Abstract
Textiles are among the longest and most widespread technologies in human history, although poor preservation of perishable artifacts in Paleolithic and Neolithic contexts makes them difficult to unearth and has hampered study of their production and use. Here we report evidence of a plain-woven mat from the Tianluoshan site, Zhejiang, Eastern China. Phytolith and AMS dating from the mat and modern reference collections shown that the mat was made of reeds (Phragmites australis (Cav.)) and dated to 6775β6645βcal. yr. BP. This is the earliest directly dated fiber artifact so far known in China, over at least one thousand years earlier than any established dates for woven remains elsewhere. The evidence of the mat and other related remains suggest that textile products might occur earlier than 7000β8000 years ago and are significant for understanding the history of textiles, as well as production and human adaptation in Neolithic China.
Similar content being viewed by others
Introduction
Textiles, webs of interlaced threads produced on a loom or frame with continuous plane surfaces, are recognized as a significant technology in human evolution1,2,3. The production of baskets, mats and clothes, all constructed of materials available to early societies, boosted the human capacity for adaptation1,4. Specialist analysis of weaving and the materials used for early textiles greatly contributes to our knowledge of early society and permits an expanded understanding of the range of technological activities that can be considered as the subject of anthropological inquiry1,3,5,6. Since an understanding of technological development is fundamental to any attempt to evaluate the development of culture and society, the origin of textile production is among the critical foci in world archaeology1,7,8,9,10.
In East Asia, textile crafts, one of the domains of technological practice with the longest continuous developmental history from ancient times to the present without changes in basic technique, are recognized as one of the symbols of Chinese civilization11. Evidence to date suggests the fiber of wild plants was the principal raw material for early textiles and cordage1,12, as was true elsewhere in the world13. However, in contrast to our understanding of plant use in foods, far less is known about the history of plants used as or in artifacts14,15,16. When, who and how people first made textiles is poorly known due to the lack of surviving fragments identified from ancient contexts17,18. Furthermore, because the most common evidence of textiles is limited to imprints of the weave on fragments of pottery1,18,19,20, identification of raw materials or specific functions beyond cordage used for ceramic production can be inaccurate or inadequate1,3,15,16,17,21.
Perishable prehistoric mat-like residues have recently been found in Far Eastern, Russia dated ca. 9000β8000βcal. yr. BP., however, the forms of the objects and related woven techniques, which are crucial criteria for the definition as textile, need to be further discussed12. Early mat-like crafts have also been found in middle Neolithic China, at the sites of Hemudu and Tianluoshan sites, but to date these only have been described briefly in the excavation reports and previously none have had the raw material used identified to a species-level, nor have they been directly dated 22,23,24.
Tianluoshan (30Β° 01β² 27β³ N, 121Β° 22β²46β³ E), a Neolithic settlement of the Hemudu Neolithic culture, is located in Yuyao city, Zhejiang Province, two to three meters above present-day sea level23. Excavations between 2004 and 2007 revealed preserved wooden posts, boat paddles, wooden and bone tools, pottery and ground-stone axes characteristic of the Hemudu culture and animal and fish remains, as well as well-preserved plant remains. Pieces of prehistoric mat-like remnants were found beneath a floodplain sediment layer that was about 3 meters thick23. Radiocarbon (14C) measurements date its occupation to around 7000 to 6000 yr. cal. BP25.
Here, we present phytoliths, starch and radiocarbon dating from the woven objects at the Tianluoshan site (Fig. 1). Modern reference collections are used to identify the associated raw materials. Our study reveals that the woven material belongs to reed matting dating to as early as 7000βyr. cal. BP and indicates it is the earliest fine textile mat in China, predating known evidence of silk or any other fiber products.
Maps of representative early reedy mats found in China.
(a) the red rectangle shows the location of the mat residue in the Tianluoshan site; (b) the condition when the mat was unearthed; (c) sampling kit used on the mat. The map in this figure was generated by Microsoft PowerPoint 2011 and CorelDraw 11.
Results
The yellow colored mat-like material was found horizontally embedded in black mud, 210βcm in depth in the excavation unit T204, in the 8th stratum, which belongs to the first stage of the Tianluoshan site (Figs 1,2)23. The irregularly shaped object is about 50βcm in length, 20β40βcm in width and was found within the living and working zone of the ancient community (Fig. 1). The delicate object was about 0.2βcm in thickness. Every strip of the mat was nearly the same width of ca. 1βcm and composed of four to six elements of ca. 0.2βcm each (Fig. 2).
