Monday 23 February 2009

Projector Tests

The initial idea was to use projectors to produce the light for the piece. This idea was formulated considering Turrell's and McCall's work, which can be seen in earlier blog entries. In honesty this was probably a process that should have been tested during the research and pre-production stage of the project, but unfortunately was not and consequently must be tested now. Since the original plan was forged I have developed some reservations about how the projector would achieve the beam that I desire. These doubts have come from an increased knowledge surrounding light and from deeper thought into the subject. Something that I didn't necessarily consider before was the way that a projector works i.e. how the light leaves the projector, in a fan cylindrical shape, similarly to a cone.

Regardless of these doubts about how a projector will perform, it is a good idea to consider all options available, as a controlled light video run through a computer may be able to generate a more collimated result.

The first tests that I decided to run were using a standard digital video projector. At first I simply projected light from the projector and blew smoke through it similarly to the initial tests that I undertook a few days ago (found in previous blog entries).





As you can see the beam that was produced wasn't as successful as I would have liked. Although the beam started off fairly narrowly, the angle at which it spreads is far too great over 8 feet. I was curious to see if a filter could have an effect on the beam, hopefully preventing it from spreading as much. I created a simply cardboard rectangular tube and placed it on the front of the projector.





This unfortunately had an adverse effect on the light, cause the beam to become weaker and also to spread unevenly as it left the end of the tube. As I have already highlighted light will refractor around an object such as this, and therefore such a method will not work. At this stage I do not think that a video projector will be suitable to create the effect that I desire. I have therefore decided to try and find other alternatives.

Saturday 21 February 2009

Initial Tests Continued

The main purpose of these tests was to gain a better understanding of what is required to produce the final desired effect, and also to provide an preliminary understanding of how light works, and how this can be altered by introducing smoke. As mentioned earlier this was a simple test and would not provide a desirable beam.

This was a correct prediction, although the results were more impressive than first anticipated. The beam that was produced was surprisingly well structured appearing as a relatively solid beam. I have include some photographs of how the beam appeared, which i will explain as this entry progresses.

I began by testing the set-up with the torch positioned on the floor pointing up. I then blew smoke in the area of the light beam, and recorded the results as the smoke hit the beam.



As you can see the beam that was produced seemed to be in a relatively collimated form i.e. the same diameter all of the way down, which although i was using a spotlight torch I was not expecting.

Although having the light source located on the floor allowed for ease of movement etc, I decided that it would be more useful and potentially more realistic to the final product if the light was hung from the ceiling. This was made easier by the fact that there were wooden ceiling rudders located in the ceiling area. I was consequently able (with the use of a ladder) to tie several lengths of string over one of the rudders and hang the torch in a vertical position (as shown below).



I then repeated the same process as before, but also tried to increase the amount of smoke within the space, and consequently the solidity of the beam. The following photos highlight the results of this.











I then tried to attach a cover to the torch, to see is this would help to focus the beam more, or indeed cause the light to diffract more.



As I had previously thought the cardboard had simply caused the light to diffract causes the beam to spread more than it had previously.

I was pleased with how the beam had appeared during these tests, especially considering the equipment that I was using. These tests also allowed me to consider the project from a more practical stance whereas before I had mainly been considering the tasks from a theoretical viewpoint. The experiment brought forth many questions, that although I may have already considered, were not in the forefront of my mind. These including such things as how would the beam appear more solid? will smoke well enough to create a solid state? will the smoke move around too much during the exhibition? what will happen to light once a sensor has been broken? will the sensors be able to work considering the light conditions i.e. in the dark?

Although some of these questions are more important than others, I know that everyone will have to be answered if the project is to be successful, and appear as professional as I imagine. Further testing and research will enable me to hopeful answer all of the above, but at this stage I remain confidant about the project, although I am even more aware now that the task that lies a head is not an easy one.

