Introduction
Technical experts, and in particular engineers, played an increasingly significant role in constructing railways, canals, and machinery when the global expansion of the great powers was accelerated by high industrialisation after 1870. Specialised expert training, as Max Weber (1864–1920) pointed out, was one distinctive factor behind the organisation of capitalistic enterprise.Footnote 1 When China turned to pursue modern technology—in terms of mechanisation and industrialisation via borrowing and imitating Western methods—it was starting from a base that had seen neither an indigenous ‘scientific’ nor an ‘industrial’ revolution. And, although China was the homeland of numerous ancient inventions, the country's prevailing knowledge systems had evolved on their own terms—even after the arrival of Western learning in the late sixteenth century.Footnote 2
Late imperial Chinese literati-scholars, who engaged in subjects such as pharmacy, astronomy, medicine, and agriculture, had transformed selective practical knowledge into elite written culture. They produced a large array of technological texts and graphics that were sometimes used for administrative purposes.Footnote 3 Technical experts played a particularly significant role in the Qing bureaucracy; they were assigned to supervise technical processes of agriculture, handicraft, and hydraulic engineering projects.Footnote 4 But the confluence of scholarly learning and technology, the emerging technical experts, and the statecraft (jingshi 經世) approach to governance did not shake the supremacy of Confucian tradition that envisioned classical learning as superior to hands-on practice. On the other hand, Chinese artisans had oral traditions that transmitted applied, practical knowledge, but formal schools for technical education did not exist in pre-1860 China.Footnote 5 It was the training of technical experts in the Self-Strengthening Movement (1860–95), especially supervisors in military-related manufacturing industries, that triggered the beginning of educating modern Chinese engineers.
Institutionalising modern science and technology education in China was closely interrelated with the West–East and East–East transfer of knowledge and materialised in educational institutions such as traditional Confucian academies, missionary schools, and military training schools.Footnote 6 Previous scholarship has given particular attention to the case studies of Fuzhou Navy Yard and Jiangnan Arsenal, as well as the Tongwen College—all of which were specialised schools established in the 1860s for training shipbuilding experts, naval and military engineers, and diplomats.Footnote 7 Nevertheless, late Qing technical education reforms have often been mentioned in passing in the historical narratives. Scholars largely have focused on prominent figures of China's first-generation engineers and scientists educated overseas (in Europe, the USA, and Japan) and examined transnational networks, professional mobility, and engineering practices.Footnote 8 Because the major structure of the Chinese traditional education system, despite the self-strengthening reforms, remained unchanged until 1902, a large body of existing literature concentrates on the history of China's post-1902 new-style school system, which was modelled on Japan's education system.Footnote 9 When focusing on the history of higher education, present-day scholars tend to establish connections between the late Qing scholarly or intellectual learning with the later modern higher-education disciplines.Footnote 10
This article examines the rarely told history of mining education in late Qing China and reveals previously unknown connections between mining practices and the founding of China's first engineering university and another mining college in around 1895.Footnote 11 Although historians of the Qing in recent decades have attempted to shift away from the paradigm of ‘Western impact and Chinese response’ to re-examining the late nineteenth-century transformation in China, the Western impact in the context of mining practices cannot be ignored or overlooked. This article investigates the institutionalisation of global mining knowledge in China and addresses the following questions: How did the demand for expertise within the framework of mining bureaucracy evolve under the impact of Western imperialism? How did mining education enter scholarly discourse and was finally institutionalised after a period of debates and trials that spanned nearly two decades?
My investigation centres on one key historical actor: Sheng Xuanhuai (1844–1916), who was an official–industrialist and acted as a field manager of several modernisation projects initiated (or officially supervised) by Li Hongzhang (1823–1901), the chief architect of the Self-Strengthening Movement. Along with the opening of more treaty ports in China after 1860, several newly founded arsenals, shipyards, and other coal-consuming industries established by foreigners resulted in an increasing demand for coal.Footnote 12 To supply steam ships of the China Merchants Steamship Navigation Company (established in 1872) with coal,Footnote 13 Li Hongzhang and other Chinese officials became enthusiastic about the search for coal, especially in North China. In 1875, at the beginning of his industrial practices and political career, Sheng was appointed by Li to prospect for coal in Hubei Province and was put in charge of two short-lived mining agencies: Hubei kaicai meitie zongju 湖北開採煤鐵總局 (Hubei General Bureau of Coal and Iron Mining), 1876–79, and Jingmen kuangwu zongju 荊門礦務總局 (Jingmen Mining Bureau), 1879–81.Footnote 14 However, these enterprises failed because of high costs and limited access to capital, low productivity, and other administrative problems.
These early ‘failed’ attempts in China's modernisation project have been largely neglected by previous scholarship. Only a few Chinese articles analyse the reasons for Sheng's failure in organising the mining enterprise.Footnote 15 Instead, scholars have focused on examining famous mining companies such as the Kaiping coal mines in Zhili (present-day Hebei) Province and the Hanyeping Company in Hubei Province in the late Qing period.Footnote 16 A more recent trend pays close attention to the identification of foreign mining experts or geologists, focusing either on global mobility of mining engineers and technology transfer from the West to China, or on Western and Japanese imperialism in China.Footnote 17 But, the history of mining education within China—including Sheng Xuanhuai's proposal for a mining school at Yantai in Shandong Province—remains largely overlooked and unaddressed. Rather, Sheng is better known as the founder of China's first engineering university and the manager of the Hanyeping Company in the post-1895 period.
