatial guardians—and at the urban scale, through built elements that attract and engage users, fostering natural surveillance [15,16,17,37,38,84]. Density should be encouraged by promoting constructive population concentration, increasing the number of pedestrians in outdoor areas, and diversifying land uses to enhance vitality and safety [32,33,83].
The case of Itumbiara reveals, on one hand, favorable conditions regarding street and urban scales, in contrast to constructive population densification and diversity of uses. This situation can be explained both by the medium size of the city and by the presence of green areas along Avenida Beira Rio. Nevertheless, it can be aligned with principles of Territorial Defense [29,30], Social Density [31,32], and Safe Spaces [9,24,25,33], since the surroundings exert a decisive influence on sustaining spatial order and promoting social responsibility, with densification levels fostering interactive conduct through environmental and behavioral regulation, while accessible settings encourage the presence of ‘natural guardians’, strengthening collective safety.
Accessibility improvements are also necessary, strengthening connections between public and private spaces, facilitating movement, and promoting social interaction. Spatial intervisibility should be enhanced by encouraging transparent façades and openings that allow visual contact for monitoring [87]. Attractiveness can be reinforced through distinctive places and landmarks that draw diverse groups, as well as through improved public lighting, with adequate spacing of permanent light sources to ensure quality illumination [79,80]. Permanence should be supported by providing seating and resting furniture, combined with appropriate shading, to promote environmental comfort and encourage people to remain in public spaces [32,33].
For this set of parameters concerning accessibility, attractiveness, and permanencies, the example of the Brazilian city yields more suitable outcomes for most of them, reinforcing statements from theories on Locational Criminality [21,22,23], Personal Space [24,25,26], Social Cohesion [27,28], and Defensible Space [34,37,38,39], since criminal dynamics arise from opportunities shaped by the physical environment, where individual surroundings influence behavioral propensity, public areas occupancy foster solidarity yet open avenues for unlawful acts, and urban design incorporates security and defense functions enacted by citizens themselves.
Less favorable conditions are identified along Avenida Beira-Rio in relation to the arrangement of seating and/or stopping furniture, as well as local references, underscoring the importance of observation to certain theoretical contributions, including those linked to principles of Spatial Needs [24,25,40].
Undeniably, these socio-morphological issues are supported by Environmental Design [15,34], with the organization of physical space aimed at crime prevention and control. However, along Avenida Beira-Rio, solutions of Universal Design [35,36] are scarce, virtually without inclusive design that ensures safe places. It is also worth noting the inherent ambiguity of some theories, since several advocate for the presence of individuals as ‘natural guardians,’ whereas Spatial Victimization [24,25,41], for instance, suggests that locals of prolonged social interaction function as factors increasing target availability for crime.
In relation to socio-political theories, attention should be directed toward improving institutional instruments and tactical tools for maintaining and monitoring public and private spaces. This includes evaluating the condition of sidewalks, roadways, and other components that may compromise physical–territorial order [40,50,51,52]. Special focus should be given to the presence of permanent personnel and spatial control devices [85]. Nevertheless, these latter components exhibit significant evaluative constraints in Itumbiara, particularly along Avenida Beira-Rio, where, at the time of the empirical surveys, no elements of monitoring of public and private spaces were identified, even when considering security as a responsibility beyond the state, as established by perspectives of Social Defense [42,43] and Social Control [44,45,46,47,48].
Moreover, it deserves particular mention that thefts and robberies frequently occur at night in Itumbiara, which undermines, especially under conditions of low illumination, the theoretical framework of Natural Surveillance [9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49], given the tendency toward a decline in the presence of people in public areas during this period. Even for the Brazilian city under study, the systematization of performance analysis of security is advocated, with assessment of strategic and tactical actions, from the perspective of Results-Based Management [53,54], supported by Criminal Mapping [24,25,55]. In this way, the deleterious effects of physical disorder enhancing criminality can be prevented, as explored by the Broken Windows theory [50,51,52].
In this sense, the critical discussion reinforces that urban policies must transcend reactive models and adopt preventive strategies that integrate public security, urban planning, and social participation. For this, master plans, urban codes, tactical instruments, and policing practices must be restructured in an articulated manner—a condition identified as essential for resilient and safe cities.
In this context, the main contributions of the research lie in establishing an integrative framework that connects public security, urban landscape, and institutional management, while providing empirical evidence that underscore systemic vulnerabilities across spatial, operational, and political dimensions. It demonstrates that criminal dynamics are structurally embedded rather than merely statistical, with temporal analysis confirming persistence of thefts and robberies despite pandemic fluctuations.
Despite the relevant limitations outlined below, the investigation also advances criminological theories by showing how spatially constructed opportunities interact with behavioral variables; consolidates a replicable methodological model that merges morphological analysis, ordinal classification, and integrated parameters assessment; and ultimately offers both theoretical reinforcement and practical guidance for designing resilient and preventive urban policies in contemporary contexts. The analysis of the study area shows that the criminal patterns observed reflect structural phenomena that go beyond mere numerical incidence of crimes. They reveal systemic fragilities combining physical vulnerabilities, operational restrictions, and political–institutional gaps.

4.2. Main Conceptual–Empirical Limitations

The systematization of the presented theories, while not encompassing all possible perspectives on the relationship between crime and urbanism, serves solely to support the intended analyses of this research. For other investigative lens, these frameworks require reformulation, with the potential adoption of more specific conceptual approaches tailored to each reality under interpretation. Moreover, theoretical contributions from diverse fields of knowledge could enhance outcomes for effective integrated management of the urban landscape and public security.
In empirical terms, although the preliminary formulation of a methodological essay was intended, with some contributions noted above, the most crucial limitation of the investigation lies in the fact that the case analysis encompasses only an urban district and three distinct segments (Northern, Central, Southern) of a single street (Avenida Beira-Rio) in the examined city (Itumbiara), with a reduced number of criminal incidents. The reliance on this micro-spatial sample does not allow for the generalization of findings to support a complex indicator system or the in-depth reviews of various theories.
Furthermore, this empirical restriction prevents certain specific statistical assessments, valid only for larger samples. It must also be noted that these research limitations constrain the generalizability of the findings to other urbanized contexts, making it advisable for future studies to expand the geographical scope of analyses—both to additional streets in the Central Sector and other road axes across the remaining districts of Itumbiara, as well as to other cities—in order to progressively refine this methodological essay.
The temporal scope, limited to three defined periods around the COVID-19 pandemic, may not capture longer-term fluctuations in criminal dynamics or broader socio-spatial transformations. The analytical framework, although innovative, depends on ordinal classifications that can oversimplify complex interactions among socio-behavioral, socio-morphological, and socio-political variables. Furthermore, the data set is restricted to theft and robbery records, leaving out other forms of crime that could influence urban vulnerabilities.
The use of four-level ordinal scales for assessing analytical parameters is justified to capture upward or downward tendencies in the results, although a higher even number of classes could allow greater analytical discrimination. In this way, numerical and/or percentage thresholds might also become more precise. It should be noted that certain differences in categorization may influence the robustness of the analytical outcomes, particularly in cases where elements could be measured with greater accuracy within the range of values of the local reality itself. Moreover, another possibility for future research concerns the assignment of weights according to the significance of each parameter, aiming at further refinement of the evaluative results, as an enhancement of the proposed methodological essay itself.
As the overall quality of the socio-morphological, socio-behavioral, and socio-political parameters in the study area is classified as ‘medium-low’ and the reality of the studied city does not reveal significant changes in socio-morphological (structural/physical) or socio-political (managerial/institutional) variables, it can be inferred that socio-behavioral dimensions would require methodological complements beyond metric-locational approaches to escape routes and physical/visual barriers, commonly examined in environmental criminology, toward perspectives more directly related to the assessment of human behavior itself.
Institutional and policy-related insights are derived from secondary sources, which may not fully reflect the nuances of local governance practices. In the case of public security, there are also issues related to sensitive information, whose access is restricted by legal data protection norms. Furthermore, crime under-reporting and inadequate recording are acknowledged, representing significant challenges to be addressed in the evaluation of criminality in Brazilian cities.
Therefore, it is reiterated that the experiment should be regarded as a preliminary methodological essay, whose future directions ought to include expanding the sample across diverse cities scales and geographic positions. They should also encompass adapting the analytical variables to each local reality, as well as the occasional removal of parameters or inclusion of new ones. In summary, the set of general guidelines identified provides a base for the concluding considerations of this debate.

5. Conclusions

Attesting to the achievement of the objective of analyzing public spaces in Itumbiara as inputs for integrated management policies of safe landscapes, responses are presented to the investigative question regarding the identifiable foundations for sharing urbanistic-criminal solutions within the framework of an urban agenda. At first, the answers refer to analytical results of districts according to theft and robbery incidence in the defined periods (before—2018–2019; parallel—2020–2021; and post-pandemic—2022–2023). Based on the discrimination of the study unit, pertinent to the Setor Central due to its higher crime occurrence, the road axis of Avenida Beira-Rio within this administrative region is determined by its similar manifestation of offenses.
The classificatory assessment of analytical variables shows that the medium-low performance of socio-behavioral, socio-morphological, and socio-political parameters characterizes an urban setting where situational crime prevention is constrained by both spatial configuration and governance practices. This condition indicates that isolated measures—such as infrastructure upgrades, landscape renewal, or policing efficiency—produce limited outcomes when not aligned with integrated strategies. The convergence of findings demonstrates that insecurity arises not from a single determinant but from the accumulation of permissive spatial arrangements, fragmented institutional actions, and social processes, some of them typical of central districts.
Thus, the results allow the inference that punctual improvement actions tend to have reduced impact if not accompanied by monitoring processes, revision of urbanistic instruments, and expanded coordination among governmental sectors. From a strategic perspective, they show that the city landscape, when planned and managed by preventive principles, can constitute significant social defense potential.
Likewise, they confirm that public security, when dissociated from urban planning solutions, loses preventive and territorialized capacity. The evidence obtained conveys that the articulation between environmental variables and institutional practices is not only desirable but essential for medium-sized cities like Itumbiara to achieve greater spatial resilience and sustainable reduction in criminal opportunities.
In addressing the proposed problem, the set of general guidelines associates analytical variables with criminological theories—both classical and contemporary. As a corollary, it confirms the hypothesis that interactions between criminal and landscape parameters enable principles for coordinated measures in planning and security in urbanized areas for the integrated management of public safety and the urban environment.
From a scientific standpoint, the discussion advances contributions related to both theoretical reinforcement and empirical demonstration of the interaction between spatial and behavioral variables, with criminality explained not only by the presence of offenders and victims but also by spatially constructed opportunities. On the other hand, by showing that thefts and robberies persist despite temporal variation and pandemic decline, the findings confirm that the landscape functions as a mediator of criminal action, allowing vulnerabilities to remain regardless of contextual dynamics.
Equally significant is the consolidation of a replicable methodological model, as the integrated reading of socio-behavioral, socio-morphological, and socio-political variables produces an original process, which, with suitable refinements, is applicable to other cities. Naturally, it requires adjustments in subsequent studies, whether within the same city or across different urban contexts. Nonetheless, preserving the simplicity of the procedures adopted is desirable, ensuring their straightforward replication not only by scholars in the field but, most notably in the Brazilian scenario, by public administrators in municipalities with limited experience in integrated processes, as well as by social actors unacquainted with specialized techniques.