Friday 20 February 2009

Initial Tests

Although it has been imperative to do research and consider the features behind the project in text form, it is also extremely necessary to test the ideas behind the project, enabling the research to be applied and considered in practice. I wanted to see what effect that I could achieve with a simple experiment, including light and smoke.

Smoke in a can:



A spotlight torch:



A mirror:



Aims:

This test allowed me to consider the project from a practical sense, as although I had witnessed previous works, such as McCall's work, I had not yet played with light myself. I consequently hoped that through even simple testing, such as this, that I would be able to get a better understanding of the project before me.

Although the spray smoke that I was using during this experiment was completely harmless and is suitable for home use I decided to conduct the testing in my garage for obvious reasons (not filling the house with smoke). This also enabled me to hang the torch form the ceiling much easier. Although the test could probably have been achieved by placing the torch on the floor and pointing up, I felt that it would be more true to the final methodology if the light was ceiling mounted.

Tuesday 17 February 2009

PIR Detectors

PIR (Passive InfraRed) detectors are commonly seen in home security systems and detect when a person moves within a set detection zone. They work by detecting slight changes in thermal radiation compared to the surrounding area. In theory PIR detectors should therefore work well for my project, as they can be positioned around the columns so that when a person enters a given area around the columns they will detect it and send a signal to the computer.



In each PIR there is pyroelectric sensor, which will undergo a change in polarization if it detects a change in thermal radiation, thus producing an electric output, causing the alarm to be triggered or in this instance, the light columns to change.

The level of detection is limited by the window material that is placed in front of the sensor (clear white plastic part at the bottom of the sensor on the above photo). Most off-the-shelf pyroelectric sensors limit the spectral response to all or parts of a range between 0.15 and 20 µm. The radiation of the human body is strongest between 8 and 14 µm. The goal of every filter (window) is to make the sensor immune to unwanted radiation and pass a desired band, both of which are defined by the sensor's target application. Sensing elements usually have built-in impedance converters or pre-amplifiers to lower the number of external components and minimize the costs of the circuitry.

A variety of businesses sell various PIRs. In order to make a decision about which one I will use, I need to consider; price, coverage, the voltage that it operates at, operation temperature and ease of wiring. The majority of the PIR detectors that I will be looking at will probably be suitable, but the main specifications to check are price and the voltage that it operates at. This will prove to be extremely important as I will need to put power through the PIRs, and will also need to plug them into a form of hardware to receive the signals that they will omit.

I was originally planning to use twelve sensors, but since then a lot has changed. The main changes have been from square to cylindrical columns and from a system similar to lasers to PIR detectors. The detection zone of a PIR is far greater than a laser, which is obviously just a single line, consequently I will need far less PIR detectors. I plan to test this before I make a final decision concerning how many I will need but I imagine at least six.

Monday 16 February 2009

Magican Smoke Spray

Although I plan on testing different machines i.e. smoke/haze/dry ice, to see what will produce the best effect for the light to be reflected off and consequently produce a 'solid' column, I do not feel that I am yet at the appropriate stage for this. It is likely however that I will want to do some initial light test and as a result I have decided to purchase smoke spray.

Smoke spray is available from several effect shops, but also from Maplin who sell it as a disco lighting accessory as it increases the effect of disco lights. The smoke comes in cans that are capable of spraying for five minutes and will apparently fill a room for 1 to 2 hours, obviously depending on the size of the room. Although it is unlikely that I will use this smoke in the final presentation of the project it appears to offer an easy and relatively cheap option for testing.

Each can costs £5.99 from Maplin compared to £20 - £30 a day for the hire of a smoke/haze machine. This will also provide me with increased flexibility, as I won't have to perform all testing over a fixed time period, allowing me to try different methods and options as I see fit, something that would not be possible if I were to hire a smoke machine.

The spray is also completely safe, non-toxic and non-irritating, so offers a safe, flexible and cheap option for creating smoke during this initial phases of testing.