Drawing on evidence found in numerous private correspondence letters in the unique collections of Sheng Xuanhuai's archive series and other primary documents from the late Qing period, this article investigates two previously overlooked ‘failures’ of Sheng's mining-related enterprises, namely his earliest mining practices in Hubei in the 1870s and his proposal for establishing a mining school in Shandong in 1888–89. It then reconnects these efforts with the histories of Western learning, late Qing mining bureaucracy, the monetary crisis of that era, the global recruitment of engineers despite a pronounced distrust of foreign expertise, and finally the establishment of China's first engineering university in 1895. This larger framework enables us to redraw the contour of institutionalising global mining knowledge in China and shed new light on the history of engineering education in late Qing China.
Mining bureaucracy and new text-based knowledge for scholarly learning
Blending scholarly learning and artisanal practices was a challenge for classical educational systems in both China and the West. Although the text-and-visual-based culture of technology-related knowledge provided essential communication vehicles for higher technical education, the formalisation of modern technical education was neither a linear evolution of the traditional system of apprenticeship nor an innovation that originated from the classical learning at universities. Instead, it was a complex synthesis of school and workshop cultures that spanned more than two centuries (from the seventeenth to the late nineteenth centuries) in the West. It encountered particular cultural prejudices and university-based resistance to changing old orders and obtaining equal recognition and status in higher education.Footnote 18
Mining as an important thread in the European educational history is worth our attention. Treatises on mining and metallurgy written by experienced experts in Europe emerged and flourished after 1500.Footnote 19 The mining education in the German states (such as Saxony) in the early modern period led the way toward formalisation of technical schools in Europe. By the mid-eighteenth century, training mining officers or bureaucrats was of growing significance when the German states aimed to centralise the control of the mining industry. They established mining academies (i.e. Bergakademie as well as Bergschule) as public institutions to train mining officials and employed them in the state-owned industries.Footnote 20 The German mining-school pattern was further transferred to other regions in Europe and became a prototype for technical schools, especially those later famous Polytechniques and Technische Hochschulen.Footnote 21 The earlier training programmes of mining schools, designed for bureaucrats rather than artisans or craftsmen, conform to the core value of German cameralism—the science of state administration, which was particularly developed by Johann Beckmann (1739–1811) as the concept of Technologie in the late eighteenth century.Footnote 22
Similar to the German cameralism, mining administration (kuangzheng 礦政), also mentioned as kuangwu 礦務 (mining affairs), was one of the well-established fields in the Qing bureaucracy of managing mint metals and monetary policies long before the arrival of Western imperialism. The Qing state launched and sustained the development of mining industries with its own institutional framework (including policies and laws),Footnote 23 although no specific physical institutions like the later mining bureaus (such as those established in Hubei and elsewhere after 1870) were established. Local officials (such as the mining officials) were agents of the central government and their assistants, such as clerks, runners, servants, and secretaries, had a good command of local conditions and extended technical expertise and skills to assist administrative operations.Footnote 24
One distinct feature of the Qing's mining bureaucracy was that mining was foremost concerned with political and social order. Under Qing law, mining could not harm farmland or fengshui 風水 (geomancy).Footnote 25 Therefore, mining officials and their assistants had developed their own way of managing matters related to mines,Footnote 26 including compiling administrative handbooks such as Diannan kuangchang tulüe 滇南礦廠圖略 (Illustrated Account of the Mines and Smelters in Yunnan) (published in 1844).Footnote 27 These procedures did not impact the classical educational system. Through their compilation by literati, they could be said to have emerged in conversation with the classical educational system.
After 1860, many Qing reformers desired a quick ‘fix’ in order to revitalise the empire. Under these circumstances, the mining industry called for urgent reforms by introducing new (i.e. Western) technology and knowledge. ‘The study of mining’ (kuangxue 礦學) subsequently emerged as a new field for scholarly learning and text-based Western mining knowledge was circulated among Chinese intellectuals.Footnote 28 The Jiangnan Arsenal series provided contemporary Chinese readers (officials, literati-scholars, merchants, and students) with the most direct approach to ‘the study of mining’ and for practical mining knowledge as related to administrative, commercial, or purely scholarly learning purposes.Footnote 29 John Fryer (1839–1928) was the most productive translator at the Jiangnan Arsenal in Shanghai and contributed significantly to the translation of mining treatises.Footnote 30 The earliest translations included a monograph on coal mining, Kaimei yaofa 開煤要法 (lit. Essentials to Opening Coal Mines, published in 1871). In 1876, Fryer founded China's first scientific journal, Gezhi huibian 格致彙編 (The Chinese Scientific and Industrial Magazine, 1876–92).Footnote 31 He also opened a question-and-answer session in that journal to interact with readers. Remarkably, the topic of coal mining had aroused much reader interest in 1876. Several readers wanted to know about the methods or tools for mining coal or the principle of safety lamps in mines,Footnote 32 or even what mine shafts and working-faces looked like.Footnote 33 To answer them, Fryer provided illustrations, such as the sectional view of underground coal mines (Figure 1) and the water-lifting machine commonly used in coal mines in England and India (Figure 2).Footnote 34
Sectional view of underground coal mines.
Source: J. Fryer, ‘Xiguo kaimei lüefa 西國開煤畧法 [Simplified methods of mining coal in Western countries]’, Gezhi huibian 格致彙編 (October 1876).
