Search Results (5)

The standard image of First World War soldiers is of men in open trenches: waiting to attack or be attacked; walking, sitting, sleeping, dead. Ford’s Parade’s End includes such scenes. But it is a different kind of image which predominates in his war writings and often produces its most memorable passages: images of houses or house-like shelters. The mind seeks protection in such structures; but they offer little security against the destructiveness outside, against the bombardments, gas, shrapnel, bullets. Ford wrote that the experience of war revealed: ‘men’s dwellings were thin shells that could be crushed as walnuts are crushed. … all things that lived and moved and had volition and life might at any moment be resolved into a scarlet viscosity seeping into the earth of torn fields […]’. This realisation works in two ways. The soldier’s sense of vulnerability provokes fantasies of home, solidity, sanctuary, while for the returnee soldier, domestic architecture summons war-visions of its own annihilation: ‘it had been revealed to you’, adds Ford, ‘that beneath Ordered Life itself was stretched, the merest film with, beneath it, the abysses of Chaos’. It is now customary to read war literature through trauma theory. Building on analyses of Ford’s use of repression, but drawing instead on object relations theory, I argue that Ford’s houses of war are not screen memories but images of the failure of repression to screen off devastating experiences. The abysses of Chaos can be seen through the screen or projected upon it. Attending to Ford’s handling of this theme enables a new reading of his war writing and a new case for its coherence. The essay will connect the opening of No More Parades (in a hut, during a bombardment) with the war poem ‘The Old Houses of Flanders’; the postwar poem A House; the memoir It Was the Nightingale (quoted above); and the otherwise puzzling, fictionalised memoir No Enemy, structured in terms of ‘Four Landscapes’ and ‘Certain Interiors’. Full article

Shantytowns still existed in many of Southern Europe’s major cities in the second half of the 20th century, although many have now been demolished. The purpose of this article is to highlight the history and evolution of some of the main shantytowns that remained in Barcelona in the mid-1970s, track their subsequent demolition, and reflect on the fate of the shanty dwellers. This form of self-build housing, usually lacking in basic services, played a vital role in providing shelter for immigrant families and the urban poor. A strong neighbourhood identity existed in many of these shantytowns, and national and local policies that aimed at their demolition and the re-housing of residents, often in low-quality housing blocks, proved problematic. The shantytowns studied here are La Perona, the Tres Turons, Campo de la Bota, and Ramon Casellas, which together comprised over 2000 shanty dwellings in the 1970s. Drawing on photographs taken at the time and existing literature, and using recent images from Google Earth, the demise of these shantytowns is examined, and the policies and plans that determined their fate are discussed. This article finds that the shanty dwellers experienced mixed fortunes, some being forcibly removed and re-housed in tower blocks with associated social-economic problems, whilst others played an active part in the design of replacement housing, implemented in situ where the shanty dwellings once existed. This article contributes to existing studies on shantytowns in Barcelona, which received scant attention from academics at the time, and which only now are being recognised as an important aspect of Barcelona’s urban history. Full article

Climate change impact is one of the most important global concerns at present. In the building environment, climate-responsive design may help to enhance the adaptation capacity through a better building energy performance. In this sense, this study addresses an adaptation strategy to reduce the effects of global warming on low-income houses, for which bioclimatic passive strategies should be prioritized, aiming to improve environmental sustainability. The technique chosen to be analyzed is thermal mass for cooling. Thus, the goal is to evaluate the energy consumption and thermal performance impact of implementing bermed earth-sheltered walls on bedrooms in low-income housing (LIH), considered deployed in tropical climate regions. For that, a base scenario (1961–1990) is considered, alongside two future scenarios: 2020 (2011 to 2040) and 2050 (2041 to 2070), both considering the effects of climate change, according to the Fourth Report (AR4) of the Intergovernmental Panel on Climate Change (IPCC). The methodologies adopted are (i) computational simulation to estimate the annual energy consumption demand and (ii) quantification of the cooling degree-hours (CDH), with the subsequent comparative analysis based on Brazilian regulation for energy efficiency in buildings (RTQ-R). The predictions show that there will be an increase in the energy consumption for cooling and in the CDH in both 2020 and 2050 scenarios, regardless of using a bermed earth-sheltered wall. Nonetheless, this adaptive measure enables the building to be resilient in terms of cooling energy demand in the 2020s, since it is 12.3% lower than in the building without the strategy use, compared with the base scenario. In the 2050s, resilience was almost reached with energy consumption only 10.7% higher, for the same conditions described previously. Therefore, bermed earth-sheltered walls work as a climate-responsive design strategy to face the potential global warming effects, promoting building sustainability in tropical climate regions. Full article

This study addresses passive adaptation strategies to reduce the effects of global warming on housing, focusing on low-income houses, for which passive adaptation strategies should be prioritized, aiming for environmental sustainability. The passive strategy chosen is thermal mass for cooling, through the adoption of earth-sheltered walls in contact with the ground. Thus, the goal of this study is to evaluate the thermal load and thermal impact of implementing a thermal mass strategy for cooling, using bermed earth-sheltered walls in bedrooms, for a building located in a tropical climate region. For that, a base scenario (1961–1990) is considered alongside two future scenarios: 2020 (2011 to 2040) and 2050 (2041 to 2070), both considering the effects of climate change, according to the Fourth Report (AR4) of the Intergovernmental Panel on Climate Change (IPCC). The methodologies adopted are (i) the computational simulation of the annual thermal load demand and (ii) the quantification of the Cooling Degree-Hours (CDH) with the subsequent comparative analysis. The results show that in both the 2020 and 2050 scenarios there will be an increase in the thermal loads for cooling and the CDH, regardless of using a bermed earth-sheltered wall. Nonetheless, it is shown that this passive strategy works as a global warming adaptation measure, promoting building sustainability in tropical climate regions. Full article

This paper presents the case study of the authors’ design of the earth-sheltered house in Village Dobraca near Kragujevac, Serbia, in the context of development and some thermal properties of the underground housing. The historical insight, in brief, provides a better understanding of the reasons for their modern use as energy efficient and sustainable structures. It shows that underground houses even today are more thermally efficient than above ground houses since, besides earth, there is no need for new additional thermal layers. The article also includes a review of the representative physical forms of the underground housing through different periods, with the result of measurement of their main properties. The study of the underground housing structures provides an insight of the relation between the location and typology of underground homes in a contest of climate zones. These structures have an almost constant temperature, which provides the primary “comfort” condition in which the man is determined to live in. The results on property-based monitoring data showed that the earth-sheltered house could provide the thermal comfort that is close to the ideal human needs temperature. Today, the new materials and especially the solar, geothermal, and wind accessories, enables the maximum sustainability of these specific building structures and provides them with an even better energy efficiency. Full article