Event: Chemical Kinships – RGS 2019

I’m excited to be part of the upcoming Chemical Kinships session at this year’s RGS-IBG annual conference in London, organised by the fantastic Angeliki Balayannis (Brunel University London) and Emma Garnett (King’s College London). Abstract and session outlines follow below.

Session Abstract

A. Balayannis & E. Garnett

A chemical turn is taking place across the social sciences and humanities. This bourgeoning field of research is increasingly approaching industrial chemicals ontologically, as heterogeneous material entanglements. These situated attunements to chemical relations and conditions are stimulating new conceptual developments, including: chemical kinship (Agard-Jones 2013); chemical geographies (Romero et al. 2017); the chemosphere (Shapiro 2015); chemical space (Barry 2005); and chemo-ethnography (Shapiro and Kirksey 2017). This session considers what a geographical approach to chemicals generates conceptually, empirically, and ethically. Geography has largely taken the materialities of industrial chemicals for granted – often reducing them to villainous objects. By approaching the spatiotemporalities of chemicals through their enabling and constraining capacities, this session considers the ways shared exposures afford new political possibilities (Alaimo 2016; Murphy 2006).

The session has two key strands, the first entails a set of themed paper sessions, exploring chemical entanglements in embodied, material, and affective registers. The second puts these ideas into practice, through a participatory workshop for cultivating attunements to chemical kinships in central London – exploring bodily relations with chemicals, ranging from antibiotics to air pollutants to plastics. Our point of departure for this final session is Elizabeth Povinelli’s key question (2017: 508): ‘How does one probe and discover the world that one is in, but can experience only peripherally?’


Paper Abstract

CH4emical Encounters: A Human/Natural Gas History – Knowledge/Politics/Governance

 P. Forman 2019

How has natural gas, an often-violently vital, yet also invisible, intangible, and largely odourless material, become humanly known? How has it transformed so radically in its everyday relationships with people that, in the space of just 200 years, it has gone from inspiring widespread fear to featuring as an everyday household commodity that people not only depend upon, but which is so normalised in daily routines that it is rarely given a second thought?

To explore these questions, I outline a brief history of human-natural gas encounters, describing the development of a range of increasingly elaborate techniques for rendering natural gas knowable, communicating its effects, and regulating its behaviour. In the process, I examine how natural gas occupies a position that seemingly contradicts dominant narratives of material vitalism (in which materials are overwhelmingly represented as villainous entities: as sources of societal threat or challenging inertia), demonstrating how gas instead presents a range of threats and opportunities for society. These vital capacities are also shown to be the focus of increasingly sophisticated practices of governance, gas being surveyed, monitored and manipulated in efforts to actualise certain vital capacities, whilst inhibiting others.

In tracing this history of gaseous knowledge production and governance, I conclude by considering the lessons that could be learned for the governance, politicisation and rendering known of other gaseous substances that have significance for ecological governance in the Anthropocene, in particular, carbon dioxide and air pollution.


Preliminary Programme


Session 1

Organisers: Angeliki Balayannis,  Emma Garnett

Chair: Angeliki Balayannis


Making microbes make materials: Chemical kinship and relations of value in the biotechnological production of industrial chemicals

  • Eleanor Hadley Kershaw (University of Nottingham, UK), Carmen McLeod (University of Nottingham, UK), Brigitte Nerlich (University of Nottingham, UK) 

Chemical regimes of living and home hygiene practices in Sydney, Australia

  • Rachael Wakefield-Rann (University of Technology Sydney, Australia) 

Here We Go; Here We Go; Here We Go: Olfactory Circulations in Moments Of Collective Delight

  • Victoria J. E. Jones (Durham University, UK)

Oxidation in Relation to Urban Bio- and Geo- Politics: When Elements and Bodies Encounter in a Petrochemical City

