Mindray M6 Series Diagnostic Ultrasound System Service Manual Axiom Type C1 Biosafety Cabinets User's Manual

M6 Series

Diagnostic Ultrasound System

Service Manual

Revision 5.0

Revision History

Revision

Date

Reason for Change

1.0

2016-7-13

Initial

2.0

2016-9-28

Add FRU number of M5 HDD and Display assembly in 7.2 chapter

3.0

2017-6

Add baytrail PC module and compatible HDD FRU number in 7.2 chapter.

4.0

2017-12

Add HDD FDA BayTrail PC module FRU number in 7.2 chaper.

5.0

2019-6

Delete Button Battery, modify FRU number and comments of M6 keyboard top cover assembly, Silicon Keypad, Large/Small encoder knob, Large/Small encoder button, M5 Exp Main Unit Cover in 7.2 chapter.

Add wireless USB adapter in 7.2 chapter.

Change barcode model DS6707 to DS4308

Mindray may revise this publication from time to time without written notice.

I

Intellectual Property Statement

SHENZHEN MINDRAY BIO-MEDICAL ELECTRONICS CO., LTD. (hereinafter called Mindray) owns the intellectual property rights to this Mindray product and this manual. This manual may refer to information protected by copyright or patents and does not convey any license under the patent rights or copyright of Mindray, or of others.

Mindray intends to maintain the contents of this manual as confidential information. Disclosure of the information in this manual in any manner whatsoever without the written permission of Mindray is strictly forbidden.

Release, amendment, reproduction, distribution, rental, adaptation, translation or any other derivative work of this manual in any manner whatsoever without the written permission of Mindray is strictly forbidden.

, , , , BeneView, WATO, BeneHeart, are the trademarks, registered or otherwise, of Mindray in China and other countries. All other trademarks that appear in this manual are used only for informational or editorial purposes. They are the property of their respective owners.

II

Responsibility on the Manufacturer Party

Contents of this manual are subject to change without prior notice.

All information contained in this manual is believed to be correct. Mindray shall not be liable for errors contained herein or for incidental or consequential damages in connection with the furnishing, performance, or use of this manual.

Mindray is responsible for the effects on safety, reliability and performance of this product, only if:

 all installation operations, expansions, changes, modifications and repairs of this product

are conducted by Mindray authorized personnel;

 the electrical installation of the relevant room complies with the applicable national and

local requirements; and

 the product is used in accordance with the instructions for use.

Note

This equipment must be operated by skilled/trained clinical professionals.

Warning

It is important for the hospital or organization that employs this equipment to carry out a reasonable service/maintenance plan. Neglect of this may result in machine breakdown or personal injury.

Warranty

THIS WARRANTY IS EXCLUSIVE AND IS IN LIEU OF ALL OTHER WARRANTIES, EXPRESSED

OR IMPLIED, INCLUDING WARRANTIES OF MERCHANTABILITY OR FITNESS FOR ANY

PARTICULAR PURPOSE.

Exemptions

Mindray's obligation or liability under this warranty does not include any transportation or other charges or liability for direct, indirect or consequential damages or delay resulting from the improper use or application of the product or the use of parts or accessories not approved by Mindray or repairs by people other than Mindray authorized personnel.

III

This warranty shall not extend to:

Manufacturer:

Shenzhen Mindray Bio-medical Electronics Co., Ltd.

E-mail Address:

service@mindray.com.cn

Tel:

+86 755 26582479 26582888

Fax:

+86 755 26582934 26582500

EC-Representative:

Shanghai International Holding Corp. GmbH(Europe)

Address:

Eiffestraβe 80, Hamburg 20537, Germany

Tel:

0049-40-2513175

Fax:

0049-40-255726

 Malfunction or damage caused by improper use or man-made failure.  Malfunction or damage caused by unstable or out-of-range power input.  Malfunction or damage caused by force majeure such as fire and earthquake.  Malfunction or damage caused by improper operation or repair by unqualified or unauthorized

service people.

 Malfunction of the instrument or part whose serial number is not legible enough.  Others not caused by instrument or part itself.

Company Contact

Important Information

1. It is the customer’s responsibility to maintain and manage the system after delivery.

2. The warranty does not cover the following items, even during the warranty period:

(1) Damage or loss due to misuse or abuse.

(2) Damage or loss caused by Acts of God such as fires, earthquakes, floods, lightning, etc.

(3) Damage or loss caused by failure to meet the specified conditions for this system, such as

inadequate power supply, improper installation or environmental conditions.

(4) Damage or loss due to use of the system outside the region where the system was

originally sold.

(5) Damage or loss involving the system purchased from a source other than Mindray or its

authorized agents.

IV

3. This system shall not be used by persons other than fully qualified and certified medical

personnel.

4. DO NOT make changes or modifications to the software or hardware of this system.

5. In no event shall Mindray be liable for problems, damage, or loss caused by relocation,

modification, or repair performed by personnel other than those designated by Mindray.

6. The purpose of this system is to provide physicians with data for clinical diagnosis. It is the

physician’s responsibility for diagnostic procedures. Mindray shall not be liable for the results of

diagnostic procedures.

7. Important data must be backed up on external memory media.

8. Mindray shall not be liable for loss of data stored in the memory of this system caused by

operator error or accidents.

9. This manual contains warnings regarding foreseeable potential dangers, but you shall always

be alert to dangers other than those indicated as well. Mindray shall not be liable for damage or

loss that results from negligence or from ignoring the precautions and operating instructions

described in this operator’s manual.

10. If the manager for this system is changed, be sure to hand over this operator’s manual to the

new manager.

V

Signal Word

Meaning

DANGER

Indicates an imminently hazardous situation that, if not avoided, will

result in death or serious injury.

WARNING

Indicates a potentially hazardous situation that, if not avoided, could

result in death or serious injury.

CAUTION

Indicates a potentially hazardous situation that, if not avoided, may

result in minor or moderate injury.

NOTE

Indicates a potentially hazardous situation that, if not avoided, may result in

property damage.

Symbol

Description

Type-BF applied part.

The ultrasound probes connected to this system are type-BF applied parts.

The ECG leads applied on this system are type-BF applied parts, too.

“Attention” indicates the points that you should pay attention to. Be sure to

read the operator’s manual concerning these points before using the system.

1 Safety Precautions

1.1 Meaning of Signal Words

In this manual, the signal words “ DANGER”, “ WARNING”, “ CAUTION”,

“NOTE” are used regarding safety and other important instructions. The signal words and their

meanings are defined as follows. Please understand their meanings clearly before reading this

manual.

1.2 Symbols

1.2.1 Meaning of Safety Symbols

1-1

1.2.2 Warning Labels

No.

Warning Labels

Meaning

1

Read this information carefully before using the system.

2

The following labels are available when the system works with the mobile trolley.

a. Do not place the system on a sloped surface. Otherwise the system may slide, resulting in personal injury or the system malfunction. Two persons are required to move the system over a sloped surface.

b. Do not sit on the system.

c. DO NOT push the system when the casters are locked.

Symbol

Description

Type-BF applied part

Caution

AC (Alternating current)

Battery Status Indicator

Power button

Probe port

Probe connection unlocked symbol

Probe connection locked symbol

The warning labels are attached to this system in order to call your attention to potential hazards.

The warning labels use the same signal words as those used in the operator’s manual. Read operator’s manual carefully before using the system.

The name, pattern and meaning of each warning label are described as follows:

1.2.3 General Symbols

This system uses the symbols listed in the following table, and their meanings are explained as well.

1-2

Symbol

Description

I/O extend port 12V 9A (Max.)

USB port

Network port

S-VIDEO signal interface; VIDEO signal interface

Pencil probe port (reserved)

Battery installation position indicator

ECG function

No user serviceable parts (applied to the power adapter)

Indoor, dry location use only (applied to the power adapter)

Connects serial port devices

ECG function

Connects a display or projector

Audio signal Microphone input jack

Remote control port

Product serial number

Manufacture date

Authorized representative in the European Community

This product is provided with a CE marking in accordance with the regulations stated in Council Directive 93 / 42 / EEC concerning Medical Devices. The number adjacent to the CE marking (0123) is the number of the EU-notified body certified for meeting the requirements of the Directive.

The radio device used in this product is in compliance with the essential requirements and other relevant provisions of Directive 1999/5/EC (Radio Equipment and Telecommunications Terminal Equipment Directive). The product is in compliance with ETSI EN 300 328 and ETSI EN 301 489.

NOTE: The product complies with the Council Directive 2011/65/EU.

1-3

1.3 Safety Precautions

DANGER:

Do not operate this system in an atmosphere containing flammable or explosive gases such as anesthetic gases, oxygen, and hydrogen or explosive fluid such as ethanol because an explosion may occur.

WARNING:

1. Connect the power plug of this system and power plugs of the peripherals to wall receptacles that meet the ratings indicated on the rating nameplate. Using a multifunctional receptacle may affect the system grounding performance, and cause the leakage current to exceed safety requirements. Use the power cord accompanied with the system provided by Mindray.

2.

Disconnect the AC power before you clean or uninstall the ultrasound machine, otherwise, electric shock may result.

3.

When using peripherals not powered by the auxiliary output of the ultrasound system, or using peripherals other than permitted by Mindray, make sure the overall leakage current of peripherals and the ultrasound system meets the requirement of the local medical device electrical regulation (like enclosure leakage current should be no more than 500uA of IEC 60601-1-1), and the responsibility is held by the user.

4.

In maintenance or assembly/disassembly, make sure other cables are connected well before the battery connecting cable is connected, otherwise the system may be damaged due to hot-plug.

5.

Do not use this system simultaneously with equipment such as an electrosurgical unit, high-frequency therapy equipment, or a defibrillator, etc.; otherwise electric shock may result.

6.

This system is not water-proof. If any water is sprayed on or into the system, electric shock may result.

CAUTION:

1. DO NOT connect or disconnect the system’s power cord or its accessories (e.g., a printer or a recorder) without turning OFF the power first. This may damage the system and its accessories or cause electric shock.

2.

Avoid electromagnetic radiation when perform performance test on the ultrasound system.

3.

In an electrostatic sensitive environment, don’t touch the device

directly. Please wear electrostatic protecting gloves if necessary.

Please read the following precautions carefully to ensure the safety of the patient and the operator when using the probes.

1.3.1 Electric Safety

1-4

4.

You should use the ECG leads provided with the ECG module. Otherwise it may result in electric shock. Maximum output power of the trolley is 240 VA.

WARNING:

1. When moving the system, you should first power off the system, fold the LCD display, disconnect the system from other devices (including probes) and disconnect the system from the power supply.

2.

Do not subject the transducers to knocks or drops. Use of a defective probe may cause electric shock to the patient.

CAUTION:

1.

Do not expose the system to excessive vibration (during the transportation) to avoid device dropping, collision, or mechanical damage.

2.

When you place the system on the mobile trolley and move them together, you must secure all objects on the mobile trolley to prevent them from falling. Otherwise you should separate the system from the mobile trolley and move them individually. When you have to move the system with the mobile trolley upward or downward the stairs, you must separate them first and then move them individually.

3.

Do not move the ultrasound system if the HDD indicator is green, sudden shake may cause the HDD in damage.4 When moving the trolley with mounted system, please take care of the connector of the power adapter in case of damage.

NOTE:

1.

The user is not allowed to open the covers and panel of the system, neither device disassemble is allowed.

2.

To ensure the system performance and safety, only Mindray engineers or engineers authorized by Mindray can perform maintenance.

3.

Only technical professionals from Mindray or engineers authorized by Mindray after training can perform maintenance.

NOTE:

For detailed operation and other information about the ultrasound system, please refer

to the operator’s manual.

1.3.2 Mechanical Safety

1.3.3 Personnel Safety

1.3.4 Others

1-5

No.

Name

Function

1

Monitor

Displays the images and parameters during scanning.

2

Control Panel

Operator-system interface or control.

3

CW pencil probe port

Connects the pencil probe to the main unit

4

Handle

Used for carrying the system.

5

Probe port

Connects a probe to the main unit; or connects a probe extend module.

2 Specifications

2.1 Overview

2.1.1 Intended Use

The diagnostic ultrasound system is applicable for adults, pregnant women, pediatric patients and neonates. It is intended for use in gynecology, obstetric, abdominal, pediatric, small parts (breast, testes, thyroid, etc.), neonatal cephalic, transcranial, cardiac, transvaginal, transrectal, peripheral vascular, urology, orthopedic, and musculoskeletal (conventional and superficial) exams, intraoperative and transesophageal (cardiac).

2.1.2 Introduction of Each Unit

2.1.2.1 Main Unit

2-1

No.

Name

Function

6

Transducer locking lever

Locks or unlocks the probe connected with the main unit.

: locked symbol

: unlocked symbol

7

I/O extend port

Connects the I/O extend module.

8

Power input port Connects the power adapter.

9

USB port

Connects USB devices.

10

Network port

Connects the network.

11

S-Video separate video

output

Connects DVR recorder or video printer.

