Diarylethene Molecular Photoswitches: Concepts and Functionalities

Diarylethene Molecular Photoswitches: Concept and Functionalities is a comprehensive review of diarylethene-based molecular photoswitches, covering synthesis, properties, and applications. Written by the inventor of photochromic diarylethene, the book explores reaction mechanisms, photoswitching performance, photoswitchable crystals, and diverse applications in fields such as FETs, MOFs, super-resolution fluorescence microscopies, drug release, and self-healing materials. It serves as an essential resource for academics, chemists, and engineers, providing insights into the development of new photoresponsive materials.

Format: Hardback
Length: 240 pages
Publication date: 05 May 2021
Publisher: Wiley-VCH Verlag GmbH

Diarylethene-based molecular photoswitches are a class of compounds that exhibit unique properties, making them highly valuable for various applications. These compounds are known for their ability to switch between two states, often referred to as "on" and "off," in response to external stimuli such as light, temperature, or chemical agents. This property allows them to be used as sensors, switches, and even catalysts in various fields.

The synthesis and properties of diarylethene-based molecular photoswitches are extensively covered in this review. The authors discuss the various methods used to synthesize these compounds, including the use of organic synthesis, photochemical reactions, and click chemistry. They also explore the structural characteristics of diarylethene-based photoswitches, including their molecular structures, electronic properties, and photophysical properties.

One of the key features of diarylethene-based molecular photoswitches is their bistability, which means that they can exist in two stable states with different properties. This property allows them to be used as switches, as they can be triggered to switch between their "on" and "off" states by exposing them to different stimuli. For example, diarylethene-based photoswitches can be used as sensors for detecting light, temperature, or chemical agents, as they can change their color or fluorescence properties in response to these stimuli.

Diarylethene-based molecular photoswitches also have a wide range of applications in various fields, including electronics, materials science, and biology. For example, they can be used as light-emitting diodes (LEDs) that can change their color or brightness in response to external stimuli. They can also be used as switches in electronic devices, such as transistors and memory devices, to control the flow of electric current. In addition, diarylethene-based photoswitches can be used as catalysts in various chemical reactions, such as the synthesis of organic compounds and the degradation of pollutants.

Another important aspect of diarylethene-based molecular photoswitches is their potential for use in biological applications. These compounds can be used as probes to detect the presence of specific molecules or proteins in cells or tissues. They can also be used as drug delivery agents, as they can be triggered to release drugs in response to specific stimuli. For example, diarylethene-based photoswitches can be used to deliver drugs to cancer cells, which can then be targeted for treatment.

In conclusion, diarylethene-based molecular photoswitches are a highly valuable class of compounds that exhibit unique properties, making them highly useful for various applications. Their bistability, wide range of applications, and potential for use in biological applications make them a promising area of research and development. As our understanding of these compounds continues to grow, we can expect to see them being used in a wide range of industries and fields.

Diarylethene-based molecular photoswitches are a class of compounds that exhibit unique properties, making them highly valuable for various applications. These compounds are known for their ability to switch between two states, often referred to as "on" and "off," in response to external stimuli such as light, temperature, or chemical agents. This property allows them to be used as sensors, switches, and even catalysts in various fields.

The synthesis and properties of diarylethene-based molecular photoswitches are extensively covered in this review. The authors discuss the various methods used to synthesize these compounds, including the use of organic synthesis, photochemical reactions, and click chemistry. They also explore the structural characteristics of diarylethene-based photoswitches, including their molecular structures, electronic properties, and photophysical properties.

One of the key features of diarylethene-based molecular photoswitches is their bistability, which means that they can exist in two stable states with different properties. This property allows them to be used as switches, as they can be triggered to switch between their "on" and "off" states by exposing them to different stimuli. For example, diarylethene-based photoswitches can be used as sensors for detecting light, temperature, or chemical agents, as they can change their color or fluorescence properties in response to these stimuli.