Saturday 14 February 2009

Listening Post

Listening Post is a ‘dynamic portrait’ of online communication, displaying uncensored fragments of text, sampled in real-time, from public internet chatrooms and bulletin boards. Artists Mark Hansen and Ben Rubin have divided their work into seven separate ‘scenes’ akin to movements in a symphony. Each scene has its own ‘internal logic’, sifting, filtering and ordering the text fragments in different ways.

By pulling text quotes from thousands of unwitting contributors' postings, Listening Post allows you to experience an extraordinary snapshot of the internet and gain a great sense of the humanity behind the data. The artwork is world renowned as a masterpiece of electronic and contemporary art and a monument to the ways we find to connect with each other and express our identities online.



As a work of art and a piece of technological ingenuity in its own right, Listening Post is hard to categorise. An extraordinary investigation into the meaning and malleability of statistics, it combines a Minimal art aesthetic with the elements of chance and randomness common to experimental art from the early 20th century to the present day. But its engagement with media technologies and sophisticated data-analysis techniques differentiates it from traditional visual art. It relies not on the found objects of Modern Art but on found data and extracted thoughts - the very unstill lives of a hundred thousand active minds. Listening Post is an acknowledged masterpiece of electronic art; it references issues and themes central to software and interactive art, while subverting notions of interactivity. By anonymously drawing from active public places on the internet for its raw material, using thousands of expressions from thousands of unwitting online contributors, it repositions the point of interaction to the point of source rather than the point of encounter. It is itself as much a voyeur as the gallery audiences to whom it performs its findings.

Thursday 12 February 2009

Sensor change

Although the original plan was to use a laser like system, and to have one sensor positioned either side of the square columns, this plan has now changed. I had previously arrived at the idea of using photodiode, which would act as a light sensor. Unfortunately I was informed that photodiodes would not have work properly considering the lighting conditions, as they would be positioned in relative darkness, and haze would also make their operation even more difficult. As a result I needed to find a sensor that did not rely on light differences, and could operate unnoticeably, unlike lasers, which would be seen once, haze/smoke would pass the beam.

Other options that were available at this stage were infrared, ultra sound, or more simply a detection system similar to PIR (Passive InfraRed). I have researched into the capabilities of infrared and ultrasound during the research stage of previous projects and have found that they can be extremely complicated to implement properly, and require a large amount of knowledge and work, something that might not be achievable considering the amount of time that I have left to complete the rest of the project.

I therefore decided that it would be worth consider PIR detectors, as they were easily obtainable and relatively cheap. It was important however, to consider how they would be able to be controlled and how easily it would be to intercept and interpret the signal that they omit once they have detected motion, basically determining whether they would be suitable to use in the project.

Tuesday 10 February 2009

Monday 9 February 2009

Architectural Light Structures

It has been interesting to look at architecture that has given huge consideration to how light, either natural or artificial, effects it.

Saturday 7 February 2009

Jean Nouvel: Torre Agbar

Located at the Plaça de les Glòries Catalanes in Barcelona, the skyscraper Torre Agbar was designed by French architect Jean Nouvel. Nouvel has disagreed about the description as a skyscraper as he explains,

“This is not a tower. It is not a skyscraper in the American sense of the expression: it is a unique growth in the middle of this rather calm city.”

The building is a very relevant example of how both artificial and natural light can work together. Torre Agbar becomes increasingly visible in the darkness due to its 4500 LED lights which illuminates the building, transforming it from a set of offices into a piece of art.



Furthermore, the seemingly random placement of 4000 red rimmed windows helps the colourful patterns to take on different shapes and movements. The north and the south faces of the building have different window patterns, with the southern side showing less windows while the north is opened up to the light. Adding to this pattern of colour on the exterior, the interior of the offices are lined with multicoloured cabinets helping the buildings patterns and colours to become even more exciting. Nouvel comments,

“The surface of this construction evokes the water: smooth and continuous, but also vibrating and transparent because it manifests itself in coloured depths - uncertain, luminous and nuanced.”