Author Contributions

Conceptualization, R.S.N., L.P.A.H. and P.C.P.; methodology, R.S.N., L.P.A.H., P.C.P. and C.H.; software, R.S.N., L.P.A.H. and P.C.P.; validation, R.S.N., L.P.A.H., P.C.P. and C.H.; formal analysis, L.P.A.H., P.C.P. and C.H.; investigation, R.S.N., L.P.A.H. and P.C.P.; data curation, R.S.N.; writing—original draft preparation, R.S.N.; writing—review and editing, L.P.A.H., P.C.P. and C.H.; visualization, L.P.A.H., P.C.P. and C.H.; supervision, L.P.A.H. and P.C.P. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no specific external funding.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

The data presented in this study are available on request from the corresponding author. Due to privacy restrictions and ethical considerations, the underlying criminal data cannot be made publicly available.

Acknowledgments

To the Public Security Observatory of the State of Goiás (Observatório de Segurança Pública do Estado de Goiás—OSP-GO) for providing the criminal data; to the National Council for Scientific and Technological Development (Conselho Nacional de Desenvolvimento Científico e Tecnológico) and Araucária Foundation (Fundação Araucária) for the support in research on Safe Landscape; and to the Pontifical Catholic University of Paraná (Pontifícia Universidade Católica do Paraná–PUCPR) and Goiatuba University Center (Centro Universitário Goiatuba–UniCerrado) for their assistance in the development of research-related activities.

Conflicts of Interest

The authors declare no conflicts of interest.

Abbreviations

The following abbreviations are used in this manuscript:
ANOVAAnalysis of Variance
ArcGISArc Geographic Information System
CNPqNational Council for Scientific and Technological Development
(Conselho Nacional de Desenvolvimento Científico e Tecnológico)
COVID-19Coronavirus disease 2019
CPTEDCrime Prevention through Environmental Design
ESRIEnvironmental Systems Research Institute
FAAraucária Foundation
(Fundação Araucária)
GISGeographic Information System
IBGEBrazilian Institute of Geography and Statistics
(Instituto Brasileiro de Geografia e Estatística)
KDEKernel Density Estimation
OSP-GOPublic Security Observatory of the State of Goiás
(Observatório de Segurança Pública do Estado de Goiás)
PMIMunicipal Government of Itumbiara
(Prefeitura Municipal de Itumbiara)
PUCPRPontifical Catholic University of Paraná
(Pontifícia Universidade Católica do Paraná)
QGISQuantum Geographic Information System
SciPyScientific Python
UniCerradoGoiatuba University Center
(Centro Universitário Goiatuba)