2.1.2.2 Mobile trolley

The system can be configured with 2 models of mobile trolley: UMT-200 and UMT-300.

Mobile Trolley is used for placing the ultrasound system, extend modules and etc.

UMT-200

2-2

UMT-300

WARNING:

1.

Be sure to connect the equipotential wire before inserting the power plug into the receptacle; be sure to remove the power plug from the receptacle before disconnecting the equipotential wire; otherwise electric shock may result.

2.

When you connect another device to the trolley, you should use the equipotential wire to connect each of equipotential terminals; otherwise electric shock may result.

3.

Connect the earth cable before powering ON. Disconnect the earth cable after powering OFF. Otherwise, electric shock may result.

4.

DO NOT connect the trolley to the outlets with the same circuit breakers and fuses that control the current to devices such as life-support systems. If the trolley or the system malfunctions and generates over-current, or when there is an instantaneous current

at power ON, the circuit breakers and fuses of the building’s

supply circuit may be tripped.

5.

If UMT-300 has configured with display module, please take care of the display module position to leave enough space below when adjusting the display support arm, so that the display module will not hit into the monitor of the ultrasound system.

CAUTION:

1.

When moving the trolley with mounted system, please take care of the connector of the power adapter in case of damage.

2.

Maximum output power of the outlet in the trolley is 350VA.

NOTE

1.

If UMT-300 has configured with display module, please take care of the display module position in case of hurting one’s head.

2.

If probe extend module is configured, please do not place any objects under the module.

2-3

2-4

No.

Name

Function

1.

Display module

Displays the image and parameters during scanning

2.

Probe cable hook

Probe cable hanger

3.

Ultrasound system

/

4.

Probe holder

Used for placing probes temporarily

5.

Operating platform

To place the ultrasound system

6.

Adjustable telescopic column switch

Raise the handle to adjust height of the platform

7.

Built-in DVD RW drive

DVD-RW drive

8.

Compartment for placing ECG module or B/W printer

/

9.

Compartment for placing color printer

/

10.

Caster

Used for securing or moving the system

No.

Name

Function

11.

Display support arm

Supports the display module, for adjusting the height and position of the display module.

12.

I/O extend module

To extend I/O ports

13.

Probe port

To connect probe or probe extend module.

14.

Adjustable telescopic column

To adjust height of the operating platform

15.

Probe extend module

To extend ports for connecting probes

16.

Power adapter

/

17.

Power module

Power supply input/output interface, equipotential terminal, breaker and power indicator

 Power Panel

No.

Name

Function

1.

Circuit breaker

Switch on or off the mains power supply

2.

Power inlet

AC power inlet

3.

Power indicator

Indicates if the trolley is connected to the mains power supply:

If connected with mains power and the breaker is on, the indicator illuminates in green color

If not connected with mains power or the breaker is off, the indicator does not illuminate

4.

Power outlet

Supply power for optional peripheral devices (e.g. DVR)

5

Equipotential terminal

Used for equipotential connection, to balance the protective earth potentials between the system and other electrical equipment

2.1.3 Extend Modules

There are four extend modules available for the system:

 Probe extend module  I/O extend module  V/A extend module  ECG module

2-5

2.1.3.1 Probe Extend Module

CAUTION:

You must turn off the ultrasound system before connecting or disconnecting the probe extend module. Otherwise the system may be damaged.

NOTE:

1.

Before connecting/disconnecting the probe extend module, please freeze the image first to keep the module in a good condition.

2.

If you use the probe extend module to connect a probe, the image quality may be degraded.

 Overview

 To connect the module:

1. Insert the module connector into the probe port with its bulge facing to the right side of the system (when you are facing to the front of the system).

2. Toggle the lock lever to the top position.

2-6

2.1.3.2 I/O extend module

No.

Symbol

Function

<1>, <2>

USB port

Connects USB devices.

<3>

ECG Port

Connects the ECG module

<4> Serial port

Connects serial port devices

<5>, <6> Audio output port

Used for audio signals of Doppler mode sound from DVD output or audio comments

<7>

Mic In port

Reserved.(Connects a microphone used for receiving audio comments when a recorder is used to record images)

<8> Remote control port

Connects the control port of the video printer

<9>

Composite video output port

Used for receiving the output image signal of the video printer or DVD recorder

<10>

DVI-I output port

Connects a display or projector

CAUTION:

When connects serial port devices (via port <4>) or the ECG module (via port <3>), you should first freeze the image or power off the machine, or malfunction may result.

I/O Extend Module

 Overview

 To connect the module:

Connect the I/O extend module to the main unit via the I/O extend port, thus the data port is extended. As shown in the following figure.

2-7

2.1.3.3 V/A Extend Module

<>1

<>2

<>3

<>4

No.

Name

Function

<1>, <2>

Audio input port

Used for audio signal input

<3>

Composite video input port

Used for composite signal video input (Reserved)

<4>

Separate video input port

Used for separate signal video input (Reserved)

 Overview

The module is connected to the USB port of the main unit via a USB cable.

 Connection

Connect the V/A extend module to the main unit via a USB port. As shown in the following figure.

2.1.3.4 ECG module

 Overview

To connect the ECG module, the system should also be configured with the I/O extend module.

The ECG module is connected to main unit via connection to the I/O extend module.

2-8

Name

Function

ECG lead port

Used for ECG signal input

 Connection

NOTE:

You must turn off the ultrasound system before connecting or disconnecting the ECG module. Otherwise the system or the module may be damaged.

Connect the ECG module to the main unit via the I/O extend module. As shown in the following figure.

2-9

2.1.4 Control Panel

<1> <2> <3> <4> <5> <6>

<7>

<8> <9> <10> <11> <12> <13> <14> <15> <16>

<17>

<18>

<19>

<20> <21> <22> <23>

<24>

<25>

<26>

<27>

<28>

<29>

<30>

<31>

<

3

2

>

<

3

>

<

3

4

>

<35>

<36>

<37>

<38>

<39>

<40>

<41>

<42>

<43>

<44>

<45>

<46>

<47>

<48>

<49>

<50>

<51>

<52>

No.

Name

Description

Function

<1>

/

Soft menu controls 1

Press to select the soft menu items displayed on the bottom of the screen.

Refer to the subsequent contents for specific functions.

<2>

/

Soft menu controls 2

Press to select the soft menu items displayed on the bottom of the screen.

Refer to the subsequent contents for specific functions.

<3>

/

Soft menu controls 3

Press to select the soft menu items displayed on the bottom of the screen.

Refer to the subsequent contents for specific functions.

<4>

/

Soft menu controls 4

Up/ down controls are used to turn pages up/down when there is more than one page for the soft menu.

Left/ right keys are used to switch among the different modes.

2-10

No.

Name

Description

Function

<5>

/

Soft menu controls 5

Press to select the soft menu items displayed on the bottom of the screen.

Refer to the subsequent contents for specific functions.

<6>

/

Soft menu controls 6

Press to select the soft menu items displayed on the bottom of the screen.

Refer to the subsequent contents for specific functions.

<7>

/

Power button

It does not illuminate when the system is turned off.

Press the button to turn on the system, the system enters work status and the indicator lights on and becomes green.

When the system enters the standby status, the indicator turns orange.

<8>

Esc

Exit

Press to exit the current status to the previous status.

<9>

Help

Press to enter help status.

<10>

Report

Press to open or close the diagnosis reports.

<11>

iStation

/

Press to enter or exit the patient information management system.

<12>

F1-F4

User-defined key

You can assign a function to the key.

<13>

Quad

Quad-split screen

Press to enter Quad mode.

Switch image windows in the Quad mode.

<14>

Biopsy

Press to show or hide the biopsy guide line.

<15>

Setup

Press to show the Setup menu.

<16>

Del / Press to delete the comment, etc.

<17>

TGC

/

Move to adjust time gain compensation.

<18>

/

Alphanumeric keys

Same as those of PC.

<19>

Menu

Main menu

Press to display or hide a mode-specific parameter menu.

<20>

Comment

ABC (Comments)

Press to enter or exit the character comment status.

<21>

Arrow

Press to enter or exit the arrow comment status.

<22>

Clear

Press to clear the comments or measurement calipers on the screen.

<23>

Direction keys

Press “Fn+/” to adjust volume or monitor brightness

<24>

iTouch

/

Rotate to increase or decrease the image gain.

Press to optimize the image, serving as a one-key optimization.

<25>

Patient

Patient Information

Press to enter the [Patient Info] screen.

2-11

No.

Name

Description

Function

<26>

Exam

Exam Type

Press to select an exam mode and a probe.

<27>

Review

To review the stored images.

<28>

End Exam

Press to end an exam.

<29>

Body Mark

Body Marks

Press to enter or exit the Body Mark status.

<30>

Cine

Cine Review

Press to enter or exit the Cine Review status.

<31>

Zoom

Press to enter or exit the Zoom status.

<32>

Cursor

Press to show the cursor.

<33>

F5

User-defined key

You can assign a function to the key.

<34>

Measure

Measurement

Press to enter or exit the measurement state.

<35>

Update

/

Press to change the currently active window.

Or start/stop image acquisition in iScape or 3D/4D.

<36>

Set

Press to confirm an operation, same as the left-button of the mouse.

<37>

B / Press to enter B mode

<38>

Dual

/

Press to enter Dual mode from another modes.

Press to switch between the two windows in Dual mode.

<39>

Color

/

Press to enter Color mode.

<40>

Power

/

Press to enter Power mode.

<41>

CW

/

Press to enter CW mode.

<42>

M / Press to enter M mode.

<43>

PW / Press to enter PW mode.

<44>

F6

User-defined key

You can assign a function to the key.

<45>

Print

Press to print; user-defined key.

<46>

Save

Press to save; user-defined key.

<47>

Depth

Press to increase or decrease the imaging depth in scanning mode.

<48>

Freeze

Press to freeze or unfreeze the image.

<49>

/

Trackball

Roll the trackball to change the cursor position.

<50>

/

Multifunctional knob

Rotate to adjust image parameters or direction of comment arrows.

Press to show the menu, rotate to select the item.

<51>

/

Indicator 1

Indicates if the main unit is connected to the power supply.

If not connected, the indicator does not illuminate.

If connected, the indicator illuminates in green color.

2-12

No.

Name

Description

Function

<52>

/

Indicator 2

Indicates the current status of the batteries.

When the system is supplied with power by the batteries and the power capacity is lower than 30%, the indicator is yellow and flashes.

When the batteries are being charged, the indicator light is on and in yellow color.

When the battery capacity is charged to the full capacity, the indicator color turns green.

In other statuses, the indicator light is off.

Tip: “/” means the key / knob has no silk-printed name.

Item

Model

Black /white video printer

SONY UP-D897, SONY UP-X898MD, MITSUBISHI P95DW-N, SONY UP-D898MD

Color video printer

SONY UP-D25MD

Bar code reader

SYMBOL LS2208(1-D)

SYMBOL DS4308(2-D)

Voltage

100-240V～ (AC adapter)

220-240V～, 50/60Hz (when configured with mobile trolley UMT-300)

Frequency

50/60Hz (AC adapter)

Input Power

1.5 – 0.6A (AC adapter)

600 VA (when configured with mobile trolley UMT-300)

Fuse

250V~ T3.15AL

NOTE:

The CE region applied voltage is 220-240V～.

2.2 Peripherals Supported

2.3 Specifications

2.3.1 External Dimensions and Weight

 External dimensions: 361mm(H)×357mm(L)×75mm(W)  Net weight: 6.5Kg (including batteries and 4D board, no power adapter)

2.3.2 Power supply

2-13

2.3.3 Environmental Conditions

Operating conditions

Storage and transportation conditions

Ambient temperature

0℃～40℃

-20℃～55℃

Relative humidity

30%～85% (no condensation)

30%～95% (no condensation)

Atmospheric pressure

700hPa～1060hPa

WARNING:

Do not use this system in the conditions other than those specified.

2-14

NOTE:

Do not install the machine in the following locations:

Locations near heat generators;

Locations of high humidity;

Locations with flammable gases.

WARNING:

DO NOT connect this system to outlets with the same fuses that control the current of devices such as life-support systems. If this system malfunctions and generates an over current, or when there is an instantaneous current at power

ON, fuses of the building’s supply circuit may be tripped.

3 System Installation

3.1 Preparations for Installation

3.1.1 Electrical Requirements

3.1.1.1 Requirement of Regulated Power Supply

Power specification is showing in chapter 2.2.2. Due to the difference of the power supply stability of different districts, please advise the user to adopt a regulator of good quality and performance such as an on-line UPS.

3.1.1.2 Grounding Requirements

The power cable of the system is a three-wire cable, the protective grounding terminal of which is connected with the grounding phase of the power supply. Please ensure that the grounding protection of the power supply works normally.

3.1.1.3 EMI Limitation

Ultrasound machines are susceptible to Electromagnetic Interference (EMI) by radio frequencies, magnetic fields, and transient in the air wiring. They also generate a weak electromagnetic radiation. Possible EMI sources should be identified before the unit is installed. Electrical and electronic equipment may produce EMI unintentionally as the result of defect.