  • Yi-Ting Chang (National Taiwan University, Taiwan), Shiuh-Shen Chien (National Taiwan University, Taiwan), & Yi-Ting Chang (National Taiwan University, Taiwan)

Circulating stories of the air

  • Harshavardhan Bhat (University of Westminster, UK) 

Session 2

Organisers: Angeliki Balayannis, Emma Garnett

Chairs: Angeliki Balayannis, Emma Garnett


The Social Life of Nitrogen: Organic Chemicals and Political Economy

  • Emma Cardwell (University of Glasgow, UK)

CH4emical Encounters: A Human/Natural Gas History -Knowledge/Politicization/Governance

  • Peter Forman (Lancaster University, UK) 

Beyond nuclear geographies: Exploring the entangled afterlives of para-nuclear waste 

  • Rebecca Alexis-Martin (University of Southampton, UK) 

Garbage Mountains: Chemical Geographies as Sacred Space

  • Katie Oxx (Saint Joseph’s University, USA)

CO2; the problematic chemistry of cement; and the question of substitution

  • Vera Ehrenstein (University College London, UK) 

Session 3

Organisers: Angeliki Balayannis, Emma Garnett

Chairs: Angeliki Balayannis, Emma Garnett 





New Paper: Security & the Subsurface – Geopolitics

This paper critically examines the ways in which the securing of the UK’s natural gas flows requires complex visualisation practices through which the subterranean movements of natural gas and its dynamic, transforming infrastructures are rendered visible and actionable. Instead of seeing energy infrastructures as rigid and more or less obstinate to change (a tendency within the energy politics literatures that has recently been critiqued by Haarstad & Wanvik, 2016), I highlight the dynamisms inherent to these networks, and the ways in which they give rise to different forms of risk that must be visualised and mitigated against in order to render such networks as safe and ‘secure’.

For a free copy (50 available), follow the link below to the Taylor and Francis website:


This article is part of a forthcoming special issue on Subterranean Geopolitics, edited by Klaus Dodds and Rachel Squire. Look out for it, it is coming soon!

New Paper: Inorganic Becomings: Situating the Anthropocene in Puchuncavi – Environmental Humanities

Our paper on experiencing the Anthropocene in Puchuncavi Bay (Chile) is now out. It is a collaboration between fellow materialist scholars, Manual Tironi, Myra Hird, Christian Simonetti, and Nate Freiburger. You can access the full article by following the link below.



In this choral essay we, an assorted group of academics interested in inorganic life and matter, explore a mode of thinking and feeling withour objects of inquiry—chemicals, waste, cement, gas, and the “project” as a particular form of circulation and enactment of materials and things. To experiment with alternative modes of knowing, we went to Puchuncaví, the largest, oldest, and most polluting industrial compound in Chile, to encounter the inorganic through and with its inorganicness and to attend to the situated, historicized, and political composition of both our materials and our experiences. Thinking of this as a collective provocation, we do not rehearse a conventional argument. Its parts are connected but only partially. There is no dramatic arc but rather an attempt at composing an atmosphere through which our thought and feelings are invoked. We have made visible the authorship behind each of the stories recounted here to celebrate the multivocality of our collaboration and to rehearse a nonabstracted mode of attention to Puchuncaví and the inorganic forces and entities we encountered there. We connect our irritations and speculations with the Anthropocene precisely as a way of summoning the multiple violences, many of them of planetary reach, that have to be denounced when situating our knowledge practices in Puchuncaví. Thinking about the ethico-political challenges of research in territories that have been, and are being, transformed under the weighty history of contamination and that are lived in and lived with by generations of beings (human and otherwise), we call in our concluding remarks for an enhanced pedagogy of care born of our inherited pasts and of engagement, interest, and becoming as response-ability.

