diff --git a/chapter-introduction/chapter.tex b/chapter-introduction/chapter.tex
index e0adc22..c937884 100644
--- a/chapter-introduction/chapter.tex
+++ b/chapter-introduction/chapter.tex
@@ -252,31 +252,27 @@ choices resulting from conflicting constraints and lack of awareness. In Chapter
 results of a survey across approximately 30 real world tamper sensing mesh implementations, analyzing common design
 features.
 
-The latter half of our survey in Chapter~\ref{chapter-survey} answers our second research question. From our analysis of
-this large corpus of devices, we deduce a list of design criteria that can be applied to increase the security of any
-tamper sensing mesh implementation.
-
-To answer our third research question, in Chapter~\ref{chapter-ihsm} we propose the Inertial Hardware Security Module
-(IHSM), a new type of HSM that extends the high level of protection offered by the modern cryptographic software stack
-down to the hardware level, enabling secure computation in insecure places. IHSMs can be built from basic, off-the-shelf
-components and do not require bespoke manufacturing processes.
-
-To answer our fourth research question, in Chapter~\ref{chapter_sampling_mesh_mon} we propose improvements to the state
-of the art in HSM tamper sensors based on the use of low-cost, embeddable Time-Domain Reflectometry (TDR). Our
-improvements can be applied to both IHSMs and conventional HSMs.
-
-IHSMs come with unique power supply constraints since their rotating mesh must be continuously powered. A
-straightforward solution utilizes Wireless Power Transfer using planar inductors, but existing WPT designs exhbit a
-ripple voltage due to an asymmetry of conventional planar inductors. This leads to our fifth research question, which
-we solve in Chapter~\ref{chapter-nice-coils} with the design and experimental evaluation of a new, generalized class of
-\emph{twisted} planar inductors that reduces voltage ripple in rotating shaft setups.
-
-Finally, we answer our last research question by showing in two case studies how an end-to-end design of an IHSM-secured
-data processing system could look like. Both case studies concern scenarios that IHSMs unlock that were previously
-infeasible using conventional HSMs: In Chapter~\ref{chapter-qkd}, we explore how IHSMs enable long-range Quantum Key
-Distribution (QKD) networks using trustable physically secured relay nodes and in Chapter~\ref{chapter-smpc} we
-elaborate how  datacenter-scale Secure Multiparty Computation (SMPC) clusters can be created using IHSM enclosures with
-commercial server hardware.
+The second half of our survey in Chapter~\ref{chapter-survey} answers our second research question. From our analysis of
+a large corpus of devices, we deduce a list of design criteria that can be applied to increase the security of any
+tamper sensing mesh implementation. To answer our third research question, in Chapter~\ref{chapter-ihsm} we propose the
+Inertial Hardware Security Module (IHSM), a new type of HSM that extends the high level of protection offered by the
+modern cryptographic software stack down to the hardware level, enabling secure computation in insecure places. IHSMs
+can be built from basic, off-the-shelf components and do not require bespoke manufacturing processes. To answer our
+fourth research question, in Chapter~\ref{chapter_sampling_mesh_mon} we propose improvements to the state of the art in
+HSM tamper sensors based on the use of low-cost, embeddable Time-Domain Reflectometry (TDR). Our improvements can be
+applied to both IHSMs and to conventional HSMs. IHSMs come with unique power supply constraints since their rotating
+mesh must be continuously powered. A straightforward solution utilizes Wireless Power Transfer using planar inductors,
+but existing WPT designs exhbit a ripple voltage due to an asymmetry of conventional planar inductors. This leads to our
+fifth research question, which we solve in Chapter~\ref{chapter-nice-coils} with the design and experimental evaluation
+of a new, generalized class of \emph{twisted} planar inductors that reduces voltage ripple in rotating shaft setups.
+A finding of independent interest is that compared to conventional two-layer planar inductors, in our experiments our
+proposed inductor design improved self-resonant frequency by up to \qty{50}{\percent} and increased inductance by up to
+\qty{6.5}{\percent}. Finally, we answer our last research question by showing in two case studies how an end-to-end
+design of an IHSM-secured data processing system could look like. Both case studies concern scenarios that IHSMs unlock
+that were previously infeasible using conventional HSMs: In Chapter~\ref{chapter-qkd}, we explore how IHSMs enable
+long-range Quantum Key Distribution (QKD) networks using trustable physically secured relay nodes and in
+Chapter~\ref{chapter-smpc} we elaborate how datacenter-scale Secure Multiparty Computation (SMPC) clusters can be
+created using IHSM enclosures with commercial server hardware.
 
 \section{Contributions}