These sources include: medical lasers, scanners, monitors, cauterizing guns and so on. Besides, other devices that may result in high frequency electromagnetic interference such as mobile phone, radio transceiver and wireless remote control toys are not allowed to be presented or used in the room. Turn off those devices to make sure the ultrasound system can work in a normal way.

3-1

3.1.2 Installation Conditions

3.1.2.1 Space Requirements

Place the system with necessary peripherals in a position that is convenient for operation:

1. Place the system in a room with good ventilation or an air conditioner.

2. The door is at least 0.8m wide. The ultrasound machines can move into the room easily.

3. Leave at least 20cm clearance around the system to ensure effective cooling.

4. An adjustable lighting system in the room (dim/bright) is recommended.

5. Except the receptacle dedicated for the ultrasound system, at least 3-4 spare receptacles on the wall are available for the other medical devices and peripheral devices.

6. Power outlet and place for any external peripheral are within 2 m of each other with peripheral within 1 m of the unit to connect cables.

3.1.2.2 Networking Pre-installation Requirements

Both wireless and wired LAN are supported by this ultrasound system.

Data transmission is allowed between different departments or areas without network cable. Network can be automatically connected after disconnection in case that the device is required to be moved, wireless transmission task can be recovered after the network resumed to normal condition. Confirm the network devices and network conditions before the installation.

1. General information: default gateway IP address, and the other routers related information.

2. DICOM application information: DICOM server name, DICOM port, channels, and IP address.

3-2

3.1.3 Confirmation before Installation

Perform the following confirmation before installing the system:

1. The video format used in the region or country where the system is installed.

2. The language used in the region or country where the system is installed.

3. The power voltage used in the region or country where the system is installed.

4. Obstetric formulae and other measurement formulae used in the region or country where the system is installed.

5. Other settings to be used in the region or country where the system is installed but different from the factory settings.

6. The doctor’s habits of using the system.

Perform the confirmation above before installing the system. And set up the system to make it according with the usage of the region or country where the system is installed.

3-3

3.2 Unpacking

WARNING:

The probes, cables and connectors are in proper operating order and free from surface defects, cracks and peeling. Using a defective probe may cause electric shock.

Toggle the locking lever

3.2.1 Checking

1. Look at the package list to check the items in the container to ensure that items are not damaged, missed or wrongly supplied.

2. Ensure there is no damage, indentation or cracks occurring to the machine. If any of these happen, please contact Mindray Customer Service Department.

3.3 Installation of Whole Device

3.3.1 Connecting Power Cable

Connect the connector of the power adapter to the adapter port in the system. Use a three-wire cable to connect the adapter with the external power supply.

3.3.2 Connecting ECG

Connect the ECG cable to the ECG module which is connected to the I/O Extend module on the ultrasound device.

3.3.3 Connecting a Ultrasound Probe

Keep the cable end of the probe to the right side of the system, and insert the connector into the port of the system, and then press in fully. See the figure below.

Toggle the locking lever to the top position.

Place the probe properly to avoid being treaded or wrapping with other devices. DO NOT allow the probe head to hang free.

3.4 Installing Peripherals

3.4.1 Connecting the Footswitch

Connect the footswitch to the main unit via a USB port. As shown in the following figure.

3-4

WARNING:

DO NOT directly remove a USB memory device; otherwise, the USB memory device and /or the system may be damaged.

Data cable

USB connector

Power cord

Set the functions of the footswitch in the [Key Config] page.

3.4.2 Connecting/ Removing a USB Memory Device

 When connecting a USB memory device to the ultrasound system via a USB port：

1. You can hear a sound if it is connected successfully.

2. You can see the symbol in the lower right corner of the imaging screen.

 To remove the USB memory device:

1. Click to open the “Remove USB Device” dialogue box.

2. Select the memory device to be removed.

3. Click [OK] and you can hear a sound.

4. Remove the USB memory device. There will be sound feedback when remove the USB memory device.

3.4.3 Graph /Text printer

 Connecting a local printer

As shown in the figure below, a graph /text printer has a power cord and data cable. The power cord shall be directly connected to a protective grounding wall receptacle as required.

3-5

1. Connect the two USB ports of the printer and the system with the USB cable of the printer.

NOTE:

When you install the printer’s driver, you must specify the specific path for installation;

otherwise, vague path may result in longer time for searching.

2. Power on the system and the printer.

3. Install the printer driver: "[Setup]-> [Peripheral Preset]->[Printer]->[Printer Driver]" and click [Add Printer], as shown in the figure:

4. Select "Add Local Printer" and click [Next] to enter the screen of browsing driver; select the desired driver and click [OK] to install the driver.

 Printers listed in "2.2 Peripherals Supported" have drivers installed already.  Click [Printer Attribute] to see the printer attribute.

5. Click [OK] to finish the installation.

 Add Network Printer

After the system is connected into a LAN, enter the "[Setup] -> [Peripheral Preset] -> [Printer] -> [Printer Driver]" screen.

1. Click [Add Printer] and select the types of adding network printer

 Search Network Printer

Select "Search Network Printer" and click [Next] to search for the printer; select the domain and server in the screen to find the printer.

 Connecting to the specified printer

Select "Connect to this Printer" and enter the printer address in the field box.

2. When the network printer is successfully connected, you can see the printer in the list.

Tips: the network printer functions depending on the configured network environment in the hospital, please consult the network configuration manager in case of failure.

Please refer to the accompanying manuals of the printers for more details.

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3.4.4 Video Printer

USB cable

Power cord

The system support digital video printers, including B/W printers and color printers.

 Connecting a local printer

1. Place the printer in the proper position.

2. Connect the power cord of the printer to a receptacle. Use a USB cable to connect the USB port of the system with the USB port of the printer.

3. Load a paper roll, and turn on the system and printer.

4. Install the printer driver (steps are the same as of graph/text printers; please refer to relevant chapters for details). Printers listed in "2.2 Peripherals Supported" have drivers installed already.

5. Add a print service:

(1) Open "[Setup] → [Peripheral Preset] → [Print Service]" screen.

(2) Click [Add Service] to enter the following page.

(3) Select the service type as "Digital Image Print" and enter the service name manually.

(4) Click [OK] to return to the Printer Service page.

(5) Set the items in the Property box and click [Save] to save the settings.

Please refer to the accompanying manuals of the printers for more details.

3.4.5 Installing Barcode Reader

The system supports barcode reader to read the patient information (patient ID entering).

1. For structure of the scanner, see the figure below. The important parts are: LED indicator, scanning surface, and the switch.

3-7

2. Connect the cable to the port on the scanner.

3. Connect the other end of the cable to the USB port on the ultrasound system.

4. When the ultrasound system is working, information scanning can be performed by pressing the switch on the scanner. For detailed operations, please refer to the operator’s manual of the scanner.

5. Fix the scanner on the bracket (see the figure below) to avoid accidental falling.

2D scanner 1D scanner

3.5 System Configuration

3.5.1 Power-on Running

Connect the connecting terminal of the power adapter to the adapter port in the system. Use a three-wire cable to connect the adapter with the external power supply. Ensure the connection of ultrasound and optional device works well.

3-8

3.5.2 Enter Doppler

After the initialization process (about 1 minute), the system enters Doppler interface, as shown below:

3-9

3.5.3 System Preset

1. Press [Setup]. Setup menu appears.

2. Click [System Preset] to enter System Preset interface.

3-10

The following settings can be performed on the System Preset interface.

Page

Description

Region

To set the hospital name, language, time zone, time format, system date/time, logo and so on.

General

To set patient information, exam setup, patient management, storage, system dormancy, operation log and so on.

Image Preset

To set some general parameters in imaging modes.

Meas

To set the measure ruler, measure result, units and so on.

OB

To set the relevant information about fetal gestational age, fetal growth formula and fetal weight.

Comment

To set general information about comment.

Key Config

To assign functions to footswitch and <Print>, <Save>, <F1> ~<F6>.

Biopsy

To set the needle-guided bracket model and biopsy guide line relevant parameters.

Option

Displays the installation of system supported options. You can install or uninstall the options through the page.

Admin

To set the user account control relevant information.

3.5.4 Peripheral Preset

Press <Setup> and click [Peripheral Preset] to set video printer, graph/text printer parameters (set the parameters according to the printer, and select the relevant printer services).

3-11

 Print Service Setting

NOTE

DO Not edit IP address in Network Preset page as the network task is executed, otherwise it fails. View if there is any undergoing task in task manager of the system.

 Add Service: click to begin print service adding.  Remove Service: click to delete the selected print service.  Rename Service: click to rename the selected print service.  Default print service: click to set the selected print service as the default one.  Property: to preset the property of print services.

Tips: please set the proper page margin, otherwise, only part of the contents can be printed.

 Printer Driver Setting

Printers listed in the operator’s manual are all supported by the system, no drive is required.

Click [Print Driver] page to enter printer driver setting screen:

 View the printer name as well as print status.  You can add printer including network printer.  Check the printer attribute. The attributes vary with the print services.

 Output & Display Settings

Click [Output & Display] to enter the page, you can set the output size and mode as well as display settings.

3.5.5 Network Preset

 To set the station name of the ultrasound system.

1. Press <Setup> to enter the Setup menu.

2. Move the cursor onto [Network Preset], select [Local TCP/IP] to open the screen, as shown in the figure below:

3-12

3. Enter the name.

Name

Description

DHCP

/ Static

If “DHCP” is selected, IP address will be automatically obtained from DNS server; if “Static” is selected (using static IP address), you need to enter the IP address.

IP Address

IP address of the system.

Subnet Mask

Used to set different network segment. Gateway

Used to set the gateway IP.

OK

Click to confirm parameter setting.

Cancel

Click to cancel parameter preset.

NOTE:

Only if DICOM basic option is configured, [DICOM Preset] is available.

Tips: you need to restart the system to make the modification effective (press the power button and select ”Shut Down” to power off the system, and then wait for a while to power on the system.).

 Click to open the connecting management box:

Tips: The IP address of the system should not be occupied by other devices in the network, or the DICOM function will fail.

3.5.6 DICOM Preset

1. Click [DICOM Preset] to enter the DICOM Preset interface. Set DICOM service attributes first: enter AE Title (use Application Entity title for ultrasound system), terminal and package size.

2. Server setting

a) Enter the device name and the IP address;

b) Verify connection after entering the correct IP address by clicking [Ping].

c) Click [Add] to add the server to the list if the connection works normally.

The following is an example:

3-13

NOTE:

1.

AE Title should be the same with the SCU AE Title preset in the server (PACS/RIS/HIS).

2.

DICOM communication port should be the same with the one on the server.

3.

If the currently entered name has already existed, the system will pop up: “The server name exists!”

Click [DICOM Service].

3-14

When the system is configured with DICOM basic function module, and installed DICOM Worklist,

NOTE:

Only if DICOM basic option is configured, Worklist page is available.

NOTE:

1.

Confirm the system information before and after the software maintenance.

2.

If required, the system reminds the user of saving the current system information.

storage commitment, and Query/ Retrieve modules, the corresponding preset settings can be found in DICOM Service screen.

The DICOM Service Setting is used to set properties of DICOM services. See the basic volume for details.

3.5.7 System Information Verification

Product configuration, version number, hardware board and relevant driver information appear on the system information interface. Confirm the relevant information on this interface.

1. Click [About] to enter the interface.

2. All details about the hardware board appear on [About Detail] interface.

3-15

Adapter

port

USB #1

Network

port

SVIDEO

Out

I/O extension port Single probe port

Pencil

probe port

Main unit

I/O extension

module

Video

Out

USB #3

Audio

Out

Remote Mic In ECG

Serial

port

DVI-I

USB #2

USB#4

Probe extension

module

Power

adapter

AC IN

Pencil probe

Probe

A

Probe

Battery A Battery B

Probe

B

Probe

C

Power for

mobile

trolley

Mobile

trolley

Main board

Probe

Power

module

Adapter

Battery

IO

extension

4D

CW

Display

Control

panel

Probe

extension

Main

unit

Main logic

4 Product Principle

4.1 General Structure of Hardware System

The schematic diagram of M6 diagnostic ultrasound system is show in the following figure:

Fig 4-1 Schematic Diagram of System

According to functions of hardware, the block diagram of the hardware system is shown below:

The main board unit is the core of the whole system, including the transducer port, transmitting, receiving, beam forming, signal processing, system monitor and management, audio, video,

4-1

Fig 4-2 Block Diagram of the Hardware System

interfaces and so on, and these will be introduced later. Main logic unit completes the main logic

Project

Output

Board of the Function

Unit

Notes

1

3V3STB

Main power board

Available when there is an adapter or dual

batteries

2

5VSTB_CPU

Main power board

Controlled by 5Vstb_CPU_EN signal

3

+12V

Main power board

Controlled by POWER_ON# signal

4

+95V

Main power board

Controlled by POWER_ON# signal

5

-95V

Main power board

Controlled by POWER_ON# signal

6

PHV1P

Main power board

Controlled by POWER_ON# signal

7

PHV1N

Main power board

Controlled by POWER_ON# signal

8

PHV2P

Main power board

Controlled by POWER_ON# signal

9

PHV2N

Main power board

Controlled by POWER_ON# signal

10

+5V

Auxiliary power board

Controlled by POWER_ON# signal

11

+3.6V

Auxiliary power board

Controlled by POWER_ON# signal

12

+3.3V

Auxiliary power board

Controlled by POWER_ON# signal

processing functions, including transmitting control logic, beam former logic, signal processing logic. The functions of the other modules can be explained by their names, and will not be explained here.