New Paper: Circulations beyond Nodes: (in)securities along the pipeline – Mobilities

I’m pleased to announce that my first single-authored paper has been published. It forms part of a special issue edited by Matthias Leese and Stef Wittendorp, entitled ‘Old Securities, New Mobilities’. In it, I draw attention to the opportunities that mobilities approaches can offer for studying security beyond the circulatory ‘nodes’ in which its’ analysis has been recently confined. The paper and its’ abstract can be accessed here, but if you do not have access through your institution, please get in touch via email – I have a limited number of free copies that I am very happy to share.

If you are interested, make sure that you also check out the other articles that are part of this special issue – two of these are currently in early access and have been linked below. More are to come.

Old Securities, New Mobilities – eta. February, 2018

Glouftsios, G. (2017) Governing circulation through technology within EU border security practice-networks http://www.tandfonline.com/doi/full/10.1080/17450101.2017.1403774

Leese, M. (2017) Standardizing security: the business case politics of borders http://www.tandfonline.com/doi/full/10.1080/17450101.2017.1403777 


Guest Blog: Hard to Follow Things – Natural Gas

@Followthethings has just published my post on the methodological challenges of following natural gas. You can check it out here:  https://followtheblog.org/2017/08/21/guest-post-hard-to-follow-things-natural-gas-by-peter-forman/

While you are at it, why not also check out Ian and his students’ work on their other website, www.followthethings.com?

Abstract: Governing Gas: Energy, Security, Circulation

Thesis submitted December 2016. Abstract below.

Natural gas is a troublesome and ‘wayward’ material (Bridge, 2004; 396). Amongst other qualities, it is invisible, intangible, naturally odorless, highly inflammable, and constantly resistant to the forces that contain it. This thesis provides an account of how these qualities both introduce a series of insecurities to everyday social environments, and also make it a challenging material to govern. Specifically, I examine the way that security is performed around gas circulations in the UK’s transmission and distribution pipelines, and I describe how a range of specialised security practices have been developed according to the particular challenges that gas’s materiality presents.

In developing this account, I make two claims. First, I argue that performances of security cannot be adequately understood without attending to the specific qualities of the circulating elements around which it is practiced. Here I develop upon Dillon’s (1996) observation that security has tended to be treated as a noun that is independent of the elements that it is practiced in relation to. As a consequence, it has typically been framed as a broadly transferrable set of practices that can be more-or-less unproblematically applied to very different elements. I suggest that this abstraction has resulted in the further reduction of security into two broad practices: acts of circulatory filtration (in which risky elements are separated from flows of safe bodies, materials and things), and acts of circulatory maintenance (whereby security is performed by ensuring the continuity of particular circulations). It is my contention in this thesis that security scholars need to pay better attention to the ways in which the specific material qualities of circulating elements are generative of particular forms of securing practice. Indeed, by examining the way that security is performed around gas, I describe a series of practices that far exceed those described in accounts that present security as a matter of circulatory filtration or maintenance.

My second claim is that the spaces and scales at which security is analysed need to be expanded. I demonstrate how the critical security studies and energy security literatures have both tended to focus on security’s practice within particular nodes, at the exclusion of the performances of security (and forms of insecurity) that develop across the journeys of circulating elements; as they move between nodes. Indeed, I suggest that circulation has often been reduced in these accounts to thin, straight, and featureless lines that are largely inconsequential for performances of security. I seek to trouble this reduction, following gas as it travels through the UK gas transport infrastructures, tracing the various forms of (in)security that develop across these journeys.

As a consequence of these two claims, security takes quite a different form in this account to its various depictions in the existing security literatures. I describe it as consisting of a series of ontological projects that are enacted across the lengths and breadths of gas’s circulations, and through which the material reality of natural gas is constantly (re)organised in attempts to facilitate, ‘compensate for’, and ‘cancel out’ particular kinds of perceived potential phenomena (Foucault, 2007; 36). Significantly, these performances are shown to be structured, or ‘programmed’ (Latour, 1991), through the coming together of multiple interests that pertain to a variety of heterogeneous actors and manifold referent objects. Different interests are shown to come together across gas’s journeys, and to undergo ongoing processes of negotiation that result in a variety of security performances, through which different imperatives are pursued. As such, I suggest that gas becomes ‘modulated’ (Deleuze, 1992) – it is constantly transformed from moment to moment, across the full duration of its circulatory journeys.