Water-lifting machine used in coal mines.
Source: J. Fryer, ‘Qishui jiqi 起水機器 [Water-lifting machine]’, Gezhi huibian (June 1876).
Was the text-based Western mining knowledge influential? It was. Consider, for instance, Sheng Xuanhuai's mining practices in Hubei. Local officials, such as Zhang Fuhuang, had studied the book Kaimei yaofa carefully and thus knew the advantage of using Western tools and machinery for drilling and drainage. At that time, an English merchant called James Henderson was commissioned by the Qing government to purchase mining machines in England. Nevertheless, his final bid price, estimated at more than £45,000, was too high to make the plan of opening coal mines in Zhili Province profitable.Footnote 35 After reading the news about Henderson in Shenbao on 6 April 1875, Zhang Fuhuang and other local officials in Hubei knew that Western machinery cost too much. Instead of using labour-saving devices for drilling, they still planned to hire miners so that the local poor could make a livelihood through mining.Footnote 36 According to a report by another local official, Ye Sizhong, it was decided to use Western-style pipes made of copper alloy, instead of the traditional bamboo pipes, for lifting water in coal mines.Footnote 37 In general, the influence of foreign machinery on the Chinese mining industry in the early industrialisation phase should not be overestimated. Although large numbers of enterprises in China at the turn of the twentieth century used foreign machinery, their operations were on a very small scale.Footnote 38 As translated works on mining became timely textbooks for Chinese intellectuals who had received no mining education, mining field managers were increasingly recognising the necessity for educating mining experts. China's education of its own mining engineers was not intended to be a simple replacement of traditional fengshui experts, but was driven by distrust of foreign expertise, as shall be examined in the following section.
Expertise in demand: from the fengshui expert to the distrust of foreign mining engineers
The tension between government goals and local interest is manifested fully in the case of coal mining in Hubei in the 1870s. Sheng Xuanhuai was interested in finding coal in Guangji County, Hubei, where he had constantly seen the abandoned pits near the riverside. He then commissioned local officials to make field surveys and send him regular reports. The survey reports revealed that private and illegal coal mines were common in the area, and that anthracite of good quality and suitable for the needs of arsenals and steam ships was mined in that region. However, coal mining was not favoured by the local populace, due mainly to fengshui disputes.Footnote 39 In the following months, while trial mining went on, the mining officials had to cooperate with the local gentry and, above all, they had to follow the advice of the ‘dragon head’ (longtou 龍頭), the local fengshui expert, when excavating at sites surrounded by graves.Footnote 40
When trial mining with native methods (including the instructions of the ‘dragon head’) did not prove profitable, Sheng Xuanhuai and his advisers turned their attention to Western mining methods, particularly the deep drilling tools, which could enable prediction of the depth and range of a coal seam. To that end, a British mining engineer named Samuel John Morris (Chinese name: Ma Lishi 馬立師, or 馬利師; circa 1840–96Footnote 41) was hired at a monthly salary of 300 taels,Footnote 42 firstly for a period of six months. Morris held an engineering degree awarded in 1855 and had worked in India from 1863 to 1867. Before coming to China, he worked at coal mines in Takashima and Imari in Japan. Morris's major activities were documented as drilling and prospecting in Hubei.Footnote 43
Nevertheless, Morris failed to discover a rich or large deposit in the former coalfield after expiration of his contract period in around mid-1876. As Morris complained in several letters, the local manager of coal mines did not cooperate with him and replaced his assistants without giving advance notice. Moreover, the assistants did not follow his instructions and even destroyed the excavation site by throwing rocks because they disliked foreigners.Footnote 44 Sheng Xuanhuai reported Morris's inability in prospecting to Li Hongzhang. Afterwards, he requested Robert Hart (1835–1911), a Qing government appointee as inspector general of the Chinese Maritime Customs Service, to look for a proper mining engineer from England.Footnote 45 It is necessary to add some clarification as to judging whether Morris was a qualified coal-mining engineer. In fact, Morris specialised in civil engineeringFootnote 46 and had experience in developing mining excavation using machines, such as in his former work at the Takashima coal mine in 1868.Footnote 47 But his former experience in Japan did not demonstrate his ability as a successful mining engineer.Footnote 48
Morris continued with his engineering and commercial activities in China. From circa 1883 to 1893, he was hired by Sheng Xuanhuai to prospect for coal as well as iron for the Jinzhou kuangwu ju 金州礦務局 (Mining Bureau of Jinzhou) and also worked for the China Merchants Steamship Navigation Company.Footnote 49 He changed his Chinese name to Ma Kuangshi 馬礦師 (lit. ‘Mining Master Ma’ or ‘Mining Engineer Ma’), although he was also mentioned as Ma Lisheng 馬利生 in some Chinese translations of his letters, probably because there was already another merchant named John Morris registered as Ma Lishi in Shanghai.Footnote 50 In the popular Shanghai daily newspaper Shenbao from February to May in 1886, Samuel J. Morris (i.e. Ma Kuangshi) advertised himself as an experienced civil and mining engineer who had worked in China and Japan for 18 years. He stressed that he was able to distinguish different types of ores and was ready to provide advice to anyone wishing to invest in mining industries.Footnote 51 A subtle change of his professional description in the English directories was from ‘civil and mining engineer’ registered in 1889 into ‘civil engineer and architect’ in 1892.Footnote 52 When the hiring of competent Western engineers was stressed by Chinese reformers, it invariably heightened the pressure on those incompetent individuals such as Morris, which turned him away from his mining business; he even requested Sheng Xuanhuai to provide him with a recommendation letter to confirm his almost 20 years of work experience and competence in China.Footnote 53
Indeed, the early experience with Samuel J. Morris changed late Qing officials’ attitudes towards expertise as well as foreign experts. Despite his later employment by Sheng Xuanhuai, Morris's ‘failure’ in Hubei was widely considered by the Qing officials as well as other literati-scholars as indicative of the inferior quality of overseas Western mining engineers, because they believed that the first-class engineers could make a living in mining industries easily and would not be willing to leave their own countries. Otherwise, their salaries would be extremely high.Footnote 54 Since the Western experts were not always reliable, Sheng Xuanhuai began to address the importance of educating China's own mining experts.
