Create animated or simple pipe profiles for pipelines or a path through a looped system. Specify the first and last nodes and the rest is done automatically. HGL envelope and results may be displayed. Learn more
Specify a demand and it will be spread throughout the system automatically. Control whether the demand is distributed evenly or if smaller pipes are favored. Learn more
Automatically insert junction nodes at specified intervals in long pipelines.
Display image files in the background, including DXF, shape, TIF and JPG files. Learn more
The DXF Exchange feature allows you to import and export pipe data (lines and polylines) from AutoCAD to create a pipe system. The GIS Exchange feature imports and exports model data to and from shape files. Learn more
Calculate design flows, size pipes and create an updated data file. Learn more
Overview (KYPipe and Surge, KYnetic only). This tool shows the check valve position at all simulation times. it displays an animation of a check valve associated with a pump, showing positive pressure, sub-zero pressure and cavitation pressures in both the inlet and outlet side of the pump. Useful for diagnosing check valve slam and check valve chatter. Play the full simulation time from the beginning, or use a slider to freeze or go back for a portion of the simulation.
View Pump Inlet and Outlet Pressure Gauges and Flow Arrows. Pressure gauges are shown within the animation with default or user-defined pressure ranges; the gauge needle turns red during periods of cavitation. Flows in and out of the pump are represented by vector arrows which change direction and scale. The scale can be left at the default setting or changed by the user.
Immediately See Positive, Negative and Cavitation Pressures. The animation displays three different images for the water within the pump inlet and outlet pipes, depending on whether the pressure in the pipes is positive, negative but not cavitating, or below negative atmospheric pressures, indicating cavitation. Learn More
This graph displays the position of the check valve throughout the simulation period, with a position of zero representing a fully-closed check valve, and a position of 1.0 representing fully-open check valve. This graph is available within the check valve animation feature and as part of the normal node output graph by clicking on any pump with a check valve. Thus the check valve position can be plotted against other output parameters such as suction and discharge pressure as well as pump speed. (KYnetic Only). Learn more
Prior to Pipe2024, KYPipe incorporated a Total Inventory feature, which returned cost totals for the piping and devices within each model, along with an Inventory Report. The Inventory Report included summaries of Total Pipe Volume, a Fittings Summary and Fittings Cost(s).
For Pipe2024, we have added a Demand Summary to the above features. The Demand Summary calculates the total demands present in the model, but also breaks down the demands by device type (Junction Demands, Residential Meters in pipes, and Metered Connection Nodes), and by Demand Type (e.g., R (Residential), Type 1, Type 2, Type 3, etc.).
The Demand Summary also returns the current Global Demand Factor (which is normally 1.0 for average demands, > 1.0 for peak demands, and < 1.0 for slack demands).
Last, this new feature incorporates a Device Summary which returns the total numbers of different devices (pumps, valves, tanks, etc.) in the model.
Import demands to junction nodes or as residential meters within pipes using an Excel spreadsheet to match junctions/pipes within the model to addresses (Premium package only) or latitude/longitude values in the spreadsheet. Learn more
This feature allows users to calculate concentrations of disinfectant byproducts (DBPs) within a regular KYPipe Water Quality model.
First, users select the analysis type, Chemical Concentration or Water Age.
For tanks and reservoir nodes, the user inputs the initial chlorine concentration directly. For other point sources (Node Source Data), there are 4 different options to specify the chlorine levels – concentration, mass, flow-paced and set point. These values are converted into chlorine levels in mg/l.
For all three types of nodes (tanks, reservoirs, and point sources), the software accommodates alterations to the source concentration levels based on the pattern data.
For concentration-based analyses, the chlorine demand X at any point/time in the model is calculated by determining the average concentration of the chlorine residual at all sources (nodes), and then subtracting the calculated chlorine concentration at each individual node within the model.
For Water Age-based DBP calculations, the Water Age is calculated at each individual node within the model throughout the course of the simulation.
Learn more here (DBPs).
Generate, display and print contour maps for a variety of node data and results (e.g., elevation, pressure). Learn more
Demand patterns entered into this table may be saved for use in other models. Learn more
Users can create customized libraries for devices and elements. Learn more
Varies a parameter value within a specified range to see the effect on the system. The parameter is associated with a double-sided node such as a pump or valve. The user selects a parameter within the node input data, then defines an allowable range. The program will run multiple analyses simultaneously to output the variation in the remainder of system based on iterative values within the allowable range. For instance, vary the flow coefficient of a valve to see the effect on the system pressures and flows. This is a KYPipe-only feature, available within the KYnetic Interface and the KYnetic Ribbon Interface. (KYnetic Only). Learn more
Direct Parameter Calculations are calculated to exactly satisfy stated pressure requirements at designated locations in the piping system for a range of operating conditions. Learn more
KYPipe node elements include junctions, tanks, reservoirs, pumps, sprinklers, rack sprinklers, regulating valves, loss elements, and loss elements defined by manufacturer’s data from a library. Learn more
Emphasizes pipes with colors and values from the Node Contours/Emphasis Menu. Learn more
Expanded Rural Analysis modifies your model based on the demand fluctuations (peak demand requirements) encountered in a rural or branched hydraulic system. Learn more
An Extended Period Simulation simulates extended periods (e.g., 48 hours) with pump and tank controls, demand curves, and boundary changes (alterations to node or pipe parameters/status). Learn more
Enter the number of each type of fitting from the extensive dropdown list and the loss coefficient Ks will be automatically summed for any pipe.