Boxes measuring 40βΓβ50βcm were used to sample and preserve the artifact. A piece of plant material collected from one corner of the object was AMS dated at Beta analytic Inc. (Fig. 2c). The sample was dated between 6775β6645βcal. yr. BP in two-sigma calibration, in accordance with the well-known Hemudu culture and Tianluoshan occupation22,23,25.
A 2βΓβ2βcm piece was collected from the same corner of the object for phytolith diagnosis of raw materials. Based on our observations and statistics of structures of undulating patterns, we found that three parameters can be used to characterize the morphological variations of structures of silicified cells: Hβ=βundulation amplitude of epidermal undulating patterns, Wβ=βwidth of undulating patterns and especially Rβ=βH/W (Fig. 3a1).
Phytolith skeleton from the mat.
(a) n-undulating pattern of outer epidermal layer with rondel (dark green arrow) and hair cell phytoliths (light green arrow), (a1) definition of the parameters; (b) undulating patterns occurred with adnate silicified extracellular sheet (keratose layer) and silicified dendritic phytolith (blue arrow); (c) undulating patterns occurred with hypoderm fibers (red arrow).
Figure 3 shows three types of phytoliths presented in the archaeological samples. The dominant type is an n-shaped undulating pattern of the outer epidermal layer with rondels and hair cell phytoliths. The three measurements of these features are as follows: Hβ=β7.04βΒ±β1.32 (standard deviation) ΞΌm, Wβ=β19.39βΒ±β1.86βΞΌm and Rβ=β0.36βΒ±β0.06 (Nβ=β109) (Fig. 3a). Occasionally we find undulating patterns that occurred with adnate silicified extracellular sheet (keratose layer), silicified dendritic phytoliths (featured as extremely slim bodies with branches) (Fig. 3b) and hypoderm fibers (Fig. 3c).
Modern reference samples show that reed stems present the most similar kinds of phytolith morphology and also have similar measurements. They have n-shaped undulating patterns on the outer epidermal layer with rondels and hair cell phytoliths and silicified dendritic phytoliths. Measurements of modern samples are as follows for the sample analyzed (Nβ=β111): Hβ=β8.09βΒ±β1.39βΞΌm, Wβ=β22.18βΒ±β2.60βΞΌm, Rβ=β0.37βΒ±β0.05 (Fig. 4a,a1). In contrast, Fig. 4b shows that the phytolith pattern for bamboo stems has a weaker and slightly undulating wave that is reflected by the measurement perimeters: Hβ=β3.57βΒ±β0.72βΞΌm, Wβ=β15.80βΒ±β1.47βΞΌm, Rβ=β0.23βΒ±β0.04 (Nβ=β109) and the bodies of dendritic phytoliths are wider with short and indistinct branches as well (Fig. 4b,b1). Rondels are also present in abundance in bamboo, but featured obvious ridgy lines that occurred in the middle of the rondels, which can be distinguished from those in reeds (Fig. 4b2).
Phytolith skeleton from modern reference.
(a) n-undulating pattern of outer epidermal layer with rondel (dark green arrow) and hair cell phytoliths (light green arrow) from a reed, (a1) silicified dendritic phytolith of reed; (b) undulated patterns occurred with silicified dendritic phytoliths (b1) and rondel (b2) of bamboo (blue arrow); (c) silicified spongy mesophyll and stomata of Typha orientalis; (d) and (d1) rondel, hypoderm fiber and spongy mesophyll of rice.
Similarly, the observed undulating pattern is absented in Typha orientalis, which only has silicified spongy mesophyll and stomata (Fig. 4c). In rice stems, simply only rondels, hypoderm fibers and spongy mesophylls are present (Fig. 4d,d1).
Attachments on the surface of the artifact were analyzed according to the references of phytolith and starch taxa in China26,27,28,29,30,31. In total, only one double-peaked and two bulliforms produced by rice were identified among 400 phytoliths (Fig. 5). The rest are common grass phytoliths. No starch grains were found.
