Contenido

Los sistemas solares pasivos se utilizan principalmente para captar y acumular el calor proveniente de la energía solar. Se les llama pasivos ya que no se utilizan otros dispositivos electromecánicos (bombas recirculadoras, ventiladores, etc) para recircular el calor. Esto sucede por principios físicos básicos como la conducción, radiación, convección del calor.

direct profit

It is the simplest system and involves capturing the sun's energy through glass surfaces that are sized for each orientation and depending on the heat needs of the building or premises to be air-conditioned.

Non-ventilated accumulation wall

Also known as a trombe wall, it is a wall built of stone, bricks, concrete or even water painted black or a very dark color on the outside. To improve capture, a property of glass is used, which is to generate a greenhouse effect through which visible light enters and when it touches the wall, it heats it by emitting infrared radiation to which glass is opaque. For this reason, the temperature of the dark surface and the air chamber between the wall and the glass rises.

Ventilated accumulation wall

Similar to the previous one but incorporates holes at the top and bottom to facilitate heat exchange" between the wall and the environment through convection.

Attached greenhouse

In this case, a glazed space is incorporated into the midday wall that can be habitable and improves heat capture during the day and reduces heat loss to the outside.

Heat accumulation roof

In certain latitudes it is possible to use the roof surface to capture and accumulate the sun's energy. Also known as solar ponds, they require complex mobile devices to prevent heat from escaping during the night.

Solar collection and heat accumulation

It is a more complex system and allows you to combine direct gain through windows with solar air or hot water collectors to accumulate it under the floor. Then, in a similar way to the ventilated accumulator wall, the heat is taken to the interior environment. Properly sized it allows heat to accumulate for seven or more days.

In almost all cases they can be used as passive cooling systems, reversing the direction of operation.

• - Acosta, Wladimiro. 1976. Housing and Climate. New Vision Editions. Buenos Aires.

• - Alemany, J. and others. 1980. The sun for everyone. Comprehensive Ed.

• - Allen, Edward. (1982). How a Building Works. Elementary principles. Ed. Gili.

• - Anderson, A. and Wells, M. Easy guide to passive solar energy. Natural heat and cold. Ed. Gili, Barcelona.

• - Bardou, Patrick. 1980. Sun and Architecture. Ed. Gili, Barcelona.

• - Bardou. Patrick. and Arzoumanian, V. 1986. Adobe architectures. Ed. Gili, Mexico.

• - Billington, N.S. 1952. Thermal Properties of Building. Cleaver-Hume Press Ltd.

• - Czajkowski, Jorge") and Gómez, Analía. 1994. Bioclimatic design and building energy economy. Fundamentals and methods. Ed. UNLP, Cátedra Collection. La Plata, Argentina.

• - Czajkowski, Jorge") and Gómez, Analía. 2009. Sustainable architecture. Ed. Clarín. Buenos Aires, Argentina.

• - Diaz, Ernest. 1967. Architecture and the Sun. Solar protection of buildings. Gustavo Gili.

• - Givoni B, A. 1976. Man, Climate and Architecture. Architectural Science Serves. Publishers. Ltd. London.

• - González, Neila. 2004. Bioclimatic architecture in a sustainable environment. Ed. Munilla-leria.

• - Izard, Jean Louis") & Guyot, Alan. 1980. Bioclimatic Architecture. Ed. Gili, Barcelona.

• - Mazria, Edward. 1983. The Book of Passive Solar Energy. Ed. Gili. ISBN 968-6085-76-9.

• - Mc Phillips, Martin. 1985. Housing with Passive Solar Energy. Gustavo Gili.

• - Olgyay, Victor. 1998. Architecture and climate. Bioclimatic design manual for architects and urban planners. Ed. Gustavo Gili, Barcelona. ISBN 84-252-1488-2.

• - Serra, Rafael and Coch, E. 1995. Architecture and Natural Energy. Ed. UPC. Barcelona.

• - Serra, Rafael. 1999. Architecture and Climate. Gustavo Gili, Barcelona.