The colours and patterns of the building are a very important aspect which, coexist with the use of both artificial and natural light. With 4400 windows and 56,619 transparent and translucent glass plates, the louvers (tilted windows) are slanted at different angles calculated to deflect the direct sun light. Nouvel explains how the light helps the building to interact with the Spanish city’s skyline,

“The uncertainties of matter and light make the campanile of Agbar vibrate in the skyline of Barcelona: a faraway mirage day and night; a precise marker to the entry of the new diagonale that starts at Plaça de las Glorias. This singular object becomes a new symbol for an international city.”

Friday 6 February 2009

Light Architecture (Artificial Light)

As well as architecture that is constructed with natural light I am interested in buildings that are designed with artificial light in mind. In fact it may be more useful to consider architecture with artificial light than natural light as this project revolves around the manipulation of artificial light. Artificial light is something that emanates from a fixed and constant source, meaning it does not change and more than often involves a visual ‘noise’. As well as considering how the artificial light is employed, it will be useful to consider the structure of the buildings and how the light develops the structure. This will prove to be extremely relevant when decisions are made regarding the structure of my lights.

There have been major developments in lighting technologies such as, LEDs, OLEDs, laser, light emitting materials, photonic textiles and LCDs, all of which have added to the potential to integrate notions on visibility, perception and perspective within our public spaces and architecture that we see all around us. It has been these technological advancements teamed with a desire from local and regional governments to improve and promote cities competitiveness through city branding, that has led to several light orientated structures being constructed. Architects know how important it is to get the lighting right within a building, whether it is natural or artificial. Light has a huge effect on the space, often enhancing and improving it. Bad lighting can have a disastrous effect on a space, completely changing the atmosphere and feel.

Thursday 5 February 2009

César Portela: Cordoba Bus Station

The Cordoba Bus Station may not at first appear to be of architectural significance, but its carefully designed structure won Cèsar Portela the Spanish National Architecture Prize in 1999.



With a very different exterior and interior the construction and architecture helps to convey separate stories throughout the building. Portela explains that many memories helped him to create the garden at the heart of the building,

“When I was given the commission of the Cordoba Bus Station, a multitude of memories of my first journeys came to mind. Old memories that, in turn, fused with more recent memories about the Mosque and the courtyards of Cordoba, in the awning clad streets of Andalusia, with their space, with their light and their flowers, with the sound of water in the courtyards of the Alhambra, in the gardens of the Generalife and in the Alcazar..."

Regarding light throughout this architecture, Portela studied many different ways that the light affected both the interior and the exterior. Throughout his initial ideas and thoughts about the building he considered how light and shade could effect large bare walls. All of the structures and forms that Portela considered were followed by a thought of how light would develop the environment.

"I saw a more merciful light, once its radiant impulses had been broken, walking or moving in tune with the shade and both of these following the circular movement of time. I saw the light crashing against the granite walls that gave off thousands of twinkling stars, crashing onto the interior colour, on yellow, blue, green and white opalescent planes, all of which were stuccoed, creating calm when harassed by so much sun and glare..."

Although Cordoba mainly employs natural light, it is interesting to see how this was combined with areas of shade that helped to create different areas within the building, each moving and changing throughout the course of the day. This helps to highlight the huge effect that light can have, especially on architecture. The picture above shows the numerous columns that are present in the bus shelter. They appear almost playful due to the amount of them, all exactly the same, but somehow different as light hits them at different angles. Although they are supporting the large structure above them, they also appear to be decorative, which is peculiar considering they are made from concrete.

Wednesday 4 February 2009

Light Architecture (Natural Light)

This topic can be divided into two sections, firstly the use of light in architecture and, more importantly for this project, architectural structures made from light. Although the foremost will be given some consideration it is the later that I am primarily concerned with. The idea of architecture formed by light may at first appear to be an ambiguous concept, but I hope following further discussion that it becomes clear and that it is possible to be better understand my rationale for the project.