Appendix A

Table A1. Synthesis panel of measurement procedures for the analytical variables applied to the evaluation of Avenida Beira-Rio in the Setor Central of Itumbiara. Sources adapted: [70,81] and other references consulted.
Table A1. Synthesis panel of measurement procedures for the analytical variables applied to the evaluation of Avenida Beira-Rio in the Setor Central of Itumbiara. Sources adapted: [70,81] and other references consulted.
Variables/ParametersNorthern SegmentCentral SegmentSouthern Segment
Western SideEastern SideAveragesWestern SideEastern SideAveragesWestern SideEastern SideAverages
Socio-Behavioral Variables
EvasionEscape
routes:
short blocks unfavorable to police pursuit (due to the proximity of street corners) and other spatial elements structuring exit and dispersal paths for offenders (common in parks, squares, and similar places), which facilitate their withdrawal from the field of vision and therefore restrict their apprehension
(average percentage)
Measure9%100% 100%100% 100%100%
Justificationalmost the entire length of the segment characterized by long block (235 m) without physical permeabilityentire length of the segment with physical permeability (park)entire segment with blocks under 100 m (60, 75, 98 m)entire length of the segment with physical permeability (park)entire length of the segment with physical permeability (square and vacant lot)entire length of the segment with physical permeability (park)
Urbansci 10 00462 i001Urbansci 10 00462 i002Urbansci 10 00462 i003Urbansci 10 00462 i004Urbansci 10 00462 i005Urbansci 10 00462 i006
Initial class411111
Promoter or
reducer
application of reducer due to the possibility of escape through wall crossing
Urbansci 10 00462 i007
Final class312.0111.0111.0
less than
10%
tendency for segment data located within the lower decile: potential for substantial minimization of adverse escape routes characteristics
from 10% to
25%
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of adverse escape routes characteristics
from 26% to
50%
tendency for segment data located within the intermediate-low quartile: potential for relative maximization of adverse escape routes characteristics
more than
50%
tendency for segment data located within the two upper quartiles: potential for substantial maximization of adverse escape routes characteristics
CONCEALMENTPhysical barriers:
spatial components that form physical hiding places for offenders, enabling surprise attacks without giving victims time to react
(average percentage)
Measure0%4% 8%4% 26%81%
Justificationthe entire length of the stretch without physical barriers to concealment in public spacephysical barriers for concealment in public spaces along less than 10% of the stretch’s lengthphysical barriers for concealment in public spaces along less than 10% of the stretch’s lengthphysical barriers for concealment in public spaces along less than 10% of the stretch’s lengthphysical barriers for concealment in public space covering between 30% and 50% of the section’s lengthphysical barriers for concealment in public space covering more than 75% of the section’s length
Urbansci 10 00462 i008Urbansci 10 00462 i009Urbansci 10 00462 i010Urbansci 10 00462 i011Urbansci 10 00462 i012Urbansci 10 00462 i013
Initial class444421
Promoter or
reducer
application of reducer due to the possibility of concealment caused by the drop on the riverbank application of reducer due to the possibility of concealment caused by the drop on the riverbank
Urbansci 10 00462 i014Urbansci 10 00462 i015
Final class433.5433.5211.5
less than
10%
tendency for segment data located within the lower decile: potential for substantial minimization of adverse physical barriers characteristics
from 10% to
25%
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of adverse physical barriers characteristics
from 26% to
50%
tendency for segment data located within the intermediate-low quartile: potential for relative maximization of adverse physical barriers characteristics
more than
50%
tendency for segment data located within the two upper quartiles: potential for substantial maximization of adverse physical barriers characteristics
ShieldingVisual obstructions:
spatial components that form visual hiding places for offenders, enabling surprise attacks without giving victims time to react
(average percentage)
Measure2%100% 9%100% 39%100%
Justificationfew visual obstructions in public space (especially by square elements)visual obstructions in public space (especially by drop on the riverbank along the entire segment)few visual obstructions in public space (especially by shrub vegetation)visual obstructions in public space (especially by drop on the riverbank along the entire segment)few visual obstructions in public space (especially by square shrub vegetation) visual obstructions in public space (especially by drop on the riverbank along the entire segment)
Urbansci 10 00462 i016Urbansci 10 00462 i017Urbansci 10 00462 i018Urbansci 10 00462 i019Urbansci 10 00462 i020Urbansci 10 00462 i021
Initial class414121
Promoter or
reducer
Final class412.5412.5211.5
less than
10%
tendency for segment data located within the lower decile: potential for substantial minimization of adverse visual obstructions characteristics
from 10% to 25%tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of adverse visual obstructions characteristics
from 26% to 50%tendency for segment data located within the intermediate-low quartile: potential for relative maximization of adverse visual obstructions characteristics
more than
50%
tendency for segment data located within the two upper quartiles: potential for substantial maximization of adverse visual obstructions characteristics
Socio-Morphological Variables
DimensionsStreet
scale:
proportions of sidewalks that optimize pedestrian circulation, configured as spatial guardians (average proportion: sidewalk width/ roadway width)
Measure0.200.66 0.530.77 0.530.77
Justificationsidewalk = 1.5 m/
roadway = 7.5 m
sidewalk = 5.0 m/
roadway = 7.5 m
sidewalk = 3.5 m/
roadway = 6.5 m
sidewalk = 5.0 m/
roadway = 6.5 m
sidewalk = 3.5 m/
roadway = 6.5 m
sidewalk = 5.0 m/
roadway = 6.5 m
Urbansci 10 00462 i022Urbansci 10 00462 i023Urbansci 10 00462 i024Urbansci 10 00462 i025Urbansci 10 00462 i026Urbansci 10 00462 i027
Initial class133333
Promoter or
reducer
application of promoter due to the expansion of sidewalks into open areas application of promoter due to the expansion of sidewalks into open areasapplication of promoter due to the expansion of sidewalks into open areasapplication of promoter due to the expansion of sidewalks into open areas
Urbansci 10 00462 i028Urbansci 10 00462 i029Urbansci 10 00462 i030Urbansci 10 00462 i031
Final class142.5343.5444.0
more than 1/1
(more than 1.00)
framing of segment proportional average between sidewalk and roadway widths with potential for significant maximization of positive street-scale attributes
from 1/1 to 1/2
(from 1.00 to 0.50)
framing of segment proportional average between sidewalk and roadway widths with potential for relative maximization of positive street-scale attributes
from 1/2 to 1/4
(from 0.49 to 0.25)
framing of segment proportional average between sidewalk and roadway widths with potential for relative minimization of positive street-scale attributes
less than 1/4
(less than 0.25)
framing of segment proportional average between sidewalk and roadway widths with potential for substantial minimization of positive street-scale attributes
Urban
scale:
proportions of built elements inviting the attraction of people and their spatial perception for natural surveillance (average proportion: block length/higher building height)
Measure42.70- 6.50- -56.78
Justificationblock length = 235 m/
higher building height =
5.5 m
block length = 278 m/
without buildings
blocks length = 234 m/
higher building height =
36.0 m
block length = 280 m/
without buildings
block length = 116 m/
without buildings
blocks length = 159 m/
higher building height =
2.8 m
Urbansci 10 00462 i032Urbansci 10 00462 i033Urbansci 10 00462 i034Urbansci 10 00462 i035Urbansci 10 00462 i036Urbansci 10 00462 i037
Initial class444444
Promoter or
reducer
Final class444.0444.0444.0
more than 1/1
(more than 1.00)
framing of segment proportional average between block length and higher building height with potential for substantial maximization of positive urban scale attributes
from 1/1 to 1/2
(from 1.00 to 0.50)
framing of segment proportional average between block length and higher building height with potential for relative maximization of positive urban scale attributes
from 1/2 to 1/4
(from 0.49 to 0.25)
framing of segment proportional average between block length and higher building height with potential for relative minimization of positive urban scale attributes
less than 1/4
(less than 0.25)
framing of segment proportional average between block length and higher building height with potential for substantial minimization of positive urban scale attributes
DensitiesConstructive/population densification:
higher levels of residential building occupation generally correspondent to a greater number of users in outdoor spaces surrounding constructions
(average density)
Measure1.90 75.80 00
Justificationlow population density of the lots facing the streetwithout residential buildingshigh population density of the lots facing the streetwithout residential buildingswithout residential buildingswithout residential buildings
Urbansci 10 00462 i038Urbansci 10 00462 i039Urbansci 10 00462 i040Urbansci 10 00462 i041Urbansci 10 00462 i042Urbansci 10 00462 i043
Initial class114111
Promoter or
reducer
Final class111.0412.5111.0
more than
36 inh./ha
framing of segment average constructive population density above twice the city mean: potential for significant expansion of natural surveillance
from 24 inh./ha to 36 inh./haframing of segment average constructive population density between city mean and twice this value: potential for relative expansion of natural surveillance
from 12 inh./ha to 24 inh./haframing of segment average constructive population density between city mean and half this value: potential for relative reduction in natural surveillance
less than
12 inh./ha
framing of segment average constructive population density below half the city mean: potential for significant reduction in natural surveillance
Diversity
of uses:
wider range of land uses that distinguishes distinct groups of users and enhances urban vitality and public safety
(degree of land use diversity)
Measure2
(commercial and leisure-square)
1
(leisure-park)
4
(residential, commercial, institutional and services)
1
(leisure-park)
1
(leisure-square, besides vacant lot)
2
(leisure-park-and services)
Justificationlow-diversified useundiversified usediversified useundiversified useundiversified uselow-diversified use
Urbansci 10 00462 i044Urbansci 10 00462 i045Urbansci 10 00462 i046Urbansci 10 00462 i047Urbansci 10 00462 i048Urbansci 10 00462 i049
Urbansci 10 00462 i050 Urbansci 10 00462 i051
Urbansci 10 00462 i052
Urbansci 10 00462 i053
Initial class214112
Promoter or
reducer
Final class211.5412.5121.5
more than
3 uses
greater degree of segment land use diversity: potential for significant urban vitality
3 usesmedian degree of segment land use diversity: potential for relative urban vitality
2 usessmaller degree of segment land use diversity: potential for reduced urban vitality
1 useabsence of segment land use diversity: potential for very reduced urban vitality
AcessibilitiesRelations between public and private spaces:
potential for access and circulation associated with the movement of people, fostering socio-spatial interactions
(average percentage)
Measure5%100% 0%100% 65%97%
Justificationreduced potential of public access to small public space at a corner of the segmentbroad potential of public access across full extent of the parkpractically no potential due to predominance of private properties along entire segmentbroad potential of public access across full extent of the parkbroad potential of public access from presence of square, reduced by vacant private propertybroad potential of public access along the almost extent of the park
Urbansci 10 00462 i054Urbansci 10 00462 i055Urbansci 10 00462 i056Urbansci 10 00462 i057Urbansci 10 00462 i058Urbansci 10 00462 i059
Initial class141444
Promoter or
reducer
Final class142.5142.5444.0
more than
50%
tendency for segment data located within the two upper quartiles: potential for substantial maximization of positive relations between public and private spaces
from 26 to
50%
tendency for segment data located within the intermediate-upper quartile: potential for relative maximization of positive relations between public and private spaces
from 10 to
25%
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of positive relations between public and private spaces
less than
10%
tendency for segment data located within the lower decil: potential for substantial minimization of positive relations between public and private spaces
Spatial intervisibility:
facades and enclosures with transparent openings that induce interactions and visual access, enabling spatial monitoring
at the observer’s eye level
(average percentage)
Measure9%95% 24%86% 91%73%
Justificationlow degree of openings and transparencies along nearly entire segmenthigh degree of openings with occasional transparency failure due to visual barrier from vegetationlow degree of openings and transparency in blocks (10%, 21% and 48%)high degree of openings with occasional transparency failure due to visual barrier from vegetationhigh degree of openings with occasional transparency failure due to visual barrier from vegetation and billboardshigh degree of openings with transparency failure due to visual barrier from vegetation
Urbansci 10 00462 i060Urbansci 10 00462 i061Urbansci 10 00462 i062Urbansci 10 00462 i063Urbansci 10 00462 i064Urbansci 10 00462 i065
Urbansci 10 00462 i066 Urbansci 10 00462 i067
Urbansci 10 00462 i068
Initial class142444
Promoter or
reducer
Final class142.5243.0444.0
more than
50%
tendency for segment data located within the two upper quartiles: potential for substantial maximization of positive spatial intervisibility attributes
from 26 to
50%
tendency for segment data located within the intermediate-upper quartile: potential for relative maximization of positive spatial intervisibility attributes
from 10 to
25%
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of positive spatial intervisibility attributes
less than
10%
tendency for segment data located within the lower decil: potential for substantial minimization of positive spatial intervisibility attributes
AttractivenessLocal
references:
presence of distinctive elements (nodal points and/or landmarks) that foster recognition and attract individuals and groups
(degree of presence)
Measure11 11 10
Justificationpresence of a nodal point (roundabout) and absence of landmarkspresence of a nodal point (roundabout) and absence of landmarkspresence of a nodal point (roundabout) and absence of landmarkspresence of a nodal point (roundabout) and absence of landmarkspresence of a landmark (sign) and absence of nodal pointsabsence of nodal points and landmarks
Urbansci 10 00462 i069Urbansci 10 00462 i070Urbansci 10 00462 i071Urbansci 10 00462 i072Urbansci 10 00462 i073
Initial class111111
Promoter or
reducer
Final class111.0111.0111.0
more than
3 references
greater degree of segment local references presence: potential for significant local recognition and attractiveness
3 referencesmedian degree of segment local references presence: potential for relative local recognition and attractiveness
2 referenceslower-median degree of segment local references presence: potential for reduced local recognition and attractiveness
1 or absence of referencessmaller degree of segment local references presence or their absence: potential for very reduced local recognition and attractiveness
Public
lighting:
spacing of permanent nighttime light sources to ensure adequate distribution of luminosity in public spaces
(average spacing: lamp posts)
Measureaverage of 30 maverage of 30 m average of 30 maverage of 30 m average of 30 maverage of 30 m
Justificationspacing of permanent nighttime light sources with reasonable distribution of luminosity in public spacesspacing of permanent nighttime light sources with reasonable distribution of luminosity in public spacesspacing of permanent nighttime light sources with reasonable distribution of luminosity in public spacesspacing of permanent nighttime light sources with reasonable distribution of luminosity in public spacesspacing of permanent nighttime light sources with reasonable distribution of luminosity in public spacesspacing of permanent nighttime light sources with reasonable distribution of luminosity in public spaces
Urbansci 10 00462 i074Urbansci 10 00462 i075Urbansci 10 00462 i076Urbansci 10 00462 i077Urbansci 10 00462 i078Urbansci 10 00462 i079
Initial class333333
Promoter or
reducer
application of reducer due to the public lighting only along the median stripapplication of promoter due to the presence of high-efficiency lighting luminaries in the parkapplication of reducer due to the public lighting only along the median stripapplication of promoter due to the presence of high-efficiency lighting luminaries in the parkapplication of reducer due to the public lighting only along the median stripapplication of promoter due to the presence of high-efficiency lighting luminaries in the park
Urbansci 10 00462 i080Urbansci 10 00462 i081Urbansci 10 00462 i082Urbansci 10 00462 i083Urbansci 10 00462 i084Urbansci 10 00462 i085
Final class243.0243.0243.0
less than
20 m
smaller spacing of permanent nighttime light sources in the segment: potential for significant maximization of adequate luminosity distribution in public spaces
from 20 to
35 m
lower-medium spacing of permanent nighttime light sources in the segment: potential for relative maximization of adequate luminosity distribution in public spaces
from 36 to
50 m
medium spacing of permanent nighttime light sources in the segment: potential for relative minimization of adequate luminosity distribution in public spaces
more than
50 m
greater spacing of permanent nighttime light sources in the segment: potential for significant minimization of adequate luminosity distribution in public spaces
PermanenciesArrangement of seating and/or stopping furniture:
Potential for spatial appropriation by users due to furniture elements
(average percentage)
Measure9%100% 0%100% 62%0%
Justificationexistence of a bench in a square at one of the corners existence of benches along the entire lengthabsence of furniture for spatial appropriation along the entire lengthexistence of benches along 58% of the lengthexistence of a bench in the squareabsence of furniture for spatial appropriation along the entire length
Urbansci 10 00462 i086Urbansci 10 00462 i087Urbansci 10 00462 i088Urbansci 10 00462 i089Urbansci 10 00462 i090Urbansci 10 00462 i091
Initial class14144
Promoter or
reducer
excessive spacing between benches excessive spacing between benchesinsufficient quantity of benches
Urbansci 10 00462 i092Urbansci 10 00462 i093Urbansci 10 00462 i094
Final class132.0132.0312.0
more than
50%
tendency for segment data located within the two upper quartiles: potential for substantial maximization of positive furniture arrangement attributes
from 26 to
50%
tendency for segment data located within the intermediate-upper quartile: potential for relative maximization of positive furniture arrangement attributes
from 10 to
25%
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of positive furniture arrangement attributes
less than
10%
tendency for segment data located within the lower decil: potential for substantial minimization of positive furniture arrangement attributes
Shading for seating and/or stopping:
potential for environmental comfort that encourages users to remain in the location
(average percentage)
Measure5%36% 0%31% 51%67%
Justificationlow shading rate in permanence spaces (square at corner)medium shading rate in permanence spaces (park)absence of shading in public spacesmedium shading rate in permanence spaces (park)high shading rate in permanence space (square)high shading rate in permanence spaces (park)
Urbansci 10 00462 i095Urbansci 10 00462 i096Urbansci 10 00462 i097Urbansci 10 00462 i098Urbansci 10 00462 i099Urbansci 10 00462 i100
Initial class131344
Promoter or
reducer
Final class132.0132.0444.0
more than
50%
tendency for segment data located within the two upper quartiles: potential for substantial maximization of positive shading attributes
from 26 to
50%
tendency for segment data located within the intermediate-upper quartile: potential for relative maximization of positive shading attributes
from 10 to
25%
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of positive shading attributes
less than
10%
tendency for segment data located within the lower decil: potential for substantial minimization of positive shading attributes
Socio-Political Variables
Institutional instruments/tactical tollsMaintenance of public spaces:
condition of conservation of streets (especially sidewalks) and other public components, revealing physical–territorial order/disorder
(average percentage)
Measure89%8% 32%2% 14%3%
Justificationhigh proportion of sidewalks in precarious maintenance conditionlow proportion of sidewalks in precarious maintenance conditionmedian proportion of sidewalks in precarious maintenance conditionlow proportion of sidewalks in precarious maintenance conditionrelatively low proportion of sidewalks in precarious maintenance conditionlow proportion of sidewalks in precarious maintenance condition
Urbansci 10 00462 i101Urbansci 10 00462 i102Urbansci 10 00462 i103Urbansci 10 00462 i104Urbansci 10 00462 i105Urbansci 10 00462 i106
Initial class142434
Promoter or
reducer
Final class142.5243.0343.5
less than
10%
tendency for segment data located within the lower decile: indicative of smaller degree of maintenance precariousness in public spaces
from 10% to
25%
tendency for remaining segment data in the lower decile located within the low quartile: indicative of lower-median degree of maintenance precariousness in public spaces
from 26% to
50%
tendency for segment data located within the intermediate-low quartile: indicative of median degree of maintenance precariousness in public spaces
more than
50%
tendency for segment data located within the two upper quartiles: indicative of greater degree of maintenance precariousness in public spaces
Monitoring of public and private spaces:
existence of permanent personnel and control devices in places of common and private use
(average number)
MeasureNorthern Segment- -- --
Justificationabsence of permanent personnel and control devicesabsence of permanent personnel and control devicesabsence of permanent personnel and control devicesabsence of permanent personnel and control devicesabsence of permanent personnel and control devicesabsence of permanent personnel and control devices
Initial class111111
Promoter or
reducer
application of promoter due to the potential for natural surveillance through the presence of people
Urbansci 10 00462 i107
Final class111.0211.5111.0
more than
4 resources per 50 m
greater availability of monitoring resources across public and private spaces along the segment: indicative of more significant spatial control
from 3 to 4
resources per 50 m
medium availability of monitoring resources across public and private spaces along the segment: indicative of significant spatial control
from 1 to 2
resources per 50 m
lower availability of monitoring resources across public and private spaces along the segment: indicative of insignificant spatial control
nonexistence of resourcesabsence of monitoring resources across public and private spaces along the segment: indicative of lack of spatial control
LEGEND
high quality class medium-high quality class medium-low quality class low quality class

