3D Printing
Fundamentals to Emerging Applications
Herausgeber: Gupta, Ram K.
3D Printing
Fundamentals to Emerging Applications
Herausgeber: Gupta, Ram K.
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This comprehensive work provides the fundamentals of 3D printing technologies, current state-of-the-art knowledge, and their emerging applications. This is a suitable textbook for students and a must-have resource for researchers and industry professionals working in energy, biomedical, materials, and nanotechnology fields.
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This comprehensive work provides the fundamentals of 3D printing technologies, current state-of-the-art knowledge, and their emerging applications. This is a suitable textbook for students and a must-have resource for researchers and industry professionals working in energy, biomedical, materials, and nanotechnology fields.
Hinweis: Dieser Artikel kann nur an eine deutsche Lieferadresse ausgeliefert werden.
Hinweis: Dieser Artikel kann nur an eine deutsche Lieferadresse ausgeliefert werden.
Produktdetails
- Produktdetails
- Verlag: Taylor & Francis Ltd
- Seitenzahl: 508
- Erscheinungstermin: 18. April 2023
- Englisch
- Abmessung: 260mm x 183mm x 32mm
- Gewicht: 1180g
- ISBN-13: 9781032283999
- ISBN-10: 1032283998
- Artikelnr.: 67254891
- Verlag: Taylor & Francis Ltd
- Seitenzahl: 508
- Erscheinungstermin: 18. April 2023
- Englisch
- Abmessung: 260mm x 183mm x 32mm
- Gewicht: 1180g
- ISBN-13: 9781032283999
- ISBN-10: 1032283998
- Artikelnr.: 67254891
INTRODUCTION. 3D-printing: An introduction. Energy materials for
3D-printing. Nanoinks for 3D-printing. Functional nanomaterials for
3D-printing. Additives in 3D-printing. Architectural aspects of 3D-printing
for improved properties. Methods of characterizations of 3D-printed
objects. 3D PRINTING: MATERIALS AND APPLICATIONS FOR ENERGY CONVERSION. 3D
printed carbon-based nanomaterials for solar cells. 3D printed graphene for
solar cells. 3D printed metal oxides for solar cells. 3D printed MXenes for
solar cells. 3D printed MOFs for solar cells. 3D printed nanocomposites for
solar cells. 3D printed carbon-based nanomaterials for fuel cells. 3D
printed graphene for fuel cells. 3D printed metal oxides for fuel cells. 3D
printed MXenes for fuel cells. 3D printed MOFs for fuel cells. 3D printed
nanocomposites for fuel cells. Materials and applications of 3D print for
solid oxide fuel cells. 3D PRINTING: MATERIALS AND APPLICATIONS FOR ENERGY
STORAGE. 3D printed carbon-based nanomaterials for batteries, 3D printed
graphene for batteries. 3D printed metal oxides for batteries. 3D printed
MXenes for batteries. 3D printed MOFs for batteries. 3D printed
nanocomposites for batteries. Materials and applications of 3D print for
solid-state batteries. 3D printed carbon-based nanomaterials for
supercapacitors. 3D printed graphene for supercapacitors. 3D printed metal
oxides for supercapacitors. 3D printed MXenes for supercapacitors. 3D
printed MOFs for supercapacitors. 3D printed nanocomposites for
supercapacitors. 3D PRINTING: MATERIALS FOR SENSORS. 3D printed
carbon-based nanomaterials for sensors. 3D printed graphene for sensors. 3D
printed metal oxides for sensors. 3D printed MXenes for sensors.3D printed
MOFs for sensors. 3D printed nanocomposites for sensors. 3D PRINTING:
MATERIALS AND APPLICATIONS IN BIOMEDICAL. 3D printed carbon-based
nanomaterials for biomedical applications. 3D printed graphene for
biomedical applications. 3D printed metal oxides for biomedical
applications. 3D printed MXenes for biomedical applications. 3D printed