Besides, M6 also supports ECG module and video capture module. Accompanied with the trolley,

the transducer extend module can be used.

4.2 Principle of Boards

4.2.1 Power System

4.2.1.1 Basic Functions of Power System

As the power supply of the system, the power system consists of adapter, batteries, main power board, auxiliary power board, flexible boards for connecting batteries and flexible boards of analog power, etc. The power is supplied through two methods, external power adapter or batteries. The system is first powered by the adapter, and the batteries are provided for back-up. The main power board and auxiliary power board are mainly responsible for supplying the system with the DC output listed in the following table, charging management of the batteries, monitoring the power, and communicating with the main board.

Table 4-1 DC Output of Power Supply System

4-2

13

+2.8V

Auxiliary power board

Controlled by POWER_ON# signal

14

+1.8V

Main power board

Controlled by POWER_ON# signal

15

+1.5V

Auxiliary power board

Controlled by POWER_ON# signal

16

-5V

Auxiliary power board

Controlled by POWER_ON# signal

17

-12V

Auxiliary power board

Controlled by POWER_ON# signal

4.2.1.2 Basic Principle of Power System

VBUS+

BUCK

BOOST

+12V

Flyback

±95V

BUCK

+5V

BUCK

3.6V/3.3V/2.8V

LDO

+3.3VSTB

BUCK

+5VSTB_CPU

BUCK-

BOOST

PHV1N_PW

PHV2P

LDO

PHV2N

-5V/-12V

Charger

DC/DC

1.8V/1.5V

Battery_A

Battery_B

PHV1P_PW

Battery_A

Battery_B

Adapter

BOOST

DC/DC

DC/DC LDO

PHV1P_C

W

PHV1N_CW

The principle diagram of the power system is shown in figure below. The power is supplied through two methods, external power adapter or batteries. The adapter is connected to the power board via the system main board when the system is powered by adapter. The batteries are connected to the power board via the flexible boards when the system is powered by batteries. The main power board generates 4 PHV outputs: 3V3STB, 5VSTB_CPU, +12V and ±95V, monitors and manages the power output. The auxiliary power board generates +5V, -5V, -12V, +3.6V, +3.3V, +2.8V, +1.8V and +1.5V outputs, and manages the charging of the batteries. The main power board and the auxiliary power board are connected via two 26 PIN connectors.

The system main board and the digital ports of the power board are connected together via a 64 PIN connector, and the digital power ports and signals are defined in table below; the system main board and the auxiliary power board are connected together via an analog flexible board, and the analog power ports and signals are defined in table 4-3.

The main power board and the batteries are connected together via the battery flexible board, and the signals are defined in Table 4-4; the main power board and the auxiliary power board are connected together via two 26 PIN connectors, and the signals are defined in Table 4-5 and Table 4-6.

Fig 4-3 Schematic Diagram of Power System

4-3

Table 4-2 Signal definition of connectors between main power board and system main board digital

No.

Signal name

No.

Signal name

1

EDC_PWR

2

EDC_PWR

3

EDC_PWR

4

EDC_PWR

5

EDC_PWR

6

EDC_PWR

7

GND

8

GND

9

GND

10

GND

11

GND

12

GND

13

N12V

14

STS_EDC#

15

GND

16

GND

17

POWER_ON#

18

CPU12V_OK#

19

T_D+

20

T_D-

21

GND

22

GND

23

GND

24

GND

25

D12V

26

D12V

27

D12V

28

D12V

29

GND

30

GND

31

D5V1

32

D5V1

33

GND

34

GND

35

5VSTB_OK#

36

5VSTB_EN#

37

GND

38

GND

39

5VSTB_CPU

40

3V3STB

41

GND

42

GND

43

D3V3

44

D3V3

45

GND

46

GND

47

D2V8

48

D1V5

49

GND

50

GND

power

4-4

No.

Signal name

No.

Signal name

51

D1V8

52

D1V8

53

GND

54

GND

55

PWR_RX

56

PWR_CONF_N

57

PWR_TX

58

PWR_RST

59

GND

60

GND

61

BATA_PRT#

62

BATB_PRT#

63

BATSTS_O

64

BATSTS_G

Signal definition

EDC_PWR: adapter power input;

GND: ground;

N12V: analog -12V output;

STS_EDC#: adapter normal working signal, low level means the output of adapter is normal;

POWER_ON#: power on signal from the system main board, low level effective;

CPU12V_OK#: +12V output signal, lower level means normal output;

T_D+, T_D-: power board temperature detecting signal;

D12V: digital power +12V output;

D5V1: digital power +5V output;

5VSTB_OK#: 5VSTB output signal, lower level means normal output;

5VSTB_EN#: 5VSTB enable signal from the system main board, low level effective;

5VSTB_CPU: standby power 5VSTB_CPU output, the voltage is +5V;

3V3STB: standby power 3V3STB output, the voltage is +3.3V;

D3V3: digital power +3.3V output;

D2V8: digital power +2.8V output;

D1V5: digital power +1.5V output;

D1V8: digital power +1.8V output;

PWR_RX: serial port communication receiving port of the the power and system mother board;

PWR_TX: serial port communication transmitting port of the power and system mother board;

PWR_CONF_N: power board chip configuration signal from the system main board;

PWR_CONF_N: power board chip reset signal from the system main board;

BATA _ PRT#: battery A presenting signal, low level means the battery is presenting;

BATA _ PRT#: battery B presenting signal, low level means the battery is presenting;

BATSTS_O: battery status indicating light, orange;

BATSTS_G: battery status indicating light, green.

4-5

Table 4-3 Signal and analog power definition between auxiliary power board and system main board

No.

Signal name

No.

Signal name

1

N95V

2

GND

3

95V

4

GND

5

PHV2N

6

GND

7

PHV1N

8

GND

9

PHV2P

10

GND

11

PHV1P

12

GND

13

A12V

14

GND

15

A2V8

16

GND

17

GND

18

GND

19

A3V6

20

A3V6

21

GND

22

GND

23

A1V5

24

A1V5

25

A1V5

26

A1V5

27

GND

28

GND

29

NA12V

30

GND

31

NA5V1

32

GND

33

GND

34

GND

35

A5V1

36

A5V1

37

A5V1

38

A5V1

39

GND

40

GND

 Signal definition

N95V: -95V fixed high voltage output;

GND: ground;

95V: +95V fixed high voltage output;

PHV2N: PHV2 negative voltage output, -5~-85V;

PHV1N: PHV1 negative voltage output, PW outputs -13~-85V, CW outputs -2~-5V;

PHV2P: PHV2 positive voltage output, 5~85V;

PHV1P: PHV1 positive voltage output, PW outputs 13~85V, CW outputs 2~5V;

A12V: analog +12V output;

4-6

A2V8: analog 2.8V output;

No.

Signal name

No.

Signal name

1

BATB+

2

BATB+

3

BATB+

4

BATB+

5

BATB_PRT#

6

GND

7

NTC_BATB

8

GND

9

BATB_FB

10

GND

11

BATB_SCL

12

GND

13

BATB_SDA

14

GND

15

BATA_PRT#

16

GND

17

NTC_BATA

18

GND

19

BATA_FB

20

GND

21

BATA_SCL

22

GND

23

BATA_SDA

24

GND

25

GND

26

GND

27

BATA+

28

BATA+

29

BATA+

30

BATA+

A3V6: analog 3.6V output;

A1V5: analog 1.5V output;

NA12V: analog -12V output;

NA5V: analog -5V output;

A5V1: analog +5V output.

Table 4-4 Signal definition between the battery and main power board

 Signal definition

BATB+: battery B input;

GND: ground;

BATB_PRT#: battery B presenting signal, low level is effective;

NTC_BATB: battery B temperature signal;

BATB_FB: battery B far end sampling signal;

BATA_SCL: battery B SMBUS communication clock signal;

BATA_SDA: battery B SMBUS communication data signal;

BATA_PRT#: battery A presenting signal, low level is effective;

NTC_BATA: battery A temperature signal;

BATA_FB: battery B far end sampling signal;

4-7

BATA_SCL: battery A SMBUS communication clock signal;

No.

Signal name

No.

Signal name

1

VBUS+

2

VBUS+

3

VBUS+

4

GND

5

GND

6

GND

7

5V_CW

8

D5V1

9

START

10

D2V8

11

GND

12

GND

13

N5V_CW

14

A12V

15

GND

16

N12V

17

PHV2P

18

D1V5

19

PHV1P

20

GND

21

PHV2N

22

GND

23

PHV1N

24

GND

25

95V

26

N95V

BATA_SDA: battery A SMBUS communication data signal;

BATA+: battery A input;

Table 4-5 Signal definition between main power board and auxiliary power board

 Signal definition

VBUS+: input bus voltage on the power board;

GND: ground;

5V_CW: LDO input of PHV1P CW voltage;

D5V1: digital power +5V output;

START: auxiliary power board power on signal from the system main board, low level effective;

D2V8: digital power +2.8V output;

5V_CW: LDO input of PHV1N CW voltage;

A12V: analog +12V output;

N12V: digital power -12V output;

PHV2P: PHV2 positive voltage output, 5~85V；

D1V5: digital power +1.5V output;

PHV1P: PHV1 positive voltage output, PW output 13~85V, CW output 2~5V;

PHV2N: PHV2 negative voltage output, -5~85V；

PHV1N: PHV1 negative voltage output, PW output -13~85V, CW output -2~5V;

95V: +95V fixed high voltage output;

N95V: -95V fixed high voltage output.

4-8

Table 4-6 Signal definition between main power board and auxiliary power board (2)

No.

Signal name

No.

Signal name

1

EDC_POWER

2

EDC_POWER

3

ISENSE

4

EDC_POWER

5

GND

6

GND

7

CHARGE_EN

8

GND

9

BATA+

10

BATA+

11

BATA_FB

12

NTC_BATA

13

GND

14

GND

15

BATB_FB

16

NTC_BATB

17

BATB+

18

BATB+

19

GND

20

GND

21

D1V8

22

D1V8

23

GND

24

GND

25

D3V3

26

D3V3

 Signal definition

EDC_PWR: adapter power input;

ISENSE: main system load current signal from the power main board to the auxiliary power board;

GND: ground;

CHARGE_EN: battery charge enable signal, low level effective;

BATA+: battery A input;

BATA_FB: battery A far end sampling signal;

NTC_BATA: battery A temperature signal;

BATB_FB: battery B far end sampling signal;

NTC_BATB: battery B temperature signal;

BATB+: battery B input;

D1V8: digital power +1.8V output;

D3V3: digital power +3.3V output.

4-9

4.2.1.3 3V3STB Circuit Unit

 Basic Principle of 3V3STB Circuit

The 3V3STB takes EDC_POWER from the adapter or the BATTERY_BUS from the batteries as the input and generates 3V3STB via linear voltage-stabilizing chip TPS715A01.

TPS715A01 is equipped with current-limiting function itself.  The Maintenance Points of 3V3STB Circuit

If the 3V3STB unit is faulty, first check whether the input voltage of U12 PIN1 is normal; if it is normal, it indicates that the U12 is damaged or the fault is caused by the over-current or short circuit of the load.

4.2.1.4 5VSTB_CPU Circuit Unit

 Basic Principle of 5VSTB_CPU Circuit

The 5VSTB_CPU takes the BATTERY_BUS from the batteries as input and generates the output via the synchronous rectifying step-down chip TPS62110 through BUCK transformation.

The TPS62110 chip itself is equipped with MOSFET, current-limiting function and over-temperature

protection.

 The Maintenance Points of 5VSTB_CPU Circuit

If the 5VSTB_CPU unit is faulty, first check whether the input voltage of U35 PIN2 is normal and whether the enabling signal of PIN4 is 3.3V; if they are all normal, it indicates that the U35 is damaged or the fault is caused by the over-current or short circuit of the load; if PIN4 is low level, check whether the system main board provides 5VSTB_EN# signal and whether the feedback connection or overvoltage circuit is normal.

4.2.1.5 +12V Circuit Unit

 Basic Principle of +12V

Voltage rise-and-fall IC LTC3780 of LINEAR Company is applied in +12V circuit unit, and whether the input voltage is higher or lower than 12V, the output voltage will be kept at 12V.