Diarylethene-based molecular photoswitches also have a wide range of applications in various fields, including electronics, materials science, and biology. For example, they can be used as light-emitting diodes (LEDs) that can change their color or brightness in response to external stimuli. They can also be used as switches in electronic devices, such as transistors and memory devices, to control the flow of electric current. In addition, diarylethene-based photoswitches can be used as catalysts in various chemical reactions, such as the synthesis of organic compounds and the degradation of pollutants.

Another important aspect of diarylethene-based molecular photoswitches is their potential for use in biological applications. These compounds can be used as probes to detect the presence of specific molecules or proteins in cells or tissues. They can also be used as drug delivery agents, as they can be triggered to release drugs in response to specific stimuli. For example, diarylethene-based photoswitches can be used to deliver drugs to cancer cells, which can then be targeted for treatment.

In conclusion, diarylethene-based molecular photoswitches are a highly valuable class of compounds that exhibit unique properties, making them highly useful for various applications. Their bistability, wide range of applications, and potential for use in biological applications make them a promising area of research and development. As our understanding of these compounds continues to grow, we can expect to see them being used in a wide range of industries and fields.

Diarylethene-based molecular photoswitches are a class of compounds that exhibit unique properties, making them highly valuable for various applications. These compounds are known for their ability to switch between two states, often referred to as "on" and "off," in response to external stimuli such as light, temperature, or chemical agents. This property allows them to be used as sensors, switches, and even catalysts in various fields.

The synthesis and properties of diarylethene-based molecular photoswitches are extensively covered in this review. The authors discuss the various methods used to synthesize these compounds, including the use of organic synthesis, photochemical reactions, and click chemistry. They also explore the structural characteristics of diarylethene-based photoswitches, including their molecular structures, electronic properties, and photophysical properties.

One of the key features of diarylethene-based molecular photoswitches is their bistability, which means that they can exist in two stable states with different properties. This property allows them to be used as switches, as they can be triggered to switch between their "on" and "off" states by exposing them to different stimuli. For example, diarylethene-based photoswitches can be used as sensors for detecting light, temperature, or chemical agents, as they can change their color or fluorescence properties in response to these stimuli.

Diarylethene-based molecular photoswitches also have a wide range of applications in various fields, including electronics, materials science, and biology. For example, they can be used as light-emitting diodes (LEDs) that can change their color or brightness in response to external stimuli. They can also be used as switches in electronic devices, such as transistors and memory devices, to control the flow of electric current. In addition, diarylethene-based photoswitches can be used as catalysts in various chemical reactions, such as the synthesis of organic compounds and the degradation of pollutants.

Another important aspect of diarylethene-based molecular photoswitches is their potential for use in biological applications. These compounds can be used as probes to detect the presence of specific molecules or proteins in cells or tissues. They can also be used as drug delivery agents, as they can be triggered to release drugs in response to specific stimuli. For example, diarylethene-based photoswitches can be used to deliver drugs to cancer cells, which can then be targeted for treatment.

In conclusion, diarylethene-based molecular photoswitches are a highly valuable class of compounds that exhibit unique properties, making them highly useful for various applications. Their bistability, wide range of applications, and potential for use in biological applications make them a promising area of research and development. As our understanding of these compounds continues to grow, we can expect to see them being used in a wide range of industries and fields.

Diarylethene-based molecular photoswitches are a class of compounds that exhibit unique properties, making them highly valuable for various applications. These compounds are known for their ability to switch between two states, often referred to as "on" and "off," in response to external stimuli such as light, temperature, or chemical agents. This property allows them to be used as sensors, switches, and even catalysts in various fields.

The synthesis and properties of diarylethene-based molecular photoswitches are extensively covered in this review. The authors discuss the various methods used to synthesize these compounds, including the use of organic synthesis, photochemical reactions, and click chemistry. They also explore the structural characteristics of diarylethene-based photoswitches, including their molecular structures, electronic properties, and photophysical properties.

