NetSim Academic: a network lab on your desktop

NetSim Academic

Last updated: June, 2026

NetSim Academic is an economical option for educational customers intending to use NetSim for lab experimentation and teaching. Looking at doing network R&D? Then NetSim Standard is the product you should explore. The version comparison table shows the features available in the different versions of NetSim.

5 reasons you need NetSim Academic

NetSim saves hundreds of hours in setup, scripting, and data parsing, maximizing the time available for genuine learning, experimentation, and discovery.

Feature NetSim Academic Open Source
Lab Setup GUI-based, drag-and-drop. Dozens of pre-configured experiments ready to run. Requires C/Python scripting. Every scenario must be manually coded and configured.
Learning Curve The intuitive interface allows immediate focus on networking concepts from day one. Students spend significant time learning the tool's API and environment before analyzing networks.
Visualization Built-in packet animator and dynamic plots provide real-time insight into network behavior. Requires external tools (e.g., NetAnim) and often complex post-processing scripts for visualization.
Result Analysis Comprehensive, auto-generated results dashboard with sortable tables and exportable graphs. Generates text-based trace files requiring custom scripts (awk, Python) to parse and analyze.
Documentation Integrated, professionally written experiment manuals with theory, procedure, and sample results. Relies on community-managed wikis and documentation; quality and completeness vary.

Gaps in traditional network education

Why textbooks and physical labs fall short.

Abstract concepts are hard to grasp

Protocols like TCP congestion control or routing algorithms like OSPF are difficult for students to visualize from textbooks alone. Understanding their dynamic behavior requires more than static diagrams.

Lab setup is a barrier to learning

Physical labs are expensive, difficult to scale, and inflexible for "what-if" scenarios. Setting up open-source tools like ns-3 requires significant C++ or Python scripting, consuming valuable lab time that should be spent on learning core concepts.

Network behavior is invisible

Without the right tools, it is challenging to "see" a network in action. Students cannot easily trace a single packet's journey, observe a routing table converge, or pinpoint the cause of performance bottlenecks.

Modern network education with NetSim

Turn abstract theory into observable, measurable behavior.

Accelerate learning

With a vast library of pre-built, curriculum-aligned experiments, students can immediately dive into simulating and analyzing protocols, not wrestling with complex setup and scripting.

Visualize and understand

Go beyond theory with an intuitive GUI, built-in packet animation, and dynamic plots. Make abstract network behavior tangible and easy to comprehend.

Comprehensive and current

Cover your entire curriculum, from foundational internetworking and routing to modern Wireless, IoT, and LTE networks, all within a single, integrated platform.

Technologies supported

Simulation technologies available in the NetSim Academic version.

  • Aloha, Slotted Aloha
  • Ethernet, Switching
  • Wi-Fi: 802.11 a/b/g/n/ac/ax/p
  • RF propagation: pathloss, fading and shadowing
  • Routing: RIP, OSPF
  • TCP: Old Tahoe, Tahoe, Reno, New Reno, BIC, CUBIC, SACK, Window Scaling
  • User Datagram Protocol (UDP)
  • VLAN, Firewalls and Access Control Lists, NAT
  • MANET: DSR, AODV, ZRP, OLSRv1 (RFC 3626), OLSRv2 (RFC 7181)
  • Software Defined Networks (SDN)
  • GSM & CDMA
  • Internet of Things (IoT) with RPL, Wireless Sensor Networks (WSN)
  • LR-WPAN 802.15.4
  • Cognitive Radio: 802.22
  • Long Term Evolution (LTE), LTE Advanced
  • Traffic Generator: CBR, Voice, Video, FTP, Database, HTTP, Email
  • Virtual Network Stack, Simulation Kernel, Command Line Interface
  • Metrics Engine with Packet Trace, Radio Measurements and Plot Generator

35+ inbuilt labs, aligned to top university curricula

Each example lab ships with documentation covering Motivation, Theory, Network Set-up, Results, and Discussion.

Introduction to networking and network simulation

  • Introduction to NetSim (PDF, HTML)
  • Understand the events involved in NetSim DES in the flow of one packet from a wired node to a wireless node (PDF, HTML)
  • Understand the working of basic networking commands: Ping, Route Add/Delete/Print, ACL (PDF, HTML)
  • Characteristic curve of throughput versus offered load for a Pure and Slotted ALOHA system (PDF, HTML)

Network performance

  • Data traffic types and network performance measures (PDF, HTML)
  • Simulating link failure (PDF, HTML)
  • Throughput and bottleneck server analysis (PDF, HTML)
  • Delay and Little's law (PDF, HTML)

Routing and switching

  • The OSPF weight setting problem and the performance comparison of OSPF vs. RIP (PDF, HTML)
  • Understand the working of OSPF (PDF, HTML)
  • The M/D/1 queue (PDF, HTML)
  • Understand the working of ARP, and IP forwarding within a LAN and across a router (PDF, HTML)
  • Simulate and study the spanning tree protocol (PDF, HTML)
  • Understand VLAN operation in L2 and L3 switches (PDF, HTML)
  • Understand access and trunk links in VLANs (PDF, HTML)
  • Understand public IP address and NAT (PDF, HTML)

Transmission control protocol (TCP)

  • Introduction to TCP connection management (PDF, HTML)
  • Reliable data transfer with TCP (PDF, HTML)
  • Mathematical modelling of TCP throughput performance (PDF, HTML)
  • TCP congestion control algorithms (PDF, HTML)
  • Understand the working of TCP BIC congestion control, simulate and plot the TCP congestion window (PDF, HTML)

Wi-Fi: IEEE 802.11

  • Wi-Fi: throughput variation with distance (PDF, HTML)
  • Wi-Fi: UDP download throughput (PDF, HTML)
  • How many downloads can a Wi-Fi access point simultaneously handle? (PDF, HTML)
  • Multi-AP Wi-Fi networks: channel allocation (PDF, HTML)
  • Wi-Fi multimedia extension (IEEE 802.11 EDCA) (PDF, HTML)

Internet of Things (IoT) and wireless sensor networks

  • One-hop IoT network over IEEE 802.15.4 (PDF, HTML)
  • IoT: multi-hop sensor-sink path (PDF, HTML)
  • Performance evaluation of a star topology IoT network (PDF, HTML)
  • Study the 802.15.4 superframe structure and analyze the effect of superframe order on throughput (PDF, HTML)

Radio propagation

  • Pathloss, shadowing and fading (PDF, HTML)

Mobile ad hoc networks

  • Connectivity of a randomly deployed 1-D ad hoc network (PDF, HTML)

4G LTE

  • LTE handover (PDF, HTML)
  • Impact of interference in 4G networks (PDF, HTML)
  • Understanding the impact of MAC scheduling algorithms on throughput, in a multi-UE scenario (PDF, HTML)

5G NRAvailable only with NetSim Standard

  • 5G MIMO and beamforming: a start with MISO and SIMO (PDF, HTML)
  • Throughput and fairness of 5G scheduling algorithms in a complex network environment (PDF, HTML)
  • Understanding of 5G NR PHY (PDF, HTML)
  • Understanding of 5G NR (3GPP) pathloss models (PDF, HTML)
  • 5G numerologies and their impact on end-to-end latencies (PDF, HTML)
  • Performance of OFDMA SU-MIMO in 5G (PDF, HTML)
  • MIMO communication: channel matrix asymptotic analysis (PDF, HTML)

Evaluate NetSim Academic

Interested in an evaluation, or have questions about pricing? We are happy to help.