The +12V over-current and overvoltage protection is not locked, and the over-current is over 8A. The output voltage returns to normal after over-current disappears.

 The Maintenance Points of +12V

Before testing, ensure that the POWER_ON# signal is of low level and the input voltage VBUS+ is normal.

The work flow of maintenance is shown as follows:

Test the voltage of PIN8 of U14, which should be higher than 3V;

Test the voltage of PIN19 of U14, which should be higher than 6V;

Use an oscilloscope to measure G poles of Q6, Q7, Q8 and Q9 to check whether there is driving pulse; at least two MOSFETs’ G poles should have drive pulse;

Check if there is any damage to the four MOSFETs Q6, Q7, Q8 and Q9 and diode D5 and D7;

If +12V hiccups, check whether the output is overloaded, and check the feedback and overvoltage protection circuits.

4-10

4.2.1.6 PHV Circuit Unit

 Basic Principle of PHV

The PHV circuit consists of PHV1P, PHV1N, HV2P and PHV2N, of which, the PHV1P and PHV1N consist of PW and CW output. The PW output range of PHV1 is ±13V~±85V, and the CW output range is ±2V~±4V. Only PW output of PHV2 is available, and the output range is ±5V~±85V.

The input of the PW circuit of the 4 PHVs is controlled +12V, which is under the control of PMOS Q5.The PW output voltage of PHV1P and PHV2P is generated by BOOST circuit. The controlling IC is TL594, which is frequently adopted by our company. The range of output voltage of PHV2P is +5V~+85V, so when the output voltage is over than 15V, the input is +12V; and when the output voltage is lower than 15V, the input is +5V. Both the two inputs are under the control of output voltage controlling signal. The PW output voltage of PHV1N and PHV2N is generated by BUCK-BOOST circuit. The controlling IC is MAX1847, which is frequently adopted by our company.

The CW output of PHV1P and PHV1N is generated through linear voltage-stabilizing. The input of CW circuit of PHV1P is +5V and the chip LT1963 LDO is adopted for the linear voltage-stabilizing; the input of CW circuit of PHV1N is -5V, and the chip LT1185 LDO is adopted for the linear voltage-stabilizing. The voltage of CW output is regulated by the output voltage controlling signal. When the controlling signal is 0.45~2.25V, the corresponding output voltage is ±2V~±4V.

The 4 PHV are all equipped with overvoltage protection, and the overvoltage protection of each circuit is independent. The overvoltage will not be locked, and the voltage is about 93V when overvoltage occurs.

The 4 PHV are all equipped with over-current protection. In PW mode, once over-current occurs, all the 4 PHV PW outputs and ±95V will be switched off, while the CW output is not influenced. The over current protection in CW mode is implemented by current-limiting of LDO chip itself. Only the output is cut off and other outputs are not influenced.

 The Maintenance Points of PHVP PW Circuit Unit

Make sure the +12V output is normal, and PHV_CW is low level before testing.

Test the grid electrode of Q5, and the voltage should be around 3V and VCC2 is 12V.

The work flow of troubleshooting for U17 and U18 and their peripheral circuits are shown as follows:

Test the voltage of PIN8 and PIN11, which should be 12V;

Test the voltage of PIN14, which should be +5V;

Test PIN5, and there should be oscillation wave form, the frequency of which is around 100kHz;

Test the voltage of PIN15, which should be around 5V;

Test PIN9 and PIN10, and there should be driving pulses.

If the test shows the grid electrode of Q5 is 12V, check the +5V output and whether over-current or short circuit occurs.

 The Maintenance Points of PHVN PW Circuit Unit

Make sure the +12V output is normal, and PHV_CW is low level before testing.

Test the grid electrode of Q5, and the voltage should be around 3V and VCC2 is 12V.

The work flow of troubleshooting for U24 and U25 and their peripheral circuits are shown as follows:

Test the voltage of PIN15, which should be 12V;

Test the voltage of PIN5, which should be +1.25V;

Test the voltage of PIN2, which should be around 4.25V;

Test PIN14, and there should be driving pulses.

If the test shows the grid electrode of Q5 is 12V, check the +5V output and whether over-current or short circuit occurs.

 The Maintenance Points of PHV CW Circuit Unit

Make sure the +5V and -5V outputs are normal, and PHV_CW is high level before testing;

4-11

The work flow of troubleshooting for U13 and its peripheral circuit is shown as follows:

Test the voltage of PIN12, which should be +5V;

Test the voltage of PIN6, which should be +1.21V;

If the output voltage is not consistent with the controlling signal, check R66, R203, R260, R150 and U2 related circuits.

The work flow of troubleshooting for U31 and its peripheral circuits are shown as follows:

Test the voltage of PIN3, which should be -5V;

Test the voltage of PIN2, which should be -2.37V;

If the output voltage is not consistent with the controlling signal, check R67, R204, R198 and U3 related circuits.

4.2.1.7 +5V Circuit Unit

 Basic Principle of +5V Circuit

The input of +5V circuit is VBUS+, and stable +5V output is generated through BUCK transformation step-down. The controlling IC is LM5642 from NS, which is a biphase step-down synchronously rectifying controlling IC.

+5V circuit is equipped with overvoltage and over-current protection and is locked during protection.  The Maintenance Points of +5V Circuit

Check by sight whether LM5642 and its peripheral devices are well welded before power on, and check whether the MOSFETs Q16~Q19 and diodes D3 and D6 are broken down using a multimeter.

Before testing, make sure that the STRAT signal is free or of low level, and the input voltage VBUS+ is normal.

The work flow of maintenance after power on is shown as follows:

Test the voltage of PIN22, which should be VBUS+;

Test the voltage of PIN7, PIN19 and PIN25, which should be around +5V;

Test PIN9 and PIN10, which should be over than 1V;

Test PIN17, PIN20, PIN23 and PIN26, and there should be driving pulses at the frequency of around 200kHz;

If there is no output with the circuit, check whether the output is over-current and check the feedback circuit.

4.2.1.8 +1.5V Circuit Unit

 Basic Principle of +1.5V Circuit

+1.5V output adopts the synchronously rectifying step-down chip EL7566, which is frequently adopted by our company. This chip is integrated with over-current and over-temperature protection internally. The over-current protection protects from hiccup.

 The Maintenance Points of +1.5V Circuit Unit

Check by sight whether EL7566 and its peripheral devices are well welded before power on. The work flow after power on is:

Test the voltage of PIN19~PIN21, which should be +5V;

Test the voltage of PIN22, which should be +5V;

Test PIN27, which should have oscillatory wave output;

Test PIN8~PIN13, which should have pulse voltage waveform;

If there is no output with the circuit or the if circuit is hiccupping, check if the output is over-current and check the feedback circuit.

4-12

4.2.1.9 +3.6V/3.3V/2.8V/1.8V Circuit Unit

 Basic Principle of +3.6V/3.3V/2.8V/1.8V Circuit

The output adopts the synchronously rectifying step-down chip LM2854 of NS Corporation. This chip is integrated with MOSFET and over-current protection internally. The over-current protection protects from hiccup.

 The Maintenance Points of +3.6V/3.3V/2.8V/1.8V Circuit Unit

Check by sight whether LM2854 and its peripheral devices are well welded before power on. The work flow after power on is:

Test the voltage of PIN5~PIN7 and PIN10~11, which should be +5V;

Test PIN12~PIN13, which should have pulse voltage waveform;

If there is no output with the circuit or if the circuit is hiccupping, check if the output is over-current and check the feedback circuit.

4.2.1.10 -5V and -12V Circuit Unit

 Basic Principle of -5V and -12V

The implementations of -5V and -12V are the same. The negative voltage IC MAX1847 is adopted for both circuits. The -5V and -12V are both equipped with overvoltage and over-current protection circuits, so once either overvoltage or over-current occurs, both circuits will be cut off and locked.

 The Maintenance Points of -5V and -12V Circuits

Make sure that VBUS+ for -5V and -12V is within the normal range.

After power on, refer to the work flow shown as follows:

Test the voltage of PIN15 of the power supply chip U15~16, which should be the same as VBUS+;

Test the voltage of PIN5 (the reference voltage pin), which should be 1.25V;

Test PIN8, the overvoltage and over-current protection controlling pin, which should be higher than 2V;

Test PIN14 (drive pin), which should output drive pulse.

If there is no output with the circuit, check if the output is over-current and check the feedback circuit.

4.2.1.11 Charging Unit

 Basic Principle of Charging Unit

The rise-and-fall charging chip MAX1870A made by MAXIM is adopted for both charging units A and B.

The MAX1870A enabling is controlled by the system’s main board and batteries’ temperature, and eventually controlled by level of PIN15. When PIN15 is high level (about 5V), the charging is enabled; when PIN15 is low level, the charging is disenabled. The charging current is affected by the status of the batteries and the load current of the main unit. The charging circuit regulates the charging current dynamically according to the load current of the main unit to ensure fast charging and the load current of the adapter is not overloaded when the system is on.

 The Maintenance Points of Charging Unit

Before testing, ensure that the charging chip is enabled, that is, PIN15 is high level.

The maintenance work flow of charging IC U7 and U8 and their peripheral circuits.

Check by sight if the soldering position departs from normal position, if so, it will cause short circuit of pins.

4-13

Test power supplying voltage PIN32, which should be equal to adapter’s output voltage of

EDC_POWER.

Test reference end’s PIN2, which should be about 4.0V.

Test linear stabilizing output PIN1, which should be 5.4V.

Test the voltage difference between PIN28 and PIN30, which should be less than 90mV.

Test driving pin PIN27 and PIN22, and at least one PIN should have driving pulse output.

Test if there is any damage to the power device MOS semiconductor and diode.

±95V circuit.  Basic Principle of ±95V Circuit

±95V is generated from +12V through the non-isolated reverse converter, the chip is UC3843B of ONSEMI.±95V output is figured with overvoltage, over-current and short circuit protection, it will not be locked in the case of overvoltage, and be locked during over-current and short circuit protection.

 The Maintenance Points of ±95V Circuit

First check if +12V output voltage is within the normal range, and if START signal is low level.

After power on, refer to the work flow shown as follows:

Test PIN8 of U1, the voltage should be +5V;

Test PIN4 of U1, there should have triangular wave of about 130 kHz;

Test PIN4 of U1, there should have drive pulse output;

Test PIN3 of U1, there should have triangular wave with the amplitude less than 1V.

If there is no output with the circuit, check if the output is over-current, check the feedback circuit, meanwhile, check if PHV_OCP is high level.

4-14

4.2.2 Principle of the Main Board

Probe

Receiving

Beamformer

Signal

process

Transmitting

4D

CW

Clock

Audio

Video

CPU

System monitor

& manage

Control panel

Display

Port

Power

Main

board

The schematic diagram of the main board is shown in figure below.

Fig 4-4 Principle Diagram of Main Board

 As shown in figure above, the main board unit is mainly configured with the following functional

modules:

 Transducer sockets;  Ultrasound receiving;  Ultrasound transmission;  Beam forming;  System clock;  Signal processing;  System monitoring and managing;  Audio;  Video;  IO ports;

Where, the transducer sockets, ultrasound transmission and receiving, beam forming and system clock are categorized as analog power region. The signal processing, signal monitoring and managing, audio, video and I/O ports are categorized as digital power region.

The main board provides the interfaces for:

4-15

 Transducer board;  Transmission board;  CW board;  4D board;  Keyboard board;  Flexible board for connecting the batteries;  CPU module;  LVDS display ports;  Power supply module;  Hard disk;  Reserved power interfaces;  Reserved signal interfaces;  Fan;  Speaker.  External interfaces include:  S_Video;  Network;  USB (2);  Extend interface.

The layout of the above-mentioned module interfaces in the main board is shown in figure below.

4-16

Adapter

port

Power module

CPU module

)

Inlet

fan

Dual

USB

port

Net port

SVIDEO

Display port

Notebook PC HDD

Extension port

Probe board

Probe port

Fan

Transmitting

CW board

Battery （11.1V,4400mAH)

Power

connec

t

socket

Battery (11.1V,4400mAH)

Pencil

probe

port

Receiving

Main

board

Inlet

fan

Signal process

Digital power socket

Analog

power

socket

4D board

Fig 4-5 Layout of Each Module and Socket on the Main Board

4-17

4.2.2.1 Power Distribution

Volt

IN

Filter

PHV2P

FilterPHV2N

Transmitting: transmitting, + high volt

Transmitting: transmitting, - high volt

Filter+12V (400mA)

Transmitting: transmitting drive volt

CW: pencil transmitting drive volt

Filter-12V (400mA)

Transmitting: transmitting drive volt

+5V1 (3260mA) Filter

Receiving: high volt isolation power

Transmitting: transmitting gate drive volt

Receiving: +5V_VCA

Receiving: channel select logic devices power supply

Probe port: extension module, 192-elemented probe power supply, etc. (control power off

and short circuit)

-5V1 (550mA) Filter

Receiving: high volt isolation power

Transmitting: transmitting gate drive volt

CW: CW filter power

A+12V

A-12V

A+12V

+3V6 (2100mA) Filter

Receiving: VCA power 3V3

Clock module: power

+2V8 (1000mA)

Filter

BF: LVDS power

Transmitting: transmitting gate drive volt

Receiving: ADS power 1V8

+1V5 (3000mA) Filter

BF: FPGA kernel

Receiving: ADS power 3V3

CW: CW filter power

BF: logic IO power 3V3

Transmitting: FPGA kernel

Filter

+95V (10mA)

-95V (10mA)

Receiving: high volt switch, + high volt

Receiving: high volt switch, - high volt

A+95V

Probe port: probe flash power

Receiving: ATGC power

Probe port: high volt switch, - high voltA-95V

A-95V

Probe port: high volt switch, + high voltA+95V

Filter

PHV1P

FilterPHV1N

Transmitting: transmitting, +high volt

Transmitting: transmitting, - high volt

The power distribution of M6 is an enormous network, refer to the following two figures for the detailed distribution.

