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Design of Agricultural Ploughing Tool
International Journal of Current Engineering and Technology E-ISSN 2277 – 4106, P-ISSN 2347 – 5161 ©2016 INPRESSCO®, All Rights Reserved Available at http://inpressco.com/category/ijcet Research Article Design of Agricultural Ploughing Tool Tejas P Phadnis*, Apoorv N Mulay, Anand S Bhujbal and Gautam J Narwade Department of Mechanical Engineering, Student at MITCOE, Savitribai Phule Pune University, Pune, India Accepted 02 March 2016, Available online 15 March 2016, Special Issue-4 (March 2016) Abstract In last few decades we all witnessed the development in each and every field. In the field of agricultural also we had seen remarkable development, big farmers are now a day’s using cultivator, harvester, tractor, advance machine tools and advance farm equipment’s, but in the country like India, 70% of farmers are small and marginal and they are still doing farming by traditional method. Thus they are in need of improved agricultural tools that may be hand driven or bullock driven. In this paper similar advanced type of tool is designed. Modelling and analysis of Agricultural Plough is done. The input conditions are taken based on a survey leading to understanding of the zero ground conditions. Materials and manufacturing processes are selected for manufacturing the same. Keywords: Survey, Design, Analysis 1. Introduction are still using traditional tools such as Plough, Harrow, Liner, Cultivator, Seed Sowing tools. The farmers who 1 India is agricultural country so, India’s economy is are having land of 1 to 2 acres cannot afford a cost of mainly depends upon agriculture and agriculture based cultivation, harrowing, Lining, seed sowing by the use product. -
Agriculture Paper 1
Agriculture second term Paper 1 1. Agriculture is the growing of crops and keeping of ....... A plastic papers B animals C keeping of bees D books 2. Agriculture is also called.......... A driver B farming C commercial farmer D peasant farmer 3. Crops are grown in the garden and in the ........... A bush B forest C field D axe 4. What do we get from agriculture? A promotion of laziness B promotion of soil erosion C food D support 5. .............is used for weeding. A Mattock B Pick C Secateurs D Hoe 6. What is the name of the tool used to dig hard surfaces? A mattock B pick C sickle D axe 7. ..........is a tool used for pruning by farmers. A mattock B machete C sickle D pick 8. Farmers use a ......... for pest and disease control. A syringe B water C sickle D axe 9. It is a____ tool. A. cutting tool B. moving C. watering D. digging. 10. What is the common farming practice used in rural areas? A subsistence farming B commercial faming C vegetable faming D axe 11 The tool is a_______. A. garden fork B. rake C. plough D. mattock 12. The following are soil components except....... A air B water C. Organic matter D metal 13. This is sand soil. One of its characteristic is that it is A gritty B very fertile C smooth D concrete-like 14. Organic matter is a soil component which comes from ...... A rubber B soil C dead organic matter D rocks 15. Mineral matter is a soil component which comes from finely broken A air B soil C organic matter D rocks 16. -
Poly Disc Harrow / Plough
RAJSHI STEERING PVT LTD World Class Agricultural Implements….. MOULD BOARD PLOUGH ADVANTAGE * This PLOUGH can handle the toughest ploughing job with outstanding penetration performance. * It is designed to work in all type of soil for basic function such as soil breaking, soil raising and soil turning. * It can be used in stony & rooted soils. FEATURES * The under frame and unit-to-unit clearance are adequate to cope with tough conditions. * Adding an extra furrow or repositioning units to allow for extra clearance is quick and easy. * The plough has special wear-resistance steel bottoms with bar points for toughest ploughing jobs. * Bar points bottoms ensure longer life as they can be extended or reserved or re-used till the last possible lenght. TECHNICAL SPECIFICATIONS DESCRIPTION 2 FURROW 3 FURROW FRAME 65 X 65 BOX 65 X 65 BOX 32 MM profile cut single TYNE(MM) 32 MM profile cut single piece piece LENGTH 1310 MM 2000 MM WIDTH 740 MM 1100 MM HEIGHT 1050 MM 1100 MM BLADE 10 MM 10 MM SHOVEL 40 X25 MM BAR/32 MM 40 X25 MM BAR/32 MM MOULD BOARD PLATE 8 MM 8 MM 3 POINT LINKAGE 65 x 16 mm Flat 65 x 16 mm Flat WIDTH OF CUT (MAXIMUM) 615 MM 915 MM DEPTH OF CUT (MAXIMUM) 350 mm 350 mm TRACTOR POWER REQUIRED (HP) 40 HP & Above 55 HP & Above APPROX WEIGHT 240 Kg. 355 Kg. 1 RAJSHI STEERING PVT LTD World Class Agricultural Implements….. OFFSET DISC HARROW ADVANTAGE * Can be used in open field working for the superficial ploughing , for the shattering of clods, preparation of soil for sowing, burial of organic substances & remains. -
