A different beginning creates a different outcome.
A different beginning creates
a different outcome.
From start to finish,
we design every step of the technology.
From start to finish,
we design every step of the technology.
Technology built into
every core process —
a difference proven by results.
From developing ceramic materials and blending powders,
to firing at 1,300°C, precision machining, modularization, and final assembly.
Every step of the technology that touches your skin is designed
and created from start to finish.
Unseen precision is what builds trust in every experience.
Technology built into
every core process —
a difference proven by results.
From developing ceramic materials and blending powders, to firing at 1,300°C, precision machining, modularization, and final assembly.
Every step of the technology that touches your skin is designed and created from start to finish.
Unseen precision is what builds trust in every experience.
Technology built into
every core process —
a difference proven by results.
From developing ceramic materials and blending powders,
to firing at 1,300°C, precision machining, modularization, and final assembly.
Every step of the technology that touches your skin is designed
and created from start to finish.
Unseen precision is what builds trust in every experience.
Piezo Ceramics
PZT
Piezoelectric Ceramic (PZT) is a functional material that transforms mechanical pressure
into electrical signals, and electrical signals into precise vibrational energy.
At Eco DM Lab, we develop high-sensitivity, high-durability piezoelectric ceramics
to deliver solutions across medical devices, precision machinery, and sensor systems.
Engineered for miniaturization, silent performance, and precise control,
this material is recognized as a core component shaping the industries of the future.
1MHz
Thickness : 2.1mm Outer Diameter (OD) : 34mm
Inner Diameter (ID): 14.8 mm
3MHz
Thickness : 0.7mm Diameter : 12mm
Product Line
DM1
A sensor material with high dielectric constant and thermal stability, built for precision and durability.
Key applications
High-temperature sensor
High-reliability sensor
DM2 / DM3
Low-loss, stable vibration makes it ideal for ultrasonic cleaners and actuators.
Key applications
Ultrasonic cleaner
Ultra-precision actuator
DM4
With an ultra-high sensitivity of d₃₃ = 810, this material is tailored for precision medical diagnostic sensors.
Key applications
Advanced medical diagnostic sensor
DM5
Delivers stable performance under high-voltage conditions, versatile for industrial and medical precision control applications.
Key applications
Advanced medical diagnostic sensor
DM6
A material optimized for medical ultrasound probes, featuring ultra-precise ultrasonic response and sensitivity
Key applications
Medical ultrasound probe
Fields of application
Performance indicators
Functions
Advantages
High dielectric constant (k)
Electrical storage capacity
Improved sensitivity and precision
High mechanical q value
Vibration quality retention
High-frequency precision diagnostics enabled
High d₃₃ value
Vibration-to-electric conversion efficiency
Implementation of high-sensitivity sensors
High curie temperature
High-temperature operating stability
Enhanced adaptability to industrial and medical environments
Low tanδ (loss factor)
Energy loss minimization
Reduced heat generation for long-duration operation
Core technological competence
Custom design flexibility
Optimized for medical, precision machinery, and smart devices with diverse form and structural design options
Uniform microstructure
(1–2 μm particles)
Superior mechanical strength and durability for the production of high-reliability products
High q characteristics
(high quality factor)
Excellent resistance to thermal variation during extended use ensures stable operation without performance loss
High Kp
(high coupling coefficient)
Superior electro-mechanical energy conversion efficiency that maximizes sensor and actuator performance
Patents and publications
Piezoelectric materials of (1-x)Pb(Zr0.53Ti0.47)O3–xBi(Y0.7Fe0.3)O3 for energy-harvesting devices
Microelectronic Engineering 126 (2014) 71–78
Piezo actuator having an electrode structure for a torsional vibration mode, and rotation-type ultrasonic motor including same
Electron. Mater. Lett., Vol. 10, No. 1 (2014), pp. 223-228
Piezo Ceramics
PZT
Piezoelectric Ceramic (PZT) is a functional material that transforms mechanical pressure
into electrical signals, and electrical signals into precise vibrational energy.
At Eco DM Lab, we develop high-sensitivity, high-durability piezoelectric ceramics
to deliver solutions across medical devices, precision machinery, and sensor systems.
Engineered for miniaturization, silent performance, and precise control, this material is recognized as a core component shaping the industries of the future.
1MHz
Thickness : 2.1mm
Outer Diameter (OD) : 34mm
Inner Diameter (ID): 14.8 mm
3MHz
Thickness : 0.7mm Diameter : 12mm
Product Line
DM1
A sensor material with high dielectric constant and thermal stability, built for precision and durability.
Key applications
High-temperature sensor
High-reliability sensor
DM2 / DM3
Low-loss, stable vibration makes it ideal for ultrasonic cleaners and actuators.