Discussion
Owing to the irregular shape of the artifact and its lack of edges (ca. 50βcm in length, 20β40βcm in width), it is difficult to determine what the ultimate form of the object was, thus phytoliths and starch grains from the surface of the fragments were analyzed. As many researchers have argued previously, woven technology constructed during the early Holocene often has a close relationship with settled communities and agriculture, as well as specialized food processing, as often basketry was used for collecting and processing seeds32,33,34,35. It is reasonable to assume that if the remains were parts of one or more containers, many crop husk phytoliths and starch grains would be found. However, the results show that only three rice phytoliths (one double-peaked and two bulliforms) were found among the 400 phytoliths, while the rest were common types from grasses and no starch grains were found. When these data are considered together with the flat position in which the object was found when it was unearthed and the continuous plane surface, we speculate it was probably a mat fragment.
A vast variety of plant material is used in the production of woven items around the world36,37. Although the woven impressions and physical items found in many early Neolithic sites were sometimes clearly made of plant rather than animal fibers, plant identification of these artifacts to date has mainly relied on the observations of the general appearance of the materials and explicit identification of the species used is rare owing to a lack of proper methods of identification for those easily degraded fibers1,38. Morphometric analysis of silicified epidermal cells can be used to distinguish among grasses because of specific morphological characteristics 37,39,40,41,42 and between domesticated and wild species32,41,43,44,45,46,47. In East Asia, three identified plant species; bamboo (Bambuseae), reed (Phragmites australis) and bulrush (Typha orientalis) were traditionally used as the preferred sources of matting and are still used today48. To determine the taxa of the raw material of the mat present at the site, we paid particular attention to these three plants and added rice (Oryza sativa) as well, owning to the high occurrence of rice remains in the Tianluoshan site, although rice is not commonly used for woven materials due to the relatively lower resilience of rice stems.
By comparing silicified epidermal long cells among Phragmites australis, Bambuseae, Typha orientalis and Oryza sativa, we revealed that reed (Phragmites australis) phytoliths were distinguishable, especially from Bambuseae, by their phytolith patterning and morphology. Comparing with Bambuseae, reeds feature a wider and larger n-undulating pattern and a higher R value, which can be used as a robust index to distinguish the two taxa. Furthermore, we provide a comparison of macro features (Fig. S1) that shows the surface structure of the epidermal layer and fibers from the archaeological sample (Fig. S1-a, a1) resembles those from reeds (Fig. S1-b, b1), but clearly is more slender than those from bamboo (Fig. S1-c, c1). Thus, although further systematic investigations are still needed to confirm whether the shape of epidermal long cells from reeds are exclusive, considering limited species that traditionally are used for the production of mats and baskets, we provide substantial evidence of reeds as raw materials for mats at this site based both on macro and micro features of epidermal layer (Fig. S1) and rondels, hair cell phytoliths, dendritic phytoliths and silicified epidermal long cells (Figs 3 and 4), respectively.
Unlike textile crafts found elsewhere in Asia during the early Holocene, such as those in the Near East and Japan, which were made from grasses with rigid and rough surfaces12,49, the mat found at Tianluoshan was made by fine plain weaving with tightly arranged slim strips that appear to be of equal width (ca. 0.2βcm) and form an extremely smooth surface (Figs 1,2). The fineness, tightness and uniformity of the mats cause us to speculate that some types of looms or frames may have been employed during production. The large quantity of split reed stems, a close set for warp and waft strips, would also be difficult to manipulate or maintain by hand without some type of controlling device50. We assume a ground frame or a loom would have been used. Plenty of weaving-related remains, including spindle whorls, weights, needles and cordage, were unearthed from both Hemudu (7βkm to the south) and Tianluoshan and support this speculation22,23. Considering one of the features used to differentiate between basketry and textiles, which is whether the item was made with some variety of hanging or horizontal frame or loom3,51, we suggest that the mat is more close to a textile than basketry in terms of taxonomy, although basketry could be seen as a sub-category of textile with regard to woven techniques3.
Throughout the world, direct traces of textiles in early periods are rarely encountered. Evidence of woven products mostly occurs as impressions on clay or rare cordage and net fragments which date as far back as some 30,000βyr. BP12,19,38,52,53. The occurrence of fine textile, especially mats, in the New World occurs much later, starting around the beginning of the Holocene 50,51,54,55,56,57, however, this is still thousands of years earlier than any of textiles in China. The humid monsoon climate in East Asia, which resulted in the easy degradation of fibers, might be one of the reasons for the late records of textiles in China58. Another reason, however, may relate to the origin of agriculture.