References

  1. Guzmán, G.; López-Ramírez, B.; Lópes-Ruiz, M. Chapter 14–Definition of public safety policies based on the characterization of criminal events using volunteered geographic information, case study: Mexico. In Smart Cities: Issues and Challenges: Mapping Political, Social, and Economic Risks and Threats; Visvizi, A., Lytras, M.D., Eds.; Elsevier: Amsterdam, The Netherlands, 2019; pp. 241–262. ISBN 978-0128166390. [Google Scholar]
  2. Khaliji, M.A.; Ghalehteimouri, K.J. Urban security challenges in major cities, with a specific emphasis on privacy management in the metropolises. Discov. Environ. 2024, 2, 74. [Google Scholar] [CrossRef]
  3. Cai, Y.; Chen, A.; Tang, Z.; Wang, Y.; Song, Y. Advancing urban management: Integrating GIS, LLMs, and media narratives into environmental and socio-economic analyses for enhanced urban crime analysis. PLoS ONE 2025, 20, e0331788. [Google Scholar] [CrossRef] [PubMed]
  4. Wang, Y.; Liu, D.; Gan, J.; Lai, X. A novel analytical framework for modeling crime spatial patterns using composite urban environmental factors. ISPRS Int. J. Geo-Inf. 2026, 15, 55. [Google Scholar] [CrossRef]
  5. Jubaer, S.M.O.F.; Hassan, M.N. The Routine Activities and Rational Choice Theory: A criminologist reflection. Eur. J. Sociol. 2021, 2, 19–29. [Google Scholar] [CrossRef]
  6. Felson, M.; Cohen, L.E. Human ecology and crime: A routine activity approach. Hum. Ecol. 1980, 8, 389–406. [Google Scholar] [CrossRef]
  7. Hollis, M.E.; Felson, M.; Welsh, B. The capable guardian in routine activities theory: A theoretical and conceptual reappraisal. Crime. Prev. Community Saf. 2013, 15, 65–79. [Google Scholar] [CrossRef]
  8. Wikström, P.-O.H. Routine Activity Theories; Oxford University Press: Oxford, UK, 2010; ISBN 978-0199805761. [Google Scholar]
  9. Jacobs, J. The Death and Life of Great American Cities; Bodley Head: London, UK, 2020; ISBN 978-1847926180. [Google Scholar]
  10. Wilcox, P.; Cullen, F.T. Situational opportunity theories of crime. Annu. Rev. Criminol. 2018, 1, 123–148. [Google Scholar] [CrossRef]
  11. Becker, G.S. Crime and punishment: An economic approach. J. Political Econ. 1968, 76, 169–217. [Google Scholar] [CrossRef] [PubMed]
  12. Bernburg, J.G. Labeling Theory. In Handbook of Crime and Deviance, 2nd ed.; Krohn, M.D., Hendrix, N., Hall, G.P., Lizotte, A.J., Eds.; Springer Nature: Cham, Switzerland, 2019; pp. 179–196. ISBN 978-1441902443. [Google Scholar]
  13. Besemer, S.; Farrington, D.P.; Bijleveld, C.C.J.H. Labeling and intergenerational transmission of crime: The interaction between criminal justice intervention and a convicted parent. PLoS ONE 2017, 8, e0172419. [Google Scholar] [CrossRef] [PubMed]
  14. Sigrist, F.C.; Marin, S.R. Morality, Justice, and Economic Theory of Crime: A positive-normative analysis. Mod. Econ. 2022, 13, 1–22. [Google Scholar] [CrossRef]
  15. Cozens, P.; Love, T. A review and current status of Crime Prevention through Environmental Design (CPTED). J. Plan. Lit. 2015, 30, 393–412. [Google Scholar] [CrossRef]
  16. Jeffery, C.R. Criminal behavior and the physical environment: A perspective. Am. Behav. Sci. 1976, 20, 149–174. [Google Scholar] [CrossRef]
  17. Jeffery, C.R. Crime Prevention Through Environmental Design, 2nd ed.; Sage: Thousand Oaks, CA, USA, 1977; ISBN 978-0803907058. [Google Scholar]
  18. Cornish, D.B.; Clarke, R.V. Opportunities, precipitators, and criminal decisions: A reply to wortley’s critique of situational crime prevention. In Crime Prevention Studies V.16; Clarke, R.V., Ed.; Criminal Justice Press: New York, NY, USA, 2003; pp. 41–96. ISBN 978-1881798163. [Google Scholar]
  19. Lynch, M.J.; Barrett, K.L. Social Disorganization Theory. In The Routledge Companion to Criminological Theory and Concepts; Brisman, A., Carrabine, E., South, N., Eds.; Routledge: Oxfordshire, UK, 2017; pp. 100–104. ISBN 978-1138819009. [Google Scholar]
  20. Shaw, C.R.; McKay, H.D. Juvenile delinquency and urban areas: A study of rates of delinquency in relation to differential characteristics of local communities in American cities. In Classics in Environmental Criminology; Andresen, M.A., Brantingham, P.J., Kinney, B., Eds.; University of Chicago Press: Chicago, IL, USA, 1942; pp. 140–169. ISBN 978-0429245879. [Google Scholar]
  21. Cohen, L.E.; Felson, M. Social change and crime rate trends: A routine activity approach. Am. Sociol. Rev. 1979, 44, 588–608. [Google Scholar] [CrossRef] [PubMed]
  22. Saraiva, M.; Matijošaitienė, I.; Mishra, S.; Amante, A. Crime prediction and monitoring in Porto, Portugal, using machine learning, spatial and text analytics. ISPRS–Int. J. Geo-Inf. 2022, 11, 400. [Google Scholar] [CrossRef]
  23. Wikström, P.-O.H.; Kroneberg, C. Analytic criminology: Mechanisms and methods in the explanation of crime and its causes. Annu. Rev. Criminol. 2022, 5, 179–203. [Google Scholar] [CrossRef]
  24. Brantingham, P.J.; Brantingham, P.L. Environmental criminology. In Crime and Justice: An Annual Review of Research, V.1; Tonry, M., Morris, N., Eds.; University of Chicago Press: Chicago, IL, USA, 1979; pp. 1–45. ISBN 978-0226539553. [Google Scholar]
  25. Brantingham, P.J.; Brantingham, P.L. Environmental criminology. In Encyclopedia of Victimology and Crime Prevention, V.1; Fisher, B.S., Lab, S.P., Eds.; Sage: Thousand Oaks, CA, USA, 2010; pp. 239–246. ISBN 978-1412960472. [Google Scholar]
  26. Feng, J.; Hou, H. Review of research on urban social space and sustainable development. Sustainability 2023, 15, 16130. [Google Scholar] [CrossRef]
  27. Sahharon, H.; Bolong, J.; Omar, S.Z. Exploring the evolution of social cohesion: Interdisciplinary theories and their impact. Forum Komun. 2023, 18, 58–73. [Google Scholar] [CrossRef] [PubMed]
  28. Sampson, R.J.; Raudenbush, S.W.; Earls, F. Neighborhoods and violent crime: A multilevel study of collective efficacy. Science 1997, 277, 918–924. [Google Scholar] [CrossRef] [PubMed]
  29. Druck, D. The rise, fall, and rebirth of territorial defense. Scand. J. Mil. Stud. 2023, 6, 69–85. [Google Scholar] [CrossRef]
  30. Taylor, R.B.; Gottfredson, S. Environmental design, crime, and prevention: An examination of community dynamics. Crime. Justice 1986, 8, 387–416. Available online: http://www.jstor.org/stable/1147433 (accessed on 31 May 2026). [CrossRef] [PubMed]
  31. Amirusholihin, J.K.; Rahadiantino, L.; Nilasari, A.; Rakhmawati, D.Y.; Fatoni, F. How population density and welfare affect crime rates: A study in East Java Province, Indonesia. Rev. Gest. Soc. E Ambient. 2024, 18, e06224. [Google Scholar] [CrossRef]
  32. Whyte, W.H. The Social Life of Small Urban Spaces, 8th ed.; Project for Public Spaces: New York, NY, USA, 2001; ISBN 978-0970632418. [Google Scholar]
  33. Widya Putra, D.; Salim, W.A.; Indradjati, P.N.; Prilandita, N. Understanding the position of urban spatial configuration on the feeling of insecurity from crime in public spaces. Front. Built Environ. 2023, 9, 1114968. [Google Scholar] [CrossRef]
  34. Newman, O. Defensible Space: Crime Prevention Through Urban Design; Macmillan: New York, NY, USA, 1972; ISBN 978-0020007500. [Google Scholar]
  35. Duman, Ü.; Asilsoy, B. Developing an evidence-based framework of universal design in the context of sustainable urban planning in Northern Nicosia. Sustainability 2022, 14, 13377. [Google Scholar] [CrossRef]
  36. Mace, R.L. Universal design, barrier free environments for everyone. Des. West 1985, 33, 147–152. Available online: https://www.usmodernist.org/DW/DW-1985-11.pdf (accessed on 31 May 2026).
  37. Crowe, T.D. CPTED–Crime Prevention Through Environmental Design: Applications of Architectural Design and Space Management Concepts, 3rd ed.; Butterworth-Heinemann: Oxford, UK, 2013; ISBN 978-0124116351. [Google Scholar]
  38. Newman, O. Creating Defensible Space, 2nd ed.; US Department of Housing and Urban Development, Office of Policy Development and Research: Washington, DC, USA, 1996; ISBN 978-0788145285.
  39. Marzukhi, M.A.; Afiq, M.A.; Ahmad Zaki, S.; Ling, O.H.L. An observational study of defensible space in the neighbourhood park. IOP Conf. Ser. Earth Environ. Sci. 2018, 117, 012016. [Google Scholar] [CrossRef]
  40. García-Tejeda, E.; Fondevila, G. Policing social disorder and Broken Windows Theory: Spatial evidence from the “Franeleros” experience. ISPRS Int. J. Geo-Inf. 2023, 12, 449. [Google Scholar] [CrossRef]
  41. Turanovic, J.J.; Pratt, T.C. Thinking About Victimization: Context and Consequences, 2nd ed.; Routledge: Oxfordshire, UK, 2023; ISBN 978-1032216874. [Google Scholar]
  42. Ancel, M. Social Defence: A Modern Approach to Criminal Problems, 3rd ed.; Routledge: Oxfordshire, UK, 2013; ISBN 978-0415863933. [Google Scholar]
  43. Heath-Kelly, C.; Shanaáh, Š. The long history of prevention: Social defence, security and anticipating future crimes in the era of ‘penal welfarism’. Theor. Criminol. 2022, 26, 357–376. [Google Scholar] [CrossRef]
  44. Burt, C.H. Self-control and crime: Beyond Gottfredson & Hirschi’s theory. Annu. Rev. Criminol. 2020, 3, 43–73. [Google Scholar] [CrossRef] [PubMed]
  45. Costello, B. Social Control Theory. In Preventing Crime and Violence (Advances in Prevention Science); Teasdale, B., Bradley, M.S., Eds.; Springer: Cham, Switzerland, 2017; pp. 31–41. ISBN 978-3319829890. [Google Scholar]
  46. Fisher, D.; Abel, M.N.; McCann, W.S. Differentiating violent and non-violent extremists: Lessons from 70 years of Social Control Theory. J. Deradicalization 2023, 34, 28–49. Available online: https://journal-derad.com/index.php/jd/article/view/707 (accessed on 31 May 2026).
  47. Gottfredson, M.R.; Hirschi, T. A General Theory of Crime; Stanford University Press: Stanford, CA, USA, 1990; ISBN 978-0804717748. [Google Scholar]
  48. Hirschi, T. Causes of Delinquency, 2nd ed.; Routledge: Oxfordshire, UK, 2017; ISBN 978-1315081649. [Google Scholar]
  49. Senna, I.; Iglesias, F.; Matsunaga, L.H. Measuring the effects of Crime Prevention Through Environmental Design (CPTED) on fear of crime in public spaces. Crime. Prev. Community Saf. 2025, 27, 1–17. [Google Scholar] [CrossRef]
  50. Bergquist, M.; Helferich, M.; Thiel, M.; Hellquist, S.B.; Skipor, S.; Ubianuju, W.; Ejelöv, E. Are broken windows spreading? Evaluating the robustness and strengths of the cross-norm effect using replications and a meta-analysis. J. Environ. Psychol. 2023, 88, 102027. [Google Scholar] [CrossRef]
  51. Kelling, G.L.; Coles, C.M. Fixing Broken Windows: Restoring Order and Reducing Crime in Our Communities, 2nd ed.; Free: New York, NY, USA, 1996; ISBN 978-0684837383. [Google Scholar]
  52. Kelling, G.L.; Wilson, J.Q. Broken windows: The police and neighborhood security. Atl. Mon. 1982, 249, 29–38. Available online: https://www.theatlantic.com/magazine/archive/1982/03/broken-windows/304465/ (accessed on 31 May 2026).
  53. Cohen, W. Peter Drucker’s Way to the Top: Lessons for Reaching Your Life’s Goals; LID: London, UK, 2018; ISBN 978-1911498759. [Google Scholar]
  54. Drucker, P.F. Managing for Results; William Heinemann Ltd.: London, UK, 1964; ISBN 978-0434209521. [Google Scholar]
  55. Santos, R.B. Crime Analysis with Crime Mapping, 5th ed.; Sage: Thousand Oaks, CA, USA, 2022; ISBN 978-1452202716. [Google Scholar]
  56. Marques, E. Notes on social conditions, rights, and violence in Brazilian cities. J. Iber. Lat. Am. Res. 2021, 27, 21–36. [Google Scholar] [CrossRef]
  57. Ventorim, F.C.; Netto, V.M. The hidden connections of urban crime: A network analysis of victims, crime types, and locations in Rio de Janeiro. Urban Sci. 2024, 8, 72. [Google Scholar] [CrossRef]
  58. Cerqueira, D.; Bueno, S.; de Lima, R.S.; de Oliveira Accioly Lins, G.; Coelho, D.S.C.; Moura, L.; Armstrong, K.C.; Guedes, E.; Marques, D.; Camarano, A.A.; et al. Atlas da Violência: Fórum Brasileiro de Segurança Pública–FBS; Instituto de Pesquisa Econômica Aplicada–IPEA: Brasília, Brazil, 2025. Available online: https://forumseguranca.org.br/wp-content/uploads/2025/05/atlas-violencia-2025.pdf (accessed on 19 March 2026).
