This manual is specific to the GE Voluson E10 systems field service
training presented by the Conquest Imaging training department.
After completing the training, you will:
Understand overall system operation.
Identify the parts, boards and modules.
Understand the role of each component in the system.
Be able to perform standard maintenance procedures.
Have the knowledge to troubleshoot common problems.
Be able to safely access and replace boards and modules.
Understand of some of the differences in configuration for
different system versions.
Other Course Offerings
This course is one of many ultrasound training courses offered by
Conquest Imaging.
The following are some of our current course offerings:
The goal of the System Hardware and Theory Module is to provide
you with a solid grounding on the purpose of the GE Voluson E10
system’s different components and how they function together
within the system.
The three major functional blocks in all ultrasound systems are:
Front End – Includes transducer analog signal processing
functions.
Back End – Includes user interface and system communication
with DICOM systems.
Power Systems – Generates, regulates and supplies the required
voltages to the various parts of the system.
Signal Flow
System configurations (GE dataflows) are stored on a hard drive
inside the BEP, and all the necessary software is loaded from the hard
drive on power up of the system.
The transmit bursts are routed from the RF interface to the relays
where the ultrasound probes are connected. The signals are
transmitted by the probes as ultrasound into the body. The input
signals travel from the probe connector panel to the Front End
Processor (FEP), then to the Back End Processor (BEP) for digital signal
processing(DSP) and finally, the results are displayed on the monitor.
This section covers system frontend topics for the GE Voluson E10.
Front End is a general term for the parts of the ultrasound system
that receive the reflections from acoustic energy that have been
transmitted into the body and perform the various signal processing
functions on them needed to produce an ultrasound image. The
following are some of the components and functions that are found
in a typical ultrasound system front end:
Transducers – Transmit focused acoustic energy and receive the
resultant reflections.
High voltage switches – Used for multiplexing (connects a
particular transducer element to a particular transmitter/receiver
pair)
High voltage transmitters – Transmit analog data from the
transducers.
Time Gain Control Amp (TGC) – A variable gain amplifier (VGA) is
used to compensate for image variations due to tissue depth.
Analog to Digital converter and noise filtering.
Digital Beamformers – Upconverts signals which increases
sample rates. The signals are stored in memory, apodized and
summed.
Beamformed Digital Signal Processing – The digital beamformed
signals received are processed into visual and audio outputs the
process of which depends on if the transducer is B-mode (2D),
Doppler, PWD or CWD.
The front end manages the input from the transducers, performs
Analog to Digital conversion,Digital to Analog conversion along with
many other signal processing functions.
Voluson E10 Front End Processor (FEP)
In the Voluson E10 systems the front end beamforming electronics
are comprised of the following boards:
To extend to 192 or 256
channels, the RSX(Beamformer
Receiver/Transmitter)
Extension board is
required.
RTF - Probe Control Board
The probe control board (RTF) recognizes different probe types and
switches between the Probe Connectors (3 DLP-Connectors, 1 CWConnector) as required. The board contains:
One optional CW-Probe Connector
Three 408 pin Probe-Connectors
One 408pin Dummy-Probe Connector
Probe Select Relays
Probe Recognition
RSE - Pencil Probe Board (optional)
CW scanning is optional on the Voluson E10. This adapter board is for
the connection of CW pencil probes is required for CW-Option.
RFM - (RF-Interface & Beamformer) FE Mainboard
The FrontEnd Mainboard supports Tx/Rx for 128 channels only.
RFM Board - Interface FPGA
The interface FPGA on the RFM board provides the following
functions:
DMA logic
Beamformer Interface
RTF Control Interface
RTF FPGA Control Interface
RFM Board - Processing FPGA
The processing FPGA on the RFM board provides the following
functions:
Ultrasound Data Pre-Processing
System Control
Motor Control
components of RSX board are also present on RFM - (RF-Interface &
Beamformer) FE Mainboard.
System Backend Components
This section describes the System Back End topics for the GE Voluson
E10. The back end includes system blocks/components on the user
interface side that perform functions such as master controller, signal
processing, image memory, video layout, peripherals and user
interface.
Back End Processor (BEP)
The Back End Processor (BEP) unit receives the data from the FEP
electronics, stores it in memory, performs scan conversion to the
pixel domain, and drives the system’s monitors.