Woven crafts feature in several ritual practices as part of specialized food-processing techniques, especially those dealing with agricultural products33,34,35. As we know, many pieces of archaeobotanical evidence support the view that the process of crop domestication occurred both in the Lower Yangtze and Yellow River regions during the Early to middle Holocene59,60,61,62. Moreover, looms, needles, spindle whorls, weights, cordage and weaving impressions on ceramics have been unearthed increasingly from several early Holocene archaeological sites including Peiligang, Cishan, Banpo, Dadiwan and Hemudu22,63,64,65,66. Based on the common occurrence of mats in the 8th layer of Tianluoshan site (about 27 pieces of mats, the largest measuring approximately 74βΓβ62βcm), we propose that the occurrence of textiles in China might accompany the origin of agriculture, which is to say that textiles in China might be invented earlier than currently evident in the archaeological recordβearlier than 7000β8000βyr. BP. Verification of this will require further evidence. Woven aircrafts found in Kuahuqiao site may shed light on this, although direct dating and specific identification of raw materials are lacking67. Currently, the fine woven mat reported here is the earliest physical evidence in China of woven aircrafts, or textiles in general, over two thousand years earlier than the silk textile from the Qianshanyang site24 and one thousand years earlier than wild Kudzu fabric products at the Caoxieshan site68.
Methods
We collected one sample from the mat-like material for raw material identification, one sample of surface attachments from both sides of the remains for phytolith and starch identification and four modern species of reed (Phragmites australis), cattail (Typha orientalis), bamboo (Bambuseae) and rice (Oryza sativa) as modern reference samples. Identification was aided by the use of reference materials5,6,7,8,9.
The protocol used for plant phytolith analysis is the technique described by Lu et al. (2009) with slight modifications43: (1) The sample was cleaned with distilled water in a water bath to remove adhering particles; (2) Then placed in 20βml of saturated nitric acid for over two to 12βhours to oxidize organic materials completely according to the hardness of the plant; (3) The solutions were centrifuged at 2000βr.p.m. for 5βmin, decanted and rinsed twice with distilled water and then rinsed with 95% ethanol until the supernatants were clear; (4) The phytolith sediments were transferred to storage vials. The residual subsamples were mounted onto microscopic slides in Canada Balsam medium for photomicrography and in liquid medium for counting, measuring and line drawing; (5) Light photomicrography (phase-contrast and microscopic interferometer) at 400βΓβmagnification was used to determine their anatomy and silicon structure patterns.
The protocol for the recovery of starch grains from the sample follows the technique described by Yang et al. (2009)69: (1) A solution of 6% H2O2 was used to break down some of the larger charred particles by oxidation, releasing starch grains possibly trapped within them or adhering to them, as well as to oxidize some of the extraneous organic material from the residues; (2) A heavy liquid solution of CsCl at a density of 1.3 was added to the residue to remove any material with a specific gravity of less than 1.3; (3) Starch grains were floated using a CsCl solution at a density of 1.8, after which the heavy liquid was rinsed from the samples; (4) The material recovered from the second extraction was mounted in 10% glycerine and 90% water on a clean glass slide.
Additional Information
How to cite this article: Zhang, J. et al. Phytoliths reveal the earliest fine reedy textile in China at the Tianluoshan site. Sci. Rep. 5, 18664; doi: 10.1038/srep18664 (2015).
References
Good, I. Archaeological Textiles: A Review of Current Research. Annu Rev Anthropol 30, 209β226, doi: 10.2307/3069215 (2001).
Barber, E. J. W. Womenβs work: The first 20,000 years: Women, cloth and society in early times. (W.W. Norton & Company, 1995).
Adovasio, J. M. Basketry technology: a guide to identification and analysis(Updated Edition). (Left Coast Press, 2010).
Barber, E. J. W. Prehistoric textiles: the development of cloth in the Neolithic and Bronze Ages with special reference to the Aegean. (Princeton University Press, 1991).
Brezine, C. J. Dress, Technology and Identity in Colonial Peru Ph. D. thesis, Harvard University (2011).
Costin, C. L. Textiles, women and political economy in late prehispanic Peru. Res Econ Anthrop 14, 3β28 (1993).
Gilligan, I. The Prehistoric Development of Clothing: Archaeological Implications of a Thermal Model. J Archaeol Method Theory 17, 15β80, doi: 10.1007/s10816-009-9076-x (2010).
Miller, H. M.-L. Archaeological approaches to technology. (Elsevier, 2007).
