diff --git a/chapter-conclusion/chapter.tex b/chapter-conclusion/chapter.tex
index 35a71eb..2289844 100644
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@@ -1,3 +1,20 @@
 \chaptertitle{Conclusion}
 
+In this thesis, we proposed Inertial Hardware Security Modules (IHSMs), a completely new approach to physical security
+that combines conventional tamper-sensing meshes with physical movement to bootstrap a highly secure system from
+low-security, off-the-shelf parts. To motivate our research, we showed on the German national digital health record
+system how hardware security is hard to achieve in practice. Besides some minor cryptographic oddities, our analysis
+revealed at least one essential specification mistake that negates the hardware security of the system by unnecessarily
+introducing a poorly protected HSM. In the following chapters, we first introduced IHSM technology, then provided deep
+analyses of two of its engineering challenges, mesh monitoring and power transfer. We propose a low-cost TDR-based mesh
+monitoring system that exceeds the capabilities of all previous systems from academic or from patent literature by
+monitoring large meshes while simultaneously providing detailed results. Our TDR-based mesh monitoring system is of
+independent interest, since it can also be integrated into traditional HSM designs. Besides improved mesh monitoring, we
+also proposed a new, generalized design for high-frequency PCB inductors with low parasitic capacitance. Our design
+provides better bandwidth and lower parasitic capacitance compared to the state of the art without increasing
+implementation cost. We concluded our thesis with two chapters elaborating on two new use cases that are made possible
+by IHSM technology due to its ability to protect large payloads that have high power consumption.
 
+We believe that with the research presented in this thesis, we substantially advanced the physical security field. In
+particular, we belive that by publishing our research including its artifacts under open-source licenses, we provide the
+basis for future research in tamper-sensing technology, a field that remains under-served in today's academic landscape.