He had already emphasised the necessity for recruiting specialised experts in the mining regulations issued in early 1876. In that regard, he specified the need to hire truly capable persons, instead of those assistants or advisers recommended by local officials. In particular, in one letter Lun kuangshi shu 論礦事書 (On mining affairs) addressed to Li Hongzhang in September 1876, Sheng Xuanhuai emphasised the importance of mining engineers in opening up a mine. In his view, the major impediment to developing mining industries was the difficulty not in raising funds, but in finding a proper expert to run the mines. Prospecting was the very first and key step. Such expertise or talent (rencai 人才) for prospecting should be domestically cultivated.Footnote 55
For the first time, Sheng Xuanhuai proposed that some 10 to 20 Chinese students who were studying at the Tongwen College (in Beijing), or at arsenals in Fujian or Shanghai, should be selected to learn from the Western engineers. In addition, Sheng proposed that some 10 to 20 Chinese students should be sent abroad to study mining engineering. The last point, in Sheng's view, was directly relevant to maintaining China's sovereignty.Footnote 56 It also echoes one of Li Hongzhang's statements in early 1876 that Chinese mining industries could employ foreigners but should not be taken advantage by foreigners.Footnote 57
Sheng's proposal was soon put into action. In 1877, Li wrote to the China Education Mission commissioner Yung Wing (1828–1912) that he should encourage Chinese students to take up the major of mining engineering, which the country desperately needed.Footnote 58 Similarly, when sending the students from Fuzhou Navy Yard to Europe, Li also told the throne that some students should take up subjects like mining. As a consequence, five students, namely Lin Qingsheng, Chi Zhenquan, Zhang Jinsheng, Luo Zhenlu, and Lin Rizhang, ended up in the École nationale supérieure des mines in Paris and returned to China in around 1881.Footnote 59 They were actively engaged in prospecting for coal, lead, iron, and copper in Fujian, Zhili, Shandong, and Hubei Provinces in the 1880s and early 1890s.Footnote 60 Moreover, when the Chinese Education Mission project was aborted in 1881, about ten of the students who had returned from the USA had become involved in the mining industries (primarily in the Kaiping coal mines).Footnote 61
Sheng Xuanhuai's proposal for a mining school at Yantai
The failure of the Hubei mining enterprise in 1881 shifted Sheng Xuanhuai away from mining to other industries, including building railway lines and establishing telegraph companies as well as telegraph schools. He served as the Superintendent of East Customs (Donghaiguan jiandu) at Yantai/Chefoo from 1886 to 1892. His close connection with mining industries in Shandong even dated back to 1882. As mentioned above, Chi Zhenquan and Lin Rizhang, two of the first generation of returned students who studied mining in Europe, were appointed by Li Hongzhang to survey lead deposits in Shandong and Sheng was appointed by Li to supervise the mining enterprise in order to supply lead to local arsenals.Footnote 62 In later reports to Li, Sheng made a formal acknowledgement of the ability of the returned Chinese students. In his view, the ‘students’ (kuang xuesheng 礦學生), namely Chi and Lin, were capable of lead prospecting and smelting, and therefore they could replace foreign engineers (kuangshi 礦師).Footnote 63
The principal stimulus to the plan of initiating a mining school at Yantai, according to the currently limited available evidence, was the urgent 1887–88 coinage reforms caused by the late Qing monetary crisis. Adopting foreign machinery for minting coins began to be practised in Zhili and Jiangsu Provinces in 1887. Purchasing machinery from the West and training Chinese artisans or workers were challenging. But a larger problem was that of solving the insufficient supply of mint metals, and therefore revitalising non-ferrous mining industries beyond coal and iron.Footnote 64 Traditional mining industries in the Southwest, which supplied Chinese central and provincial mints with mint metals (primarily copper and zinc), had been largely destroyed by the social unrest during the 1870s. One new proposal approved in the 1887–88 coinage reforms was to open up zinc and lead mines in Zichuan, Shandong Province, which could alleviate the problems caused by transporting zinc and lead out of Guizhou and Hunan Provinces over mountains and long distances.Footnote 65 This brought Shandong a new opportunity to develop non-ferrous mining. But the increased cost of hiring foreign engineers for prospecting in that province and elsewhere in China surely would not have escaped the attention of an astute official-merchant such as Sheng.
