It is an electric motor and drive system that can be used for electric vehicles, and it is a core technology for designing and commercializing electric motors that can realize high efficiency, low price, and high performance. By applying a low-cost permanent magnet (Ferrite), compared to the existing expensive rare-earth permanent magnet applied motor
① 55% reduction in material cost  ② Realization of high power density of 85% or more  ③ Minimize leakage flux

(market) The cumulative output of the electric motor market for automobiles reached 3 billion units in 2018, and the electric vehicle motor market is expected to reach USD 5.38 billion in ‘24 (source: Yano Economic Research Institute) In Korea, the average annual delivery volume of 3.37 billion cases (‘20), Delivery food market size: KRW 17.4 trillion (Source: Korea Integrated Logistics Association, Statistics Korea)

(Policy) Future car expansion and market preoccupation strategy ('20), 4th eco-friendly vehicle master plan ('21), Electric drive system technology development required according to electric vehicle expansion policy

<  High-density  drive  motor  applications  for  electric  vehicles  >

Technologies including core power component systems required for the electrification of transports such as vehicle, ship, train, drone, etc. and overall systems associated with power component systems such as charging infrastructure, charging service, charging monitoring system, etc. Design technology for high reliability and high energy density power components, high frequency driving technology for next generation semiconductor devices (SiC, GaN), lightweight design technology for magnetic devices (Inductor, Transformer), etc.

(Market) The global personal mobility devices market size is expected to reach USD 18.2 billion by 2028, according to a new report by Grand View Research, Inc. These technologies can be used in a wide variety of applications and have lots of influence, because the demand for high reliability and high energy density lightening of core power components has recently increased.

(Policy) Development support for core components of future cars such as strategy to respond to short-term supply and demand and strengthen industrial capabilities of semiconductor for vehicles(2021), R&D promotion plan of Korean governmental departments for strengthening future car competitiveness(2021), etc.

<  Application  area  of  design  technology  for  high  reliability  
and  high  energy  density  power  components  >

Vehicle panel-integrated solar modules and systems that are not limited by vehicle type and powertrain of the armature High power (220W/㎡) vehicle panel integrated solar module Curved and lightweight solar module that can respond to electric vehicle panel curvature Securing the driving range of 80km/day for electric vehicles using pure solar energy

(Market) The global electric vehicle market is expected to grow at a CAGR of 26.2% from 3.5 million units in '21 to 28.5 million units in 2030(Source : Joint ministries) The domestic electric vehicle supply scale (cumulative) is expected to be 1.13 million units in '25 and 3 million units in '30 according to the eco-friendly vehicle expansion policy goal

(Policy) Expand green mobility including the Korean version of the Green New Deal (2020) and the 4th Green Car Master Plan (2021)

<  Vehicle  panel  solar  module  and  All-in-one  electric  car  application  >

Development of 6-minute extreme fast charging >200Wh/kg lithium-ion batteries and the materials

Development silicon-based anode materials and the electrode for >300Wh/kg high energy density lithium-ion batteries

(Market) Expected to grow at a CAGR of 25.9% from $30 billion in 2020yr to $150 billion in 2030 for EV battery market (from SNE research)

(Policy) Intensive development of EV battery industry, including cross-ministerial R&D plans to secure future EV competitiveness ('21), and 2030 secondary battery industry development strategy ('21)

<  Lithium-ion  battery  application  >

Solid electrolyte composition with high ionic conductivity of 10 mS/cm class with atmospheric stability and Low-cost mass-production manufacturing technology Anode material technology specialized for all-solid-state batteries, electrode manufacturing technology for anode electrode thick film, anodeless negative electrode manufacturing technology, stacked all-solid-state battery manufacturing technology, etc.

(Market) All-solid-state batteries are expected to grow at an average annual rate of 66% by 2030, accounting for 10% of the electric vehicle market by 2030, and the market share is expected to increase rapidly when the cost is lowered(Source : SNE research)

(Policy) All-solid-state battery technology, such as cross-ministerial R&D promotion plan to secure competitiveness in future cars ('21), future R&D promotion plan for materials, parts, and equipment ('21), and 2030 secondary battery industry development strategy ('21) Intensive development support

<  All-solid-state  battery  technology  applications  >

High-efficiency, weight lightening motor design technology such as ‘Synchronous Reluctance’, which reduced manufacturing cost by 15% using the existing induction motor stator and ‘Ferrite Magnet Used Motor’, which reduced weight by 40% using low-cost permanent magnets and heat dissipation structure optimization technology for effective thermal management.

(Market) The global motor market is worth 150 billion dollars, and if it develops an IE4 class motor and take up a 1% market share, an economical effect of about 1.5 billion dollars is expected. The global thermal management market is expected to grow at a CAGR of 7.7% from $11.1 billion in 2019 to $14.2 billion in 2025 (Source : Markets and Markets)

(Policy) It conforms to the national greenhouse gas reduction plan and energy consumption reduction policy, and can contribute to global carbon/fine dust emission reduction

<  lightweight/high-efficiency  motor  design  technology  &  Thermal  Management  Technology  >

AI-based intelligent wireless power transmission/reception system that enables e-mobility (personal mobility, electric vehicle, etc.) and autonomous driving service robots to wirelessly charge themselves

(Market) The global wireless power transmission market is expected to grow at a CAGR of 17.5% from $1.13 billion in 2019 to $3.79 billion in '24(Source : Omdia)

(Policy) The government has been supporting about 40 cases of wireless charging R&D for the past 10 years (2011-21), and is currently investing in R&D to support the localization of related core parts and infrastructure convergence.

<  Wireless  power  transmission  application  >