Key applications
Ultrasonic cleaner
Ultra-precision actuator
DM4
With an ultra-high sensitivity of d₃₃ = 810, this material is tailored for precision medical diagnostic sensors.
Key applications
Advanced medical diagnostic sensor
DM5
Delivers stable performance under high-voltage conditions, versatile for industrial and medical precision control applications.
Key applications
Advanced medical diagnostic sensor
DM6
A material optimized for medical ultrasound probes, featuring ultra-precise ultrasonic response and sensitivity
Key applications
Medical ultrasound probe
Fields of application
Performance indicators
Functions
Advantages
High dielectric constant (k)
Electrical storage capacity
Improved sensitivity and precision
High mechanical q value
Vibration quality retention
High-frequency precision diagnostics enabled
High d₃₃ value
Vibration-to-electric conversion efficiency
Implementation of high-sensitivity sensors
High curie temperature
High-temperature operating stability
Enhanced adaptability to industrial and medical environments
Low tanδ (loss factor)
Energy loss minimization
Reduced heat generation for long-duration operation
Core technological competence
Custom design flexibility
Optimized for medical, precision machinery, and smart devices with diverse form and structural design options
Uniform microstructure
(1–2 μm particles)
Superior mechanical strength and durability for the production of high-reliability products
High q characteristics
(high quality factor)
Excellent resistance to thermal variation during extended use ensures stable operation without performance loss
High Kp
(high coupling coefficient)
Superior electro-mechanical energy conversion efficiency that maximizes sensor and actuator performance
Patents and publications
Piezoelectric materials of (1-x)Pb(Zr0.53Ti0.47)O3–xBi(Y0.7Fe0.3)O3 for energy-harvesting devices
Microelectronic Engineering 126 (2014) 71–78
Piezo actuator having an electrode structure for a torsional vibration mode, and rotation-type ultrasonic motor including same
Electron. Mater. Lett., Vol. 10, No. 1 (2014), pp. 223-228
Piezo Ceramics
PZT
Piezoelectric Ceramic (PZT) is a functional material that transforms mechanical pressure
into electrical signals, and electrical signals into precise vibrational energy.
At Eco DM Lab, we develop high-sensitivity, high-durability piezoelectric ceramics
to deliver solutions across medical devices, precision machinery, and sensor systems.
Engineered for miniaturization, silent performance, and precise control,
this material is recognized as a core component shaping the industries of the future.
1MHz
Thickness : 2.1mm Outer Diameter (OD) : 34mm
Inner Diameter (ID): 14.8 mm
3MHz
Thickness : 0.7mm Diameter : 12mm
Product Line
DM1
A sensor material with high dielectric constant and thermal stability, built for precision and durability.
Key applications
High-temperature sensor
High-reliability sensor
DM2 / DM3
Low-loss, stable vibration makes it ideal for ultrasonic cleaners and actuators.
Key applications
Ultrasonic cleaner
Ultra-precision actuator
DM4
With an ultra-high sensitivity of d₃₃ = 810, this material is tailored for precision medical diagnostic sensors.
Key applications
Advanced medical diagnostic sensor
DM5
Delivers stable performance under high-voltage conditions, versatile for industrial and medical precision control applications.
Key applications
Advanced medical diagnostic sensor
DM6
A material optimized for medical ultrasound probes, featuring ultra-precise ultrasonic response and sensitivity
Key applications
Medical ultrasound probe
Fields of application
Performance indicators
Functions
Advantages
High dielectric constant (k)
Electrical storage capacity
Improved sensitivity and precision
High mechanical q value
Vibration quality retention
High-frequency precision diagnostics enabled
High d₃₃ value
Vibration-to-electric conversion efficiency
Implementation of high-sensitivity sensors
High curie temperature
High-temperature operating stability
Enhanced adaptability to industrial and medical environments
Low tanδ (loss factor)
Energy loss minimization
Reduced heat generation for long-duration operation
Core technological competence
Custom design flexibility
Optimized for medical, precision machinery, and smart devices with diverse form and structural design options
Uniform microstructure
(1–2 μm particles)
Superior mechanical strength and durability for the production of high-reliability products
High q characteristics
(high quality factor)
Excellent resistance to thermal variation during extended use ensures stable operation without performance loss
High Kp
(high coupling coefficient)
Superior electro-mechanical energy conversion efficiency that maximizes sensor and actuator performance
Patents and publications
Piezoelectric materials of (1-x)Pb(Zr0.53Ti0.47)O3–xBi(Y0.7Fe0.3)O3 for energy-harvesting devices
Microelectronic Engineering 126 (2014) 71–78
Piezo actuator having an electrode structure for a torsional vibration mode, and rotation-type ultrasonic motor including same
Electron. Mater. Lett., Vol. 10, No. 1 (2014), pp. 223-228