One of the key features of diarylethene-based molecular photoswitches is their bistability, which means that they can exist in two stable states with different properties. This property allows them to be used as switches, as they can be triggered to switch between their "on" and "off" states by exposing them to different stimuli. For example, diarylethene-based photoswitches can be used as sensors for detecting light, temperature, or chemical agents, as they can change their color or fluorescence properties in response to these stimuli.

Diarylethene-based molecular photoswitches also have a wide range of applications in various fields, including electronics, materials science, and biology. For example, they can be used as light-emitting diodes (LEDs) that can change their color or brightness in response to external stimuli. They can also be used as switches in electronic devices, such as transistors and memory devices, to control the flow of electric current. In addition, diarylethene-based photoswitches can be used as catalysts in various chemical reactions, such as the synthesis of organic compounds and the degradation of pollutants.

Another important aspect of diarylethene-based molecular photoswitches is their potential for use in biological applications. These compounds can be used as probes to detect the presence of specific molecules or proteins in cells or tissues. They can also be used as drug delivery agents, as they can be triggered to release drugs in response to specific stimuli. For example, diarylethene-based photoswitches can be used to deliver drugs to cancer cells, which can then be targeted for treatment.

In conclusion, diarylethene-based molecular photoswitches are a highly valuable class of compounds that exhibit unique properties, making them highly useful for various applications. Their bistability, wide range of applications, and potential for use in biological applications make them a promising area of research and development. As our understanding of these compounds continues to grow, we can expect to see them being used in a wide range of industries and fields.

Diarylethene-based molecular photoswitches are a class of compounds that exhibit unique properties, making them highly valuable for various applications. These compounds are known for their ability to switch between two states, often referred to as "on" and "off," in response to external stimuli such as light, temperature, or chemical agents. This property allows them to be used as sensors, switches, and even catalysts in various fields.

The synthesis and properties of diarylethene-based molecular photoswitches are extensively covered in this review. The authors discuss the various methods used to synthesize these compounds, including the use of organic synthesis, photochemical reactions, and click chemistry. They also explore the structural characteristics of diarylethene-based photoswitches, including their molecular structures, electronic properties, and photophysical properties.

One of the key features of diarylethene-based molecular photoswitches is their bistability, which means that they can exist in two stable states with different properties. This property allows them to be used as switches, as they can be triggered to switch between their "on" and "off" states by exposing them to different stimuli. For example, diarylethene-based photoswitches can be used as sensors for detecting light, temperature, or chemical agents, as they can change their color or fluorescence properties in response to these stimuli.

Diarylethene-based molecular photoswitches also have a wide range of applications in various fields, including electronics, materials science, and biology. For example, they can be used as light-emitting diodes (LEDs) that can change their color or brightness in response to external stimuli. They can also be used as switches in electronic devices, such as transistors and memory devices, to control the flow of electric current. In addition, diarylethene-based photoswitches can be used as catalysts in various chemical reactions, such as the synthesis of organic compounds and the degradation of pollutants.

Another important aspect of diarylethene-based molecular photoswitches is their potential for use in biological applications. These compounds can be used as probes to detect the presence of specific molecules or proteins in cells or tissues. They can also be used as drug delivery agents, as they can be triggered to release drugs in response to specific stimuli. For example, diarylethene-based photoswitches can be used to deliver drugs to cancer cells, which can then be targeted for treatment.

In conclusion, diarylethene-based molecular photoswitches are a highly valuable class of compounds that exhibit unique properties, making them highly useful for various applications. Their bistability, wide range of applications, and potential for use in biological applications make them a promising area of research and development. As our understanding of these compounds continues to grow, we can expect to see them being used in a wide range of industries and fields.

Weight: 620g
Dimension: 178 x 252 x 19 (mm)
ISBN-13: 9783527346400