Ernest Howard Farmer

Regent Street Polytechnic and the Institutionalization of Photographic Education

Ernest Howard Farmer was born in Brighton in 1856. His father, Robert Farmer, operated a portrait studio there in the 1850s, so Ernest grew up in a household where photography was part of the family business. An encyclopedia of photographic history records that he later worked across both physics and photography, bringing scientific training to the study of photographic processes.^*6

Robert Farmer was a studio proprietor and had originally trained as a chemist. By 1853 he was producing daguerreotype portraits and calotype views of Brighton.^*26 The presence of chemical work and several photographic processes within the family environment just as wet collodion was spreading helps explain the background from which Ernest later developed a strong interest in photographic chemistry, intensification and reduction, and process-based teaching.

Farmer led the photography department at the Polytechnic that later became the University of Westminster. University records confirm his role as one of the institution’s early leaders in photographic education.^*1 Late-nineteenth-century photography depended on the interaction of chemical preparation, the behavior of photosensitive materials, lenses, exposure, development, and printing. Becoming a photographer therefore meant learning chemistry and optics as well as camera operation.

Photographic education at the Regent Street Polytechnic developed within the wider expansion of adult vocational education. Research on the history of photographic teaching shows that the technical class established in 1882 was intended to supplement the knowledge of people learning skills while working and was organized as thirty Saturday-evening lectures. By 1895 it enrolled 472 students, making photography the Polytechnic’s largest workshop class.^*21 As the photographic trade expanded in London, adult vocational education increasingly had to provide instruction in chemistry, physics, and process control that apprenticeship alone could not supply.

Regent Street Polytechnic records preserved through AIM25 show that Quintin Hogg’s educational program sought to support the intellectual, social, and religious lives of young working people and expanded evening and part-time vocational subjects.^*25 The growth of photography at the Polytechnic accompanied both the institutionalization of art photography and the expansion of adult education that opened specialist skills to working people in industrial London.

This teaching had a longer institutional background. According to the University of Westminster’s official history, the newly invented medium of photography was publicly demonstrated at 309 Regent Street in 1839, and Europe’s first photographic portrait studio open to the public began operating there in 1841.^*23 Archival research by the university traces a line from photographic lectures in the 1850s to sustained specialist education beginning in 1882.^*22 The Polytechnic’s transformation from a place where photography was demonstrated as a new technology to a school that trained photographers continuously provided the institutional basis for Farmer’s teaching.

In his later recollections, cinematographer Charles Rosher recorded that he studied photographic chemistry with Farmer at the Polytechnic.^*15 This account suggests that Farmer’s role was less to teach students to imitate a particular body of work than to give them fundamental knowledge with which results could be controlled under changing conditions.

Camera Clubs, Evening Education, and Photographic Chemistry

Farmer’s activities extended beyond the Polytechnic classroom. A 1890 People’s Palace periodical lists him as an officer of a photographic club, evidence of an environment in which photographic education spread to professionals and amateurs through evening classes, clubs, and exhibitions.^*19

The history of the Croydon Camera Club also names Farmer as a prominent researcher in photographic chemistry and notes the long practical currency of Farmer’s Reducer.^*16 As the same formulas circulated among classrooms, clubs, and professional journals, photographic technique moved from the secrecy of individual workshops toward shared specialist knowledge.

There are few primary sources in which Farmer later explained why he chose photography. What can be established is that he was born to a studio photographer, received scientific training, and entered photographic education at a relatively young age.^*6 Taken together with his later formulas, patents, teaching, and field photography, this background points to a sustained concern with understanding and controlling both the photographic result and the conditions that produced it.

Farmer’s Reducer: Adjusting the Negative after Development

The clearest example of Farmer’s name surviving as a technical term is Farmer’s Reducer. The formula, using potassium ferricyanide and thiosulfate to reduce the density of a silver image, became standard in photographic manuals and is still discussed in conservation science as a representative reducer acting on silver images.^*10

The OQLF terminology dictionary likewise defines the formula as a method for reducing overly dense photographic images and negatives.^*11 Its survival as a proper name in Merriam-Webster shows how deeply the procedure entered photographic culture, more durably than the titles of Farmer’s individual photographs.^*12

The formula also appears in the historical Wellington Photographic Handbook, showing that Farmer’s Reducer circulated as a technique available to ordinary photographers.^*13 A specialist article from 1916 continued to discuss the problem of a “proportional reducer”: how much density should be removed from different parts of an image.^*14

Why Chemical Control Mattered to Photographic Making

With glass dry plates and early printing processes, even a carefully judged exposure did not guarantee the intended tonal result after development and printing. If an overly dense negative could be corrected, one mistake in the field no longer had to mean discarding the entire image. Farmer’s Reducer recast the photograph from an image fixed at the instant of exposure into a process whose density and tonal scale could still be adjusted after development.