  59. Presidência da República Casa Civil Subchefia Para Assuntos Jurídicos. Decreto-Lei N° 2.848, de 07 de Dezembro de 1940. Código Penal. Diário Oficial [da] República Federativa do Brasil, Poder Executivo, Brasília, DF, BR, 31 dez. 1940. Available online: http://www.planalto.gov.br/ccivil_03/decreto-lei/del2848.htm (accessed on 19 March 2026).
  60. OSP-GO–Observatório de Segurança Pública do Estado de Goiás. Dados Criminais de Itumbiara; Institutional ed.: Goiânia, GO, BR, 2018–2023. [Google Scholar]
  61. IBGE–Instituto Brasileiro de Geografia e Estatística. Cidades: Itumbiara, Goiás. 2026. Available online: https://cidades.ibge.gov.br/brasil/go/itumbiara/panorama (accessed on 19 March 2026).
  62. PMI–Prefeitura Municipal de Itumbiara. Portal Geo Web Itumbiara. 2026. Available online: https://geoitumbiara.com.br/ (accessed on 19 March 2026).
  63. Google Earth. Orthogonal Aerial Images: Itumbiara, Goiás, Brazil. 2023. Available online: https://earth.google.com/web/search/Itumbiara,+Goi%C3%A1s/@-18.4095,-49.2159,10000a,35y,0h,0t,0r (accessed on 31 December 2023).
  64. IBGE; Instituto Brasileiro de Geografia e Estatística. Portal de Mapas. 2026. Available online: https://portaldemapas.ibge.gov.br/portal.php#homepage (accessed on 19 March 2026).
  65. Knapp, H. Introductory Statistics Using R: An Easy Approach, 2nd ed.; SAGE: Thousand Oaks, CA, USA, 2025; ISBN 978-1071929001. [Google Scholar]
  66. R Core Team. R: A Language and Environment for Statistical Computing; R Foundation for Statistical Computing: Vienna, Austria, 2026; Available online: https://cran.r-project.org/doc/manuals/r-release/fullrefman.pdf (accessed on 17 July 2026).
  67. Grekousis, G. Spatial Analysis Methods and Practice; Cambridge University Press: Cambridge, MA, USA, 2020; ISBN 978-1108498982. [Google Scholar]
  68. Pallant, J. SPSS Survival Manual: A Step by Step Guide to Data Analysis Using IBM SPSS, 7th ed.; Routledge: Oxfordshire, UK, 2020; ISBN 978-1760875534. [Google Scholar]
  69. Field, A. Discovering Statistics Using IBM SPSS Statistics, 5th ed.; Sage: Thousand Oaks, CA, USA, 2018; ISBN 978-1526419521. [Google Scholar]
  70. Lima, W.C.S.; Hardt, L.P.A.; Hardt, C. Unveiling dynamics of contemporary cities: The influences of urban form on the potential for the socio-spatial vitality of streets. Glob. J. Hum. Soc. Sci.–C 2023, 23, 63–88. [Google Scholar] [CrossRef]
  71. Santos, P.M.; Caccia, L.S.; Samios, A.B.; Ferreira, L.Z. The 8 Principles of Sidewalks: Building More Active Cities, 2nd ed.; WRI–World Resources Institute: Santarém, Brazil, 2019; ISBN 978-8582181529. [Google Scholar]
  72. Gehl, J.; Rogers, L. Cities for People: Scaling Urban Design to Human Dimensions; Island: New York, NY, USA, 2010; ISBN 978-1597265737. [Google Scholar]
  73. ABNT–Associação Brasileira de Normas Técnicas. NBR 5101: Iluminação Pública–Procedimento; ABNT: Rio de Janeiro, Brazil, 2018; ISBN 978-8507077435. [Google Scholar]
  74. Kirchmaier, T.; Langella, M.; Manning, A. Commuting for crime. Econ. J. 2024, 134, 1173–1198. [Google Scholar] [CrossRef]
  75. Luo, X.I. Examining crime trajectories at micro geographic locations across varied urban contexts in the U.S. J. Quant. Criminol. 2026; epub ahead of printing. [CrossRef]
  76. Lupton, D. COVID futures: Social imaginaries of post-pandemic lives in Australia. Futures 2024, 164, 103470. [Google Scholar] [CrossRef]
  77. Park, W. Climate and Average Weather Year Round in Itumbiara Goiás, Brazil. 2026. Available online: https://weatherspark.com/y/29959/Average-Weather-in-Itumbiara-Goi%C3%A1s-Brazil-Year-Round (accessed on 19 March 2026).
  78. Gupta, J. Does weather make people kill each other: Correlation between weather variables and crime in multiple cities. Available online: https://read-me.org/crime02/2024/9/17/does-weather-make-people-kill-each-other-correlation-between-weather-variables-and-crime-in-multiple-cities (accessed on 31 May 2026).
  79. Wüllenweber, S.; Burrell, A. The crime and the place: Robbery in the night-time economy. J. Investig. Psychol. Offender Profiling 2024, 21, 3–19. [Google Scholar] [CrossRef]
  80. Erturk, E.; Raynham, P.; Teji, J.U. Exploring the effects of light and dark on crime in London. Int. J. Geo-Inf. 2024, 13, 182. [Google Scholar] [CrossRef]
  81. Google Maps. Oblique Images at the Observer’s Level: Itumbiara Goiás, Brazil. 2023. Available online: https://www.google.com/maps/place/Itumbiara+-+GO/@-18.4805202,-49.870343,76442m/data=!3m1!1e3!4m6!3m5!1s0x94a10d6489383995:0xa0d3f8f904066d35!8m2!3d-18.4167106!4d-49.2170958!16zL20vMDl4bmpq?entry=ttu&g_ep=EgoyMDI2MDYxMC4wIKXMDSoASAFQAw%3D%3D (accessed on 31 December 2023).
  82. Cornish, D.B.; Clarke, R.V. Introduction. In The Reasoning Criminal: Rational Choice Perspectives on Offending; Cornish, D.B., Clarke, R.V., Eds.; Routledge: Oxfordshire, UK, 2014; pp. 1–16. ISBN 978-1315134482. [Google Scholar]
  83. Gomes, N.; Semin, G.R. Mapping human vigilance: The influence of conspecifics. Evol. Hum. Behav. 2020, 41, 69–75. [Google Scholar] [CrossRef]
  84. Li, H.; Deng, Y.; Chang, J. Research on constructing a safety assessment model for the ‘environment-psychology’ space in urban villages based on CPTED Theory. J. Asian Archit. Build. Eng. 2024, 24, 1945–1964. [Google Scholar] [CrossRef]
  85. Pereira, G.; Israel, C.; Firmino, R.; Kramer, H.; Abad, J. Building a digital wall: The political economy of smart surveillance in Curitiba, Brazil. Globalizations 2025, 23, 592–612. [Google Scholar] [CrossRef]
  86. Cauvain, J.; Bruzzese, A.; Karvonen, A. Streets as platforms of public life. Urban Plan. 2026, 11, 1–7. [Google Scholar] [CrossRef]
  87. He, Z.; Meng, W.; Yao, J.; Gong, Y.; Wu, L.; Tao, L. Measuring the causal effect of urban environments on crime with street view images and points of interest. Cities 2026, 168, 106399. [Google Scholar] [CrossRef]
  88. Smith, T.B.; Mao, R.; Korotchenko, S.; Krohn, M.D. Partners in criminology: Machine learning and network science reveal missed opportunities and inequalities in the study of crime. J. Quant. Criminol. 2023, 40, 421–443. [Google Scholar] [CrossRef]
  89. Abujder Ochoa, W.A.; Iarozinski Neto, A.; Vitorio Junior, P.C.; Calabokis, O.P.; Ballesteros-Ballesteros, V. The Theory of Complexity and Sustainable Urban Development: A Systematic Literature Review. Sustainability 2025, 17, 3. [Google Scholar] [CrossRef]
Figure 1. Location maps of the study area within the state (top left) and the municipality (top right), as well as the respective districts (bottom left). Sources used: [62,63,64].
Figure 1. Location maps of the study area within the state (top left) and the municipality (top right), as well as the respective districts (bottom left). Sources used: [62,63,64].
Urbansci 10 00462 g001aUrbansci 10 00462 g001b
Figure 2. A location map of the Setor Central of Itumbiara within the urban perimeter (left) and corresponding aerial image (right). Sources used: [62,63]. Note: District numbering equivalent to that of Figure 1.
Figure 2. A location map of the Setor Central of Itumbiara within the urban perimeter (left) and corresponding aerial image (right). Sources used: [62,63]. Note: District numbering equivalent to that of Figure 1.
Urbansci 10 00462 g002
Figure 3. Heat maps of theft occurrences in the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources used: [60,62,63].
Figure 3. Heat maps of theft occurrences in the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources used: [60,62,63].
Urbansci 10 00462 g003
Figure 4. Heat maps of robbery occurrences in the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources used: [60,62,63].
Figure 4. Heat maps of robbery occurrences in the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources used: [60,62,63].
Urbansci 10 00462 g004
Figure 5. Synthesis heat maps of theft and robbery occurrences in the Setor Central of Itumbiara—2018–2023. Sources used: [60,62,63].
Figure 5. Synthesis heat maps of theft and robbery occurrences in the Setor Central of Itumbiara—2018–2023. Sources used: [60,62,63].
Urbansci 10 00462 g005
Figure 6. Graphs of the quantity (left) and proportionality (right) of annual theft occurrences on Avenida Beira-Rio in the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Source used: [60].
Figure 6. Graphs of the quantity (left) and proportionality (right) of annual theft occurrences on Avenida Beira-Rio in the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Source used: [60].
Urbansci 10 00462 g006
Figure 7. Graphs of the proportionality of monthly theft and robbery occurrences on Avenida Beira-Rio in the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Source used: [60].
Figure 7. Graphs of the proportionality of monthly theft and robbery occurrences on Avenida Beira-Rio in the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Source used: [60].
Urbansci 10 00462 g007aUrbansci 10 00462 g007b
Figure 8. Graphs of the proportionality of theft and robbery occurrences by time of day on Avenida Beira-Rio in the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Source used: [60].
Figure 8. Graphs of the proportionality of theft and robbery occurrences by time of day on Avenida Beira-Rio in the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Source used: [60].
Urbansci 10 00462 g008aUrbansci 10 00462 g008b
Figure 9. An aerial image (left) and map (right) of Avenida Beira-Rio in the Setor Central of Itumbiara. Sources used: [62,63].
Figure 9. An aerial image (left) and map (right) of Avenida Beira-Rio in the Setor Central of Itumbiara. Sources used: [62,63].
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Figure 10. Aerial (upper images) and oblique views (central and lower images) of the analysis segments of Avenida Beira-Rio in the Setor Central of Itumbiara. Sources used: [62,63,81].
Figure 10. Aerial (upper images) and oblique views (central and lower images) of the analysis segments of Avenida Beira-Rio in the Setor Central of Itumbiara. Sources used: [62,63,81].
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Figure 11. Views of the segments of Avenida Beira-Rio in the Setor Central of Itumbiara. Source used: [81].
Figure 11. Views of the segments of Avenida Beira-Rio in the Setor Central of Itumbiara. Source used: [81].
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Table 1. A synthesis panel of descriptions and justifications of the analytical variables and the respective parameters adopted. Sources adapted: [70] and other references consulted.
Table 1. A synthesis panel of descriptions and justifications of the analytical variables and the respective parameters adopted. Sources adapted: [70] and other references consulted.
Variables Parameters Descriptions and Justifications
Socio-Behavioral
Evasion Escape routes Short blocks unfavorable to police pursuit (due to the proximity of street corners) and other spatial elements structuring exit and dispersal paths for offenders (common in parks, squares, and similar places), which facilitate their withdrawal from the field of vision and therefore restrict their apprehension.
Concealment Physical barriers Spatial components that form physical or visual hiding places for offenders, enabling surprise attacks without giving victims time to react.
Shielding Visual obstructions
Socio-Morphological
Dimensions Street scale Proportions of sidewalks that optimize pedestrian circulation, configured as spatial guardians.
Urban scale Proportions of built elements inviting the attraction of people and their spatial perception for natural surveillance.
Densities Constructive/population densification Higher levels of residential building occupation generally correspondent to a greater number of users in outdoor spaces surrounding constructions.
Diversity of uses Wider range of land uses that distinguishes distinct groups of users and enhances urban vitality and public safety.
Accessibilities Relations between public and private spaces Potential for access and circulation associated with the movement of people, fostering socio-spatial interactions.