Moreover, the major source of copper for Chinese central mints had primarily been Yunnan copper and imported Japanese copper. Tang Jiong (1829–1909), the Yunnan provincial governor in charge of mining affairs from 1887 onwards, investigated the Yunnan mining industries and stressed the importance of introducing Western mining machinery to copper mines. He made reference to the innovation of Japanese mining industries and proposed hiring Japanese engineers. He also pointed out that, in Japanese copper mines, their native engineers had replaced the foreign ones.Footnote 66 Such a rapid change from China's neighbouring country, as a successful example of promoting technical education, began to arouse the attention of late Qing reformers.Footnote 67
This impression was further strengthened and swiftly delivered by Li Shuchang (1837–98), then the Chinese ambassador to Japan. After the new minting policy was issued in 1887, Sheng Xuanhuai, possibly being commissioned by Li Hongzhang, asked Li Shuchang to help him purchase copper in Japan and also consulted him on Japanese minting technology. In a letter dated 19 February 1888 (GX14/1/8Footnote 68), Li Shuchang gave Sheng the following advice on establishing a mining school: China has an urgent demand for foreign experts in numerous branches and the key step in revitalising mining administration would be to establish schools and study geology and chemistry as well as metallurgy.Footnote 69
Apparently, Sheng Xuanhuai considered this advice immediately and urgently. Evidence on the early development of this plan is found in several telegrams. According to a reply message telegraphed to Sheng on 14 April 1888 (GX14/3/4), Zhang Zhidong (1837–1909), then general governor of Guangdong and Guangxi Provinces, fully supported this plan. About ten days later, Sheng received another telegram reply dated 25 April 1888 (GX14/3/15) from the Shandong provincial governor, Zhang Yao (1832–91). The latter Zhang asked him whether he had talked with Li Hongzhang.Footnote 70 Consequently, another week later, in the evening of 3 May 1888 (GX14/3/23), Sheng telegraphed Li, making the following points:
(1) Both British and American mining engineers are trained at schools. Their students at mining schools should spend several months with their teachers in the field, to investigate mines and to assay mineral ores. A mining school like this is planned at Yantai, so that Chinese mining students could survey the mines nearby;
(2) Provincial governors from Guangdong and Shandong support this proposal, but the budget plan has to be reported to the government. Besides, funds can also be raised from merchants; and
(3) First-class mining engineers specialised in non-ferrous metals, coal, and iron, respectively, are in demand. These engineers should be both able to teach Chinese students and survey the fields. They will begin by receiving a three-year contract.
Instantly, in the early morning of the next day, Li Hongzhang telegraphed Liu Ruifen (1827–92), the ambassador in London, to seek proper foreign engineers.Footnote 71 Three months later on around 6 August 1888 (GX14/6/29), Sheng went to Tianjin and discussed this plan with Li. A few days after their meeting, the news of establishing a mining school was announced in the Shanghai newspaper, Shenbao. According to the newspaper, Max Goebel (Gu Beier), then the consul-general for Belgium at Shanghai, was willing to help seek competent and experienced foreign engineers as teaching staff.Footnote 72
As shown in Sheng's archive series, a proposal for the entire plan of a mining school was drafted on 13 November 1888 (GX14/10/10), but the final proposal, with substantial changes and revisions, was submitted by Sheng to Li Hongzhang three days later. The submitted proposal consists of ten items that address the following subjects: (1) sources of funding for maintenance fees; (2) hiring foreign mining engineers for teaching; (3) reasons for choosing Yantai as the location; (4) buildings and infrastructure for the school; (5) purchasing relevant books, ore species, and mining tools or devices; (6) recruiting students; (7) arrangement of three-year courses; (8) qualifications of students; (9) tasks of the superintendent and administrative assistants; and (10) promotion for foreign teachers and Chinese students awarded by the Qing government.Footnote 73
Sheng's financial plan reveals how a mining school could be institutionalised in the late Qing administration through joint state–merchant investment and management. Through raising funds from four provinces, namely Zhili, Jiangnan, Guangdong, and Shandong,Footnote 74 with an amount of 5,000 taels per year from each province, the maintenance fees for the school would be covered. In addition, the China Merchants Steamship Navigation Company would donate the one-time amount of 15,000 taels for building the school infrastructure. By adding the merchant company (of which Sheng was also the director) into the sponsorship, Sheng placed himself in a more powerful position to supervise the school. Governors of the four provinces would have priority to hire the first-class graduates from the mining school, and any other mining enterprises from other provinces—being invested in either by the officials or by private merchants—could employ the rest of the graduates.
Qualifications of graduates from this mining school, however, stirred up some controversy. As previously mentioned, the first generation of students who returned from Europe was often recorded as (mining) students (kuang xuesheng), instead of mining engineers (kuangshi), because these returned students were not treated equally to foreign engineers in terms of salaries. Sheng proposed to confer the certificate of ‘first-class mining engineer’ (toudeng kuangshi) to excellent graduates and to award official titles or positions to such graduates. But, as explained by Li Hongzhang in one letter, mining graduates could not be conferred with official ranking titles such as those from navy or military schools because the latter schools were built for military defences. Despite this, Sheng still proposed to award them honourable official status with a corresponding hat button (xuxian dingdai).Footnote 75 As Confucian scholars’ debate over the concept of art or technology in around 1885 suggests, non-classical learning could not be simply legitimised in the imperial examination system.Footnote 76 In practice, this meant that a Western-style non-military school could not be built in haste.
