Nokia Morph is a concept developed by Nokia and the University of Cambridge to demonstrate how future mobile devices could be stretchable and flexible using nanotechnology. It describes how nanomaterials like nano-flowers that naturally repel water and fingerprints could allow devices to change shape to be worn as a wristwatch or used as an expandable keyboard. The concept suggests that advances in nanoscale electronics, transparent surfaces, flexible batteries and self-cleaning coatings could enable mobile devices to seamlessly adapt to a user's needs.

2. • INTRODUCTION
• CONCEPT OF NOKIA MORPH
• NANOTECHNOLOGY IN NOKIA MORPH
• VARIOUS NANOTECHNOLOGIES IN NOKIA
MORPH
• FEATURES
• FUTURE SCOPE
• CONCLUSION
• REFERENCES

3. MORPH……?
the word morph means..?
Nokia had introduced a concept
that demonstrates how future mobile devices
might be stretchable and flexible, allowing the
user to transform their mobile device into
radically different shapes.”

4. • Nokia morph is a joint technology concept,
developed by Nokia Research Center(NRC)
and the University of Cambridge (UK) nano
science center.
• In 24th februrary,2008 NRC and UK had
introduced concept of nokia morph to the
global world at the Museum of Modern Art
(MoMA) in New York City.

5. • Nokia Morph is a concept that
demonstrates how future mobile devices
might be stretchable and flexible.
• Nanotechnology that might be capable of
delivering ultimate functionality i.e. flexible
materials, transparent electronics and self-
cleaning surfaces.

6. NANOTECHNOLOGY means
“The science, engineering and
technology related to the
understanding and control of
matter at the length scale of
approximately 1 to 100
nanometers”.
NANOTECHNOLOGY allows control of
physical properties of nanostructures and
devices with single molecule precision.

7. Nanostructure surfaces, such as “Nano
flowers” naturally repel water, dirt, and
even fingerprints utilizing effects also seen
in natural systems.
(FIG. NANO FLOWERS)

8. Molecular nanotechnology, sometimes
called molecular manufacturing, describes
engineered nanosystems operating on
the molecular scale.
Molecular nanotechnology is especially
associated with the molecular assembler,
a machine that can produce a desired
structure or device atom-by-atom using
the principles of mechanosynthesis.

9. 1. Nano Enabled Energy.
2. Sensing Surfaces.
3. Stretchable Electronics.
4. Functional Biomaterials.
5. Nanoporous Hybrid Material.
6. Device Architectures.

10. • “Nano grass” structures that harvest
solar power.
(FIG. NANO GRASS)

11. • Nano sensors are used to examine the
environment around them in completely
new ways, from analyzing air pollution.
(FIG. NANO SENSORS)

12. • The Nanoscale structure of the electronics
enables stretching. Nanoscale internal
structures controls the elasticity..
(FIG. STREATCHABLE AREA IN SPIDER SILK)
NANOSCALE FIBRES

13. There is a big demand for biomaterials to assist or
replace organ functions and to improve patients’ quality
of life. Materials options include metals, ceramics and
polymers. Unfortunately, conventional materials are used
that were not specifically developed for biological
applications.Interaction between biomaterials and natural
tissues is an important subject for biomaterial science
Such information is essential to aid the design of new
biocompatible biomaterials.

14. Recently, the domain of nanoporous materials has
been enlarged very much to the development of porous
hybrid materials designated as metal-organic
frameworks (MOF),1 porous coordination polymers2 or
organic- inorganic hybrids3,4 which are the most
recently highlighted class of materials consisting of metal
ions linked together by organic bridging ligands in the
framework.

15. The Nano Devices team collaborates closely with
researchers at the University of Cambridge, focussing on
nanoscience research and its application to novel
solutions in such diverse areas as sensing, energy
storage/harvesting, novel computing architectures,
communications technology and functional materials.
Advances in all these fields will drive new device
concepts and enable future ambient intelligence and
wearable devices.

17. (FIG. NOKIA MORPH IN OPEN MODE)

18. (FIG. NOKIA MORPH IN FOLDED MODE)

19. Nanostructure surface known as nano-flowers that
naturally repel water, dirt and even finger-prints is
used here.
(FIG. NANO FLOWER ZOOM SNAP)

20. (FIG. NANO GRASS ZOOM SNAP)

21. Nanosensors would
empower users to examine
the environment around
them in completely new
ways, from analyzing air
pollution, to gaining insight
into bio-chemical traces
and processes.

22. • The whole electronic circuit inside NOKIA morph
is entirely transparent.
• Nanoscale electronics becomes invisible to the
human eye.
(FIG. NANO SCALE ELECTRONICS ZOOM SNAP)

23. Buttons on the device surface are real 3D forms.
(FIG. BUTTON IN 3D ZOOM SNAP)

24. The device would be so flexible that it
can be bend into a wrist watch, so it can be worn
around the wrist .
(FIG. NOKIA MORPH IN WRIST MODE ZOOM SNAP)

25. Utilization of biodegradable materials might
make production and recycling of devices easier
and ecologically friendly.
(FIG. RECLYCLING LOGO OF NOKIA )

26. • Stretchable and flexible electronics. transparent
electronics.
• Self-cleaning surfaces.
• It can sense it’s surrounding environment.
• It draws power from the sun for recharging.

27. • The initial manufacturing cost is Very high.
• The expected market price is Around Rs 60000.
• Conventional dsscs provides Instability related to solvent
Leakage and evaporation.
• Stretchable batteries have not Yet being discovered.

28. • The shapes could be made much simpler
like in Ring shape.
• Morph in open mode could act as a
keyboard for PC’s.

29. According to the developers, using
nanotechnology can lead to low cost
manufacturing solutions as well as adjustable,
empowering devices, bringing us new, versatile
possibilities. These mobile devices will be
flexible, stretchable and shape changing, so that
they can be easily integrated in our everyday
routines without special adjustments on our part.