Sports and Wearable
Technology
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Suhayb Alnafie 2241188
Saud Alharbi 2246239
Faisal Assiri 2241379
Mohammed Al Baqami
2249254
Table of Contents
Introduction
The importance of material selection
Carbon fiber properties and applications
Kevlar: Structure and Advantages
Smart Textiles: Definition and Types
Engineering Wearables for Athlete Comfort
Smart Footwear Technology
Durability and Longevity of Materials
Environmental Considerations
Challenges in Material Science for Sports
Future of Materials in Sports
conclusion
Introduction
• Leveraging advanced materials like carbon fiber,
Kevlar, and smart textiles in athletic gear and
performance wear.
• Material science
studies the structure,
properties, and
applications of
materials.
• In sports, materials
are engineered for
performance,
protection, and
endurance.
Why Material Selection Matters
Every sport has different
physical demands.
Material choice impacts weight,
durability, flexibility, and
thermal management.
Carbon Fiber: Structure and
Properties
High tensile strength and lightweight.
Composed of carbon atoms bonded in a crystalline structure.
Resistant to fatigue and corrosion.
Applications of Carbon
Fiber in Sports
Bicycle frames,
tennis rackets,
helmets,
prosthetics.
Reduces energy loss
and increases
precision.
Enhances aerodynamic
efficiency in sports
equipment, leading
to improved speed
and reduced drag.
Kevlar: Structure and
Advantages
MADE OF STRONG
SYNTHETIC FIBERS WITH
HIGH TENSILE
STRENGTH-TO-WEIGHT
RATIO.
HEAT-RESISTANT AND
DURABLE.
COMMONLY USED IN
BALLISTIC AND IMPACT
PROTECTION.
USED IN FOOTBALL
HELMETS, GLOVES,
PADS, AND CYCLING
GEAR.
ABSORBS SHOCK AND
RESISTS ABRASIONS.
Smart Textiles: Definition and
Types
Fabrics
integrated
with
electronic
components or
reactive
materials.
Passive
(sensors),
active
(reactive),
and ultrasmart
(adaptive
feedback).
Track heart
rate, motion,
temperature,
and hydration.
Provide realtime feedback
to athletes
and coaches
Engineer
ing
Wearable
s for
Athlete
Comfort
Moisture-wicking,
breathable, and
antimicrobial
materials.
Enhance focus and
reduce fatigue.
Smart Footwear
Technology
• Sensors measure gait, pressure, and jump
force.
• Data helps improve posture and prevent
injuries.
Durability and
Longevity of
Materials
• Must withstand repeated use,
stress, and weather.
• Material coatings and composites
extend lifespan.
Environment
al
Considerati
ons
• Focus on biodegradable polymers and
recycled fibers.
• Circular design to reduce waste in
sportswear production.
Challenges in Material
Science for Sports
Balancing
weight, cost,
performance,
and
durability.
Sensor
integration
without
compromising
flexibility.
Future of Materials in Sports
AI-INTEGRATED WEARABLES,
SELF-HEALING FABRICS, SMART
POLYMERS.
PERSONALIZED, DATA-DRIVEN
PERFORMANCE GEAR.
conclusio
n