Spatial intervisibility Facades and enclosures with transparent openings that induce interactions and visual access, enabling spatial monitoring at the observer’s eye level.
Attractiveness Local references Presence of distinctive elements (nodal points and/or landmarks) that foster recognition and attract individuals and groups.
Public lighting Spacing of permanent nighttime light sources to ensure adequate distribution of luminosity in public spaces.
Permanencies Arrangement of seating and/or stopping furniture Potential for spatial appropriation by users due to furniture elements.
Shading for seating and/or stopping Potential for environmental comfort that encourages users to remain in the location.
Socio-Political
Institutional
instruments/
tactical tools
Maintenance of public spaces Condition of conservation of streets (especially sidewalks) and other public components, revealing physical–territorial order/disorder.
Monitoring of public and private spaces Existence of permanent personnel and control devices in places of common and private use.
Table 2. A synthesis panel of the classification of analytical variables. Sources adapted: [70] and other references consulted (see Appendix A).
Table 2. A synthesis panel of the classification of analytical variables. Sources adapted: [70] and other references consulted (see Appendix A).
Variables/
Parameters
Classes
(Unit of Analysis: Length of the Street Segment)
Possible
Reducers
Possible
Promoters
Socio-Behavioral
EvasionEscape
routes:
average
percentage
less than
10%
high
quality
tendency for segment data located within the lower decile: potential for substantial minimization of adverse escape routes characteristicsShort blocks and other elements facilitating exit and dispersion
(e.g., parks, squares, and similar spaces)
Long blocks and possible barriers to exit and dispersion
from 10 to
25%
medium-high
quality
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of adverse escape routes characteristics
from 26 to
50%
medium-low
quality
tendency for segment data located within the intermediate-low quartile: potential for relative maximization of adverse escape routes characteristics
more than
50%
low
quality
tendency for segment data located within the two upper quartiles: potential for substantial maximization of adverse escape routes characteristics
ConcealmentPhysical
barriers:
average
percentage
less than
10%
high
quality
tendency for segment data located within the lower decile: potential for substantial minimization of adverse physical barriers characteristicsLarge dimensions of physical barriers
(including shrubbery and similar elements)
Absence of physical barriers
from 10 to
25%
medium-high
quality
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of adverse physical barriers characteristics
from 26 to
50%
medium-low
quality
tendency for segment data located within the intermediate-low quartile: potential for relative maximization of adverse physical barriers characteristics
more than
50%
low
quality
tendency for segment data located within the two upper quartiles: potential for substantial maximization of adverse physical barriers characteristics
ShieldingVisual
obstructions:
average
percentage
less than
10%
high
quality
tendency for segment data located within the lower decile: potential for substantial minimization of adverse visual obstructions characteristicsLarge dimensions of visual obstructions
(including shrubbery and similar elements)
Absence of visual obstructions
from 10 to
25%
medium-high
quality
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of adverse visual obstructions characteristics
from 26 to
50%
medium-low
quality
tendency for segment data located within the intermediate-low quartile: potential for relative maximization of adverse visual obstructions characteristics
more than
50%
low
quality
tendency for segment data located within the two upper quartiles: potential for substantial maximization of adverse visual obstructions characteristics
Socio-Morphological
DimensionsStreet scale:
average
proportion (sidewalk width/roadway width) 1
more than
1/1 (more than 1.00)
high
quality
framing of segment proportional average between sidewalk and roadway widths with potential for significant maximization of positive street-scale attributesAbsence of sidewalks or pavement with obstructions to pedestrian passagePavement with a higher proportion of sidewalks without obstructions to pedestrian passage or expansion of sidewalk into open areas
from 1/1 to
1/2 (from 1.00 to 0.50)
medium-high
quality
framing of segment proportional average between sidewalk and roadway widths with potential for relative maximization of positive street-scale attributes
from 1/2 to
1/4 (from 0.49 to 0.25)
medium-low
quality
framing of segment proportional average between sidewalk and roadway widths with potential for relative minimization of positive street-scale attributes
less than
1/4 (less than 0.25)
low
quality
framing of segment proportional average between sidewalk and roadway widths with potential for substantial minimization of positive street-scale attributes
Urban scale:
average
proportion (block length/higher building height) 2
more than
1/1 (more than 1.00)
high
quality
framing of segment proportional average between block length and higher building height with potential for significant maximization of positive urban scale attributesComponents of human scale mismatchComponents of human scale adjustment
from 1/1 to
1/2 (from 1.00 to 0.50)
medium-high
quality
framing of segment proportional average between block length and higher building height s with potential for relative maximization of positive urban scale attributes
from 1/2 to
1/4 (from 0.49 to 0.25)
medium-low
quality
framing of segment proportional average between block length and higher building height with potential for relative minimization of positive urban scale attributes
less than
1/4 (less than 0.25)
low
quality
framing of segment proportional average between block length and higher building height with potential for substantial minimization of positive urban scale attributes
DensitiesConstructive/
population densification:
average
constructive population
density 3
more than
36 inh./ha
high
quality
framing of segment average constructive population density above twice the city mean: potential for significant expansion of natural surveillanceAbsence of residential buildings or vacant lotsUses related to large audiences
from 24 inh./ha to
38 inh./ha
medium-high
quality
framing of segment average constructive population density between city mean and twice this value: potential for relative expansion of natural surveillance
from 12 inh./ha to
24 inh./ha
medium-low
quality
framing of segment average constructive population density between city mean and half this value: potential for relative reduction in natural surveillance
less than
12 inh./ha
low
quality
framing of segment average constructive population density below half the city mean: potential for significant reduction in natural surveillance e
Diversity
of uses:
degree of
land use
diversity
more than
3 uses
high
quality
greater degree of segment land use diversity: potential for significant urban vitalityVacant lotsDiversified uses in the same location
(e.g., residential, commercial, institutional, services, leisure, and others)
3 usesmedium-high
quality
median degree of segment land use diversity: potential for relative urban vitality
2 usesmedium-low
quality
smaller degree of segment land use diversity: potential for reduced urban vitality
1 uselow
quality
absence of segment land use diversity: potential for very reduced urban vitality
AccessibilitiesRelations
between
public and
private spaces:
average
percentage
(free spatial access)
more than
50%
high
quality
tendency for segment data located within the two upper quartiles: potential for substantial maximization of positive relations between public and private spacesMarked barriers between public and private spaces, including controlled accessesProjections of private uses over free-access setbacks or over public spaces
from 26 to
50%
medium-high
quality
tendency for segment data located within the intermediate-upper quartile:
potential for relative maximization of positive relations between public and private spaces
from 10 to
25%
medium-low
quality
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of positive relations between public and private spaces
less than
10%
low
quality
tendency for segment data located within the lower decil: potential for substantial minimization of positive relations between public and private spaces
Spatial
intervisibility
average
percentage
(openings with transparency)
more than
50%
high
quality
tendency for segment data located within the two upper quartiles: potential for substantial maximization of positive spatial intervisibility attributesHigh proportion of openings above the observer’s eye levelHigh proportion of active facades at ground level
from 26 to
50%
medium-high
quality
tendency for segment data located within the intermediate-upper quartile: potential for relative maximization of positive spatial intervisibility attributes
from 10 to
25%
medium-low
quality
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of positive r spatial intervisibility attributes
less than
10%
low
quality
tendency for segment data located within the lower decil: potential for substantial minimization of positive r spatial intervisibility attributes
AttractivenessLocal
references:
degree of presence
more than
3 references
high
quality
greater degree of segment local references presence: potential for significant local recognition and attractivenessReferences without potential to attract large audiencesReferences with potential to attract large audiences
3 referencesmedium-high
quality
median degree of segment local references presence: potential for relative local recognition and attractiveness
2 referencesmedium-low
quality
lower-median degree of segment local references presence: potential for reduced local recognition and attractiveness
1 or absence of referenceslow
quality
smaller degree of segment local references presence or their absence: potential for very reduced local recognition and attractiveness
Public
lighting:
average
spacing
(between
lamp posts) 4
less than
20 m
high
quality
smaller spacing of permanent nighttime light sources in the segment: potential for significant maximization of adequate luminosity distribution in public spacesAbsence of luminaires or low lighting efficiencyLowered luminaires for pedestrian circulation or high lighting efficiency
from 20 to
35 m
medium-high
quality
lower-medium spacing of permanent nighttime light sources in the segment: potential for relative maximization of adequate luminosity distribution in public spaces
from 36 to
50 m
medium-low
quality
medium spacing of permanent nighttime light sources in the segment: potential for relative minimization of adequate luminosity distribution in public spaces
more than
50 m
low
quality
greater spacing of permanent nighttime light sources in the segment: potential for significant minimization of adequate luminosity distribution in public spaces
PermanenciesArrangement of seating and/or
stopping
furniture:
average
percentage
more than
50%
high
quality
tendency for segment data located within the two upper quartiles: potential for substantial maximization of positive furniture arrangement attributesAbsence of benches and similar elements or in an exceptional state of discomfort
(e.g., excessive spacing or insufficient quantity)
Benches and similar elements in an exceptional state of comfort and with universal accessibility solutions
from 26 to
50%
medium-high
quality
tendency for segment data located within the intermediate-upper quartile: potential for relative maximization of positive furniture arrangement attributes
from 10 to
25%
medium-low
quality
