Unequaled
Analysis and Simulation
H2OMAP Water offers all the capabilities
your organization demands from a state-of-the-art
hydraulic network solver. Command real-time simulations,
optimize hydraulic performance, analyze water quality
conditions, determine fire fighting capabilities,
perform online calibration, evaluate energy cost
savings, and design sound unidirectional flushing
programs, with astounding speed and accuracy. H2OMAP
Water's unsurpassed rule-based logical control technology
lets you precisely simulate the hydraulic behavior
of your water system and automatically control the
status of its elements based on time of day, tank
water levels, node pressures, pipe flow rates or
any combination of factors.
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Features
of H2OMAP Water's User Friendly
Interface
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Real-Time Data Connection
Managing data in modeling projects can generally
be a cumbersome task. Adding comparison data to
your project adds further complexity, and requires
you to keep track of data files and import them
into your output graphs each time you need them.
With H2OMAP Water's new Real-Time Data
Connection, you can easily allocate recorded time-series
data to junctions, tanks or pipes.
When using the Graph Manager, you can then call
up pressure, head or flow data against a single
element (if it is available), and view a specific
period of data against your simulation results.
This feature is most useful when calibrating an
EPS model, and will enhance your overall use of
H2OMAP Water's dynamic modeling capabilities.
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Evaluate
System Performance with Historical Data
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Hydraulic Modeling Capabilities
H2OMAP Water provides unparalleled network
analysis and simulation capabilities for performing
a wide range of essential modeling tasks. It utilizes
a full-featured, state-of-the-art hydraulic computational
engine that includes the following capabilities:
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places no limit
on the size of the network and number
of components that can be analyzed (unlimited
link version) |
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supports
both English and metric (Standard International)
units |
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analyzes steady-state
and extended period simulations |
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computes friction
headloss using the Hazen-Williams, Darcy-Weisbach,
or Chezy-Manning formulas |
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includes minor
(local) head losses for bends, meters,
fittings, etc. |
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models constant
or variable speed pumps |
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models a fixed pressure pump (FPP)
that automatically adjusts its speed
to maintain a user specified target
pressure (or head) anywhere in the system |
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models turbines
and totalizing flow meters |
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calculates Net
Positive Suction Head requirements (available
NPSH, required NPSH, and cavitation
index) to ensure cavitation free operation |
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determines system
head curves and fire hydrant rating
curves |
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calculates available
and design fire flows at minimum residual
pressures |
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computes pumping
energy and cost based on variable electricity
and demand charges |
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accommodates various
types of static and dynamic control
valves including shutoff, check, float,
pressure reducing, pressure sustaining,
dual pressure regulating (maintain downstream
and upstream pressures), pressure breaker,
vacuum breaker, motorized throttled,
general purpose, flow control, and reduced
pressure backflow prevention valves |
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allows single
and multiple inlet/outlet storage tanks
to have any shape (i.e., diameter can
vary with height) |
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models constant
and variable head reservoirs |
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considers multiple
demand categories at nodes, each with
its own pattern of time variation |
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models pressure-dependent
demand issuing from emitters (sprinkler
heads) |
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automatically
carries out pressure-demand analysis
to compute the percentage (%) of demand
supplied to each node (ratio of actual
demand vs specified demand) |
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tracks flow reversals
for pipe flushing |
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determines pipe sequences for unidirectional
flushing |
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simulates leakage
in a pipe |
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specifies system
operation based on both simple node
pressure, tank level, link flow, or
timer controls and on complex rule-based
controls |
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provides on-line
SCADA interface with alarms |
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Water
Quality Modeling Capabilities
H2OMAP
Water provides fast, comprehensive and accurate
dynamic water quality computations. It:
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tracks the movement
of a non-reactive tracer material (e.g.,
fluoride) through the network over time |
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models the movement
and fate of a reactive material as it
grows (e.g., a disinfection by-product)
or decays (e.g., chlorine residual)
with time |
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calculates the
age of water throughout a network |
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computes the percent
of flow from a given node reaching all
other nodes over time |
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analyzes kinetic
reactions both in the bulk flow and
at the pipe wall |
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incorporates nth
order kinetics to model reactions in
the bulk flow |
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uses zero or first
order kinetics to model reactions at
the pipe wall |
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accounts for mass
transfer limitations when modeling pipe
wall reactions |
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allows growth
or decay reactions to proceed up to
a limiting concentration |
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employs global
reaction rate coefficients that can
be modified on a pipe-by-pipe basis |
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permits wall reaction
rate coefficients to be correlated to
pipe roughness |
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allows for time-varying
concentration or mass inputs at any
location in the network |
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models storage
tanks as being either complete mix,
plug flow, or two-compartment reactors
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H2OMAP Water gives
you the power to streamline and automate your water
distribution management activities with a complete
range of advanced, easy-to-use network modeling
functions all within a true GIS environment.