• - The American Institute of Architects. 1984. The passive house. Ed. Blume, Madrid.

• - Watson, D. 1985. The solar house. Madrid. H. Blume.

• - Wright, David. 1983. Natural Solar Architecture. Gustavo Gili.

• - Yáñez, Guillermo. 1982. Solar energy, buildings and climate. Ed. Ministry of Public Works and Urban Planning, Madrid.

• - Sustainable architecture.

• - Bioclimatic architecture.

• - Sustainable development or Sustainable development.

• - Sustainable landscape.

• - Organic architecture - See Organic architecture [1].

• - Bioclimatic architecture

*Passive house

*Energy efficient building

• House energy plus

• Low energy building

• Zero energy building

• Water walls

• Trombe Wall

• Wind catcher - See Windcatcher [2]

• Wind tower - See Wind tower [3]

• Solar chimney - See Solar chimney [4]

• Superinsulation - See Superinsulation [5].

• - Bioconstruction.

• - Permaculture.

• - Center for Vernacular Architecture, Bangalore, India, an NGO.

• - Sustainable Architecture information from the University of Michigan.

• - EcoHabitar Articles on Bioconstruction, Sustainable Architecture and ecomaterials.

• - Conference where Norman Foster explains the need for sustainable architecture and his work Archived December 18, 2009 in the Wayback Machine.

• - Sustainable construction agenda of the College of Surveyors and Technical Architects of Catalonia.

• - Cal-Earth (The California Institute of Earth Art and Architecture) developed a patented system called Superadobe, made up of bags that contain stabilized soil and are reinforced with barbed wire to resist earthquakes, fire and floods.

• - http://www.arquinstal.com.ar Czajkowski - Gómez Facilities Chair of the Faculty of Architecture and Urban Planning of the National University of La Plata, which bases its pedagogical proposal on sustainable architecture and environmentally conscious design.

• - EULEB - EUropean high quality Low Energy Buildings, provides information on European non-residential public buildings with low energy consumption.

Contenido

Los sistemas solares pasivos se utilizan principalmente para captar y acumular el calor proveniente de la energía solar. Se les llama pasivos ya que no se utilizan otros dispositivos electromecánicos (bombas recirculadoras, ventiladores, etc) para recircular el calor. Esto sucede por principios físicos básicos como la conducción, radiación, convección del calor.

direct profit

It is the simplest system and involves capturing the sun's energy through glass surfaces that are sized for each orientation and depending on the heat needs of the building or premises to be air-conditioned.

Non-ventilated accumulation wall

Also known as a trombe wall, it is a wall built of stone, bricks, concrete or even water painted black or a very dark color on the outside. To improve capture, a property of glass is used, which is to generate a greenhouse effect through which visible light enters and when it touches the wall, it heats it by emitting infrared radiation to which glass is opaque. For this reason, the temperature of the dark surface and the air chamber between the wall and the glass rises.

Ventilated accumulation wall

Similar to the previous one but incorporates holes at the top and bottom to facilitate heat exchange" between the wall and the environment through convection.

Attached greenhouse

In this case, a glazed space is incorporated into the midday wall that can be habitable and improves heat capture during the day and reduces heat loss to the outside.

Heat accumulation roof

In certain latitudes it is possible to use the roof surface to capture and accumulate the sun's energy. Also known as solar ponds, they require complex mobile devices to prevent heat from escaping during the night.

Solar collection and heat accumulation

It is a more complex system and allows you to combine direct gain through windows with solar air or hot water collectors to accumulate it under the floor. Then, in a similar way to the ventilated accumulator wall, the heat is taken to the interior environment. Properly sized it allows heat to accumulate for seven or more days.

In almost all cases they can be used as passive cooling systems, reversing the direction of operation.

• - Acosta, Wladimiro. 1976. Housing and Climate. New Vision Editions. Buenos Aires.

• - Alemany, J. and others. 1980. The sun for everyone. Comprehensive Ed.