nanocomposites for biomedical applications.OTHER EMERGING APPLICATIONS AND
FUTURE CHALLENGES. 3D printed nanoinks for light-emitting diodes. 3D
printing for thermoresponsive inks. Materials and design aspects of 3D
printing for automobile industries. Materials and challenges of 3D printing
for defense applications
3D-printing. Nanoinks for 3D-printing. Functional nanomaterials for
3D-printing. Additives in 3D-printing. Architectural aspects of 3D-printing
for improved properties. Methods of characterizations of 3D-printed
objects. 3D PRINTING: MATERIALS AND APPLICATIONS FOR ENERGY CONVERSION. 3D
printed carbon-based nanomaterials for solar cells. 3D printed graphene for
solar cells. 3D printed metal oxides for solar cells. 3D printed MXenes for
solar cells. 3D printed MOFs for solar cells. 3D printed nanocomposites for
solar cells. 3D printed carbon-based nanomaterials for fuel cells. 3D
printed graphene for fuel cells. 3D printed metal oxides for fuel cells. 3D
printed MXenes for fuel cells. 3D printed MOFs for fuel cells. 3D printed
nanocomposites for fuel cells. Materials and applications of 3D print for
solid oxide fuel cells. 3D PRINTING: MATERIALS AND APPLICATIONS FOR ENERGY
STORAGE. 3D printed carbon-based nanomaterials for batteries, 3D printed
graphene for batteries. 3D printed metal oxides for batteries. 3D printed
MXenes for batteries. 3D printed MOFs for batteries. 3D printed
nanocomposites for batteries. Materials and applications of 3D print for
solid-state batteries. 3D printed carbon-based nanomaterials for
supercapacitors. 3D printed graphene for supercapacitors. 3D printed metal
oxides for supercapacitors. 3D printed MXenes for supercapacitors. 3D
printed MOFs for supercapacitors. 3D printed nanocomposites for
supercapacitors. 3D PRINTING: MATERIALS FOR SENSORS. 3D printed
carbon-based nanomaterials for sensors. 3D printed graphene for sensors. 3D
printed metal oxides for sensors. 3D printed MXenes for sensors.3D printed
MOFs for sensors. 3D printed nanocomposites for sensors. 3D PRINTING:
MATERIALS AND APPLICATIONS IN BIOMEDICAL. 3D printed carbon-based
nanomaterials for biomedical applications. 3D printed graphene for
biomedical applications. 3D printed metal oxides for biomedical
applications. 3D printed MXenes for biomedical applications. 3D printed
nanocomposites for biomedical applications.OTHER EMERGING APPLICATIONS AND
FUTURE CHALLENGES. 3D printed nanoinks for light-emitting diodes. 3D
printing for thermoresponsive inks. Materials and design aspects of 3D
printing for automobile industries. Materials and challenges of 3D printing
for defense applications
INTRODUCTION. 3D-printing: An introduction. Energy materials for
3D-printing. Nanoinks for 3D-printing. Functional nanomaterials for
3D-printing. Additives in 3D-printing. Architectural aspects of 3D-printing
for improved properties. Methods of characterizations of 3D-printed
objects. 3D PRINTING: MATERIALS AND APPLICATIONS FOR ENERGY CONVERSION. 3D
printed carbon-based nanomaterials for solar cells. 3D printed graphene for
solar cells. 3D printed metal oxides for solar cells. 3D printed MXenes for
solar cells. 3D printed MOFs for solar cells. 3D printed nanocomposites for
solar cells. 3D printed carbon-based nanomaterials for fuel cells. 3D
printed graphene for fuel cells. 3D printed metal oxides for fuel cells. 3D
printed MXenes for fuel cells. 3D printed MOFs for fuel cells. 3D printed
nanocomposites for fuel cells. Materials and applications of 3D print for
solid oxide fuel cells. 3D PRINTING: MATERIALS AND APPLICATIONS FOR ENERGY
STORAGE. 3D printed carbon-based nanomaterials for batteries, 3D printed