Fig 4-6 Front-end Power Tree of the Main Board

4-18

Volt

IN

+3.3V Filter

3V3stb

5Vstb_cpu Filter

LDO

Power manage

FPGA

CPU

1V5

Filter

DSP FPGAVolt transfer

+12V

CPU

Filter

+5V Filter

Display

Fan

2109 reserved: control panel, DVD

IDE

aud-codec

aud-AMP

ECG

Keyboard

2109 reserved

Keyboard

aud-codec

Display

1.5V

LED drive

2109 reserved

CLOCK

+2.8V Filter

DSP FPGA

SSRAM

+1.8V Filter

DSP FPGA

DDRII

USB_video capture

4D

DSP FPGA_IO

PCIE_PHY

-12V Filter 4D

0.7A

4D

CH7026

MF_ FPGA

DDRII

CH7026

MF_FPGA

Fig 4-7 Back-end Power Tree of the Main Board

4-19

4.2.2.2 Ultrasound Receiving

2 to 1 channel switching

circuit

128<->64 channel

switching

(high-voltage switch 8pcs)

POUT[1:128]

Transducer

TX[1:64]

RX[1:64]

64-channel receiving circuit

64-channel 5-level transmitting circuit

(MOS driver + high-voltage MOS)

Clock circuit

160MHz crystal

oscillator

Clock

allocator

160MHz

LVPECL

DSP FPGA

BF FPGA

Beam forming

data bus

Beam forming controlling bus

Transmission

controlling

bus

PCIE bus

Ultrasou

nd back-

end

CW circuit

AFE chip

High-voltage

isolation

AD data

ATGC

CW data

40MHz

LVDS

160MHz

LVDS

40MHz*8ch

LVDS

160MHz

LVDS

Transmission

FPGA

High-voltage

transmission

module

The basic structure of the front-end circuit is shown in figure below:

Fig 4-8 Diagram of Front-end Circuit

The receiving circuit of the main board consists of channel switching and receiving circuits.

 Channel switching circuit

Transmitting and receiving circuits are 64 channels, but the actual transducer is 128 channels, so channel switching circuit is needed to switch the 64 channels of the transmitting and receiving into 128 channels. 8 channel conversion circuit is completed through 16-channel high voltage switch chip. Refer to the principle diagram for the principle.

 Receiving circuit

The receiving circuit consists of high-voltage isolation circuit, voltage-controlled gain amplification circuit and high-speed ADC.

The high-voltage isolation circuit protects the receiving amplification circuit during transmission from high-voltage transmission pulse damage.

Voltage-controlled gain amplification circuit amplifies weak ultrasound echoes and transmits them to ADC for analog-to-digital conversion. It converts ultrasound echoes to digital signals for succeeding digital processing.

Voltage-controlled amplification circuit and high-speed ADC are all integrated in one AFE chip in M6.An AFE chip consists of 8-channel voltage-controlled gain amplification circuit and high-speed ADC. There are 8 AFEs in M6, composing 64 receiving channels.

4.2.2.3 Clock Circuit

The clock circuit provides low phase noise clock to the above-mentioned modules.

The clock circuit consists of crystal oscillator and clock allocator. The crystal oscillator is a 160Mhz oscillator with good phase noises. It distributes the clock signals via the clock allocator. The clock allocator has 12 LVDS outputs, and each one can split the frequency independently.

4-20

The outputs of the clock circuit are shown in figure below:

Crystal oscillator

Clock allocator (12 chs LVDS)

160MHz(LVPECL)

BF FGPA

160MHz(LVDS)

Transmission

FPGA

160MHz(LVDS)

Frequency

divider

AFE chip * 8

DSP FPGA

160MHz(LVDS)

40MHz(LVDS)

Latch Clock to be latched

CW

demodulating

clock

CW sampling

clock

VTGC-DAC

clock

Frequency variable

(CMOS)

1MHz?(CMOS)

16MHZ(CMOS)

No.

LED Number

Meaning

1

D227

12V

2

D18

VCC

3

D17

VDD

Fig 4-9 Diagram of Clock Circuit

4.2.2.4 Signal Processing

The signal processing is mainly implemented through two FPGAs: FPGA1 and FPGA2.

The FPGA1 mainly responsible for controlling on the front-end chips (such as channel selection CPLD, VGA gain control DAC, ADC, transducer and transducer extend module), beam forming, and orthogonal demodulation, generating transmission sequence pulse, etc.

The FPGA2 implements signal processing, data uploading, real time scan parameters loading, 4D controlling, etc. Data is uploaded through PCIE interface.

4.2.2.5 Power Management

Power management is basically implemented by the power management FPGA.

System power can be sorted as STANDBY power, CPU STANDBY power and normal working power in terms of power-on sequence.

STANDBY power is provided in the status of system POWERDOWN, including 3V3STB and 1V5_FPGA.These power supplies are mainly for powering the power managing FPGA devices for power management. The power of power managing FPGA reset signal, 10k crystal oscillator, power managing FPGA, CPU12V_OK and CPU5VSTB_OK, etc. As long as the adapter is connected or batteries are loaded, they will be powered.

CPU STANDBY power is required in the POWER DOWN status of PC module, including 5VSBY and 3V3_STB_CPU.In the system is POWER DOWN, this power is turned off. Turn on this power before starting the PC system.

The working power is provided when the system is working normally. Except the two types of powers mentioned above, other powers all belong to working powers. The following indicators are used for the working powers:

Table 4-7 Power indicators on main board

There are some indicators on the control panel for indicating power status. The signals are described in the following table:

4-21

Table 4-8 Indicators on the control panel

No.

Indicator

Drive signal

Definition

Notes

1

Work Status LED

WORKSTS_O

Dual-color, indicating the current status of the main unit:

It remains off when the system is turned off.

Press POWERBTN, the light flashes in green when S3# is disenabled.

When S3# is disenabled after system power on, the light turns into green.

WORKSTS_G

2

EDC Status LED

EDCSTS_G

Single color, indicating if the main unit is connected with the mains power:

When disconnected, the light is off, otherwise, in green.

3

Battery Status LED

BATSTS_O

Dual-color, indicating the current battery status:

It illuminates in orange color when battery is charging;

It illuminates in green color when battery is charging to full capacity;

It flashes in orange color if battery capacity is less than 30%, the battery is discharging, and the system is working;

It flashes in green color if battery capacity is more than 30%, the battery is discharging, and the system is at standby status;

It flashes in green and orange alternately if battery capacity is less than 30%, the battery is discharging, and the system is at standby status;

The light flashes in orange at the cycle of 0.5S, that is to say, 0.25S on, and 0.25S off.

The light flashes in green at the cycle of 1S, that is to say, 0.5S on, and 0.5S off. When the light flashes in in green and orange alternately, the green light is 0.25S on and 0.25S off; the orange light is 0.25S on and

0.25S off.

BATSTS_G

4.2.2.6 System Monitoring

The system monitoring includes voltage monitoring, temperature monitoring and fan rotating control.

Monitor on the voltage: direct measurement, including measurement of 12V, N12V, VCC, VDD, 1.5V,

2.8V, 1.8V and 1.2V;

It detects power board and front-end temperature.

Monitors and controls on fans and ventilation unit.

4-22

4.2.2.7 Video Processing

COME

Module

CEGM4

5

LVDSA LVDSB

1024x768@60Hz

SDVO

B

SDVO

C

CVBS

S-

Video

MF

FPGA

EP3C16

Main LCD

S-Video

CVBS

External

Display

External

CRT

Video

Encoder

CH7026B

DVI Transmitter

TFP410

Frame Buffer

MT47H64M16HR

S-Video

VGA

1024x768@60Hz

DVI

1024x768@60Hz

PAL

NTSC

PAL

NTSC

RGB888

1024x768@60Hz

LVDS

1024x768@60Hz

SSC

CY25562

I2C

0-400KHz

LPC

33MHz

CON1

CON2

PIN PIN NAME

PI N

PIN NAME

PI N

PIN NAME

PI N

PIN NAME

1

GND 2 POUT1 3

GND 1 POUT69 2

POUT70 3

POUT71 4

POUT2 5

GND 6 POUT3 4

POUT72 5

POUT73 6

POUT74 7

GND 8 POUT4 9

POUT5 7

POUT75 8

GND 9 POUT76 10

POUT6 11

POUT7 12

GND 10

GND 11

POUT77 12

POUT78 13

POUT8 14

GND 15

POUT9 13

POUT79 14

POUT80 15

GND 16

GND 17

POUT10 18

POUT11 16

POUT81 17

GND 18

POUT82 19

POUT12 20

POUT13 21

GND 19

GND 20

POUT83 21

POUT84 22

POUT14 23

GND 24

POUT15 22

POUT85 23

POUT86 24

GND 25

GND 26

POUT16 27

POUT17 25

POUT87 26

GND 27

POUT88 28

POUT18 29

POUT19 30

GND 28

GND 29

POUT89 30

POUT90 31

POUT20 32

GND 33

POUT21 31

POUT91 32

POUT92 33

GND 34

GND 35

POUT22 36

POUT23 34

POUT93 35

GND 36

POUT94 37

POUT24 38

POUT25 39

GND 37

GND 38

POUT95 39

POUT96 40

POUT26 41

GND 42

POUT27 40

POUT97 41

POUT98 42

GND 43

GND 44

POUT28 45

POUT29 43

POUT99 44

GND 45

POUT100

Fig 4-10 Block diagram of video module

External display video signal is generated from VGA of PC module.

S-Video, CVBS, DVI, and LVDS video signals are all generated from LVDS of PC module.

The display switch is on the control panel.

The display parameters are saved in EEPROM of LCD parameter board, they are accessed by SMBUS of the PC module.

4.2.2.8 Interfaces of Main Board

 Interfaces of Main Board and Transducer Board

Signals of the main board and transducer board are defined in table below.

Table 4-9 Interfaces of the main board and transducer board

4-23

CON1

CON2

46

POUT30 47

POUT31 48

GND 46

POUT101 47

POUT102 48

POUT103 49

POUT32 50

GND 51

POUT33 49

POUT104 50

POUT105 51

GND 52

GND 53

POUT34 54

POUT35 52

POUT106 53

GND 54

POUT107 55

POUT36 56

POUT37 57

GND 55

GND 56

POUT108 57

POUT109 58

POUT38 59

GND 60

POUT39 58

POUT110 59

POUT111 60

POUT112 61

GND 62

POUT40 63

POUT41 61

POUT113 62

GND 63

POUT114 64

POUT42 65

POUT43 66

GND 64

POUT115 65

POUT116 66

POUT117 67

POUT44 68

GND 69

POUT45 67

POUT118 68

POUT119 69

GND 70

GND 71

POUT46 72

POUT47 70

POUT120 71

GND 72

POUT121 73

POUT48 74

POUT49 75

GND 73

GND 74

POUT122 75

POUT123 76

POUT50 77

GND 78

POUT51 76

POUT124 77

POUT125 78

POUT126 79

GND 80

POUT52 81

POUT53 79

POUT127 80

GND 81

POUT128 82

POUT54 83

POUT55 84

GND 82

PROBE_SPICLK 83

PROBE_SPICS_N 84

PROBE_SPIDIN 85

POUT56 86

GND 87

POUT57 85

PROBE_SPIDOUT 86

PROBE_FLASH_WP _N

87

PRB_DP_FREEZE_ N

88

GND 89

POUT58 90

POUT59 88

A+3V3_PRB 89

GND 90

A+85V_PROBE 91

POUT60 92

POUT61 93

GND 91

PROBE_PLUG 92

CLK_192_PROBE 93

DIN1_192_PROBE 94

POUT62 95

GND 96

POUT63 94

DIN2_192_PROBE 95

LE_N_192_PROBE 96

A-85V_PROBE 97

GND 98

POUT64 99

POUT65 97

EXPRESS_PRESENT _N

98

PRB_DP_SWITCH_N 99

PROBE_PRESENT _N 100

POUT66

10 1

POUT67

10 2

GND

10 0

GND

10 1

GND

10 2

GND

10 3

GND

10 4

GND

10 5

POUT68

10 3

A+5V_PROBE

10 4

A+5V_PROBE

10 5

A+5V_PROBE

The signals are described in the following table:

4-24

Table 4-10 Interface & signals of main board and transducer board

SIGNAL NAME

DESCRIPTION

POUT[1:128]

Transmitting signals and receiving echo signals

SPIDIN_PROBE

Probe Flash SPI Data IN

SPIDOUT_PROBE

Probe Flash SPI Data OUT

SPICS_N_PROBE

Probe Flash SPI CS_N

SPICLK_PROBE

Probe Flash SPI CLOCK

FLASH_WP_N_PROBE

Probe Flash Write Protect

FLASHSPIOE_N_PROB E

Probe Flash SPI enable

CTRL_A+3V3_PROBE_ N

Enable Flash power of transducer CTRL_A+5V_PROBE

Enable transducer extend power

PRB_PRESENT

Transducer present signal

EXP_PRESENT

Transducer extend module present signal

192_CLK_PROBE

High-voltage switch clock of 192-elemented transducer

192_LE_N_PROBE

Enabling signal of 192-elemented transducer high-voltage switch

192_DIN1_PROBE

High-voltage switch data 1 of 192-elemented transducer

192_DIN2_PROBE

High-voltage switch data 2 of 192-elemented transducer

192_SPIOE_N_PROBE

Enabling SPI of 192-elemented transducer

CTRL_192HV _PROBE

Control high-voltage output of 192 transducer

PRB_DP_FRZ

FREEZE signal of real-time bi-planar transducer

PRB_DP_SW

Switching signal of real-time bi-planar transducer

PRB_PLUG_N

Detection of connection and disconnection with power on of the transducer

 Interfaces of Main Board and Transmission Board

Signals of the main board and transmission board are defined in table below.

