K1MEDGLOBAL has developed and produced, for the first time in Korea, a piezoelectric-type extracorporeal shockwave handle in which multiple piezoelectric elements are precisely arranged along the curved surface of the handle, with focal depth controlled through gel pads. With precise focal design and powerful output, therapeutic energy is accurately focused on the target area, enabling more effective treatment. Delivering up to 94 MPa of output, it effectively transmits energy deep into tissue and can reliably meet the demands of various high-power treatment conditions.
K1MEDGLOBAL’s Focused Extracorporeal Shockwave
PIEZO Handpiece
Through precisely arranged piezoelectric elements in an array structure, energy is accurately delivered to the target area, and stimulation depth can be finely adjusted using gel pads of various thicknesses.
Large Piezo Handpiece
Maximum Pressure(Mpa)
94
Maximum Energy Density(mJ/㎟)
0.93
Maximum Focal Depth(mm)
40
Small Piezo Handpiece
Maximum Pressure(Mpa)
30
Maximum Energy Density(mJ/㎟)
0.6
Maximum Focal Depth(mm)
5
Small double Piezo Handpiece
Maximum Pressure(Mpa)
82
Maximum Energy Density(mJ/㎟)
0.9
Maximum Focal Depth(mm)
5
SYNER Handpiece
The Syner handpiece, which combines focused ultrasound and extracorporeal shockwave, delivers multiple benefits—such as fat reduction, tissue elasticity improvement, and enhanced blood circulation—within a single device, offering both high versatility and treatment efficiency.
Large Syner Handpiece
Maximum Pressure(Mpa)
22
Maximum Energy Density(mJ/㎟)
0.4
Maximum Focal Depth(mm)
10
Small Syner Handpiece
Maximum Pressure(Mpa)
13
Maximum Energy Density(mJ/㎟)
0.16
Maximum Focal Depth(mm)
5
LINEAR Handpiece
The Linear Focused Shockwave delivers energy uniformly in a linear pattern, allowing large areas to be stimulated quickly and efficiently, achieving both reduced treatment time and maximized effectiveness.
Linear Handpiece
Maximum Pressure(Mpa)
20
Maximum Energy Density(mJ/㎟)
0.15
Maximum Focal Depth(mm)
25
PIEZO Handpiece Production Process
Focused Extracorporeal Shockwave Production Models