graphene for batteries. 3D printed metal oxides for batteries. 3D printed
MXenes for batteries. 3D printed MOFs for batteries. 3D printed
nanocomposites for batteries. Materials and applications of 3D print for
solid-state batteries. 3D printed carbon-based nanomaterials for
supercapacitors. 3D printed graphene for supercapacitors. 3D printed metal
oxides for supercapacitors. 3D printed MXenes for supercapacitors. 3D
printed MOFs for supercapacitors. 3D printed nanocomposites for
supercapacitors. 3D PRINTING: MATERIALS FOR SENSORS. 3D printed
carbon-based nanomaterials for sensors. 3D printed graphene for sensors. 3D
printed metal oxides for sensors. 3D printed MXenes for sensors.3D printed
MOFs for sensors. 3D printed nanocomposites for sensors. 3D PRINTING:
MATERIALS AND APPLICATIONS IN BIOMEDICAL. 3D printed carbon-based
nanomaterials for biomedical applications. 3D printed graphene for
biomedical applications. 3D printed metal oxides for biomedical
applications. 3D printed MXenes for biomedical applications. 3D printed
nanocomposites for biomedical applications.OTHER EMERGING APPLICATIONS AND
FUTURE CHALLENGES. 3D printed nanoinks for light-emitting diodes. 3D
printing for thermoresponsive inks. Materials and design aspects of 3D
printing for automobile industries. Materials and challenges of 3D printing
for defense applications
3D-printing. Nanoinks for 3D-printing. Functional nanomaterials for
3D-printing. Additives in 3D-printing. Architectural aspects of 3D-printing
for improved properties. Methods of characterizations of 3D-printed
objects. 3D PRINTING: MATERIALS AND APPLICATIONS FOR ENERGY CONVERSION. 3D
printed carbon-based nanomaterials for solar cells. 3D printed graphene for
solar cells. 3D printed metal oxides for solar cells. 3D printed MXenes for
solar cells. 3D printed MOFs for solar cells. 3D printed nanocomposites for
solar cells. 3D printed carbon-based nanomaterials for fuel cells. 3D
printed graphene for fuel cells. 3D printed metal oxides for fuel cells. 3D
printed MXenes for fuel cells. 3D printed MOFs for fuel cells. 3D printed
nanocomposites for fuel cells. Materials and applications of 3D print for
solid oxide fuel cells. 3D PRINTING: MATERIALS AND APPLICATIONS FOR ENERGY
STORAGE. 3D printed carbon-based nanomaterials for batteries, 3D printed
graphene for batteries. 3D printed metal oxides for batteries. 3D printed
MXenes for batteries. 3D printed MOFs for batteries. 3D printed
nanocomposites for batteries. Materials and applications of 3D print for
solid-state batteries. 3D printed carbon-based nanomaterials for
supercapacitors. 3D printed graphene for supercapacitors. 3D printed metal
oxides for supercapacitors. 3D printed MXenes for supercapacitors. 3D
printed MOFs for supercapacitors. 3D printed nanocomposites for
supercapacitors. 3D PRINTING: MATERIALS FOR SENSORS. 3D printed
carbon-based nanomaterials for sensors. 3D printed graphene for sensors. 3D
printed metal oxides for sensors. 3D printed MXenes for sensors.3D printed
MOFs for sensors. 3D printed nanocomposites for sensors. 3D PRINTING:
MATERIALS AND APPLICATIONS IN BIOMEDICAL. 3D printed carbon-based
nanomaterials for biomedical applications. 3D printed graphene for
biomedical applications. 3D printed metal oxides for biomedical
applications. 3D printed MXenes for biomedical applications. 3D printed
nanocomposites for biomedical applications.OTHER EMERGING APPLICATIONS AND
FUTURE CHALLENGES. 3D printed nanoinks for light-emitting diodes. 3D
printing for thermoresponsive inks. Materials and design aspects of 3D
printing for automobile industries. Materials and challenges of 3D printing
for defense applications