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of positive furniture arrangement attributes
less than
10%
low
quality
tendency for segment data located within the lower decil: potential for substantial minimization of positive furniture arrangement attributes
Shading
for seating and/or
stopping:
average
percentage
more than
50%
high
quality
tendency for segment data located within the two upper quartiles: potential for substantial maximization of positive shading attributesAbsence of shading components or in an exceptional state of discomfortShading components in an exceptional state of comfort
from 26 to
50%
medium-high
quality
tendency for segment data located within the intermediate-upper quartile: potential for relative maximization of positive shading attributes
from 10 to
25%
medium-low
quality
tendency for remaining segment data in the lower decile located within the lower quartile: potential for relative minimization of positive shading attributes
less than
10%
low
quality
tendency for segment data located within the lower decil: potential for substantial minimization of positive shading attributes
Socio-political
Institutional instruments/tactical toolsMaintenance of public spaces:
average
percentage
(deteriorated spaces)
less than
10%
high
quality
tendency for segment data located within the lower decile: indicative of smaller degree of maintenance precariousness in public spacesExceptionally negative state of conservation, inducing physical-social disorderExceptionally positive state of conservation, inducing physical-social order
from 10 to
25%
medium-high
quality
tendency for remaining segment data in the lower decile located within the low quartile: indicative of lower-median degree of maintenance precariousness in public spaces
from 26 to
50%
medium-low
quality
tendency for segment data located within the intermediate-low quartile: indicative of median degree of maintenance precariousness in public spaces
more than
50%
low
quality
tendency for segment data located within the two upper quartiles: indicative of greater degree of maintenance precariousness in public spaces
Monitoring of public and private spaces:
average
number of
resources
(per 50 m) 5
more than
4 resources
high
quality
greater availability of monitoring resources across public and private spaces along the segment: indicative of more significant spatial controlAbsence of cameras or orientation of most cameras toward the interior of lots, and without constant police presenceOrientation of most cameras toward public spaces and with constant police presence
from 3 to
4 resources
medium-high
quality
medium availability of monitoring resources across public and private spaces along the segment: indicative of significant spatial control
from 1 to
2 resources
medium-low
quality
lower availability of monitoring resources across public and private spaces along the segment: indicative of insignificant spatial control
nonexistence of resourceslow
quality
absence of monitoring resources across public and private spaces along the segment: indicative of lack of spatial control
Notes: 1 = minimum adequate proportion sidewalk width/roadway width = 1/2 [71]; 2 = minimum–adequate proportion block length/higher building height = 1/2 [72]; 3 = estimated mean density of Itumbiara = 24 inh./ha [61,62]; 4 = minimum adequate spacing of permanent nighttime light sources= 35 m [73]; 5 = minimum adequate spacing of control devices = 50 m (facial recognition) [72].
Table 3. A quantitative synthesis of the partial, total, and average classes of thefts and robberies by districts of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources: [60,62].
Table 3. A quantitative synthesis of the partial, total, and average classes of thefts and robberies by districts of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources: [60,62].
DistrictsTheftsTotalRobberiesTotalGrand Total
BeforeParallelAfterBeforeParallel After
20182019Subtotal20202021Subtotal20222023Subtotal20182019Subtotal20202021Subtotal20222023Subtotal
1Alto da Boa vista6233954319622943722292224469918951478307
23Jardim América343367381957222749173192645561180864237
50Setor Afonso Pena8693179888717511475189543373471212748141024143686
54Setor Central3462525983191895081601673271.43395911864331743811493091.742
58Setor Nossa Senhora da Saúde423173422668223557198151126311141121353251
61Setor Novo Horizonte4456100412061284573234151025161127731062296
63Setor Paranaíba2829572417411413271251710276101635851176
64Setor Planalto4336792629553637732072020408917931269276
67Setor Rodoviário4938874623692917462022016369142333665267
70Setor Santa Rita2742693041712531561961913322116371361988284
71Setor Santos Dumont735913263329551479832532225419183712618109434
75Setor Social27386528194722335516719143372953850217
LEGEND
TheftsRobberies
low: <40 annual occurrences low: <3 annual occurrences
medium-low: 41–80 annual occurrences medium-low: 3–6 annual occurrences
medium-high: 81–120 annual occurrences medium-high: 7–10 annual occurrences
high: >120 annual occurrences high: >10 annual occurrences
no record no record
Note: District numbering equivalent to that of Figure 1.
Table 4. The Friedman Test results (global) for thefts and robberies by districts of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources: [60,62] (see Table 3).
Table 4. The Friedman Test results (global) for thefts and robberies by districts of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources: [60,62] (see Table 3).
Crimesnp ValuesW de KendallEffect
Magnitudes
Thefts12 0.002 0.521 large
Robberies12 <0.001 0.861 large
Table 5. The pairwise comparison results for thefts and robberies by districts of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources: [60,62] (see Table 3).
Table 5. The pairwise comparison results for thefts and robberies by districts of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources: [60,62] (see Table 3).
CrimesComparison
Periods
Adjusted prEffect
Magnitudes
Thefts2018–2019 vs. 2020–20210.0100.861large
2020–2021 vs. 2022–20230.5560.181small
2018–2019 vs. 2022–20230.0100.827large
Robberies2018–2019 vs. 2020–20210.0080.816large
2020–2021 vs. 2022–20230.0080.884large
2018–2019 vs. 2022–20230.0080.884large
Table 6. The descriptive statistics results of the difference in case numbers of thefts and robberies by districts of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources: [60,62] (see Table 3).
Table 6. The descriptive statistics results of the difference in case numbers of thefts and robberies by districts of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources: [60,62] (see Table 3).
CrimesComparison
Periods
nMeanSDMedianQ1Q3MinimumMaximum
Thefts2018–2019 vs. 2020–202112−24.324.5−18.0−34.0−8.8−902
2020–2021 vs. 2022–202312−39.974.0−20.5−31.0−12.3−27110
2018–2019 vs. 2022–202312−15.653.8−2.5−14.310.5−18118
Robberies2018–2019 vs. 2020–202112−24.229.9−20.0−25.0−11.8−1125
2020–2021 vs. 2022–202312−36.033.5−29.0−36.3−18.0−137−13
2018–2019 vs. 2022–202312−11.89.0−12.5−18.3−3.8−25−1
Notes: n = sample size (number of observations in the sample). SD = standard deviation (measure of data variability). Median = value at which 50% of the observations fall below in the variable. Q1 = value at which 25% of the observations fall below in the variable. Q3 = value at which 75% of the observations fall below in the variable. Min = minimum recorded value in the sample. Max = maximum recorded value in the sample.
Table 7. A synthesis of the hot spot analysis (Getis-Ord Gi\* statistic) of thefts and robberies by streets of the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources: [60,62,63] (see Figure 3, Figure 4 and Figure 5).
Table 7. A synthesis of the hot spot analysis (Getis-Ord Gi\* statistic) of thefts and robberies by streets of the Setor Central of Itumbiara in the before (2018–2019), parallel (2020–2021), and after (2022–2023) periods of COVID-19. Sources: [60,62,63] (see Figure 3, Figure 4 and Figure 5).
CrimeYearn
(Streets)
Significant
Hot Spots
%
Hot Spots
More Significant
Streets
Maximum
Gi-Z
Minimum
p
Thefts20186411.6Avenida Beira-Rio5.54<0.001
20196411.6Avenida Beira-Rio5.14<0.001
20206423.1Avenida Beira-Rio
Avenida Paranaíba
6.21
3.60
<0.001
20216423.1Avenida Beira-Rio
Avenida Paranaíba
4.48
3.20
<0.001
20226423.1Avenida Beira-Rio5.47<0.001
20236411.6Avenida Beira-Rio6.44<0.001
Total6423.1Avenida Beira-Rio5.29<0.001
Robberies20184212.4Avenida Beira-Rio4.2<0.001
20194212.4Avenida Beira-Rio5.66<0.001
20204212.4Avenida Beira-Rio4.54<0.001
20214212.4Avenida Beira-Rio5.09<0.001
20224212.4Avenida Beira-Rio4.61<0.001
20234212.4Avenida Beira-Rio4.42<0.001
Total4212.4Avenida Beira-Rio5.55<0.001
Table 8. An evaluation panel of the analytical variables and respective parameters of the segments of Avenida Beira-Rio in the Setor Central of Itumbiara. Source: Adopted methodological procedures (see Section 2.3 and Appendix A).
Table 8. An evaluation panel of the analytical variables and respective parameters of the segments of Avenida Beira-Rio in the Setor Central of Itumbiara. Source: Adopted methodological procedures (see Section 2.3 and Appendix A).
VariablesParametersNorthern
Segment
Central
Segment
Southern
Segment
Overall Averages
Western
Side
Eastern
Side
AveragesWestern
Side
Eastern
Side
AveragesWestern
Side
Eastern
Side
Averages
Socio-Behavioral Variables
EvasionEscape
routes
3 R112.0111.0111.01.3
ConcealmentPhysical
barriers
43 R23.543 R23.5211.52.8
ShieldingVisual
obstructions
412.5412.5211.52.2
Overall Averages3.71.72.73.01.72.31.71.01.32.1
Socio-Morphological Variables
DimensionsStreet
scale
14 P12.534 P13.54 P24 P14.03.3
Urban
scale
444.0444.0444.04.0
DensitiesConstructive/
population
densification
111.0412.5111.01.5
Diversity
of uses
211.5412.5121.51.8
AccessibilitiesRelations
between
public and
private space
142.5142.5444.03.0
Spatial
intervisibility
142.5243.0444.03.2
AttractivenessLocal
references
111.0111.0111.01.0
Public
lighting
2 R34 P33.02 R34 P33.02 R34 P33.03.0
PermanenciesArrangement
of seating
and/or stopping furniture
13 R42.013 R42.03 R512.02.0
Shading for seating and/or
stopping
132.0132.0444.02.7
Overall Averages1.52.92.22.32.92.62.82.92.92.6
Socio-Political Variables
Institutional
instruments/
tactical tools
Maintenance
of public and
private spaces
142.5243.0343.53.0
Monitoring of
public and
private spaces
111.02 P411.5111.01.2
Overall Averages1.02.51.82.52.02.02.02.52.32.1
LEGEND
high
quality
medium-high
quality
medium-low
quality
low
quality
Notes: P1 = application of promoter due to the existence of a promenade with universal accessibility solutions. P2 = application of promoter due to the expansion of sidewalks into open areas. P3 = application of promoter due to the presence of high-efficiency lighting luminaries. P4 = application of promoter due to the potential for natural surveillance through the presence of people. R1 = application of reducer due to the possibility of escape through wall crossing. R2 = application of reducer due to the possibility of concealment caused by the drop on the riverbank. R3 = application of reducer due to the existence of public lighting only along the median strip. R4 = application of reducer due to the excessive distance between benches. R5 = application of reducer due to the inadequate quantity of benches.
Table 9. A general evaluation panel of the analytical variables and respective parameters of the three segments of Avenida Beira-Rio in the Setor Central of Itumbiara. Source: Adopted methodological procedures (see Section 2.3 and Appendix A).
Table 9. A general evaluation panel of the analytical variables and respective parameters of the three segments of Avenida Beira-Rio in the Setor Central of Itumbiara. Source: Adopted methodological procedures (see Section 2.3 and Appendix A).
VariablesNorthern
Segment
Central
Segment
Southern
Segment
Overall Averages
West
Side
East
Side
AveragesWest
Side
East
Side
AveragesWest
Side
East
Side
Averages
Socio-Behavioral3.71.72.73.01.72.31.71.01.32.1