Global recruitment of teachers for the mining school
Zhong Tianwei (1840–1900) played a managerial role in planning the mining school and in recruiting teachers globally. Zhong acted as one of Sheng's advisers (even if not officially or nominally) from the late 1880s until 1900.Footnote 77 He was one of John Fryer's close collaborators in the Jiangnan Arsenal's translation projects. Another joint connection between Fryer, Sheng, and Zhong was the Xu family: Fryer's earlier co-translators or Chinese writers on mining-related works involved the famous and productive scholars Xu Shou (1818–84) and his son, Xu Jianyin (1845–1901). The Xu family (also including Xu Huafeng and Xu Jiabao) contributed extensively to the translation of works on chemistry and industrial arts, including iron, steel, and general metal-working industries.Footnote 78 Zhong Tianwei travelled with Xu Jianyin and the above-mentioned Li Shuchang to Europe during 1879–81 to investigate the military and manufacturing industries. Both Zhong and Xu were involved in initiating the coal, iron, and steel industries in Hubei before 1895 and Zhong had close contact with Li Shuchang when Li served as the Chinese ambassador in Japan.
The earliest available letter, in which Zhong Tianwei briefly mentioned the mining-school plan to Sheng, was dated 8 June 1888 (GX14/4/29). It is very clear that they had previously discussed this plan. Zhong's letter aimed to recommend a number of Chinese technical experts to Sheng for developing industries in Shandong. A mining school, for example, could give the above-mentioned Xu Huafeng an official position so that Xu would be motivated to work for the government.Footnote 79 Zhong Tianwei was the major coordinator to negotiate with Max Goebel as well as John Fryer in the search for teaching staff. The latter happened to travel to the USA in 1888 and helped Zhong/Sheng to recruit a US mining engineer. The plan did not work out. The mining engineers from the USA were too expensive to hire.Footnote 80 With the recommendation of Goebel, Sheng and Zhong hired a Belgian mining engineer, Emile Braive (Bai Naifu), at a monthly salary of about 500 taels. They planned to hire another Belgian mining engineer, who would arrive later, as an instructor at a monthly salary of 250 taels.Footnote 81
Braive arrived in China on 1 April 1889 and thereafter submitted to Sheng Xuanhuai some general proposals for the mining school (in an English draft with a Chinese translation) along with the English curriculum, possibly on 18 May 1889 (GX15/4/19).Footnote 82 But he did not proceed any further with the school plan. Instead, while waiting for another foreign instructor to come to China, he made geological explorations in Shandong and other provinces in the North. Then, he was ‘borrowed’ by Zhang Zhidong, the general governor of Hubei and Hunan Provinces who had just being transferred from Guangzhou to Wuchang in 1889, to survey the iron and coal deposits of the Yangzi Valley downstream from Hankou, in order to investigate China's own raw-material supply for constructing a railway line from Beijing to Hankou.Footnote 83
Yet, Braive's English curriculum and general regulations are still worth noting. The curriculum is almost an abridged copy, with some modifications, of those courses published in the College of Engineering (i.e. the former Kōbu Daigakkō) at the Imperial University of Japan (Teikoku Daigaku) for the year 1886–87. For example, it lists all the names of professors and assistant professors whose courses were related to mining and metallurgy, as shown in the English catalogue of that university (see Figure 3). Braive's list also includes a Japanese lecturer's name (i.e. S. Kawano 河野), which is not given in the catalogue.Footnote 84
Names of professors and assistant professors mentioned in E. Braive's 1889 mining-school proposal. Source: Shanghai tushuguan (ed.), Sheng Xuanhuai wenhua jiaoyu dang'an xuanbian, vol. 7 (Shanghai, 2019), p. 580.
No separate Chinese translation of this curriculum has currently been found. The only exceptions include the Kanji characters given for the Japanese names and their degree titles, and some courses are translated into Chinese (see Figure 3 and Table 1). The three-year courses, compared with those of the Imperial University of Japan, are slightly modified, for example, by shifting one course to different study years, or splitting one course into two, or adding more hours to some courses (see Table 1).
Three-year courses listed in E. Braive's 1889 mining-school proposal in comparison with those of the Imperial University of Japan
Sources: Shanghai tushuguan (ed.), Sheng Xuanhuai wenhua jiaoyu dang'an xuanbian, vol. 7 (Shanghai, 2019), pp. 582–84; Imperial University of Japan (Teikoku Daigaku): The Calendar for the Year 1886–87 (Tokyo, 1886), pp. 50–51.
Despite its obvious duplication, Braive's curriculum does not indicate anything about the Japanese university, except for a statement that ‘[s]alaries of foreign professors are about $400 a month, and those Japanese professors are about $300 a month in average’.Footnote 85 Sheng Xuanhuai and Zhong Tianwei were, very likely, aware of the source of this curriculum and were well informed about the Japanese educational system, since Zhong was in charge of investigating minting technology and even visited Japan at the end of 1888.Footnote 86
While Zhong was hoping to hire a mining engineer from the USA, he also planned to hire a Japanese engineer as assistant professor because of a lower salary for the Japanese.Footnote 87 Later on in 1888, Zhong changed his mind: since the Japanese instructors were not good at English, a Chinese expert would be better employed. At that time, Zhang Jinsheng, who was among the first generation of returned mining students from Europe and who had already undertaken several field surveys in Shandong with Xu Huafeng, was recommended by Xu and Zhong as a proper teaching assistant in the mining school.Footnote 88
Apparently, Sheng Xuanhuai's plan of hiring only two (foreign) mining engineers for teaching 20 to 30 students all the subjects (e.g. mechanics, chemistry, physics, drawing, mineralogy, geology and prospecting, metallurgy, and surveying) was not realistic. In addition to Braive's proposal, Sheng also consulted another of the above-mentioned returned students, Luo Zhenlu, on the mining-school regulations. In a rough preliminary proposal, Luo pointed out that at least five foreign professors and five assistant professor or instructors should be hired.Footnote 89 Both Braive's and Luo's proposals opened the door for Sheng Xuanhuai and his advisers to reimagine the scale of this school and the placement of such as a school in the Qing bureaucracy and Chinese society.