Arthur, W. B. The nature of technology: What it is and how it evolves. (Simon and Schuster, 2009).
Basalla, G. The evolution of technology. (Cambridge University Press, 1988).
Yuan, X. & Zhao, F. The history of Chinese Silk Culture. (Shandong Fine Arts Publishing House 2009).
Kuzmin, Y. V., Keally, C. T., Jull, A. T., Burr, G. S. & Klyuev, N. A. The earliest surviving textiles in East Asia from Chertovy Vorota Cave, Primorye Province, Russian Far East. Antiquity 86, 325β337 (2012).
Kvavadze, E. et al. 30,000-Year-Old Wild Flax Fibers. Science 325, 1359, doi: 10.1126/science.1175404 (2009).
Li, B. A Study on Traditional Techniques of Hand Braiding in China. Res J Text Apparel 12, 66β71 (2008).
Yan, X. The discussion on prehistoric weaving art. Prehistoric Study 00, 329β332 (1998).
Valamoti, S. Flax in Neolithic and Bronze Age Greece: archaeobotanical evidence. Veg Hist Archaeobot 20, 549β560, doi: 10.1007/s00334-011-0304-4 (2011).
Wright, D. The Complete Book of Basketry. (Courier Corporation, 2013).
Ryan, P. Plants as material culture in the Near Eastern Neolithic: Perspectives from the silica skeleton artifactual remains at ΓatalhΓΆyΓΌk. J Anthropol Archaeol 30, 292β305, doi: 10.1016/j.jaa.2011.06.002 (2011).
Adovasio, J. M., Soffer, O. & KlΓ©ma, B. Upper Palaeolithic fibre technology: interlaced woven finds from Pavlov I, Czech Republic, c. 26,000 years ago. Antiquity 70, 526β534 (1996).
Hurley, W. M. Prehistoric cordage: identification of impressions on pottery. (Taraxacum, 1979).
Wilkinson, T. C. Tying the Threads of Eurasia: Trans-regional Routes and Material Flows in Transcaucasia, Eastern Anatolia and Western Central Asia, C. 3000-1500BC. (Sidestone Press, 2014).
Zhejiang Provincial Institute of Cultural Relics and Archaeology. Hemudu-A Neolithic site ans its archaeological excavations. (Relics Press, 2003).
Zhejiang Provincial Institute of Cultural Relics and Archaeology. In General studies of natural remains from Tianluoshan site (eds The centre for the study of Chinese Archology in Peking University & Zhejiang Provincial Institute of Cultural Relics and Archaeology) 7-39 (Relics Press, 2011).
Zhejiang Administration Committee of Relics. The first and second excavation reports of Qianshanyang site,Wuxing. Acta Archaeologica Sinica 2, 73β91 (1960).
Wu, X., Qin, L. & Sun, G. In General studies of natural remains from Tianluoshan site (eds The centre for the study of Chinese Archology in Peking University & Zhejiang Provincial Institute of Cultural Relics and Archaeology) 40-46 (Relics Press, 2011).
Lu, H. Y. et al. Phytoliths as quantitative indicators for the reconstruction of past environmental conditions in China I: phytolith-based transfer functions. Quat Sci Rev 25, 945β959 (2006).
Wang, Y. J. & Lu, H. Y. The Study of Phytolith and its Application. (China Ocean Press,1993).
Lu, H. et al. Rice domestication and climatic change: phytolith evidence from East China. Boreas 31, 378β385 (2002).
Yang, X. & Jiang, L. Starch grain analysis reveals ancient diet at Kuahuqiao site, Zhejiang Province. Chin Sci Bull 55, 1150β1156, doi: 10.1007/s11434-009-0545-0 (2010).
Yang, X. et al. Starch grain evidence reveals early pottery function cooking plant foods in North China. Chin Sci Bull 59, 4352β4358 (2014).
Liu, L., Bestel, S., Shi, J., Song, Y. & Chen, X. Paleolithic human exploitation of plant foods during the last glacial maximum in North China. Proc Natl Acad Sci USA 110, 5380β5385, doi: 10.1073/pnas.1217864110 (2013).
Rosen, A. M. In Inhabiting ΓatalhΓΆyΓΌk, Reports from the 1995β99 Seasons (ed I. Hodder ) 203β212 (McDonald Institute for Archaeological Research Cambridge and British Institute at Ankara, 2005).
Adovasio, J. M. Prehistoric basketry . Handbook of North American Indians 11, 194β205 (1986).