Neolithic Society in Northern Greece: the Evidence of Ground Stone Artefacts
Neolithic society in Northern Greece: the evidence of ground stone artefacts Volume I Christina Tsoraki Thesis submitted for the degree of Doctor of Philosophy Department of Archaeology, University of Sheffield October 2008 to (j3en ABSTRACT Analysis of ground stone technology from the Neolithic of Greece rarely goes beyond incomplete descriptive accounts to focus on the activities performed with these tools and the contexts of their use. Ground stone products are seen as mundane static objects devoid of meaning and lacking significance. The aim of this thesis is to move away from incomplete accounts of ground stone technology and static typologies. Drawing upon the concepts of the chaine operatoire and 'object biographies' this thesis investigates ground stone technology as a social practice focusing on the life-cycle of artefacts from raw material selection to final deposition. The underlying premise is that a contextual approach can contribute to understanding the ways in which the production, consumption and discard of ground stone artefacts were structured within different forms and scales of social practice and the manner in which these differences articulated different meanings and social understandings. The aims of the thesis were materialised through the study of the rich ground stone assemblage from the LN settlement of Makriyalos, Greece. The analysis of the chaine operatoire of the Makriyalos ground stone assemblage revealed diverse technological choices expressed throughout the cycle of production and use. Established traditions existed according to which specific materials were considered to be appropriate for the production of different objects. Furthermore, detailed analysis suggests that the resulting objects were far from mundane artefacts but were instead active media for expressing choices informed by cultural understandings of appropriateness. -
Design and Fabrication of Portable Granular Fertilizer Spreader
Aut Aut Research Journal ISSN NO: 0005-0601 DESIGN AND FABRICATION OF PORTABLE GRANULAR FERTILIZER SPREADER K.Navanitha Krishnan1, K.Velmurugan2, S.Arul Pradeep3, G.Gouber Raja4, M.thoufique Ahamed5 1,3Assistant Professor, Department of Mechanical Engineering, Sri Manakula Vinayagar Engineering College, Puducherry, India 2Professor, Department of Mechanical Engineering, Sri Manakula Vinayagar Engineering College, Puducherry, India 4,5Student, Department of Mechanical Engineering, Sri Manakula Vinayagar Engineering College, Puducherry, India [email protected], [email protected], [email protected], [email protected], [email protected] Abstract: which fertilization is one of the best important stages, & In current scenario, agriculture field is having its which is not exploded up to the mark up till. downtrend due to non-availability of skilled labours. By Now a days we are used to spreading of fertilizer in the latest technology, all the equipment’s and machineries traditional way which is the more time consuming, costly are mechanised. Fertilizers are commonly used for as well as not provide comfort to the farmer. So, we are growing crops. Fertilizers spreader for large scale going to design a manually operated machine for fertilizer farming is effectively utilized but expensive. Conventional method of spreading of fertilizers for small scale farming spreading by taking into consideration the user group & is done by manually. It has problems like uneven their needs which helps to them to work easy & spreading of fertilizers, consuming more time and high functional. So, using fertilizer spreading machine equal human effort. Due to physical handling of the highly amount of fertilizer spread, Good fertility, less waste, save chemical composed fertilizers, that raises a hazardous time & reduce effort of farmer. -