Contains the HDD that holds the Base Image (Windows 7) and
Application Software (System Specific). The BEP software also
processes the Color Flow, Doppler, M-Mode data and the 3D/4D data.
The major tasks of the motherboard are system control and image
processing/rendering for 2D/3D/4D. It also provides control for the
DVD drive and User Interface (UI) via USB connections. There are four
motherboard configurations for the Voluson E10:
On Board VGA and Graphic Card
LAN
USB 2.0
USB 3.0
Sound
CPU: 3.1 GHz at 4 cores
Hard Disk Drive (HDD)
The 500GB Hard Disk is the main storage device of the Voluson ESeries ultrasound system. The Voluson E-Series Hard disk drive (HDD)
is divided into four different partitions:
C: System partition:
Operating System (Windows 7) including all Windows settings
(IP-address, Network Name, etc.)
US-Application Software (UISAPP)
Global Service Platform Software
Software Options
D: User partition:
User Presets (Backup) database
Images (Archive), Patient-ID´s and Reports database
Service and System settings databases
R: Rescue partition:
Factory Images of the C: Partition for System recovery after
HDD (Windows) crash.
Printer Drivers
LINUX partition: (not visible in Windows)
Linux operating system for rescue functionality.
The graphic Card supplies the RTV (Video manager) board with DVI
Video. It offers dynamic contrast enhancement and color stretch
video processing.
RTV - Video Management Board
Distributes DVI-D-information coming from the Graphic Card to the
DVI-D (digital) and DVI-I (integrated) connectors. It also converts DVID-inputs to S-Video output(s). Displays external playback video and
adds overlay graphics to it.
DVI-D output for the System Main Monitor
DVI-I output for external device (only RGB signals used)
S-Video output (2 channels)
S-Video input for external devices
USB connector for board configuration
External I/O Connection Panel
The GES30 external I/O connection Panel is found at the rear of the
system and includes VGA, USB, Network and S-Video cables to the
Voluson E-Series system.
HDMI OUT Connector for external monitor
VGA OUT Connector for external monitor
USB 3.0 port
USB 2.0 port
S-Video OUT S-Video OUT connector
Network DICOM input/output, twisted pair RJ-45 10/100
Contols (Encoder/Joycoder) with integrated rotary/push/flip
function
USB Trackball (2”) with dedicated buttons to emulate
standard three button mouse
USB standard alphanumeric keyboard
USB extended keyboard with controller
LED Indicators with wide range dimming
LED to illuminate probe port connectors
DC/DC Converter:
Converts 12VDC input voltage to 5VDC and 3.3VDC output voltages
for UI components.
The control panel is the main user interface, receives user inputs,
communicates with the system host CPU via Universal Serial Bus
(USB) ports and displays various outputs via the touch panel.
It includes the On/Off switch, controls used to manipulate picture
quality, and controls used to measure and analyze, an alphanumeric
keyboard and ergonomic controls.
Control Console Positioning
For ergonomic considerations the control console can be rotated,
translated and adjusted in height. See Control Console Positioning in
the Adjustments module of this manual.
Height adjustment: 20 cm (7.9 inch)
Translation adjustment: 20 cm (7.9 inch)
Rotation adjustment: +/- 40°
Audio Doppler operation
Audio playback of recorded scan sessions
Audio error notification.
The audio signal is passed to the speakers from either the RTH50
board or the RTT board depending on the version of the system.
Power Distribution Components
The power distribution components in Voluson E10systems are
described in this section.
Main Power Supply (RSP)
The AC Power's main tasks are to supply the various internal
subsystems with AC power and to galvanically isolate the system from
the on site Mains Power System. To reduce inrush current, an inrush
current limiter is implemented. From the input voltage from the
Power Supply (RSP) the AC/DC converter generates all system supply
voltages, which include the:
Front End voltages
Standby voltages
ATX motherboard supply
Tx voltages
Note After turning off a
system, wait at least 10
seconds before turning it
on again. The system may
not be able to boot if
power is recycled too
quickly.
1. Circuit Breaker
2. Fuses
3. Outlet Plug
RTB - Distribution Board Bottom
The following are the functions of the Distribution Board Bottom
(RTB):
USB2.0 Interface, Board is connected to PC via a USB cable.
