By Fekri A. Hassan
| FIELDS |
NOTES |
| FORM ID |
The serial number of the form |
| CASE-STUDY ID |
ID code for each case-study (E.g., TIM 1, for a site studied in Algeria) |
| PARTNER |
Partner filling the form (e.g.. USTO, Algeria)
| No. |
Name |
Short name |
Country |
| 1 |
European Jewellery Technology Network |
EJTN GEIE |
BELGIUM |
| 2 |
IPOGEA |
IPOGEA |
ITALY |
| 3 |
Société Sud Timmi Sarl |
SUD TIMMI |
ALGERIA |
| 4 |
Université des Sciences et de la Technologie d’Oran |
USTO |
ALGERIA |
| 5 |
Université Moulay Ismaïl |
UMI |
MOROCCO |
| 6 |
Petra National Trust |
PNT |
JORDAN |
| 7 |
Via Maris Inc. |
VIA MARIS |
PALESTINE |
| 8 |
National Center for Documentation of Cultural and Natural Heritage |
CULTNAT |
EGYPT |
| 9 |
National Agricultural Research Foundation |
NAGREF |
GREECE |
| 10 |
Sidata Information & Communication Systems Ltd. |
SIDATA |
PALESTINE |
|
| AUTHOR |
This refers to the person who filled the form (e.g., Abdelkrim BENAMMAR) |
| DATE |
This refers to the date of filling the form. Please enter date as
Day-Month-Year (00-00-0000) |
| SITE |
This refers to the specific site, e.g., |
| COUNTRY |
Choose from menu:
| COUNTRY |
ID |
| ALGERIA |
ALG |
| EGYPT |
EGY |
| GREECE |
GRE |
| JORDAN |
JOR |
| ITALY |
ITA |
| MOROCCO |
MOR |
| PALESTINE |
PAL |
| SYRIA |
SYR |
If country is not included please provide name and acronym. |
| REGION |
Please provide name of region within a country that can be found on a map of 1:1000,000 or 1:500,000 scale. |
| PROVINCE |
Please provide name of province within a region that can be found on a map of 1:100,000 scale. |
| COORDINATES |
Please provide UTM coordinate in degrees, minutes and seconds. |
| ELEVATION |
Please provide elevation in meters above sea level (m asl) |
| WATER MANAGEMENT |
This refers to the type of water management involved (see Sustainability):
- Water Harvesting
- Water Transportation
- Water Storage
- Water Lifting
- Water Distribution
- Water Treatment
- Water Drainage
- Sewerage
- Water Use
- Rehabilitation and Development
|
| WATER HARVESTING SYSTEM |
This refers to one of the following water harvesting systems (see Classification of Water Harvesting Systems):
- Introduction
- Basic Vocabulary
- Roof-top and courtyard water harvesting system
- Surface runoff water harvesting system
Check and divergence techniques
Storage techniques
- Wadi floodwater harvesting system
- River floodwater harvesting system
- Groundwater harvesting system
- Humidity harvesting system
- Snow water harvesting
|
| TECHNIQUE |
This refer to one of the techniques of the different water harvesting systems (see Classification of Water Harvesting Systems); for example, the use of canopy, mounds, stone slabs for harvesting water from humidity (Humidity Water Harvesting System) or the use of terracing, dams, or reservoirs to harvest wadi water (Wadi Flow Water Harvesting System). |
| SOURCE OF WATER |
Indicate specific source of water; e.g.,
- Dew
- Air Moisture
- Snowmelt water
- Spring water
- Water from Artesian wells
- Water from Deep wells
- Floodwater
|
| WATER MANAGEMENT SYSTEM |
This refers to the type of water management involved (see Sustainability):
- Water Harvesting
- Water Transportation
- Water Storage
- Water Lifting
- Water Distribution
- Water Treatment
- Water Drainage
- Sewerage
- Water Use
Rehabilitation and Development |
| ECOLOGY |
The integrity and viability of water harvesting systems depends on climatic parameters, sources of water, the catchment area from which water is harvested, and the characteristics of the landscape that influence the hydrological processes and the health of the community.
- Climate. Mean, seasonal, and monthly rainfall, evaporation, temperature and other climatic parameters related to extreme events, cloud cover, inter-annual variability, and dust storms.
- Catchment: area, extent, distance from extraction area, ration of catchment area to extraction area, the impact of historical processes on the parameters that influence the recharge of groundwater and surface runoff and stream flow (e.g., degradation of vegetation cover, droughts and other climatic factors, digging deep wells, other modes of water abstraction, pollution).
- Aquifer: area, volume, bedrock, recharges rates, water quality, and potential extraction rates.