Sheng Xuanhuai's detours to engineering education
Since the Yantai mining school did not materialise as planned, some scholars hold the view that Li Hongzhang did not approve it because of the inconvenient location. Instead of being at Yantai, a location at Tianjin would have been ideal for supervising the school, in case Sheng were promoted or transferred to another place.Footnote 90 Certainly, Li never submitted this plan to the throne, as hoped for by Sheng Xuanhuai from the beginning. With hindsight bias, Li hesitated in approving this plan, perhaps because he was anticipating Sheng's promotion in the future. In 1893, Sheng was, indeed, transferred to the position of Superintendent of Tianjin Customs and, in Tianjin in 1895, he established China's first engineering university—Beiyang University—with a department of mining engineering. Beiyang University was managed by a former US missionary, Dr. Charles Tenney (1857–1930), and therefore hired almost only American professors.Footnote 91
One previously overlooked aspect in the entire story is that the original mining-school proposal was not refused entirely. Instead, Zhang Zhidong practised this idea in Hubei. As shown in several telegram exchanges with Li Hongzhang in late 1889, Zhang recognised the necessity and urgency in establishing technical schools for supporting railway construction. And a chemistry and mining school was considered by him as the foundation for producing iron and steel.Footnote 92 At that time, Sheng's ambition in mining industries was also fuelled by the railway plan. In his view, China should focus on developing one major mining enterprise, instead of opening several small mines.Footnote 93 This insight and his previous mining and surveying practices in Hubei were highly valued by Zhang and Li. Within one month, in late 1889, Zhang invited Sheng to meet in Shanghai and discuss further plans.Footnote 94 Zhong Tianwei, in particular, was hired by Zhang to organise the mining school.Footnote 95
A laboratory was opened in Wuchang in 1890 for analysing coal and ores from Hubei and Hunan. The laboratory was developed into a mining ‘college’ (Kuanghua xuetang) in 1892 (with about 20 students in 1895).Footnote 96 That mining college, with yearly maintenance fees of 30,000 taels, was only a small part of the iron and steel works, with estimated total yearly fees of 2.468 million taels.Footnote 97 Even more dramatically, in around late 1896 and early 1897, when Sheng Xuanhuai took over the Hanyang iron works from Zhang Zhidong, he established a ‘Hanyang steel and iron works college’ (Hanyang gangtiechang xuetang), specialising in chemical analysis, iron and steel metallurgy, and machinery.Footnote 98 Strictly speaking, the Hanyang college was still not a ‘mining’ school, but a ‘metallurgy’ school. In both Tianjin and Wuchang, Sheng had realised the plan of initiating mining education.
Conclusion
To attain China's technological independence through purchasing (and later producing) China's own machinery-making machines and training China's own machinery-producing experts, late Qing training programmes had primarily focused on practical arts applied for military-related manufacturing industries. The reformers (especially Li Hongzhang, Zeng Guofan, and Zuo Zongtang) had already in the late 1860s shown their interest in industrialising China's economy, from building warships and weapons to mechanisation in agriculture, minting, textiles, and other industries, for which they had to start with establishing military industries.Footnote 99 Yet, rewarding ‘engineers’ (or a technical supervisor) for non-military purposes, as shown above, was still unusual or impossible in the late 1880s. Therefore, the historical significance of mining education and early mining practices lies not in identifying a turning point for educating whether civil (or mining) engineers or military engineers, but in recognising a turning point in the engagement of human–technology–nature through cultivating expertise and legitimising non-classical learning.
As Sheng Xuanhuai clearly articulated in one of his 1888 proposal drafts, establishing mining schools in China was aimed at controlling the source of wealth and making profit from nature.Footnote 100 In his view (and including those of his advisers), the past decade had witnessed rapid replacement of foreign mining engineers through educating native students in Japan; regretfully, if China had established a mining school at the very beginning along with the founding of other naval, military, and telegraph schools in the 1860s and 1870s, the same would have happened to revitalise Chinese mining industries.Footnote 101 Since his proposal was never submitted to the throne, Sheng Xuanhuai made himself finally heard by the Emperor Guangxu and the Empress Dowager Cixi in one vis-à-vis conversation in 1899: mining, as one way of making profit from nature, was a primary source of gaining wealth. Despite the reforms in the past decades, the major concern of the emperor and empress was still financial and foreign affairs that related to military defences.Footnote 102
This article demonstrates that initiating mining education in China for regaining power and wealth was an evolving idea influenced by various factors. Among several other factors, distrust of foreign mining engineers and revitalising non-ferrous mining industries to solve the monetary crisis acted as principal stimuli to the generation of the idea. Sheng Xuanhuai's seemingly discrete mining-related efforts, partly viewed as failures, prepared the way for establishing a mining school in China and eventually led to the founding of a mining college at Wuchang and an engineering university at Tianjin. This trajectory reflected how engineering education for non-military purposes in late Qing China was institutionalised.