• - Allen, Edward. (1982). How a Building Works. Elementary principles. Ed. Gili.

• - Anderson, A. and Wells, M. Easy guide to passive solar energy. Natural heat and cold. Ed. Gili, Barcelona.

• - Bardou, Patrick. 1980. Sun and Architecture. Ed. Gili, Barcelona.

• - Bardou. Patrick. and Arzoumanian, V. 1986. Adobe architectures. Ed. Gili, Mexico.

• - Billington, N.S. 1952. Thermal Properties of Building. Cleaver-Hume Press Ltd.

• - Czajkowski, Jorge") and Gómez, Analía. 1994. Bioclimatic design and building energy economy. Fundamentals and methods. Ed. UNLP, Cátedra Collection. La Plata, Argentina.

• - Czajkowski, Jorge") and Gómez, Analía. 2009. Sustainable architecture. Ed. Clarín. Buenos Aires, Argentina.

• - Diaz, Ernest. 1967. Architecture and the Sun. Solar protection of buildings. Gustavo Gili.

• - Givoni B, A. 1976. Man, Climate and Architecture. Architectural Science Serves. Publishers. Ltd. London.

• - González, Neila. 2004. Bioclimatic architecture in a sustainable environment. Ed. Munilla-leria.

• - Izard, Jean Louis") & Guyot, Alan. 1980. Bioclimatic Architecture. Ed. Gili, Barcelona.

• - Mazria, Edward. 1983. The Book of Passive Solar Energy. Ed. Gili. ISBN 968-6085-76-9.

• - Mc Phillips, Martin. 1985. Housing with Passive Solar Energy. Gustavo Gili.

• - Olgyay, Victor. 1998. Architecture and climate. Bioclimatic design manual for architects and urban planners. Ed. Gustavo Gili, Barcelona. ISBN 84-252-1488-2.

• - Serra, Rafael and Coch, E. 1995. Architecture and Natural Energy. Ed. UPC. Barcelona.

• - Serra, Rafael. 1999. Architecture and Climate. Gustavo Gili, Barcelona.

• - The American Institute of Architects. 1984. The passive house. Ed. Blume, Madrid.

• - Watson, D. 1985. The solar house. Madrid. H. Blume.

• - Wright, David. 1983. Natural Solar Architecture. Gustavo Gili.

• - Yáñez, Guillermo. 1982. Solar energy, buildings and climate. Ed. Ministry of Public Works and Urban Planning, Madrid.

• - Sustainable architecture.

• - Bioclimatic architecture.

• - Sustainable development or Sustainable development.

• - Sustainable landscape.

• - Organic architecture - See Organic architecture [1].

• - Bioclimatic architecture

*Passive house

*Energy efficient building

• House energy plus

• Low energy building

• Zero energy building

• Water walls

• Trombe Wall

• Wind catcher - See Windcatcher [2]

• Wind tower - See Wind tower [3]

• Solar chimney - See Solar chimney [4]

• Superinsulation - See Superinsulation [5].

• - Bioconstruction.

• - Permaculture.

• - Center for Vernacular Architecture, Bangalore, India, an NGO.

• - Sustainable Architecture information from the University of Michigan.

• - EcoHabitar Articles on Bioconstruction, Sustainable Architecture and ecomaterials.

• - Conference where Norman Foster explains the need for sustainable architecture and his work Archived December 18, 2009 in the Wayback Machine.

• - Sustainable construction agenda of the College of Surveyors and Technical Architects of Catalonia.

• - Cal-Earth (The California Institute of Earth Art and Architecture) developed a patented system called Superadobe, made up of bags that contain stabilized soil and are reinforced with barbed wire to resist earthquakes, fire and floods.

• - http://www.arquinstal.com.ar Czajkowski - Gómez Facilities Chair of the Faculty of Architecture and Urban Planning of the National University of La Plata, which bases its pedagogical proposal on sustainable architecture and environmentally conscious design.

• - EULEB - EUropean high quality Low Energy Buildings, provides information on European non-residential public buildings with low energy consumption.