Calculate which pipes will attain the desired flushing velocity when specified valves are off and specified hydrants are flowing. Learn more
Generates a change pattern for a selected group of nodes in which each on/off combination is included (KYnetic only). Learn more
Imports & exports model files to and from Google Earth. Learn more
Retrieve Google Maps & Google Elevations data. Learn more
Hydrant color coding can be assigned automatically.
Hydrant Flow Calculation provides the calculated flow for a set pressure, printable fire-flow graphs, and hydrant reports. Learn more
The Hydrant Monitor element allows the monitor to operate while connecting a hose to one of up to two other connections (large & small). Learn more
This feature allows users to import elevation data from a tab-delimited text file. Elevation data can be georeferenced by X, Y location relative to an origin point in map units (feet or meters), or using latitude-longitude coordinates (decimal degrees). In this manner, ground survey data points or lidar-collected data points can be imported for use as an Elevation Grid. The Elevation Grid allows the elevations of existing nodes to be automatically updated using interpolated grid elevations. Learn more.
Apply internet-based maps to both new and existing model backgrounds. Elevation data may be imported and applied to the nodes in the model. Learn more
Users can click on a pipe to show the location of an intrusion, and the Intrusion Calculator indicates which valves to close to most efficiently isolate the point of the intrusion. This tool generates a report detailing the affected piping volume and the isolated areas: these are parts of the system not directly affected by the intrusion, but which are no longer connected to a source (tank, reservoir, other water system) due to the closed valves. Learn more
Define and emphasize pressure zones in the system. Learn more
Place one or more metered connections at any location in any pipeline and associate these meters with the user and demand type. Learn more
The Operational Control Screen is a unique and very useful tool for presentations and operational and design studies. There is no better tool for presenting the impact of changes in operation of a distribution system. Learn more
The Optimal Design Module selects the optimal diameters for a specified section of a system to minimize the total pipe cost. Learn more
Optimal Pump Placement Tool. This Tool selects fom a user-supplied list of availabe pumps, and generates the layout for a least-cost pump optimization plan along a single (unbranched) pipeline, considering the following factors for all available pump types:
- Pump curves.
- Unit cost.
- Number of each type of pump in inventory.
Optimal Pump Scheduling computes the most economical and efficient way of operating complex water distribution systems with multiple pump stations. Learn more
The Optimal Water Quality Sensor Placement Tool (OWQSPT) is a simplified guidance tool for optimal placement of sensors in small- and medium-sized water distribution networks. Learn more
Optimized Calibration minimizes the difference between observed field data and model predictions considering all test data simultaneously to provide the best calibration possible. Learn more
The user specifies which portion of the system is affected by a pipe break. The pipes affected by the break and the nearest on/off or active valves are highlighted, showing which valves need to be closed in order to most efficiently isolate the break. Users can click on valves to open or close them and thus see different scenarios. This tool will create a report showing the pipes affected, the valves to close, the number of affected customers, and the volume of water within the affected pipes.
The Pipe Ratings Exceedance feature combines several tools that help users to determine if pressures within the pipes in the model exceed their manufacturer’s pressure rating, at any point in the simulation. View more details at this link (Pipe Ratings Exceedance feature). These tools include:
1. Labels in the Map Area. These labels show the pipe pressure rating, and the amount by which the pipe pressure rating was exceeded. In the image shown below, a positive value for the rating exceedance indicates that the pipe has this much margin before its pressure rating is exceeded. The margin is 35.3 psi (200 -164.7 = 35.3 psi)). By convention, the negative sign means that the pressure rating has not yet been exceeded (the exceedance is negative, or said another way, the margin is positive).
2. Pipe Emphasis. The Pipe Emphasis tool uses a color-coded key to show which pipes exceed their pressure rating, and which pipes are flagged as cautionary – that is, they are within 10 psi of their pressure rating, but they have not yet exceeded the pressure rating. Pipes which have exceeded their rating are shown in red, and pipes with a cautionary warning are shown in yellow. Pipes which have not exceeded their pressure rating are shown in green. Units are psi:
3. Analysis Report. The Analysis Report lists all pipes that have exceeded their pressure rating, along with the pipe’s physical characteristics, and the amount by which the pressure rating was exceeded, in units of psi.
4. Animated Profile. The creates an Animated Profile with the pipe pressure rating graphed as a head value line, along with the pressure within the pipes of the model graphed as an HGL line: Wherever the HGL line of the model’s pressures rises above the pipe’s pressure rating line, that pipe’s pressure rating has been exceeded, and the pipe is displyed using a red color, see the image below. Units are feet of head:
During model creation, select the Pipe Type from one of many Pipe Schedules and the pipe data fields are automatically filled. Users can create a customized schedule which is reuseable in multiple models.
Create Piping and Instrumentation Diagrams (PIDs) of existing model files. Learn more
Provides a plot of pump curves (head/flow data).
Create detailed PowerPoint, Word & HTML reports within the KYnetic interface. Add maps, images, videos, tables and graphs for dynamic presentations. Learn more
The Pressure Sensitive Demands feature adjusts the flow rate at demand nodes until the user-specified system pressures are met.
Export maps, graphs, tables and reports directly to a PDF, JPG or BMP file without loss of quality. Learn more
The Pump Cylcles tool assists in appropriately sizing hydrotanks. Learn more
This analysis first determines which sprinkler in the system has the minimum capacity or lowest density, then analyzes the system with this element at the specified required capacity.