Domestic Architecture Changes • Neolithic Revolution • Urban Revolution
Wednesday February 8/12 Prehistoric Aegean and Eastern Mediterranean Art and Archaeology C. Knappett Domestic Architecture Changes • Neolithic Revolution • Urban revolution Origins and Spread of Farming • Farming circa 11,000 years ago in Near East • 10,000 years ago in Anatolia • Catal Hoyuk, early Neolithic agricultural site • Asikli Hoyuk • Mersin • Spreading to Greece circa 9,000 years ago • Europe 5,700 years ago • Spread of farmers or farming? • Intermarriage between incoming farmers and indigenous hunter-gatherers? Mesolithic to Neolithic • Franchthi Cave • Continuous occupation • From Upper Paleolithic (20,000 years ago) through Mesolithic to Neolithic • Transition from hunter gatherers to farmers • Emphasis from deer to tuna to sheep/goats and what and barley/lentils • Domestication and agriculture • Appearance of pottery for display purposes • Obsidian from Melos • Nearby volcanic island 50km away • No occupation on Melos at this time, so not evidence of a trade • Elsewhere it is difficult to see transition • Often shift to different area therefore transitional phases not seen • Probably an influx of farming from Anatolia, new populations • One might assume an overland diffusion from Anatolia • Thessaly colonized through island-hopping (though islands not occupied) Neolithic Communities • Not self-sufficient • Widespread exchange in stone tools and raw materials and exotic goods (shell ornaments, copper) • Why exchange? • To balance different resources • Or to ensure flow of marriage partners? • Exogamy crucial in small hamlets -
CHAPTER1 INTRODUCTION When During the Early Years of This
CHAPTER1 INTRODUCTION When during the early years of this century Chr. Weinberg (1942. p. 121; 1947, pp. 165-182), Tsountas excavated the first Neolithic settlements in discussing the subject with the ceramic material Thessaly and in Greece, he reached the conclusion from Corinth as his main evidence, drew a parallel that three periods could be discerned in this area: A, between Thessaly II and the Late Neolithic, between B and C, respectively Early and Late Neolithic and Thessaly I and the Middle Neolithic and between the (Early) Bronze Age. He noted many arguments in beginning of Thessaly I (and an earlier phase) and favour of a subdivision of period A into two sec- Early Neolithic. Milojcic on the other hand, mainly tions. but he also observed some factors which in the using the Thessalian material, proposed a division end prevented him from making the division and he intofive periods (1950/51, pp. 1-90). The first was a left the problem to future investigators. socalled "Vor-Sesklo" (not to be confused with the The research was continued by two English present Vor-Sesklo) or Early Neolithic, the follo- scholars, A.J.B. Wace and M.S. Thompson during wing two belonged to the Middle Neolithic, the the 1910's. They did not restrict their activities fourth to the Late Neolithic and the fifth - Rachmani merely to excavating settlements, but made a more - belonged to the Chalcolithic. Schachermeyr invaluable contribution to our knowledge with an (1955) agreed with Weinberg's crude division into exhaustive typology of the ceramic material. They Early, Middle and Late. -
Origin and Development of the Indus Script: Insights from Harappa and Other Sites, In: Lashari, K
Kenoyer, J.M., 2020. The Origin and Development of the Indus Script: Insights from Harappa and other Sites, in: Lashari, K. (Ed.), Studies on Indus Script, National Fund for Mohenjodaro, Karachi, pp. 217-236. Origin and Development of the Indus Script: Insights from Harappa and other sites Jonathan Mark Kenoyer Origin and Development of the Indus Script: Insights from Harappa and other sites Introduction The origin of the Indus script has been a source of considerable discussion ever since the discovery and excavation of the Indus cities of Mohenjo-daro and Harappa in the 1920s to 1930s (Marshall 1931; Vats 1940). When the Indus civilization was discovered the only other