Longform: A History of Gas Governance (I)

The Mine as Laboratory

“And oft a chilling damp or unctuous mist,
Loosed from the crumbling caverns, issues forth,
Stopping the springs of life
….To cure this ill
A philosophic art is used to drain
The foul imprison’d air, and in its place
Purer convey.”
Jago (Cited in Galloway 1882)


The earliest European accounts of governance techniques being systematically employed upon gaseous matter appear in 16th century texts on coal mining operations. These texts describe underground encounters with a variety of air-like substances, each of which displayed markedly different qualities and presented significant threats both to human life and to the continued extraction of coal resources. Coal mining was a burgeoning and highly lucrative industry during this period, and it was as a consequence of these threats that the first documented practices of systematically governing gaseous matter emerged.

Human encounters with gases in coal mines and attempts to classify them pre-date scientific understanding of the existence of multiple distinct gases. As Galloway (1882) notes, whilst industrial coal mining was practiced in the United Kingdom from as early as the 12th century1, it was only in the 16th century, when demand for coal was rapidly increasing and supplies of surface coal were nearing depletion, that collieries began to extend their works further underground and gases began to accumulate in perceivable and threatening volumes (due largely to decreases in ventilation as mine workings became deeper). Until this point, frequent and consistent human encounters with gases in somatically perceivable ways (through effects on bodies and on the gas’s surrounding environments), were rare. As such, the coal mine presents a unique site in human-gas history, in which distinctions were made between different kinds of gaseous atmosphere for the first time.

To put this in perspective, scientific research distinguishing individual gases and their respective properties did not begin until the 17th century, and the term ‘gas’ itself was not to come into common parlance until over a hundred years later. Instead, miners called these gases ‘damps’, a derivation of the German ‘dampf’, meaning ‘vapor’ (Freese 2003). Multiple forms of damp existing in mines were identified, each distinguished by the manner in which they were encountered and the perceivable qualities that they displayed.

Despite the qualitative nature of the observations of these gases, up until the beginning of the 18th century the classifications of damps employed by miners more accurately described these gaseous materials than the classifications employed by scientists. This was in no small part due to the deep coal mine possessing two specific geographical features that enabled unique interactions between humans and gases to take place.

The first of these features was the coal mine’s ability to effectively constrain atmospheric volumes. The deep mine is effectively a vessel; it is a site of containment in which gases can become trapped by layers of rock which prevent them from mixing with larger atmospheres. This enabled unfortunate miners to encounter gases in sufficient volumes to witness certain clearly-observable gaseous actions (explosions, asphyxiation, poisoning). As mines became deeper and ventilation became poorer, the volumes in which gases were able to accumulate became greater, and their effects became more pronounced. In this way, deep drift collieries achieved something that was to later hold back scientific discovery for several decades; they managed to contain gases in significant volumes within a vessel (albeit a very large vessel), enabling humans to witness the behavior of these gases under a range of conditions.

The second feature of the deep colliery was its ability to roughly isolate certain gases into broadly distinct chemical forms. The labyrinthine geography of the colliery with its variable depths and gradients served to effectively separate gaseous mixtures into discrete materials based upon their relative densities. Certain gases such as carbon dioxide (which is more dense than normal air) would sink to low parts of pit workings, often causing the miners working in these areas to suffocate, whereas other gases such as methane (which is less dense than air) would rise to ceilings and high points, often igniting when miner’s candles came into contact with it, or setting alight when met with sparks produced by worker’s tools hitting the coal face.