Although at first it may not appear to be important how light effects architecture I feel that it is important to consider, especially as I aim to construct something that appears tangible and solid similarly to a column (found in architecture). The importance of this research will become even more profound once construction begins and structure really becomes important.

The relationship between architecture and light is not a new one, highlighted by Lao-Tse’s, an ancient Chinese philisopher, comments, “architecture is not four walls and a roof; it is also, and above all, the air that remains within, the space that these enclose”.

That is why architecture and light, or light and architecture are concepts that have been interdependent throughout history, to the point that one of Bruno Zevi’s, an Italian architect, most important essays is called: “light as an architectural form”. Le Corbusier, a Swiss/French architect, went as far as saying that “architecture is the wise, correct and magnificent play of volumes collected together under the light”.

Throughout all architecture, whether it is popular or less well-known work it is impossible to imagine the work without looking at its relationship with light. This partnership between light and architecture can happen deliberately or it can be purely by chance that the two compliment each other so well.

One example when looking at highly recognized architecture is the Pantheon in Rome. The Pantheon shows that when light and architecture are used together in harmony it can transform a spatial context. The light can help to enlarge a space or make it look smaller, creating the sense of mystery or simply highlighting interest points within the space. Étienne-Louis Boullée, a French neoclassical architect, stated that, “the art of touching with the effects of light belongs to architecture”.

The history of architecture does not only look at the way in which artificial light is used, but also at the different ways that natural light has been employed. Throughout artistic styles there are numerous ways to manipulate light in an architectural space. Beginning with the fascination with star light, to worshipping light in Ancient worlds and ornamented light of Egyptian architecture, natural light has held great power. Continuing with the precise light in Classical Greece and the Roman’s distilled light, passing from the outside to the interior of their architecture. The divine and protective light encouraged meditation in Romanic architecture. Furthermore, Gothic stained glass windows creating supernatural light, the humanized light of the Renaissance and the Baroque’s sublime light.

It is important to note the significance of light in architecture, as it clear that light has always been considered during structural decisions. This project aims to go further than this, making the structure, which has been influenced by light for so many years, actually out of light. This project almost flips the relationship, considering the architecture of light and not the more traditional relationship of light in architecture.

Although the relationship is being looked at from a different angle I still want to consider how artificial light in particular can change and develop architecture. This research may not appear to have a direct link to the project, but I feel like it is helping with my overall understanding behind the project.

Monday 2 February 2009

Square Columns

Traditionally columns have always been cylindrical and consequently there is not much previous information surrounding square columns to consider. I have decided to try to create square columns partly due to this fact, that they are not necessarily the normal column, and I also feel that the straight lines of a square column will add to the rigidity of the light. Square light columns also go against the tradition of projected light, which again is traditionally in a cylindrical form.

Find an Expert

In order for this project to be truly successful I am aware that I will need to receive some outside help concerning the light and in particular how it could appear to bend. Although I am keen to research the subject myself I am uncertain that I will fully understand the topic properly as I don't think it will be a simple answer. I consequently feel that I will need somebody who is well learned in physics or optics.

As my University does not have a physics department I decided to start my search for an expert by contacting science outreach centers and by posting questions to science forums. One of the first institutions that I contacted was Ecsite Uk, which is an association for science and discovery centers, although they were not able to help me directly they suggested a few other places to contact, the Institute of Physics, Sciencemadesimple.com, and Neurophysiologist Beau Lotto, who has worked with light in the past. As well as considering these options I also contacted sciencemadesimple.com, which is a site that is dedicated to scientific research and explaining all aspects of science. Although I did not receive a response from all of the institutions that I contacted, Helen at Science made simple was kind enough to forward the e-mail on to the Physics department at Cardiff University and other mailing lists that she was on. From this I was contacted by three people, Henje Simmonds, Taj Bhutta, and Wolgang Langbein, who were all either students or professors of physics or optics. There was however a significant problem with each of these contacts, as they were predominately based in Cardiff and were all extremely busy people. This meant that all correspondence had to be made via e-mail, which meant that it was difficult to really explain my ideas, and also meant that communication was slow, especially considering the busy nature of the contacts. This consequently meant that communication began to break down, although they did pose some useful questions that forced me to consider important aspects of my project.