Multi-Level
Inheritance Scenario Manager With Active Topology
Alternative
H2OMAP Water’s comprehensive tree-type
scenario manager gives you the power to make capital
improvement decisions with pinpoint accuracy. Its
unique facility manager with advanced Active Topology
Alternative lets you maintain a single model of
your water system while quickly developing and evaluating
an array of modeling alternatives. Every change
you make cascades through the entire set of projects
in an easy-to-use, tree-like structure, allowing
you to switch between scenarios, merge models, and
compare results instantly giving you a clear illustration
of how your system will react to different conditions
and planning horizons.
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Optimize
System Rehabilitation, Design and Expansion
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Compare
Scenarios
Do you wish to track what differences there are
between scenarios? Do you ever wonder if you have
correctly transferred information from one scenario
to the other? H2OMAP's new Scenario Comparison
feature allows you to compare any two scenarios
for potential differences. When comparing the scenarios,
three sets of results are presented:
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Data
that is present in the first scenario,
but not in the second |
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Data
that is present in the second scenario,
but not in the first |
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Common
data elements with different data values
(ie. a pipe diameter that is different
between the two scenarios) |
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The results of the comparison
are presented in a new data viewer that displays
the results for easy reference. However, if there
are differences that are unwanted, you can use the
Selection Set facility to save the locations to
review them at a later time. This will provide assurance
to users that information between scenarios differs
as intended, and that there are no unexpected anomalies
within any model's scenarios.
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Produce
Scenario Input Data Comparison Report
Instantly
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Open
Data Architecture
A unique open-architecture framework makes it easy
to manage and distribute geospatial data as well
as exchange important modeling information with
other applications and enterprise systems. Because
it accesses and stores GIS data directly in native
format, H2OMAP instantly becomes an integral
part of your enterprise-wide GIS, compatible with
any GIS application. You can now develop informed
GIS solutions to help you meet and exceed drinking
water quality standards, optimize system performance
and capital improvements, enhance operations, and
achieve customer satisfaction in a timely manner
at minimum cost.
Seamless
GIS Integration :
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ArcView
GIS
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H2OMAP
Water GIS
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Rich,
Spectacular Presentation
Using powerful GIS thematic mapping functionality,
H2OMAP makes it easy to turn dry database
information into stunningly colorful, fully dimensional
visualizations. You can generate beautiful, accurate,
and smooth contours for any variable, including
elevation, pressure, hydraulic grade line, demand,
water age, chlorine concentration, and more, directly
on the map—even overlay multiple contours on
a single drawing. Draw on a range of other sophisticated
graphical presentation tools, including color-coded
mapping, dynamic annotation/labeling, graphing,
profiling, customizable tabular reporting, and vivid
VCR-style animation to produce truly compelling
results.
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Contours
for Elevation, Pressure and other Model
Attributes
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Use
Sophisticated Mapping Facilities to
Enhance Results Interpretation
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Command
Spectacular GIS Mapping Capabilities
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Minimun System Requirements
- Intel or AMD 1 GHz or equivalent CPU, 512 MB RAM. |