early civilizations known to have writing in the Old World were the ancient Sumerians along the Tigris and Euphrates Rivers in southern Mesopotamia (Nissen 1993), the ancient Egyptians along the Nile (Baines 2004) and the ancient Chinese along the Huang He (Yellow) River in north central China (Haicheng 2015). The oracle bone inscriptions at the site of Yinxu in Anyang were being discovered around the same time that Mohenjo-Daro and Harappa were being excavated (Bagley 1999, 127). Although at first some scholars thought that there might be some influence from Mesopotamian writing systems, in the first major report on the excavations at Mohenjo Daro in 1931, Gadd clearly states that there was no connection between the Indus script and the writing of Sumer or for that matter Egypt (Gadd 1931, 411). Surveys and test excavations in Baluchistan (Stein 1929; Hargreaves and Sewell 1929 (reprint 1981); Stein 1931) and Sindh (Majumdar 1934; Stein 1942) had recovered pottery that appeared to be older than that found at Mohenjo Daro, but little attention was paid to the presence of potter’s marks or graffiti on these different types of pottery. -
Mehrgarh Neolithic
Paper presented in the International Seminar on the "First Farmers in Global Perspective', Lucknow, India, 18-20 January, 2006 Mehrgarh Neolithic Jean-Fran¸ois Jarrige From 1975 to 1985, the French Archaeological had already provided a summary of the main results Mission, in collaboration with the Department of brought by the excavations conducted from 1977 Archaeology of Pakistan, has conducted excavations to 1985 in the Neolithic sector of Mehrgarh. in a wide archaeological area near to the modern From 1985 to 1996, the excavations at Mehrgarh village of Mehrgarh in Balochistan at the foot of the were stopped and the French Mission undertook the Bolan Pass, one of the major communication routes excavation of a mound close to the village of between the Iranian Plateau, Central Asia and the Nausharo, 6 miles South of Mehrgarh. This excavation Indus Valley. showed clearly that the mound of Nausharo had Mehrgarh is located in the Bolan Basin, in the north- been occupied from 3000 to 2000 BC. After a western part of the Kachi-Bolan plain, a great alluvial Period I contemporary with Mehrgarh VI and VII, expanse that merges with the Indus Valley (Fig. 1). Periods II and III (c. 2500 to 2000 BC) at Nausharo The site itself is a vast area of about 300 hectares belong to the Indus (or Harappan) civilisation. covered with archaeological remains left by a Therefore the excavations at Nausharo allowed us to continuous sequence of occupations from the 8th to link in the Kachi-Bolan region, the Indus civilisation the 3rd millennium BC. to a continuous sequence of occupations starting from the aceramic Neolithic period. -
From PPN to Late Neolithic (Part II Is Refering to Copper Age) We Start
Acta Terrae Septemcastrensis, XVIII, 2019 DOI: 10.2478/actatr-2019-0002 Are there cities and fairs in the neolithic? Part I – from PPN to late Neolithic (Part II is refering to Copper Age ) Gheorghe Lazarovici Cornelia-Magda Lazarovici Keywords: fortifications, defensive ditches, palisades, fairs, proto-urban, bastions, temples, sanctuaries, conclaves Abstract: In this study we have resumed the problem of Neolithic settlements with a complex architecture (defense systems with ditches, palisades, towers, bastions; residential buildings; cult constructions; social constructions) which support the idea of a proto-urban organization since the PPN. We have analyzed current definitions of cities and fairs, which mainly reflect situations from classical antiquity and the Middle Ages, but they cannot be applied to prehistoric realities, which, according to interdisciplinary research, offer another perspective. We also believe that religion too has played an important part in these sites, some of them being real centers of worship. We start our study with some definitions from Dexonline. CITY, cities, 1. A complex form of human settlement, with multiple municipal facilities, usually with administrative, industrial, commercial, political and cultural functions. An important human settlement with a large population, with businesses and institutions, which is an industrial, commercial, cultural, political and administrative center. City (Hung. város, Bg. Serb. varoš, city; Turk. varoš, suburb, alb. varróš, ngr. varósi). The association of a large number of houses and courtyards lined up along the streets. Fair, 1. once city: villages and fairs. From the above definitions, an important function has been forgotten, the religious function. We consider it important, because in Prehistory, and especially in the Pre-Pottery Neolithic (PPN), just as the first “cities” appeared, there were monumental temples and sanctuaries (Schmidt 1995; 2000; Hauptmann, Schmidt 2000; Schmidt K. -