As a result I tried to find somebody that was closer to London that would be able to assist me.

Sunday 1 February 2009

Columns

Noun;

1. An upright pillar supporting an arch or other structure or standing alone as a monument.
2. A line of people or vehicles moving in the same direction.
3. A vertical division of a page or text.
4. A regular section of a newspaper or magazine on a particular subject or by a particular person.
5. An upright shaft used for controlling a machine.

— DERIVATIVES columnar adjective columned adjective.

ORIGIN Latin columna ‘pillar’.

Although light forms much of the contextual basis for this project it is also important to consider the structural form that the light will be presented in, a column.

I primarily decided to use a column due to the architectural connotations, playing into the idea of rigidity and solidity. I also felt that a column stretching the height of a room would be visually stunning and extremely dramatic. The light will also appear to be dissecting the space.

It is important to consider these initial ideas further, as well as examining other meanings that are attached to columns. In order to fully understand columns, I have decided to inspect them throughout the ages beginning with Ancient Egypt.

The use of columns dates back to as early as 2600 BC in Ancient Egypt, where columns were carved to reflect the organic form of bundled reeds. The early columns were constructed of one large piece of stone, usually by turning on a lathe-like apparatus. Another method of column manufacture is to make multiple sections of stone, and dry fitting or mortaring them together. It is common to find columns with a centre hole or a depression that have been pegged together using either stone or metal pins.

The majority of columns incorporate entatis, which is the inclusion of a convex curve on the sides of the column, producing a bulge in the middle of the column. This combined with a reduction in the diameter at the top of the column, mimics the parallax effects which the eye expects to see and tends to makes columns look taller straighter than they actually are. Modern columns are generally constructed out of steel, poured or precast concrete, or brick. They may then be clad in an architectural covering (or veneer), or left bare.

When columns are used for practical uses there are several complicated calculations that must be considered regarding the load that the column is supporting. Although, such calculations are extremely important to the construction of a column it is not necessary to implement them for this project, as although I do want the connotations of the column to be attached to the light, it is in essence a decorative piece.

As mentioned earlier the column has been used in construction and architecture for many years. As with anything that has been used over such a vast time period, there have been various adaptions and adjustments to achieve a different effect. The most significant changes can be considered in terms of classical orders.

The Doric order:

Often considered to be the oldest and simplest of classical orders. Vitruvius, the Roman author, spoke of how Greeks had developed their Doric order from techniques for building in wood, in which a stone cylinder replaced smoothed tree trunks. The columns of the Doric order composed of a vertical cylinder that is wider at the bottom, generally without a base or a detailed capital (the section where the column meets the horizontal mass that it supporting).

The Greek Doric, developed in the western Dorian region of Greece, is the heaviest and most massive of the orders. It rises from the stylobate without any base; it is from four to six times as tall as its diameter; it has twenty broad flutes; the capital consists simply of a banded necking swelling out into a smooth echinus , which carries a flat square abacus; the Doric entablature is also the heaviest, being about one-fourth the height column. The Greek Doric order was not used after c. 100 B.C. until its “rediscovery” in the mid-eighteenth century.

Tuscan order
The Tuscan order, also known as Roman Doric, is also a simple design, the base and capital both being series of cylindrical disks of alternating diameter. The shaft is almost never fluted. The proportions vary, but are generally similar to Doric columns. Height to width ratio is about 7:1.

Ionic order
The Ionic column is considerably more complex than the Doric or Tuscan. It usually has a base and the shaft is often fluted (it has grooves carved up its length). On the top is a capital in the characteristic shape of a scroll, called a volute, or scroll, at the four corners. The height-to-thickness ratio is around 9:1. Due to the more refined proportions and scroll capitals, the Ionic column is sometimes associated with academic buildings.