In 1889 Farmer also reported a phenomenon involving the reaction between dichromates and silver images, later recorded as part of the technical history leading to Ozobrome-type pigment-transfer processes.^*7 This report likewise shows Farmer observing the chemistry of image formation and applying those reactions to other photographic processes.

Later patent records preserve inventions relating to photographic processes and camera equipment, confirming that Farmer continued to modify apparatus and methods after becoming an educator.^*8 Another camera patent shows that his technical interests extended beyond darkroom chemistry.^*9

The Rediscovery of A Wiltshire Thatcher

Farmer’s work as a photographer remained largely overshadowed by his role in educational and technical history until recently. In 2023, the source photograph for the figure used on the cover of Led Zeppelin IV was found in a Victorian photographic album and identified as a photograph by Ernest Howard Farmer of a Wiltshire thatcher. Wiltshire Museum has used this research to present the photograph within the region’s history.^*2

The museum’s exhibition presented A Wiltshire Thatcher together with other photographs in the album showing people, architecture, roads, and rural landscapes in Wiltshire and the surrounding area.^*3 The album makes visible Farmer as a photographer who, alongside teaching in the classroom, carried a heavy glass-plate camera into the field and repeatedly photographed local life and terrain.

The University of the West of England’s report on the discovery explains how signatures in the album and archival research led to the identification of the photographer.^*4 The connection to a famous album cover opened the investigation, but it also prompted archival work that reconnected an otherwise little-known group of photographs with a maker, places, and a period of production.

Stonehenge: Experiment and Field Photography

The UWE Centre for Print Research used several of Farmer’s photographs of Stonehenge to reconstruct their conditions of production with a large-format camera and glass plates similar to those of the period.^*5 The experiment evaluates the photographs through the practical work of making them—the weight of the equipment, available light, exposure, and the handling of glass plates—as well as through composition.

The Stonehenge, Avebury and Associated Sites World Heritage program has also presented three of Farmer’s Stonehenge photographs and reassessed them as records of the site and its landscape.^*18 These photographs show the knowledge of exposure and materials taught in the classroom being applied to outdoor photography under changing natural light and at varying distances.

Glass Dry Plates, Autochrome, and Photographic Materials

V&A catalogues of photographic material include glass plates and other materials associated with E. H. Farmer, preserving the physical means of production alongside photographic images.^*17 Negatives, chemicals, cameras, and teaching material are therefore as important to understanding Farmer as the imagery of finished prints.

International coverage by The Guardian of the rediscovery of A Wiltshire Thatcher suddenly made Farmer’s name much more widely known.^*20 Treating the photograph only as an anecdote from music history would once again obscure Farmer’s longer career across photographic education, chemical research, and field photography.

Making Photographs and Teaching Processes: Farmer’s Two Practices

The surviving photographs do not support the construction of a single consistent pictorial style or philosophy of subject matter for Farmer. The evidence instead shows a working photographer of rural figures, architecture, and monuments who was also an educator, breaking photography into teachable parts so that students could understand exposure, development, and correction. The University of Westminster’s reassessment brings these two roles back together within the same biography.^*1

Farmer’s making and teaching share an understanding of photography as a technology composed of several stages; no single visual appearance defines the work. By separating how light is recorded on the negative, how density develops, how an overly dense image can be corrected, and how the image is transferred to a print, the final result need not be left entirely to chance at the moment of exposure. This approach links his chemical research, teaching, improvements to apparatus, and field photography.

Research on photographic education traces the parallel development of City & Guilds technical training, photographic clubs, the Regent Street Polytechnic, and related institutions in the late nineteenth century, as both amateur culture and commercial photography increasingly called for “proper training.”^*24 Farmer taught during this transition, treating aesthetic judgment and chemical experiment as linked stages within the production of an actual photographic result.

Regent Street Polytechnic and Farmer’s Place in the History of Photographic Education

In the mid-nineteenth century, photographic learning depended heavily on apprenticeship, manuals, photographic societies, and individual experiment. By the end of the century, institutions such as the Polytechnic were integrating chemistry, physics, and production into systematic curricula and teaching photography continuously as vocational and specialist education. Farmer was one of the early educators who helped establish that institutional model.

Farmer’s historical role is obscured if it is reduced to a single style of photograph. His significance lies in separating the physical and chemical conditions that produce a photographic result and sharing them through formulas, patents, teaching, and practical photography in forms that others could relearn. The fact that the name Farmer’s Reducer has endured more strongly than the titles of his individual works indicates how much of his influence lay in the practical questions of how photographs could be controlled and taught, alongside what they depicted.

University of Westminster material on the history of photographic education also records Farmer visiting the Lumière laboratory in Lyon in 1906–07 to study the Autochrome process.^*22 When new photosensitive materials appeared, Farmer’s educational work included visiting sites of research and bringing that knowledge back to the school. Institutionalizing photographic education and keeping pace with changing photographic technology were part of the same task.