These distinct features enabled different kinds of gas to be encountered in close to chemically pure states and in sufficiently large volumes for particular properties of these different gases to be expressed in clearly observable (and often devastating) ways. Because of this, miners were able to categorize different kinds of gas based upon their observable effects, and were able to begin to form governance strategies for these gases based upon their knowledge of each gas’s specific characteristics.

The Different Types of Mine Gases

The four most commonly encountered forms of mine gas were firedamp, chokedamp, and afterdamp (Rosner & Markowitz 1987; Freese 2003). Each of these gases displayed markedly different properties and presented distinctly different problems for mining operations.


“…a terrible explosion occurred, making its way up the pits, destroying men, horses, and all in its passage. The noise was heard for three miles around, and the blast of fire from the shaft was as visible as a flash of lightening.”
(Description of the 1766 firedamp explosion at Lambton Colliery, Chester-le-Street – Fynes, 1873 p11)

Of all the gases encountered in mines, firedamp was the most destructive. Firedamp is what is now referred to as natural gas – a gaseous mixture consisting primarily of methane. In coal mines it would seep out of cracks and fissures in the coal face and would accumulate at the ceilings and high points of mine workings. It was invisible, typically odorless, and had little perceivable effect on the body². As such, it was very difficult for miners to somatically detect it prior to it’s ignition. This combustibility made it extremely visible however, and assisted in its classification. Confined in large volumes in the workings of mines, and brought into contact with the oxygen drawn from the earth’s surface, firedamp could cause sizable explosions, single incidents sometimes disabling complete mine systems and killing large numbers of workers.

Whilst miners were familiar with firedamp and its flammable properties as early as the 1500’s, the scale and frequency of firedamp related incidents increased throughout the 16th century as mining intensified and pits became deeper. The first recorded firedamp explosion was in Gateshead in 1621 (Verakis & Nagy 1987), but by 1681 explosions were commonplace in British collieries, and by the turn of the 18th century, major explosions resulting in large numbers of fatalities were being widely reported (Galloway 1882). This capacity to instantly (and without warning) extinguish large numbers of lives and destroy colliery infrastructures made firedamp the most significant threat to miners and mining operations during this period.


 “Suddenly his lamp went out as if extinguished by a soft breath and at the same moment Pat Reedy choked and lay quietly down beside him. Not water this time. Black damp.”
(Extract from ‘The Stars Look Down’ – Cronin, 1935)

Chokedamp, also known as ‘blackdamp’ or ‘stythe’ (and known today as carbon dioxide), formed through oxidization processes that occurred as a direct result of mining operations. These processes included the miners’ own respiration and the use of fire in mines, but most significant was the reaction of carbon trapped in the coal with oxygen drawn from the earth’s surface (Unwin 2007). Similarly to firedamp, this gas was invisible and odorless, but unlike firedamp, carbon dioxide was a far more potent asphyxiant³. When encountered in large volumes it could cause rapid suffocation and death, and because it was incombustible and would extinguish flames (such as those used by miners for light), miner’s ability to navigate the mine workings and evade the chokedamp’s suffocating atmosphere before succumbing to it was often severely impeded.

Being heavier than air, chokedamp would sink to low, poorly ventilated locations in mines and could accumulate in deadly concentrations. It was this capacity of chokedamp to displace oxygen that presented risks to miners; unlike the other gases referred to here, it was not so much the properties of carbon dioxide itself that were directly threatening to life (indeed, as Barbara Freese (2003: 182) writes, “Its hard to think that a gas as friendly as carbon dioxide can be a pollutant […] It isn’t noxious, or caustic, and it doesn’t damage lungs, poison ecosystems, or destroy vistas”), but it was instead the absence of oxygen that posed threats to life. This density also meant that chokedamp was one of the first gases to be identified by miners, for unlike firedamp which in shallower pits would simply rise up  and exit the workings via the main shaft, chokedamp would settle and displace the air in even relatively shallow workings.