Megalithic Pochampad: the Skeletal Biology and Archaeological Context Ofan Iron Age Site in Andhra Pradesh) India
Megalithic Pochampad: The Skeletal Biology and Archaeological Context ofan Iron Age Site in Andhra Pradesh) India KENNETH A. R. KENNEDY IRON TECHNOLOGY EMERGED IN SOUTH ASIA from regional Copper Age (Chalcolithic) and Bronze Age (Harappan) traditions by 1000 B.C., replacing the dominance of these earlier metallurgical industries at different times prior to the dawn of the Early Historic period (Nagaraja Rao 1971, 1981). Marking the final "Age" of Indian prehistory, iron is uncovered in the archaeological assemblages of the Gandharan Grave Culture of northern Pakistan (1000-300 B.C.), at Pirak and other sites on the Kachi Plain of Pakistan's Indus Valley (by 900 B.C.), with the Painted Grey Ware cultural tradition extending from Baluchistan in western Pakistan to Uttar Pradesh in northern India (900-300 B.C.), and with the "mega lithic complex" that spread from the Himalaya foothills southward to penin sular India and Sri Lanka from the early second millennium B.C. in Kashmir to c. A.D. 50 in south India (Agrawal 2000; Chakrabarti 1992; Deo 1985; Kennedy 2000a:326-357, 2000c; Leshnik 1974; Possehl and Rissman 1992; Possehl and Gullapalli 1999) (Fig. 1). Megaliths are stone monuments visible on the landscape as alignments of standing stones, single stone slabs supported by several boulders to form an enclosed space (dolmens, dolmenoid cists), single or grouped upright standing stones (menhirs), arrangements of large boulders in a circle, and cairns of heaped rubble (Fig. 2). Some above-ground or shallowly buried dolmenoid cists had "port holes" or passages allowing for access of grave goods, food, or additional skeletal remains into the burial chamber. -
Directory of Agricultural Machinery and Manufacturers
Directory of Crop Production Machinery Manufacturers in India Dr. C. R. Mehta Dr. B Gaikwad Dr. R. K. Pajnoo Dr. R. K. Tiwari Er. Y.S. Bhokardankar January, 2015 All India Coordinated Research Project on Farm Implements and Machinery ICAR - Central Institute of Agricultural Engineering Nabi Bagh, Berasia Road, Bhopal - 462038, India http://www.ciae.nic.in Extension Bulletin No.: CIAE/ FIM/2015/94 Year : 2015 Compilation and Editing : Dr. C. R. Mehta, Project Coordinator, AICRP on FIM Dr. B. Gaikwad, Scientist, AMD Dr. R. K. Pajnoo, Chief Technical Officer Dr. R. K. Tiwari, Chief Technical Officer Er. Y.S. Bhokardankar, Asst. Chief Technical Officer Word Processing : Sh. A. S. Barod Mrs. M. Lohani Reprography : R.S. Kushwah Published by : Coordinating Cell AICRP on Farm Implements and Machinery Central Institute of Agricultural Engineering Nabibagh, Berasia Road, Bhopal- 462 .38 (India) Telefax : 0755 - 2733385, 2521163 E-mail: [email protected] Printed at : Neo Printers 17, Sector-B, Industrial Area, Govindpura, Bhopal Ph.: 0755-4235558 Contributors (Principal Investigators / Research Engineers) of Centres of AICRP on FIM S. No. Name Affiliation Head & Principal Investigator (FIM Project) Agricultural Machinery Research Centre 1 Dr. B Shridar College of Agricultural Engineering Tamil Nadu Agricultural University, Coimbatore – 641003 (Tamil Nadu) Principal Investigator (FIM Project) Dr. AS College of Agricultural Engineering 2 Er. T B Bastewad Mahatma Phule Krishi Vidyapeeth Rahuri – 413722 Distt. Ahmednagar (Maharashtra) Head & Principal Investigator (FIM Project) 3 Dr. G S Manes Department of Farm Machinery & Power Engineering, Punjab Agricultural University Ludhiana – 141004 (Punjab) Head & Principal Investigator (FIM Project) Agricultural Research Institute 4 Dr.