5 port USB2.0 Hub for connecting peripherals (e.g., optional ECG)
Feed through DC-Power and Signals for the console (12V_ATX,
5V_ATX, 5VSB, PWR_On, Start_Key, Loud speaker)
Multiplexer and Amplifier for PC-Sound, Doppler Audio and
VCR/DVD-Recorder)
Normal Power ON / Shut Down Sequence
Power On / Boot Up:
1. Connect the main power cable to the back of the system.
2. If not already done, screw on the pull-out protection of the mains
power cable with the two screws.
3. Connect the main power cable to a hospital grade power outlet
with the proper rated voltage. Never use an adapter that would
defeat the safety ground.
4. Switch ON the circuit breaker at the rear of the system.
When AC power is applied to the system, the ON/OFF standby button
on the control console is amber, indicating that the system is in
standby mode.
Note The mains outlet for
the system peripheral
auxiliary equipment are
commonly switched with
the ON/OFF standby
button. The power switch
of any attached printer(s)
must be in ON position
before starting the
system. Some auxiliary
equipment may switch
itself to standby mode and
must therefore be
switched on separately.
Boot screen
5. Hold down the ON/OFF standby button (see: Figure 3-3 below) on
the control console for ~3 seconds. The system automatically
performs an initialization sequence which takes about two minutes
and includes the following:
Loading the operating system.
Running a quick diagnostic check of the system.
Detecting connected probes.
When the ON/OFF standby button on the control console is pressed,
the system starts and the operating system is loaded which then
leads to activate the application software.
As soon as the software has been loaded, the system enters 2D-Mode
with the probe and application that was used before the system
shutdown.
Normal Boot-up Process
1. Power is distributed to peripherals, control console, monitor,
FrontEnd and BackEnd processor.
2. The BackEnd processor and rest of the system starts with the
sequence listed in following steps:
First the BIOS version is shown on the monitor.
Afterward the “Boot Screen” is displayed. (Voluson is
Note After turning off a
system, wait at least 10
seconds before turning it
on again. The system may
not be able to boot if
power is recycled too
quickly.
A full shutdown is also
performed when pressing
the ON/OFF standby
button on the control
console twice.
3. Back End processor is turned ON and starts to load the software.
4. The start screen is displayed on the monitor.
5. Start-up progress bars indicating software loading procedures, are
displayed on the monitor.
6. The software initiates and sets up the FrontEnd electronics and the
rest of the system (incl. clicking sound of relays on RTF board).
7. The keyboard backlight is lit.
8. As soon as the software has been loaded, the 2D screen is
displayed on the monitor.
Normal Power Off / Shutdown
To shutdown the system:
1. If not already in read mode, freeze the image.
2. Press the ON/OFF Standby button on the control console. Following
dialog appears:
3. Select Shutdown. The system performs an automatic full shutdown
sequence.
4. Switch OFF the circuit breaker at the rear of the system.
Temperature Control
BTU Info
The main air inlet is through a single filter at the rear of the Voluson
E-Series system:
The following general operating modes are available on Voluson E10
systems:
B-Mode
B-Mode is a two-dimensional image of the amplitude of the echo
signal. It is used for location and measurement of anatomical
structures and for spatial orientation during operation of other
modes. In B mode, a two-dimensional cross-section of a threedimensional soft tissue structure such as the heart is displayed in real
time.
Ultrasound echoes of different intensities are mapped to different
gray scale or color values in the display. The outline of the 2D (BMode) (B-Mode) cross-section is a sector, depending on the particular
transducer used. B-mode can be used in combination with any other
mode.
Harmonic Imaging
Tissue Harmonic Imaging, acoustic aberrations due to tissue, are
minimized by receiving and processing the second harmonic signal
that is generated within the insonified tissue. Coded Harmonics
enhances near field resolution for improved small parts imaging as
well as far field penetration. It diminishes low frequency amplitude
noise and improves imaging technically difficult patients.
It may be especially beneficial when imaging isoechoic lesions in
shallow-depth anatomy in the breast, liver and hard-to-visualize fetal
anatomy. Coded Harmonics may improve the B-Mode (2D (B-Mode))
image quality without introducing a contrast agent.