diff --git a/public/rules.md b/public/rules.md
index a9ed479..cb424c7 100644
--- a/public/rules.md
+++ b/public/rules.md
@@ -32,7 +32,7 @@ The competition is organized as an in-person competition.
Teams can register for the competition using a [registration form](https://forms.gle/FdfY9sKXREdu772u6).
-The preferred communication method with the organizers is the _#ICRA2025_ channel on [Roboracer-teams Slack](https://join.slack.com/t/robo-racer/shared_invite/zt-2pq4fuyjq-gTUflzeZDKDDGjuVoeZqNg).
+The preferred communication method with the organizers is the _#ICRA2025_ channel on [Roboracer-teams Slack](https://join.slack.com/t/robo-racer/shared_invite/zt-3r2d2fe4k-6pvIKjwJH_M28DTyEuR5uQ).
# 2. In-person (physical) competition
diff --git a/src/App.tsx b/src/App.tsx
index 7841907..516017e 100644
--- a/src/App.tsx
+++ b/src/App.tsx
@@ -2,11 +2,14 @@ import { BrowserRouter as Router, Routes, Route } from "react-router-dom";
import Layout from "./components/Layout";
import Landing from "./pages/Landing";
import About from "./pages/About";
-import Build from "./pages/Build";
+import BuildLanding from "./pages/BuildLanding";
+import BuildDocs from "./pages/BuildDocs";
import Course from "./pages/Course";
-import Learn from "./pages/Learn";
+import LearnLanding from "./pages/LearnLanding";
+import LearnCourseKit from "./pages/LearnCourseKit";
import News from "./pages/News";
-import RaceCalendar from "./pages/Race";
+import RaceLanding from "./pages/RaceLanding";
+import RaceEvents from "./pages/RaceEvents";
import Research from "./pages/Research";
import Rules from "./pages/Rules";
// import Events from "./pages/Events";
@@ -19,11 +22,21 @@ function App() {
+ Complete open-source hardware and software documentation to build your own 1/10th scale autonomous racing car. From assembly to deployment. +
++ Complete bill of materials, CAD files, and assembly instructions for building a 1/10th scale autonomous racing car with LIDAR, cameras, and compute. +
++ ROS2-based perception, planning, and control software with ready-to-use algorithms for mapping, localization, and path planning. +
++ Extensible architecture perfect for testing new algorithms in perception, planning, control, and multi-agent racing scenarios. +
++ Step-by-step assembly instructions, component specifications, and sourcing information. +
+ + Get Started → + ++ Installation guides, dependencies, and configuration for the complete software stack. +
+ + View Docs → + ++ Test your algorithms in simulation before deploying to hardware. +
+ + Launch Simulator → + ++ Join our Slack community for help, tips, and collaboration with other builders. +
+ + Join Slack → + ++ Access complete documentation, CAD files, bill of materials, and software packages. +
+ + Access Build Documentation + + +
+ - Open-source hardware, global competitions, and comprehensive learning resources powering the next generation of robotics innovators. + {/* Subtitle */} +
+ Fast, simple and open source +
+ + {/* Headline */} ++ The leading platform for autonomous racing education and research. Open-source hardware, global competitions, and comprehensive learning resources powering the next generation of robotics innovators.
{/* CTA Button */} {/* ==================== FOUR PILLARS ==================== */} -+ Watch highlights from our autonomous racing competitions and educational events +
++ Comprehensive educational materials covering perception, planning, control, and multi-agent systems. Used by 90+ universities worldwide. +
++ Computer vision, LIDAR processing, sensor fusion, and object detection for autonomous vehicles. +
++ SLAM algorithms, particle filters, and state estimation techniques for robot localization. +
++ Path planning, trajectory optimization, and navigation algorithms for autonomous racing. +
++ PID control, model predictive control, and safe control strategies for high-speed racing. +
++ Coordination, communication, and strategic decision-making for multi-vehicle scenarios. +
++ Safety-critical systems, formal verification, and testing strategies for autonomous vehicles. +
++ Lecture slides, labs, assignments, and projects used at leading universities worldwide. +
+ + View Course Kit → + ++ Complete semester-long course on autonomous racing systems and robotics. +
+ + Start Learning → + ++ 60+ publications on autonomous racing, perception, planning, and control. +
+ + Browse Research → + ++ Interactive simulator-based exercises to practice algorithms and techniques. +
+ + Launch Simulator → + ++ Access world-class educational materials on autonomous racing and robotics. +
+ + Browse Course Materials + + +{event.dates}
} + {event.location &&{event.location}
} + {event.url && ( + e.stopPropagation()} + > + View details + + )} +{race.name}
+ + ))} ++ Join international competitions, test your algorithms against the best, and push the boundaries of autonomous racing technology. +
++ Race against the clock to achieve the fastest lap times on challenging tracks with tight corners and obstacles. +
++ Compete directly against other autonomous vehicles, requiring strategic overtaking and defensive driving. +
++ Coordinate with teammates or compete in complex scenarios with multiple vehicles on track. +
++ View the schedule of upcoming competitions, workshops, and racing events worldwide. +
+ + See Schedule → + ++ Learn about race formats, technical requirements, and competition guidelines. +
+ + Read Rules → + ++ Browse results and highlights from previous competitions around the world. +
+ + View Results → + ++ Test your algorithms in simulation before competing in real-world events. +
+ + Launch Simulator → + ++ We've hosted competitions in major cities including New York, Pittsburgh, Portugal, South Korea, Italy, Canada, and more. +
++ Join our next competition and test your autonomous racing skills against the world's best. +
+