Corinthian order
The Corinthian order is named for the Greek city-state of Corinth, to which it was connected in the period. In fact, the oldest known Corinthian capital was found in Bassae, dated at 427 BC. It is sometimes called the feminine order because it is on the top level of the Colosseum and holding up the least weight, and also has the slenderest ratio of thickness to height. Height to width ratio is about 10:1.

Composite order
The Composite order draws its name from the capital being a composite of the Ionic and Corinthian capitals. The acanthus of the Corinthian column already has a scroll-like element, so the distinction is sometimes subtle. Generally the Composite is similar to the Corinthian in proportion and employment, often in the upper tiers of colonnades. Height to width ratio is about 11:1 or 12:1.

Solomonic:
Solomonic columns were inventions of Baroque architects in Europe. They were not used in antiquity, but were called “Solomonic” by baroque architects because they were based on a description of columns in the great temple of King Solomon in the Old Testament. A Solomonic column begins on a base and ends in a capital, just like a classical column, but the shaft twists around the usual parameters of a column, producing a dramatic, serpentine effect of movement. The most famous use of Solomonic columns is in the baldacchino designed by Bernini for Saint Peter’s Basilica in the Vatican City.

Trajan’s Column:
Designed in honour of the Roman emporer Trajan, this column was constructed by architect Apollodorus of Damascus. It is completed from 113 freestanding columns and is particularly famous for its spiral bas relief. The column is 30 meters high and made from a series of 20 large marble drums, each with a diameter of 3.7 meters. The column belongs to the Roman Doric order.

Alexandar Column:
Built between 1830 and 1834 by French architect Auguste de Montferrand, The Alexander Column is the tallest of its kind in the world. The column is 47.5 meters high and is made from a single piece of red granite. The granite column is 25.45 meters tall and is topped with a statue of an angel holding a cross with a great likeness to Emperor Alexander I.
The granite was transported from Finland on a boat specifically designed for the columns buiding. Weighing 600 tones, the architects did not have the use of modern machinery and so the column was erected by 3000 men in less than 2 hours.

The above highlights how columns have varied throughout the many years that they have featured in architecture. It is important to understand how columns have developed, and the significance that they have had within architecture. As well as being useful from an engineering prospective, columns have also been used throughout the ages as decorative pieces. This obviously has more relevance to my work, as although I want the structural properties to be present the columns will be purely decorative. As I have already mentioned the above columns are all examples of cylindrical columns and consequently will not resemble my columns, so it is vital to consider how rectangular columns have been used, and other ideas that are attached to the use of columns.

Forever: Universal Everything at V & A

‘Forever’ is an installation by Universal Everything, which is a large video wall installation of endless animations responding to an ever-changing soundtrack. The bespoke generative design system at the heart of ‘Forever’ did, and still could, spawn unique audio-visual films every day, forever. The self-generated animations were recorded and used to self-produce a coinciding series of downloadable video podcasts.



Although there are similarities between Forever and my project, the main aspect that I found inspiring was the presentation of the piece. The installation did not look out of place at the Victoria and Albert Museum, in comparison to the fixed artifacts, it was a look into how a digital piece of work can evolve the artifact into something that was transient, it doesn’t have to sit still, it did have structural form, but was constantly changing.

Digital art has the ability to take something solid and let it develop. This is a key aspect of my project, although I feel that my project aims to take this even further, especially when considering the architectural significance of the column (something that will be considered much further in later blog entries). The video depicts how visually pleasing ‘Forever’ is, but this is even further enhanced when you are actually within the surroundings. The importance of surroundings, especially the water that the piece sat on top of, helped to express the seemingly natural beauty of the piece. This is a question that I will have to consider, as I am combining something that is natural (light) in an unnatural form a solid column. The presentation of the column and its surroundings will alter the ambience of the installation hugely, and consequently must be given thorough thought.