Andere Kunden interessierten sich auch für
![ELECTRODEPOSITED NEGATIVE ELECTRODES FOR LITHIUM-ION BATTERIES]( "ELECTRODEPOSITED NEGATIVE ELECTRODES FOR LITHIUM-ION BATTERIES")
ELECTRODEPOSITED NEGATIVE ELECTRODES FOR LITHIUM-ION BATTERIES44,99 €![MERCURY ION SELECTIVE ELECTRODES]( "MERCURY ION SELECTIVE ELECTRODES")
MERCURY ION SELECTIVE ELECTRODES32,99 €![MODIFIED ELECTRODES FOR ELECTROCHEMICAL SENSOR APPLICATIONS]( "MODIFIED ELECTRODES FOR ELECTROCHEMICAL SENSOR APPLICATIONS")
MODIFIED ELECTRODES FOR ELECTROCHEMICAL SENSOR APPLICATIONS44,99 €![Enzyme Electrodes For Biosensor & Biofuel Cell Applications]( "Enzyme Electrodes For Biosensor & Biofuel Cell Applications")
Enzyme Electrodes For Biosensor & Biofuel Cell Applications53,99 €![ReO3- type structures as electrode materials for Li-ion batteries]( "ReO3- type structures as electrode materials for Li-ion batteries")
ReO3- type structures as electrode materials for Li-ion batteries29,99 €![Calix[4]arene based ion-selective electrodes]( "Calix[4]arene based ion-selective electrodes")
Calix[4]arene based ion-selective electrodes23,99 €![Electrochemical workstation-Potentiostate]( "Electrochemical workstation-Potentiostate")
Electrochemical workstation-Potentiostate29,99 €
![Calix[4]arene based ion-selective electrodes](https://bilder.buecher.de/produkte/45/45354/45354132n.jpg "Calix[4]arene based ion-selective electrodes")
People suffering from certain types of arrhythmia
may benefit from the implantation of a cardiac
pacemaker. The electrical stimulation pulses are
transferred from the pacemaker to the heart via an
electrode which is implanted into the cardiac
tissue. To design functional pacemaker electrodes it
is essential to understand and control the charge
transferring processes on the electrode/tissue
interface. Bioelectrodes which operates outside its
inherent physical limits may degrade by
electrochemically driven processes (corrosion) or
produce chemical byproducts which may be harmful to
the patient. As the electrode size is reduced to
meet market demand the design strategies for high
performance stimulation and sensing bioelectrodes
needs to be revisited and the electrode/tissue
interface must be characterized to ensure safe and
optimal electrode performance during its operational
lifespan.
In this thesis various electrochemical and surface
analytical techniques were used to investigate the
performance of different electrode materials and
surface textures.
may benefit from the implantation of a cardiac
pacemaker. The electrical stimulation pulses are
transferred from the pacemaker to the heart via an
electrode which is implanted into the cardiac
tissue. To design functional pacemaker electrodes it
is essential to understand and control the charge
transferring processes on the electrode/tissue
interface. Bioelectrodes which operates outside its
inherent physical limits may degrade by
electrochemically driven processes (corrosion) or
produce chemical byproducts which may be harmful to
the patient. As the electrode size is reduced to
meet market demand the design strategies for high
performance stimulation and sensing bioelectrodes
needs to be revisited and the electrode/tissue
interface must be characterized to ensure safe and
optimal electrode performance during its operational
lifespan.
In this thesis various electrochemical and surface
analytical techniques were used to investigate the
performance of different electrode materials and
surface textures.