|
ARIETTA 70 Overview |
|
Hitachi Aloka pioneered ultrasound for use by cardiologists and we continue to |
|
lead the way with major innovations. Recognized for our superior image quality & |
|
Doppler performance, outstanding system reliability and advanced transducer |
|
technology, Hitachi Aloka remains the standard in the field of ultrasound. |
|
Hitachi Aloka’s commitment and dedication to cardiology allows us to offer a wide |
|
range of consoles and specifically designed transducers to meet the needs of |
|
every cardiologist. |
|
The Most Advanced Hemodynamic Capabilities: |
|
• Dual Gate Doppler enables observation of Doppler waveforms at 2 points |
|
from the same cardiac cycle |
|
◦ PW/TDIfor AF patients |
|
◦ PW/PWIRT measurement in a real time |
|
◦ TDI/TDIwatch synchronization imperfection in a real time aspect of a |
|
TDI wave pattern |
|
• Vector Flow Mapping can visualize blood flow in the heart and vessels |
|
as velocity vectors |
|
• eTracking provides multiple parameters necessary for early-stage detection |
|
of atherosclerosis |
|
• Wave Intensity is a new hemodynamic index that provides information about |
|
the dynamic behavior of the heart and the vascular system and their interaction |
|
Hitachi Aloka’s premium level cardiology systems provide: |
|
• Extraordinary high-resolution digital imaging with single crystal transducers |
|
• Speckle reduction and edge enhancement technologies providing clearly |
|
defined images |
|
• Eyeball EF calculates a Biplane EF from automatic traces of endocardium on |
|
both apical 2 and 4 chamber images |
|
• Broadband harmonics offering significantly enhanced sensitivity and |
|
axial resolution |
|
• Natural Ergonomics design for reduction of muscle loading while scanning |
|
• User defined and customizable study protocols guaranteeing exam consistency |
|
• Real-time Virtual Sonography blends and overlays CT/MR images with |
2 |
ultrasound images |
IMAGE TECHNOLOGY & ERGONOMICS
Compound Pulse Wave Generator (CPWG+)
The most advanced broadband beam-forming technology combined with high speed image processing that allows for higher definition ultrasound imaging than ever before.
Symphonic Technology
Provides high quality imaging using an expanded range of harmonic signals. This technology results in excellent image resolution and sensitivity and improved penetration.
HI REZ
Clearly displays differences in tissues, reducing speckle noise while maintaining the frame rate. It can also display outlines more clearly by selectively emphasizing boundaries.
Compound Imaging
The ultrasound beam is transmitted and received in real time and in the multiple directions resulting in a reduction of speckle noise, suppression of artifacts, and improvement of contrast resolution allowing lesions to be clearly observed.
Image Optimizer
At the touch of a button the B-mode image is instantly optimized to the user’s preference. This technology continually monitors the user’s typical settings to optimally adjust the image when pressed resulting in less manual adjustments and more efficient examinations.
Single Crystal Probes
A single crystal is used to provide the piezoelectric elements of the probe. Single crystal technology achieves higher sensitivity and wider bandwidths over standard piezoceramics.
3
FEATURES
ARIETTA 70 Features
Dual Gate Doppler
The Dual Gate Doppler generates a full FFT analysis and display from two separate sample gates allowing measurements from two different locations, during the same cardiac cycle. For example:
PW/PW: LV inflow and PV flow - for pseudonormalisation assessment
PW/TDI: E-wave, A-wave and e'- E/e', as a way of evaluating diastolic dysfunction
TDI/TDI: septal wall TDI and lateral TDI - evaluation of cardiac resynchronisation therapy
2D Tissue Tracking (2DTT) utilizing speckle technology
It is very simple to set the contours of the myocardium with the 2DTT in order to fit the endo and epicardium and easily assess the parametric data and images. The 2DTT provides precise quantitative measurements and information such as:
Global Longitudinal Strain/Strain Rate and Radial Strain/Strain Rate Twist angle, displacement, wall thickening and various other parameters to visualize, quantify and analyze the myocardial mechanics.
Free Angular M-mode (FAM)
Three M-mode lines can be set at any position and angle simultaneously, thus eliminating the complications involved with usual ultrasound systems in getting accurate measurements when the conventional view cannot be acquired. Additionally,
wall motion at different positions can be compared simultaneously, making it possible to accurately measure an eventual delay.
Strain/Strain Rate
Conventional cardiac function analysis is focused on diagnosis of global heart movement. By opposition, Strain quantifications aim is to analyse cardiac function more locally and sensitively by focusing attention on myocardium areas themselves.
Strain analysis is used to examine the cardiac function by measuring the elongation and shrinkage of the regional myocardium between two designated points. Strain analysis is attracting attention because it is less affected by translation and tethering for correct evaluation of myocardial motion.
You can carry on analysis while making sure that ROI position and Strain length are adequately set (therefore tracking of the “objective part” ) and working by checking the ROI that automatically follows by velocity tracking and the SR marks.
Hitachi Aloka’s Velocity Tracking Algorithm to calculate STRAIN, based on the state of the art technology, makes it possible to automatically and easily track regional myocardium motion (Strain) while taking in consideration “twist” & “tethering” effects of the global heart movement.
Using line data (RAW), the TDI analysis software enables high frame rate for accurate analysis results.
4