
Explore Bentley hydraulics and hydrology tools for modeling, analyzing, and optimizing water distribution, wastewater, and stormwater systems with WaterGEMS, SewerGEMS, OpenFlows, and Hammer.
Explore the stand-alone user interface of WaterGEMS, focusing on the ribbon interface, quick access toolbar, file operations, and search-driven navigation for water distribution modeling and design.
WaterGEMS expands on WaterCAD with AutoCAD and ArcGIS interoperability, real-time data connections, skeletonization, and optimization tools, while enabling seamless file interchange between WaterGEMS and WaterCAD.
Lay a piping network in WaterGEMS by placing junctions such as J1, J2, and J3, adding bends, tagging components, connecting J7 with J4, and saving the file.
Use the properties manager to edit tank and pipe data in WaterGEMS, adjusting elevations, diameters, and lengths via the select tool, then save changes.
Create a child fire flow scenario, set it as current, and compute results to reveal a -21 psi pressure drop at junction G6 from a 1000 gpm demand.
Create a child scenario with diameter and set fire flow to 1000 rpms; validate, compute, and review pressures (G6 21 psi, J8 20 psi) to compare base and alternate solutions.
Learn to create a new hydraulic model with model builder, import esri shapefiles, map junctions and pipes, configure elevations, diameters, materials, and start and stop nodes, and save the project.
Execute element morphing in a WaterGEMS layout to place a pump, a tank on J12, and three PRVs, using batch morphing and relabeling for downstream labels P6, P16, and P8.
Learn to input and configure pressure reducing valves, pumps, and tanks in WaterGEMS, including elevations, diameters, initial and pressure settings, pump definitions, head, flow, and efficiencies.
Analyze max day pressures in WaterGEMS by creating a max day demand scenario at 1.5 times the average daily flow, review junction pressures, and prepare for flow calculations.
Configure a no-tank scenario with constant speed pumps in node topology, set up controls, compute results, and plot junction pressures J1, J3, and J9.
Review the final session by computing four scenarios with model builder, T-Rex, and load builder, capturing flow supplied, demanded, stored, and pressures at nodes and pipes.
OpenFlows WaterGEMS provides you with a comprehensive yet easy-to-use decision-support tool for water distribution networks. The software helps improve your knowledge of how infrastructure behaves as a system, how it reacts to operational strategies, and how it should grow as population and demands increase. From fire flow and water quality simulations, to criticality and energy cost analysis, OpenFlows WaterGEMS has everything you need in a flexible multiplatform environment. OpenFlows WaterGEMS is a superset of OpenFlows WaterCAD. #AulaGEO
In this course you will learn the use of a software specialized in this features:
Intelligent Planning
Efficiently identify potential problems, accommodate service area growth, and plan/prioritize capital improvement projects by using criticality analysis, DMA planning, and pressure management tools to identify potential projects.
Optimized Operations
Use real-time data to analyze energy use and costs, maximize operational efficiencies, minimize disruptions, and intelligently respond to emergencies.
Build and Update Models Faster
Intuitive to use so you can easily jumpstart your modeling process with geospatial data, CAD drawings, databases, and spreadsheets. Apply automated calibration, leak detection, design, rehabilitation, and pump operations.
Identify Water Loss
Use field data to quantify nonrevenue water and help pinpoint loss locations faster.
Assess Fire Flow Capacity
Use automated workflows to access and identify inadequacies in fire protection.
COURSE CONTENT #AulaGEO
INTRODUCTION
Lecture 1: Introduction
Lecture 2: Basic Interface
BUILDING A NETWORK
Lecture 3: Prepare Network Layout
Lecture 4: Lay Network
Lecture 5: Use of Properties Manager
Lecture 6: Use of Flex Tables
Lecture 7: Use of Demand Control Center
Lecture 8: Compute and Review Results
Lecture 9: Creating Fire Flow Demand Alternatives
Lecture 10: Reviewing Results for Fire Flow Scenario
Lecture 11: Creating New Physical Alternative
Lecture 12: Reviewing Results for Fire Flow with new Diameter Scenario
IMPORTING DATA MODEL & ADDING PUMPS, TANKS, AND PRESSURE REDUCING VALVES
Lecture 13: Using Model Builder
Lecture 14: Data Validation and Cleaning
Lecture 15: Adding Junction Demands
Lecture 16: Review Results and Shortcomings
Lecture 17: Element Morphing
Lecture 18: PRVs Pump and TankData Input
Lecture 19: Compute Daily Demand
Lecture 20: Additional Demand At J5
Lecture 21: Review Results
STEADY STATE CALIBRATION OF FIELD MEASUREMENTS
Lecture 22: Exercise
SYSTEM DESIGN IMPROVEMENTS
Lecture 23: Exercise
AUTOMATED FIRE FLOW ANALYSIS
Lecture 24: Max Day Pressures Analysis
Lecture 25: Fire Flow Calculation
Lecture 26: Auxilary Fire Flow Calculation
Valves and Critical Segments Analysis
Lecture 27: Exercise
EPS Modeling and Energy Costing Analysis
Lecture 28: Setting up Pumps
Lecture 29: Scenario 1 : Tank Control
Lecture 30: Scenario 2 : Constant Speed Pumps with No Tank
Lecture 31: Scenario 3 : Variable Speed Pumps with No Tank
Lecture 32: Energy Costs
Model Builder, Trex and Load Builder
Lecture 33: Setting up Model Builder
Lecture 34: Building the Model
Lecture 35: Reviewing the Model
Lecture 36: Trex
Lecture 37: Load Builder
Lecture 38: Associating Demands
Lecture 39: Thiessen Polygons
Lecture 40: Review
Aditionally, our courses include new lessons according the students ask it. By now, was included:
A lesson about interoperability export - importo,
A lesson about the user interface in AutoCAD, Microstation and the stand alone,
A lesson about the different tools of OpenFlows