“…he had not been working more than half-an-hour before his head was like to split; and, ultimately, he was carried out insensible, and lay in his bed three days.”
(Description of an encounter with afterdamp in Thornley colliery, Durham, 1844 – Fynes, 1873 p66)

Afterdamp, or ‘whitedamp’ as it was sometimes referred to, is known today as carbon monoxide. Whilst an exact scientific understanding of the process of its formation was unavailable to miners during the 16th century, the circumstances under which afterdamp formed were well known. Afterdamp was so-called because its effects were often observed following incidents where firedamp ignited, carbon monoxide forming as the result of the incomplete combustion of trapped methane (Rosner & Markowitz 1987). This gas could accumulate in significant volumes after an explosion and had perceivably different qualities to either firedamp or chokedamp, enabling it to be accurately categorized as a different gaseous entity. Whilst it was similar to the other gases in that it was invisible, odorless, and like chokedamp, could cause asphyxia, it was quite different in that it was poisonous and had enduring effects on the body. When a person in a mine successfully escaped an atmosphere of chokedamp, they experienced no persisting negative effects upon their health. But when sufficient quantities of afterdamp were inhaled, miners who had been exposed often subsequently died, or took considerable time to recover following extraction from the hazardous atmosphere. This is because when carbon monoxide is inhaled it is absorbed into the bloodstream more readily than oxygen and can remain in the body for extended periods of time. As a result of this preferential adoption, carbon monoxide displaces oxygen and reduces the amount of oxygen that critical body tissues can receive, ultimately causing asphyxiation (Penney 2008). Moreover, in addition to a number of associated bodily indicators that made it perceivably distinct from chokedamp, such as headaches, muscle weakness, nausea, dizziness, fainting fits, convulsions, and comas (Bour et al. 1967), afterdamp also occasionally visibly presented itself upon victim’s skin, colouring it a cherry pink. In these ways, afterdamp ‘spoke’ of its presence, enabling its discrete classification.

Further contextual factors

The deep coal mine had a number of further specificities that help to explain why the first forms of gas governance developed in this location. The first significant feature regarded the types of gas found in coal mines. As is described above, these gases displayed fearsome  properties that readily expressed themselves upon contact with bodies and with sources of ignition. These threats were exacerbated by the continued deepening of coal mines in response to increasing demand for coal both for domestic use and for export, which led to consistent reductions in ventilation and the accumulation of larger volumes of hazardous gases (Galloway 1882). Secondly, due partly to the total darkness experienced underground; sources of ignition were ubiquitous in mines. Until the mid-1700’s, open candle flames were the most common form of lighting used within collieries, and other spark-producing devices such as picks and shovels constituted the main tools used underground. These devices dramatically increased the frequency of firedamp incidents, which in turn greatly increased demand for strategies to govern this gas. Thirdly, the financial costs of gaseous incidents were high. Structural damage from fire-related incidents could be extremely expensive, and could put mining operations out of service for months. This incentivized investment into finding ways to govern gas and reduce the number of gas related incidents. Finally, the cost to human life was also extremely high. Due to the large work force required for such a labor-intensive industry, sizeable numbers of bodies became exposed to these gases. Such numbers were not considered significant simply for their intrinsic human value, but also because they had political consequences, for it is highly probable that without such large numbers of casualties being frequently reported in newspapers between the late 1600’s and the early 1800’s, the forms of governing practice that did eventually come into practice would not have emerged.


1 The first explicit evidence of coal being mined rather than collected from surface deposits comes from an approval of a grant for the construction of a Monk’s colliery near Blackness, signed by King William. Whilst this record contains no reference to a specific date, King William’s reign ended in 1214AD (Galloway, 1882).

2 Methane can cause asphyxiation, but the atmospheric ratio between methane to oxygen that is necessary for asphyxiation is significantly higher than its explosive limit. Gas reaching such volumes was therefore much more likely to ignite than cause suffocation.

3 See note 2

This post is part of a series. Next up – Early Forms of Gas Governance: Coal Mines and Damps