In this study, porous silicon (PSi) was prepared and tested as an extended gate field-effect transistor (EGFET) for pH sensing. The prepared PSi has pore sizes in the range of 500 to 750 nm with a depth of approximately 42 µm. The results of testing PSi for hydrogen ion sensing in different pH buffer solutions reveal that the PSi has a sensitivity value of 66 mV/pH that is considered a super Nernstian value. The sensor considers stability to be in the pH range of 2 to 12. The hysteresis values of the prepared PSi sensor were approximately 8.2 and 10.5 mV in the low and high pH loop, respectively. The result of this study reveals a promising application of PSi in the field for detecting hydrogen ions in different solutions
Field-effect transistors (FETs) form an established technology for sensing applications. However, re...
High performance ISFETs by means of a layer of poly Si nanostructures placed on the gate oxide has b...
Implementation of porous silicon technology for a fluidic flow-through optical sensor for pH measure...
In this study, porous silicon (PSi) was prepared and tested as an extended gate field-effect transis...
In this study, porous silicon (PSi) was prepared and tested as an extended gate field-effect transis...
In this study, porous silicon (PSi) was prepared and tested as an extended gate field-effect transi...
Following the advances in biochemical sensors based on porous silicon (PSi) in the late 20th century...
In biological and environmental applications, it is desirable to be able to measure hydrogen and hyd...
With an increasing need for homeland security, and breakthrough advancements in sensing applications...
This paper aims to study field effect transistors as chemical sensor used for monitoring hydrogen ...
It is well-known that palladium readily absorbs hydrogen gas at room temperature. Based on this uniq...
Field-effect transistors (FETs) form an established technology for sensing applications. However, re...
It is well-known that palladium readily absorbs hydrogen gas at room temperature. Based on this uniq...
A novel, resistance-based porous silicon sensor with Pd nano structures as the hydrogen sensing laye...
Electrochemical biosensors have emerged as very powerful analytical tools in many challenging areas ...
Field-effect transistors (FETs) form an established technology for sensing applications. However, re...
High performance ISFETs by means of a layer of poly Si nanostructures placed on the gate oxide has b...
Implementation of porous silicon technology for a fluidic flow-through optical sensor for pH measure...
In this study, porous silicon (PSi) was prepared and tested as an extended gate field-effect transis...
In this study, porous silicon (PSi) was prepared and tested as an extended gate field-effect transis...
In this study, porous silicon (PSi) was prepared and tested as an extended gate field-effect transi...
Following the advances in biochemical sensors based on porous silicon (PSi) in the late 20th century...
In biological and environmental applications, it is desirable to be able to measure hydrogen and hyd...
With an increasing need for homeland security, and breakthrough advancements in sensing applications...
This paper aims to study field effect transistors as chemical sensor used for monitoring hydrogen ...
It is well-known that palladium readily absorbs hydrogen gas at room temperature. Based on this uniq...
Field-effect transistors (FETs) form an established technology for sensing applications. However, re...
It is well-known that palladium readily absorbs hydrogen gas at room temperature. Based on this uniq...
A novel, resistance-based porous silicon sensor with Pd nano structures as the hydrogen sensing laye...
Electrochemical biosensors have emerged as very powerful analytical tools in many challenging areas ...
Field-effect transistors (FETs) form an established technology for sensing applications. However, re...
High performance ISFETs by means of a layer of poly Si nanostructures placed on the gate oxide has b...
Implementation of porous silicon technology for a fluidic flow-through optical sensor for pH measure...