Socio-Morphological1.52.92.22.32.92.62.82.92.92.6
Socio-Political1.02.51.82.02.52.32.02.52.32.1
Overall Averages2.12.42.22.42.42.42.22.12.12.2
LEGEND
high
quality
medium-high
quality
medium-low
quality
low
quality
Table 10. A correlation matrix of the analytical variables and respective parameters for the sides of the three segments of Avenida Beira-Rio in the Central Sector of Itumbiara. Source: Adopted methodological procedures (see Table 8 and Table 9).
Table 10. A correlation matrix of the analytical variables and respective parameters for the sides of the three segments of Avenida Beira-Rio in the Central Sector of Itumbiara. Source: Adopted methodological procedures (see Table 8 and Table 9).
SegmentsNorth-
Western
North-
Eastern
Central-
Western
Central-
Eastern
South-
Western
South-
Eastern
North-
Western
1.00−0.150.51−0.15−0.12−0.17
North-
Eastern
−0.151.00−0.071.000.850.85
Central-
Western
0.51−0.071.00−0.07−0.07−0.07
Central-
Eastern
−0.151.00−0.071.000.850.85
South-
Western
−0.120.85−0.070.851.000.80
South-
Eastern
−0.170.85−0.070.850.801.00
Table 11. A synthesis panel of guidelines for the urban agenda based on analytical variables associated with criminological theories. Sources: Listed in the cells.
Table 11. A synthesis panel of guidelines for the urban agenda based on analytical variables associated with criminological theories. Sources: Listed in the cells.
Criminological
Theories 1
(Classical Works and
Contemporary References)
AssumptionsAnalytical Variables
Socio-Behavioral
(Evasion, Concealment, Shielding)
Socio-Morphological
(Dimensions, Densities, Accessibilities, Attractiveness, Permanencies)
Socio-Political
(Institutional Instruments/Tactical Tools)
Routine Activities
[5,6,7,8]
Crime resulting from the interaction between the existence of a target, the absence of a guardian, and the presence of an offender.Insufficient alternatives for potential aggressors and removal of physical and visual barriers.Reduction in unsafe practices, accessibility to escape routes, and attractiveness for offenders, together with encouragement of permanence for guardians.Formulation of guidelines and implementation of protective measures for targets, attraction of guardians, and suppression of offenders.
Criminal Opportunities
[9,10]
Limited disposition of citizens to maintain a crime-prevention posture.Attention of spatial users to escape routes and physical and visual obstructions.Attention of spatial users to unsafe dimensions, densities, accessibility, attractiveness, and permanencies.Guidance for minimizing criminal opportunities.
Marginal Labeling
[11,12,13]
Transformation of the individual into what they are labeled.Reduction in social discrimination and consequent decrease in offenders’ propensity to flee, hide, and conceal.Social decriminalization through dimensions, densities, accessibility, attractiveness, and spatial permanencies.Awareness and implementation of actions for reducing socio-criminological discrimination.
Criminal Economy
[11,14]
Evaluation of costs and gains of criminal actions.Insufficiency of alternative gains from evasion, concealment, and hiding.Reduction in criminal gains through dimensioning, densities, accessibility, attractiveness, and permanencies.Construction and institution of alternatives for reducing criminal gains.
Rational Choice
[5,6,11,15,16,17,18]
Option of committing crime based on weighing benefits against punishment.Reduction in spatial advantages for evasion, concealment, and hiding.Attenuation of criminal advantages through dimensioning, densities, accessibility, attractiveness, and permanencies.Outline and implementation of spatial disadvantages for offenders.
Social Disorganization
[19,20]
Probability of criminal occurrence in communities collapsed in customs and social opportunities.Community strengthening for prevention of evasion and monitoring of physical and visual barriers.Community interaction in defining dimensions, densities, accessibility, attractiveness, and permanencies.Design and institution of community strengthening initiatives for crime prevention.
Locational Criminality
[21,22,23]
Criminal actions linked to opportunities favored by the physical environment.Control of escape routes, hiding places, and concealment areas for offenders.Establishment of measures regarding dimensions, densities, accessibility, attractiveness, and permanencies to discourage crime.Design and implementation of principles for public spaces guided by safety and adapted to local specificities.
Personal Space
[24,25,26]
Personal physical environment influencing the propensity for criminal behavior.Personal space restricting escape routes and mitigating physical and visual barriers.Dimensions, densities, access, attractions, and permanencies related to personal space.Guidance and implementation of measures to minimize criminal opportunities associated with safe personal spaces.
Social Cohesion
[27,28]
Urban permanencies that strengthen solidarity but also create opportunities for criminal activities.Separation of urban permanencies from escape routes, avoiding crowding that generates physical and visual obstructions.Separation of urban permanencies from escape routes, ensuring accessibility, attractiveness, and safety, without crowding that produces physical and visual barriers.Design of principles for public spaces guided by solidarity and safety, with permanencies that are both supportive and secure.
Territorial Defense
[29,30]
The importance of the surrounding environment for spatial maintenance and social responsibility.Social responsibility in hindering escape routes and monitoring physical and visual barriers.Social responsibility in defining dimensions, densities, accessibility, attractiveness, and permanencies.Awareness and assurance of social responsibility in crime monitoring.
Social Density
[31,32]
Constructive population rates generate more interactive behaviors, with environmental and behavioral regulation.Population interaction in monitoring escape routes and physical or visual obstructions.Population interaction in defining dimensions, densities, access, attractions, and urban permanencies.Orientation and assurance of population interaction in crime monitoring.
Safe Spaces
[9,24,25,33]
Environments with easy access and mobility inducing the presence of ‘natural guardians.’Safety conditions impeding escape routes and mitigating physical and visual barriers.Safety conditions associated with dimensions, densities, access, attractions, and permanencies.Conception and implementation of guidelines for the design of safe spaces.
Environmental Design
[15,34]
Organization of physical space for crime prevention and control.Minimization of spatial opportunities for evasion, concealment, and hiding of offenders.Enhancement of measures, densities, access, attractions, and appropriate permanencies for safe landscapes. Design and implementation of measures to minimize spatial opportunities for the occurrence of crimes.
Universal Design
[35,36]
Spatial accessibility for all people.Accessible design solutions, with control of escape routes and places for concealment and hiding of offenders.Dimensioning for accessible design solutions, including in areas of density, with universal accessibility, safe attractions, and permanencies.Design and implementation of accessible project solutions for crime control.
Defensible Space
[34,37,38,39]
Spatial design with a security and defense function conducted by citizens themselves.Spatial design hindering escape routes and mitigating physical and visual barriers.Design with dimensions, densities, accessibility, attractiveness, and permanencies for spatial defense.Conception and implementation of principles for the design of defensible public spaces.
Spatial Needs
[24,25,40]
Spatial construction influencing users’ sense of security.Spatial limitation of escape routes and of physical and visual barriers.Reduction in unsafe measures for potential targets and of accessibility to offenders’ escape routes, with favoring attractiveness and permanencies for guardians.Outline and implementation of spatial limitation options for criminal activities.
Spatial Victimization
[24,25,41]
Places of social interaction for longer periods facilitating the existence of targets.Distancing potential victims from escape routes and physical and visual barriers.Distancing, decongestion, and inaccessibility for potential victims, with reduction in attractions and permanencies contributing to their insecurity.Guidance and implementation of measures to minimize chances of victimization in public spaces.
Social Defense
[42,43]
Public security as a responsibility not only of the state.Social participation in monitoring escape routes and physical or visual obstructions.Social participation in monitoring dimensions, densities, accessibility, attractiveness, and permanencies.Organization and encouragement of social involvement in crime monitoring.
Social Control
[44,45,46,47,48]
Society as responsible for its own stability, with clear rules for crime prevention.Transparent dissemination of penalties for evasion and establishment of norms preventing the creation of physical and visual barriers.Regulation of dimensions, densities, access, and attractions related to permanencies and circulations.Construction of social norms for crime prevention and their formal institution for criminal repression.
Natural Surveillance
[9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49]
People as ‘guardians’ of public areas.Guardians’ attention to escape routes and physical and visual barriers.Guardians’ attention to dimensions, densities, accessibility, attractiveness, and spatial permanencies.Construction and institution of alternatives for attracting spatial guardians.
Broken Windows
[50,51,52]
Physical disorder enhancing criminality.Physical ordering to hinder escapes and mitigate physical and visual barriers.Physical ordering to adjust dimensions, densities, accessibility, attractiveness, and permanencies for spatial defense.Conception and implementation of principles of physical–spatial ordering for crime prevention.
Results-Based Management
[53,54]
Systematic performance analysis of security, with evaluation of strategic and tactical actions.Evaluation of strategic and tactical actions for containment of escapes and elimination of physical and visual obstructions.Evaluation of strategies and tactics for dimensioning, densities, access, attractions, and permanencies.Evaluation of strategic instruments and tactical tools for crime containment.
Criminal Mapping
[24,25,55]
Data visualization on crimes supporting security management.Visualization in maps of potential escape routes and physical and visual barriers.Simulation in maps of dimensions, densities, access, attractions, and safe permanencies.Simulation in maps of potential security strategies and tactics.
Note: 1 = theories presented following the same sequence outlined in Section 1 (Introduction).
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Nogueira, R.S.; Hardt, L.P.A.; Pellizzaro, P.C.; Hardt, C. Integrated Management of Urban Landscape and Public Security. Urban Sci. 2026, 10, 462. https://doi.org/10.3390/urbansci10080462

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Nogueira RS, Hardt LPA, Pellizzaro PC, Hardt C. Integrated Management of Urban Landscape and Public Security. Urban Science. 2026; 10(8):462. https://doi.org/10.3390/urbansci10080462

Chicago/Turabian Style

Nogueira, Rodrigo Sant’Ana, Letícia Peret Antunes Hardt, Patrícia Costa Pellizzaro, and Carlos Hardt. 2026. "Integrated Management of Urban Landscape and Public Security" Urban Science 10, no. 8: 462. https://doi.org/10.3390/urbansci10080462

APA Style

Nogueira, R. S., Hardt, L. P. A., Pellizzaro, P. C., & Hardt, C. (2026). Integrated Management of Urban Landscape and Public Security. Urban Science, 10(8), 462. https://doi.org/10.3390/urbansci10080462

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