Within the framework of Qing mining bureaucracy, the demand for special expertise was fuelled by the global search for coal in the late nineteenth century. Capable and trustful field experts were considered especially crucial because they had to supervise the field and negotiate with local gentry and fengshui experts (the ‘dragon-heads’). Circulation of translated book knowledge (including journals) in late Qing Western learning brought an understanding of global mining knowledge to those Confucian literati-officials. When Western-style mechanisation began to attract the attention of Chinese reformers, field managers in the mining bureaucracy also reacted to innovative solutions instead of totally trusting foreign professional authority or engineers. For example, costly labour-saving machinery did not suit the local miners in borehole drilling for prospecting for coal. Moreover, Samuel J. Morris's failure in Hubei's coal prospecting in around 1875–76 weakened the trust of Chinese officials in Western engineering professions. The narratives of ‘incompetent’ Western engineers (or ‘artisans’, as they were termed at that time) changed late Qing intellectuals’ attitudes towards expertise and acted as a stimulus to train China's own mining experts. Subsequently, the first generation of Chinese mining students (five in total) returned from Europe in around 1881.
Finding solutions to the urgent monetary crisis drew the search for non-ferrous metals or mint metals back to the focus of the Qing mining bureaucracy. The 1887–88 coinage reforms turned the reformers’ attention to opening mines in Shandong and to investigating Japanese minting and mining technology. These factors reinforced the need for training China's own mining engineers for economic reasons. Sheng Xuanhuai, with one of his closest advisers, Zhong Tianwei, happened to be commissioned to investigate Japanese copper production and minting machinery. Chinese ambassadors in Japan, including Li Shuchang, made the accomplishments of technical education in Meiji Japan visible to late Qing reformists. Li's effective communication with Sheng played a catalytic role in pushing forward the mining-school plan. As demonstrated above, a global recruitment of foreign engineers and teachers from England, the USA, and Belgium, as well as Japan, was instituted by late Qing officials with the aids of networks built by Chinese ambassadors overseas, missionaries, foreign consulates in China, and officers of the Chinese Maritime Customs Service. Emile Braive was hired in the end, but the results of his field surveys reactivated Sheng's ambition in focusing on building a large Chinese iron and steel works in Hubei, to support Zhang Zhidong's railway plan. From the idea of establishing a mining school to the founding of iron and steel works, mining education became embedded in the Chinese mining industries.
Certainly, a mining school had to be anchored within China's cultural, social, and political settings. Sheng's mining-school proposal suggests a placement of such a mining school in the Qing institutions through joint state–merchant investment and supervision. Since the idea of establishing a mining school did not originate from the Confucian educational system, the mining-school proposal never posed a threat to the existing imperial examination system. After all, only around ten Chinese men would become mining engineers. Late Qing reformers treated educational reform as merely a provisional strategy for coping with crises. Nevertheless, qualification and award of the graduates from the planned mining school aroused some controversy because the mining students were not equal to those from navy or military schools. After a detour, Sheng materialised his plan of mining education in both Tianjin and Wuchang.
As part of the long-term continuous late Qing reform process, the two educational institutions were significant experiments in China prior to the 1898 reform. That later reform popularised Zhang Zhidong's principle of ‘Chinese learning as principle, Western learning as function’Footnote 103 and a new-style school system was established in China after 1902 by rapidly modelling the Japanese pattern. As this study demonstrates, the Japanese educational pattern had already been studied by the pre-1895 reformers. In particular, Zhang Zhidong, the post-1895 authority on promoting educational reform, was a supporter and co-player of the pre-1895 mining education initiatives. Therefore, taking the post-1895 reforms into account, the history of mining education mirrored how the training of Chinese technical experts was built, reinforced, and incorporated into the general educational system.
Despite its late development of modern or Western-style mining technology and education, China's experience in institutionalising mining knowledge still witnessed parallels with those of Europe; the history of mining education provides a new angle from which to understand the question of why and how mining mattered to China's transformation in general, and to the rising engineering education and broader educational system in particular, when the German and French models were widely diffused into the rest of the world along with the European expansion (albeit with many local variations).Footnote 104
Acknowledgements
The results presented in this article are part of the author's research carried out at the University of Leipzig, within the project ‘Die Wegbereiter von Chinas Aufstieg zur Technologiemacht: Technische Bildungseinrichtungen und ihre Studierende im Zeitalter des Globalen Wandels, 1860–1911’ (‘The Pioneers of China's Rise to Technological Power: Technical Educational Institutions and Their Students in the Age of Global Transformation, 1860–1911’) under the project No. 01UL1909X, which is funded by the German Federal Ministry of Education and Research (BMBF). The author has also received a Fellowship as a ‘Worldmaking’ research fellow (2023) at the Joint Center for Advanced Studies: ‘Worldmaking from a Global Perspective: A Dialogue with China’, University of Heidelberg. The author would like to thank BMBF as well as the University of Heidelberg for their generous financial support. For their inspiring suggestions and comments on an earlier draft of this article, the author also would like to thank Dr. Weipin Tsai, Prof. Naofumi Nakamura, and the anonymous reviewers.
Conflicts of interest
None.
