William Waites on Sun, 6 Dec 2015 18:51:42 +0100 (CET) |
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<nettime> A Veillance Ansatz |
This short article is to try to put discussion about surveillance into theoretical framework. It is far from rigorous and is more a guide to a certain way of thinking about the topic. The word `sousveillance', coined in the late 90s by Steve Mann in analogy with `surveillance' was meant to invert the prevailing power dynamic. The canonical example being the hypothesis that giving cameras to homeless people would make it less likely that they would be beaten by police. The `veillance' or watching was in the direction from less to greater power. Locally, at any point in space, we can write the veillance equation: E = VÂâP This is a compact way of saying that supposing we can assign a `social power' to every point in space, we can then find, with certain technical assumptions, the direction and magnitude of greatest change, âP. This is the power gradient. It points up the hill from the less powerful to the more powerful. Equally, following Mann [1] we can form the `sight' or `veillance intensity' vector V at that point. This is the direction and intensity of watching emanating from there. It is the sum of all the gazes that pass through that point. The  symbol means inner product which is a way of multiplying vectors such that the result is a single number, a scalar, that says how well aligned V and âP are. The result, E, is the amount of `veillance' happening at that point scaled according to the disparity in power at that place. We can further take the integral over a region in space, âEdv, to find out the aggregate amount, and nature of veillance in that region. The sign of E is instructive. If it is positive, the total gaze and the power gradient are aligned. In this situation we have `sousveillance', the weak watching the powerful. If it is negative, the direction is reversed, with the powerful watching the weak, which is `surveillance' as the word is normally used. If it is zero, then the gaze is among peers with no disparity in power. Making a short film of a birthday party perhaps. This is `isoveillance'. The magnitude of E has an interesting interpretation. It can be small or zero in three circumstances: when the power gradient is zero, when there is nobody watching, or when watching is only directed among equals. In other words this might happen in either or both of an egalitarian society or a society without either sur- or sous-veillance. On the other hand if E is some non-zero value, the larger the power gradient, the smaller the amount of watching necessary to get that particular value and vice-versa. If E is interpreted as some sort of measure of the effect on society of veillance, then taken together with its sign, if there are great power disparities, a small amount of surveillance has a large negative effect, whereas a small amount of sousveillance has a large positive effect. In less unequal societies it takes more veillance activity to achieve the same thing. This theory of veillance does not take into account the following, important, phenomenon. Suppose Alex takes a video of Larry at dinner one night to remember a pleasant evening by. On the surface we could imagine that this is simply isoveillance. A harmless activity. However Alex is in the habit of using a server owned by Gerald to store these video-memories. Gerald is in a position of privilege and power and if he looks at the video, he is committing surveillance on Larry and using Alex as an unwitting accomplice. Similar indirect or hidden surveillance -- implying that E should be a large negative number -- is possible in a variety of other circumstances as well. For example even if Alex did not entrust video-memories to Gerald for safe-keeping, a state could covertly steal them or force Alex to hand them over. This indirection, veillance happening through several hops, means that the in calculating V it is necessary to sum up the indirect gazes as well. Indeed it is necessary to know all possible paths for information to pass from Larry to Gerald, together with their bandwidth, in order to find out the amount of veillance being committed by Gerald on Larry. This issn't so obvious at first glance. It is also not obvious that it is well-defined to speak of a `power field' with a value at every point in space. Certainly it is plausible that we could associate a number representing some notion of power for every person, and for every pair of people a difference between these numbers, but to arrive at something like a gradient we need a notion of distance between them. Two candidates are physical distance which has the advantage of being continuous, or distance across a social graph which would take more work. People, of course are discrete, not continuous entities, so we might speak of their `sphere of influence' when adding up their contribution to the `power field'. Making this rigorous would take some work, but in the continuous limit we should arrive at something like the veillance equation. Nevertheless it is helpful to have this framework in mind when thinking about the social and economic dynamics of information flow on the Internet and elsewhere. Edinburgh. December, 2015 [1] http://www.eyetap.org/docs/Veillametrics_JanzenMann2014.pdf # distributed via <nettime>: no commercial use without permission # <nettime> is a moderated mailing list for net criticism, # collaborative text filtering and cultural politics of the nets # more info: http://mx.kein.org/mailman/listinfo/nettime-l # archive: http://www.nettime.org contact: nettime@kein.org