- Surface hydrology: surface runoff, surface storage, subsurface storage, infiltration, evaporation, channeled runoff, rivers, lakes, springs.
- Landscape:
- Geology, geomorphology and pedology: Relief, topography, superficial deposits, bedrock, geological structure, karst features, soils (soil processes, erosion, weathering, transportation).
- Natural vegetation and wildlife: types, spatial distribution, pattern, density, condition, resilience (succession, resilience seasonality, evapotranspiration, soil moisture, frost, soil conditions).
- Cultural landscape: farmland, pastures, urban areas, industry, recreational activities (farming, pastoralism, urbanization, industry, recreation, population growth, migration, economic conditions, belief systems, knowledge systems).
(see Sustainability) |
| SOCIOECONOMIC ASPECTS |
Socioeconomic aspects involve norms, paradigms, and schemata of thinking, communicating, and acting in the world. Culture is transmitted from one generation to the next in a number of related societies through oral, written, performative and other media of communication and socialization and enculturation. Material manifestations of social activities reinforce and substantiate cultural traditions.
In everyday life, cultural norms, ways of thinking, and world views are preserved, modified, or eliminated by individuals situated within communities. Innovations as well as traditional norms are preserved, modified or eliminated through social processes of negotiation, selection, and rejection. The survival of traditional water management systems depends ultimately on how traditional systems are perceived by the current generation of users and other stake holders. Individuals within societies have always had access to information from other individuals within the same or different cultural domain. At the moment, the interests of different stake holders are based on ideological considerations, social factors, and economic parameters. There is no simple mathematical way of judging the magnitude of influence of any of these variables. However, the weakness and strength of certain parameters may be gauged on the basis of ethnographic observations, current practices, and interviews:
- Ideological and social parameters, such as Ideology, ethics, rights and legal issues:
- Motivation, risk-taking attitudes, psychological factors, and expectations;
- Social organization;
- Governance and policies;
- Population: Size, distribution, density, growth rates, composition, emigration, labor force, dependency ratio);
- Knowledge-base and education;
- Communication: modes and efficiency;
- Consumption patterns; and
- Historical and architectural values. This refers both to tangible and intangible aspects of traditional water systems, e.g., architecture, tools, songs, stories, spatial layout, time-keeping. The values include appreciation of aesthetics of landscape, waterworks or tools, religious values and symbolic significance, as well as social institutions and traditions cemented by certain water management strategies.
- Subsistence and economics:
- This mainly refers to the balance of income to expenses. The viability of the system is based on a long-term continuity in producing enough income to meet the expenses of maintaining the system and providing enough income to meet the needs of the community, and at best surplus resources to invest in improvements of the systems and or living conditions, including education and capacity building. Capital may bee needed at times to restore the system or for overhauling the economic structure. This may have to be secured through government or international subsidies, loans, and grants. It may involve the private sector and new economic practices (e.g., eco-tourism). Economic development in a sustainable scenario must not be at the expense of the integrity and viability of the social and ecological components of the system. It should enhance rather than destroy or undermine the historical/architectural heritage of the region. Some of the factors involved here are subsistence activities, craft industries, ownership, trade and exchanges, financial institutions, capital, pricing, and patterns of economic transactions, transport, and labor force.
- Energy and technology:
- Some of the parameters involved here are:
- Type of energy: human, draft animals, fossil fuels, electricity, etc.;
- Rates of consumption and availability;
- Environmental impact;
- Water-lifting devices;
- Water-transport and storage systems;
- Water treatment, recycling and purification systems;
- Tools;
- Materials;
- Techniques and skills;
- Training; and
- Innovations and development.
(see sustainability)
|
| ARCHITECTURE (CONSRUCTION)
|
This refers to the various aspects of the architectural design and construction of
Water harvesting built structure, e.g., dams, qanats, reservoirs. Guidelines of
the data to be collected in studying the architecture of qanats is provided by
IPOGEA in the following box.
ARCHITECTURAL ANALYSIS OF QANATS
- Description
- Hydraulic architecture
- Morphologic, technical and building elements
- Typology
- Sections
- Surfacing run-off plane
- Run-off plane with a single channel
- Run-off plane with double channel
- Run-off plane with hanging channel
- Mixed run-off planes
- Use of the shafts
- Shafts for inspection
- Technical shafts
- Shafts for ventilation
- Secondary shafts
- Multifunctional shafts
- Covers
- Basins
- Basins of sedimentation
- Basins of deviation
- Basins of collection
- Techniques of building of the main tunnel
- Masonry building
- Excavation and material drawing up techniques
- Methods and tools used
- Marks of the excavation work over the inner surfaces
- Possible dates
- Following maintenance works and restoration
- Pipes
- Others
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