Liquid crystal polymer (LCP) is a super engineering plastic, with a combination of high strength, modulus and impact proper ties, flame retardance, resistance to a wide range of aggressive chemicals, very low and tailorable coefficients of thermal expansion (CTE), excellent dimensional stability, thin-wall flowability, and unique processability. This balance of characteristics is the main reason for electrical and electronics applications to have one of the major commercial end uses for these thermoplastics. With the miniaturization trend of many electronic products,manufacturers are streamlining devices to pack more features into smaller packages. For instance, the pitch (spacing) between contacts in electrical connectors is narrower than ever before, and as small as 0.2 mm, when compared to older-style power connectors, with pitches exceeding 12.0 mm. Nominal wall stocks have also thinned considerably, as the overall size of connectors has shrunk. These thin-wall designs pose a challenge during the injection molding of micro connectors for devices, such as iPads, robots, computers, cell phones, and satellites. A suitable material must withstand reflow soldering without distor ting, melting, or blistering, and (LCPs) prove to be the much-needed ticket when compared to other traditional polymers. For the same reasons, LCPs are also injection molded into integrated circuit (IC) sockets, high-frequency (HF) network switches, power modules for wind and solar inverters and converters, custom high-power electrical connectors, and many other precision devices.

1. INTRODUCTION

2. RESEARCH METHODOLOGY

3. EXECUTIVE SUMMARY

4. MARKET DYNAMICS

5. MARKET SEGMENTATION

6. COMPETITIVE LANDSCAPE

7. MARKET OPPORTUNITIES AND FUTURE TRENDS

8. DISCLAIMER