4-25

Table 4-11 Interfaces of main board and transmission board

CON1（J6）

SIG

SIG 1 GND

2

GND

61

EMIT33

62

GND

3

EMIT1

4

EMIT2

63

GND

64

EMIT36

5

EMIT3

6

EMIT4

65

EMIT35

66

GND

7

GND

8

GND

67

GND

68

EMIT38

9

EMIT5

10

EMIT6

69

EMIT37

70

GND

11

EMIT7

12

EMIT8

71

GND

72

EMIT40

13

GND

14

GND

73

EMIT39

74

GND

15

EMIT9

16

EMIT10

75

GND

76

EMIT42

17

EMIT11

18

EMIT12

77

EMIT41

78

GND

19

GND

20

GND

79

GND

80

EMIT44

21

EMIT13

22

EMIT14

81

EMIT43

82

GND

23

GND

24

EMIT16

83

GND

84

EMIT46

25

EMIT15

26

GND

85

EMIT45

86

GND

27

GND

28

EMIT18

87

GND

88

EMIT48

29

EMIT17

30

GND

89

EMIT47

90

GND

31

GND

32

EMIT20

91

GND

92

EMIT50

33

EMIT19

34

GND

93

EMIT49

94

GND

35

GND

36

EMIT22

95

GND

96

EMIT52

37

EMIT21

38

GND

97

EMIT51

98

GND

39

GND

40

EMIT24

99

GND

100

EMIT54

41

EMIT23

42

GND

101

EMIT53

102

GND

43

GND

44

EMIT26

103

GND

104

EMIT56

45

EMIT25

46

GND

105

EMIT55

106

GND

47

GND

48

EMIT28

107

EMIT57

108

EMIT58

49

EMIT27

50

GND

109

GND

110

EMIT60

51

GND

52

EMIT30

111

EMIT59

112

GND

53

EMIT29

54

GND

113

EMIT61

114

EMIT62

55

GND

56

EMIT32

115

GND

116

EMIT64

57

EMIT31

58

GND

117

EMIT63

118

GND

59

GND

60

EMIT34

119

GND

120

GND

CON2（J5）

SIG PIN

SIG

1

PHV1_N 2

PHV1_P 31

GND

32

NC 3

PHV1_N 4

PHV1_P 33

HSSB_TX0RFCKN

34

A+75V_sub 5

NC 6 NC 35

HSSB_TX0RFCKP

36

NC 7

PHV2_N 8

PHV2_P 37

GND

38

GND

4-26

9

PHV2_N 10

PHV2_P 39

HSSB_TX0RBCKN

40

CLK_N_EMIT 11

NC 12

NC 41

HSSB_TX0RBCKP

42

CLK_P_EMIT 13

A-12V 14

A+12V 43

GND

44

GND 15

A-12V 16

A+12V 45

HSSB_TX0RN

46

HSSB_TX0TFCKN 17

A-5V1 18

A+5V1 47

HSSB_TX0RP

48

HSSB_TX0TFCKP 19

A+2V8 20

A+1V5 49

GND

50

GND 21

A+2V8 22

A+1V5 51

HSSB_TX1RN

52

HSSB_TX0TBCKN 23

RATE_P_EMIT 24

RESET_EMIT 53

HSSB_TX1RP

54

HSSB_TX0TBCKP 25

RATE_N_EMIT 26

CLOCKEN_N_EMIT 55

GND

56

GND 27

TMS 28

TDI_EMIT_TDO_BF 57

HSSB_TX0TN

58

HSSB_TX1TN 29

TDO_EMIT 30

TCK 59

HSSB_TX0TP

60

HSSB_TX1TP

 Interface of Main Board and CW Board

SIGNAL

1

GND

2

GND

3

CW1

4

CW2

5

GND

6

GND

7

CW3

8

CW4

9

GND

10

GND

11

CW5

12

CW6

13

GND

14

GND

15

CW7

16

CW8

17

GND

18

GND

19

CW9

20

CW10

21

GND

22

GND

23

CW11

24

CW12

25

GND

26

GND

27

CW13

28

CW14

29

GND

30

GND

31

CW15

32

CW16

33

GND

34

GND

35

CW17

36

CW18

37

GND

38

GND

Signals between the main board and CW board interfaces are defined as Table 4-12 and Table 4-14 .

Table 4-12 Definition of Signals of CW CON1

4-27

SIGNAL

39

CW19

40

CW20

Wherein the signals of CW CON1 are defined as follows:

Signal name

Description

CW[20:1]

CW echo signal

1

A-5V1

2

A+5V1

21

TPU1_PENCIL_CW

22

AD_SDI0

3

A-5V1

4

A+5V1

23

GND

24

GND

5

GND

6

GND

25

TPU0_PENCIL_CW

26

AD_SCK0

7

BORADID_CW

8

PPID_CW

27

GND

28

GND

9

CWPPPRESENT

10

AD8333_EBL_CW

29

GND

30

AD_CNV1_CW

11

GND

12

GND

31

AD8333_4LO0_CW

32

GND

13

AD_SDO1

14

SW_CTRL1

33

AD8333_4LO1_CW

34

AD_CNV0_CW

15

AD_SDI1

16

SW_CTRL0

35

GND

36

GND

17

GND

18

GND

37

VOL_ADJ_SDA_CW

38

VOL_ADJ_SCK_CW

19

AD_SCK1

20

AD_SDO0

39

A+12V

40

A+3V6

Signal name

1

12V

2

12V

3

12V

4

12V

5

12V

6

12V

7

12V

8

12V

9

GND

10

GND

11

GND

12

GND

13

GND

14

GND

15

GND

16

GND

17

-12V

18

-12V

19

-12V

20

-12V

21

-12V

22

-12V

23

GND

24

GND

25

GND

26

GND

27

GND

28

GND

29

VDD

30

VDD

31

GND

32

GND

Table 4-13 Signals Definition of CW CON1 Socket

Table 4-14 Signals Definition of CW CON2 Socket

 Interfaces of Main Board and 4D Board

The interfaces between the main board and the 4D board are defined in table below.

Table 4-15 Signal Definition of main board and 4D board

4-28

Signal name

33

VCC

34

VCC

35

GND

36

GND

37

NC

38

NC

39

NC

40

NC

41

NC

42

NC

43

NC

44

NC

45

NC

46

NC

47

NC

48

NC

49

GND

50

GND

51

POWEREN_N

52

GND

53

HALL

54

GND

55

NC

56

GND

57

SPI_CLK

58

GND

59

SPI_DAT

60

GND

61

SPI_SYNC

62

GND

63

FD_ID

64

GND

65

AD_SCLK

66

GND

67

AD_DIN

68

GND

69

AD_DOUT

70

AD_NCS

 Interfaces of Main Board and Display Module

NO.

NAME

NO.

NAME

1

VDD

2

VDD

3

GND

4

GND

5

RXE0-

6

RXE1-

7

RXE0+

8

RXE1+

9

GND

10

GND

11

RXE2-

12

RXEC-

13

RXE2+

14

RXEC+

15

GND

16

GND

17

RXE3-

18

GND

19

RXE3+

20

GND

There are 3 sockets in all for the main board and display module, refer to the following 3 tables for the definitions:

Table 4-16 Definition of signals of the main board end (J25) of the LVDS socket

4-29

Table 4-17 Socket definition of display power supply (J26)

No:

Name

1

+12V

2

+12V

3

+12V

4

BL_On/Off

5

BL_ADJ

6

GND

7

GND

8

GND

Signal name

1

VDD

2

GND

3

SCL

4

SDA

SIG

1

ROUTP

2

ROUTN

3

NC

4

LOUTP

5

LOUTN

No.

Signal name

No.

Signal name

1

FANLF_SP

2

FANLF_PWR

3

FANLFM_CTRL

4

FANLMC_PWR

5

FANLM_SP

6

FANC_CTRL

7

FANLB_SP

8

FANC_SP

9

FANLBR_CTRL

10

FANLB_PWR

11

FANR_SP

12

FANR_PWR

Table 4-18 Definition of Color Temperature Correction Socket (J24)

 Interfaces of Main Board and Speakers

The interfaces of the main board and speakers are defined in the following table:

Table 4-19 Interfaces of Main Board and Speakers (J27)

 Socket between Fan and Main Board

The interfaces of the main board and fan are defined in the following table:

Table 4-20 Socket Definition of Fan Power Supply (J29)

4-30

 FPGA JTAG Sockets of Main Board Power Management

No.

Signal name

1

VPUMP

2

VJTAG

3

GND

4

TDO

5

TDI 6 TCK

7

TMS

8

TRST

No.

Signal name

No.

Signal name

1

NC 2 GND

3

NC 4 GND

5

GND

6

GND

7

NC 8 ATA_ACT#

9

SYS_RESET#

10

GND

11

CPRT_PRINT

12

BK_STS

13

CPRT_BUSY

14

GND

15

GND

16

SVIDEO_Y2

17

PWR_SSW

18

SVIDEO_C2

19

GND

20

GND

No.

Name

No.

Name

1

+12V

2

+12V

3

+12V

4

+12V

5

Gnd

6

Gnd

7

Gnd

8

Gnd

9

Gnd

10

Gnd

11

+5V

12

+5V

13

+5V

14

+5V

The FPGA JTAG sockets of the main board are defined in the following table:

Table 4-21 Signal Definition of FPGA JTAG sockets (J23) of Power Management

 Reserved Signal Interfaces

The reserved signal interfaces are defined in the following table:

Table 4-22 Definition of Reserved Signal Interfaces (J17)

 Reserved Power Interfaces;

The reserved power interfaces are defined in the following table:

Table 4-23 Definition of Reserved Power Interfaces (J20)

4-31

15

+5V

16

+5V

17

+5V

18

+5V

19

Gnd

20

Gnd

21

Gnd

22

Gnd

23

+3.3V

24

+3.3V

 The Interface between the Main Board and Adapter

No.

Name

Direction

1

Gnd

\ 6 Gnd

\

2

Gnd

\

4

Gnd

\ 3 +12V

In

7

+12V

In 5 +12V

In 8 +12V

In

No.

Signal name

No.

Signal name

1

EDC_PWR

2

EDC_PWR

3

EDC_PWR

4

EDC_PWR

5

EDC_PWR

6

EDC_PWR

7

EDC_GND

8

EDC_GND

9

EDC_GND

10

EDC_GND

11

EDC_GND

13

-12V

14

STS_EDC#

15

GND

16

GND

17

POWER_ON#

18

CPU12V_OK#

19

T_D+

20

T_D-

21

GND

22

GND

23

GND

24

GND

25

12V+

26

12V+

27

12V+

28

12V+

The interfaces between the main board and the adapter are defined as follows:

Table 4-24 Interface (J21) of Main Board and Speakers

 The Interface between the Main Board and Power Module

The interfaces between the main board and the power module consist of digital socket and analog power socket.

The digital socket is defined in the following table:

Table 4-25 Socket Definition of igital Socket (J22)

4-32

No.

Signal name

No.