Bichard, M. Mediterranean-An introduction to basketry in the Mediterranean. Proceedings of the IVth International Congress of Ethnobotany, 658β663 (2006).
Novellin, D. & Ertug, Z. F. Southeast Asia-An introduction to basketry in Island Southeast Asia. Proceedings of the IVth International Congress of Ethnobotany: At the Junction of the Continents and the Disciplines, Yeditepe University. Istanbul: Ege Yayinlari. 621-642 (2005 Auguest).
Barber, E. J. W. Prehistoric textiles: the development of cloth in the Neolithic and Bronze Ages, with special reference to the Aegean. (Princeton University Press, 1991).
Wendrich, W. The world according to basketry: an ethno-archaeological interpretation of basketry production in Egypt. (Leiden: Research School of Asian, African and Amerindian Studies, 1999).
Olga Soffer. Recovering Perishable Technologies through Use Wear on Tools: Preliminary Evidence for Upper Paleolithic Weaving and Net Making. Curr Anthropol 45, 407β413, doi: 10.1086/420907 (2004).
Sangster, A. G., Hodson, M. J. & PARRY, D. W. Silicon deposition and anatomical studies in the inflorescence bracts of four Phalaris species with their possible relevance to carcinogenesis. New Phytol. 93, 105β122 (1983).
Wynn, P. D. & Smithson, F. Opaline silka in the inflorescences of some British grasses and cereals. Ann Bot 30, 525β538 (1966).
Piperno, D. R. Phytolith: A Comprehensive Guide for Archaeologists and Paleoecologists. (AltaMira Press, 2006).
Chen, S., Jin, Y. & Wu, Z. Micromorphological atlas of leaf epidemis in Gramineae. (Jiangsu Science and Techology Press, 1993).
Lu, H. Y. et al. Phytoliths analysis for the discrimination of Foxtail millet (Setaria italica) and Common millet (Panicum miliaceum). PLoS ONE 4, e4448, doi: 10.1371/journal.pone.0004448 (2009).
Zhang, J. P., Lu, H. Y., Wu, N. Q., Yang, X. Y. & Diao, X. M. Phytolith Analysis for Differentiating between Foxtail Millet (Setaria italica) and Green Foxtail (Setaria viridis). PLoS ONE 6, e19726, doi: 10.1371/journal.pone.0019726 (2011).
Berlin, A. M., Ball, T., Thompson, R. & Herbert, S. C. Ptolemaic Agriculture, βSyrian Wheatβ and Triticum aestivum. J Archaeol Sci 30, 115β121 (2003).
Ball, T. B., Gardner, J. S. & Anderson, N. Identifying inflorescence phytoliths from selected species of wheat (Triticum monococcum, T. dicoccon, T. dicoccoides and T. aestivum) and barley (Hordeum vulgare and H. spontaneum) (Gramineae). Am J Bot 86, 1615β1623 (1999).
Rosen, A. M. & Weiner, S. Identifying Ancient Irrigation: a New Method Using Opaline Phytoliths from Emmer Wheat. J Archaeol Sci 21, 125β132 (1994).
Liu, L. & Wang, C. Origin of Ancient Chinese Mat weaving. Art & Design, 185, 100β101 (2008).
Nishida, I., M., N., M., K. & A., M. Higashimyo site, Saga City, Saga Prefecture. Kokogaku Kenkyu 53, 104β106 (2006).
Fowler, S. C., Eugene M. Hattori & Dansie, A. J. In Beyond Cloth and Cordage: Archaeological Textile Research In the Americas (eds P. Drooker & L. Webster ) 119β140 (University of Utah Press, 2000).
Adovasio, J. M., Hyland, D. & Soffer, O. Textiles and cordage: a preliminary assessment. 403β424 (Academy of Sciences of the Czech Republic, 1997).
Soffer, O. et al. Perishable industries from DolnΓ Vestonice I: new insights into the nature and origin of the Gravettian. Archaeol, Ethnol Anthropol Eurasia 2, 48β65 (2001).
Bar-Yosef, O. et al. Dzudzuana: an Upper Palaeolithic cave site in the Caucasus foothills (Georgia). Antiquity 85, 331β349 (2011).
Jenkins, D. L., Connolly, T. J. & Aikens, C. M. Early and Middle Holocene archaeology of the northern Great Basin. (Museum of Natural History and Department of Anthropology, University of Oregon, 2004).
Jolie, E. A., Lynch, T. F., Geib, P. R. & Adovasio, J. M. Cordage, Textiles and the Late Pleistocene Peopling of the Andes. Curr Anthropol 52, 285β296, doi: 10.1086/659336 (2011).
Andrews, R. L. & Adovasio, J. The origins of fiber perishables production east of the Rockies. In: A Most Indispensable Art: Native Fiber Industries from Eastern North America 1st edn, (ed Petersen, J. B. ) 30β49 (University of Tennessee Press 1996).
Drooker, P. B. & Webster, L. D. Beyond Cloth and Cordage: Archaeological Textile Research in the Americas. (University of Utah Press, 2000).
Wang, P. et al. Evolution and variability of the Asian monsoon system: state of the art and outstanding issues. Quat Sci Rev 24, 595β629 (2005).
Fuller, D. Q. et al. The Domestication Process and Domestication Rate in Rice: Spikelet Bases from the Lower Yangtze. Science 323, 1607β1610 (2009).
Wu, Y., Jiang, L., Zheng, Y., Wang, C. & Zhao, Z. Morphological trend analysis of rice phytolith during the early Neolithic in the Lower Yangtze. J Archaeol Sci 49, 326β331, doi: 10.1016/j.jas.2014.06.001 (2014).
Yang, X. et al. Early millet use in northern China. Proceedings of the National Academy of Sciences 109, 3726β3730, doi: 10.1073/pnas.1115430109 (2012).
Lu, H. Y. et al. Earliest domestication of Common millet (Panicum miliaceum) in East Asia extended to 10,000 years ago. Proc Natl Acad Sci USA 106, 7367β7372 (2009).
The institute of Archaeology (CASS) & Xiβan Banpo Museum.Xiβan Banpo-A primitive maternal commune. (Relic Press, 1963).
Li, Q., Li, B. & Li, J. A study on the spindle in Ancient China. Silk 49 (2012).
Zhao, F. & Jin, L. Textile Archaeology (Cultual Relics Press, 2007).
The Gansu Provincial Institute of Cultural Relics and Archaeology. Dadiwan in Qinβan-Report on excavation at a Neolithic site. (Cultural Relics and Publishing House, 2006).
Zhejiang Provincial Institute of Cultural Relics and Archaeology & Xiaoshan Museum. Kua Hu Qiao. (Cultural Relics Publishing House, 2004).
Nanjing Museum. In The series reports of cultural relics Vol. 3 (ed The Committee of Cultural Relics Edition) 1β25 (Cultural Relics Press, 1980).
Yang, X. et al. From the modern to the archaeological: Starch grains from millets and their wild relatives in China. J Archaeol Sci 39, 247β254 (2011).
Acknowledgements
J.Z. thanks Taikun Zhang for collecting modern plants. This research was financially supported by the National Natural Science Foundation of China (Grant No. 41472154 and 41230104), 973 Program (Grant No. 2015CB953801) and scholarship from the China Scholarship Council.
Author information
Authors and Affiliations
Contributions
J.Z. and H.L. designed the research; J.Z., H.L., G.S., N.Q., X.H., K.H. and Y.W. collected samples and performed the research; J.Z. analyzed the data and prepared all figures and tables; J.Z., H.L. and R.F. wrote the paper. All authors discussed the results and reviewed the manuscript.
Ethics declarations
Competing interests
The authors declare no competing financial interests.
Electronic supplementary material
Rights and permissions
This work is licensed under a Creative Commons Attribution 4.0 International License. The images or other third party material in this article are included in the articleβs Creative Commons license, unless indicated otherwise in the credit line; if the material is not included under the Creative Commons license, users will need to obtain permission from the license holder to reproduce the material. To view a copy of this license, visit http://creativecommons.org/licenses/by/4.0/
About this article
Cite this article
Zhang, J., Lu, H., Sun, G. et al. Phytoliths reveal the earliest fine reedy textile in China at the Tianluoshan site. Sci Rep 6, 18664 (2016). https://doi.org/10.1038/srep18664
Received:
Accepted:
Published:
DOI: https://doi.org/10.1038/srep18664
This article is cited by
-
The origins of southeast Asian weaving traditions: the perspective from archaeology
Asian Archaeology (2023)
-
Ancient Great Wall building materials reveal environmental changes associated with oases in northwestern China
Scientific Reports (2022)