Signal name

29

GND

30

GND

31

5V+

32

5V+

33

GND

34

GND

35

5VSTB_OK#

36

5VSTB_EN#

37

GND

38

GND

39

5VSTB_CPU

40

3V3STB

41

GND

42

GND

43

3V3

44

3V3

45

GND

46

GND

47

2V8

48

1V5

49

GND

50

GND

51

1V8

52

1V8

53

GND

54

GND

55

PWR_RX

56

PWR_CONF_N

57

PWR_TX

58

PWR_RST

59

GND

60

GND

61

PRT_BATA

62

PRT_BATB

63

BATSTS_O

64

BATSTS_G

Table 4-26 Signal Definition of Socket (J9) between Analog Power and Main Board

No.

Signal name

No.

Signal name

1

GND

2

GND

3

A5V1

4

A5V1

5

A5V1

6

A5V1

7

GND

8

GND

9

-A5V1

10

GND

11

-A12V

12

GND

13

GND

14

GND

15

A1V5

16

A1V5

17

A1V5

18

A1V5

19

GND

20

GND

21

A3V6

22

A3V6

23

GND

24

GND

25

A2V8

26

GND

27

A12V

28

GND

29

PHV1+

30

PHV2+

4-33

No.

Signal name

No.

Signal name

31

GND

32

GND

33

PHV1-

34

PHV2-

35

GND

36

GND

37

85V+

38

GND

39

GND

40

85V-

 Interfaces of Main Board and I/O Extend Board

Definition of Signal

A1

USB+4

B1

USB-4

C1

USB+5

D1

USB-5

A2

VBUS_SYS45

B2

GND

C2

VBUS_SYS45

D2

GND

A3

GND

B3

VGA_HS

C3

VGA_RED

D3

VGA_GREEN

A4

UART_RX0

B4

VGA_VS

C4

GND

D4

SDISP_PRT_N

A5

UART_TX0

B5

GND

C5

VGA_BLUE

D5

A6

GND

B6

AUDIO_L

C6

GND

D6

A7

BWPRT _PRINT

B7

AUDIO_R

C7 D7

GND

A8

BWPRT_BUSY

B8

GND

C8

DVI_D0+

D8

DVI_D0-

A9

GND

B9

ECG_PWR

C9

DVI_D1+

D9

DVI_D1-

A10

MIC_L

B10

DVI_HPD

C10

GND

D10

GND

A11

MIC_R

B11 C11

DVI_CLK+

D11

DVI_CLK-

A12

VIDEO

B12

ECG_TX

C12

DVI_D2+

D12

DVI_D2-

\ \ B13

ECG_RX

\ \ D13

ECG_PRT

No.

Name

No.

Name

1

+3.3V

2

+3.3V

3

+3.3V

4

+3.3V

5

Gnd

6

Gnd

7

Gnd

8

Gnd

9

+5V

10

+5V

11

+5V

12

+5V

13

Gnd

14

Gnd

15

Gnd

16

Audio Out

17

Gnd

18

Gnd

19

Work_Status_O

20

Work_Status_G

21

Battery_Status_O

22

Battery_Status_G

Signal definition between master board and I/O extended board is shown as table below.

Table 4-27 Signal Definition between Mater Board and I/O Extended Socket-J1

 The Interfaces between the Main Board and the Keyboard

The interfaces between the main board and the keyboard are defined in table below.

Table 4-28 Signal Definition between Master Board and Keyboard Board-J19

4-34

23

Gnd

24

EDC_Status_G

25

USB_DN

26

LCD_SW

27

USB_DP

28

Power_BTN

29

Gnd

30

Gnd

4.2.2.9 Testing Points of Main Board and LED Indicator Light

No.

Label of the Testing Point

Network of the Testing Point

1

TP206-GND

Ground network

2

TP248-VAA0

Voltage of video DA chip (3.3V)

3

TP228-1V5STB

Power management standby voltage (1.5V)

4

TP249-SV-VDD

Voltage of video driving chip (3.3V)

5

TP202-12V

12V voltage (12V)

6

TP246-3V3S_CPU

PC module standby (3.3V)

7

TP7-PWROK

Power OK signal of PC module (3.3V)

8

TP9-S3

Initialization status indicating signal S3 of PC module (3.3V)

The testing points of the main board are shown in the following figures:

Fig 4-11 Testing Points of Main Board

Table 4-29 List of Testing Points of Main Board

4-35

No.

Label of the Testing Point

Network of the Testing Point

9

TP8-S4

Initialization status indicating signal S4 of PC module (3.3V)

10

TP10-S5

Initialization status indicating signal S5 of PC module (3.3V)

11

TP224-EDC_PWR

12V input of the adapter (12V)

12

TP218-N12V

-12V voltage (-12V)

13

TP215-5VSBY

Standby voltage (5V)

14

TP203-VDD

VDD voltage (3.3V)

15

TP217-D1V5

D1V5 voltage (1.6V)

16

TP216-D2V8

D2V8 voltage (3.0V)

17

TP6-CPUBTN

Button start-up signal of PC module (3.3V)

18

TP214-D1V8

D1V8 voltage (1.8V)

19

TP201-VCC

VCC voltage (5V)

20

TP20-IQ_VTT

VTT voltage of DDR2 (0.9V)

21

TP236-VCCINT_DSP_MF

FPGA core voltage (1.2V)

22

TP226-12V_4D

12V voltage of 4D module (12V)

23

TP235-D2V5

D2V5 voltage (2.5V)

24

TP19-UP_VTT

VTT voltage of DDR2 (0.9V)

25

TP227-3V3STB

Standby voltage (3.3V)

26

TP146-A+5V_PROBE

Transducer port 5V

27

TP148-A+3V3_PRB

Transducer port 3.3V

28

TP147-A+5V1

Analog 5V

29

TP155-A-5V_HVISO2

High-voltage isolation power

30

TP241-A-85V_HVSW

High-voltage switch power

31

TP151-A+85V_HVSW

High-voltage switch power

32

TP153-A+5V_HVISO2

High-voltage isolation power

33

TP152-A+5V_HVISO1

High-voltage isolation power

34

TP193-A-12V

-12V power

35

TP165-A+1V8_ADS

AFE power

36

TP194--12V_A

-12V power

37

TP163-A+3V3_VCA

AFE power

38

TP164-A+3V3_ADS

AFE power

39

TP178-A+5V_ATGC

ATGC power

40

TP162-A+5V_VCA

AFE power

41

TP144-A+3V3_CLOCK

Clock power

42

TP240-VBAT

Voltage of the button cell (3V)

4-36

No.

Label of the Testing Point

Network of the Testing Point

43

TP190-A+1V5

Analog 1.5V power

44

TP189-＋1V5_A

Analog 1.5V power

45

TP184-＋5V1_A

Analog 5V power

46

TP137-A+5V1

Analog 5V power

47

TP196-+12V_A

Analog 12V power

48

TP195-A+12V

Analog 12V power

49

TP187-+2V8_A

Analog 2.8V power

50

TP185-+3V6_A

Analog 3.6V power

51

TP186-A+3V6

Analog 3.6V power

52

TP180--95V_A

Analog -95V power

53

TP188-A+2V8

Analog 2.8V power

54

TP192--5V1_A

Analog -5V power

55

TP36-+95V_A

Analog 95V power

56

TP191-A-5V1

Analog -5V power

57

TP38-A-95V

Analog -95V power

58

TP179-A-5V_ATGC

ATGC-5V power

59

TP37-A+95V

Analog 95V power

Table 4-30 Main board LED indicator light

No.

LED

Indication

1

D227

12V

2

D18

VCC

3

D17

VDD

4

D220

Multifunctional FPGA configuration indicator light

5

D11

DSP FPGA configuration indicator light

6

D15

Beam FPGA configuration indicator light

4.2.3 Principle of Transmitting Board

The main board sends commands to transmitting board, the transmitting board calculates the parameters in real time and controls the high-voltage pulses necessary for the output of the transmitting circuit. The schematic diagram is shown below:

4-37

PHV1_P

64-channel transmit

signal

Mos drive

Transmit

control

Mos drive

PHV2_P

PHV1_N

PHV2_N

GND

64-channel transmit

64

1

System control bus

Scan control signal

64

Fig 4-12 Structure Diagram of Ultrasound Transmission

4-38

4.2.3.1 Power Structure of Transmission Board

PHV1_N

PHV1_P

PHV2_P

PHV2_N

Capacitor filter

A+12V

A-12V

A+2V5

VDD+11V

VSS-11V-HIGH

A+2V8

LDO

PHV1_N

PHV1_P

PHV2_P

PHV2_N

LDO

AVDD1+11V

DVDD1+11V

DVDD2+11V

AVSS-11V-HIGH

DVSS-11V-HIGH

LC

VCCAUX

VF+2V5

VLL+2V5

LC

A+5V1

P+3v3

LDO

A+1V5

VF+1V2

LDO

VSS-11V-LOW

AVSS-11V-LOW

DVSS-11V-LOW

LC

LDO

100mA

500mA

1600mA

360mA

300mA

Fig 4-13 Structure Diagram of Transmitting Board Power Supply

4.2.3.2 Definition of Transmission Board Interface

Detailed definition of external interface of transmission board is shown below:

4-39

Table 4-31 Detailed Definition of External Interface of Transmission Board

Interface with the Main Board

（DSP_FPGA）HSSB_TX0TP/N，HSSB_TX1TP/N，HSSB_TX0TBCKP/N， HSSB_TX0TFCKP/N,HSSB_TX0RP/N，HSSB_TX1RP/N, HSSB_TX0RBCKP/， HSSB_TX0RFCKP/NCLOCKEN_N_EMIT

(BF_FPGA) RESET_EMIT，RATE_P/N_EMIT

(clock) CLK_P/N_EMIT

Interface with analog part of main board

64-channel transmission pulse/echo POUT[EMIT64..1]

Interface with power of main board

A+12V,A-12V,A+5V1,A-5V1,A+2V8，A+1V5,PHV1_P,PHV1_N,PHV2_P,PHV2_N

JTAG signal

TCK，TDO_EMIT，TMS，TDI_EMIT_TDO_BF

Bus socket

J3, bottom

JTAG

socket

J1, front

Bus socket

J2, bottom

The instrumentation diagram of transmission board is shown in the following figure. The figure marks the sockets and their names.

Fig 4-14 The instrumentation diagram of transmission board

4-40

Table 4-32 Definition of J1 of JTAG Socket

1

JTAG_TCK

2

JTAG_ TDO_EMIT

3

JTAG_ TMS

4

JTAG_ TDI_EMIT_TDO_BF

5

P+3V3

6

GND

7

NC

8

NC

1

GND

2

GND

61

EMIT33

62

GND

3

EMIT1

4

EMIT2

63

GND

64

EMIT36

5

EMIT3

6

EMIT4

65

EMIT35

66

GND

7

GND

8

GND

67

GND

68

EMIT38

9

EMIT5

10

EMIT6

69

EMIT37

70

GND

11

EMIT7

12

EMIT8

71

GND

72

EMIT40

13

GND

14

GND

73

EMIT39

74

GND

15

EMIT9

16

EMIT10

75

GND

76

EMIT42

17

EMIT11

18

EMIT12

77

EMIT41

78

GND

19

GND

20

GND

79

GND

80

EMIT44

21

EMIT13

22

EMIT14

81

EMIT43

82

GND

23

GND

24

EMIT16

83

GND

84

EMIT46

25

EMIT15

26

GND

85

EMIT45

86

GND

27

GND

28

EMIT18

87

GND

88

EMIT48

29

EMIT17

30

GND

89

EMIT47

90

GND

31

GND

32

EMIT20

91

GND

92

EMIT50

33

EMIT19

34

GND

93

EMIT49

94

GND

35

GND

36

EMIT22

95

GND

96

EMIT52

37

EMIT21

38

GND

97

EMIT51

98

GND

39

GND

40

EMIT24

99

GND

100

EMIT54

41

EMIT23

42

GND

101

EMIT53

102

GND

43

GND

44

EMIT26

103

GND

104

EMIT56

45

EMIT25

46

GND

105

EMIT55

106

GND

47

GND

48

EMIT28

107

EMIT57

108

EMIT58

49

EMIT27

50

GND

109

GND

110

EMIT60

51

GND

52

EMIT30

111

EMIT59

112

GND

53

EMIT29

54

GND

113

EMIT61

114

EMIT62

Table 4-33 Detailed Definition of Bus Socket J2

4-41

55

GND

56

EMIT32

115

GND

116

EMIT64

57

EMIT31

58

GND

117

EMIT63

118

GND

59

GND

60

EMIT34

119

GND

120

GND

Table 4-34 Detailed Definition of Bus Socket J3

1

PHV1_N

2

PHV1_P

31

GND

32

NC

3

PHV1_N 4

PHV1_P 33

HSSB_TX0RFCK N

34

A+75V_sub

5

NC 6 NC 35

HSSB_TX0RFCK P

36

NC 7

PHV2_N

8

PHV2_P

37

GND

38

GND

9

PHV2_N 10

PHV2_P 39

HSSB_TX0RBC KN

40

CLK_N_EMIT

11

NC 12

NC 41

HSSB_TX0RBC KP

42

CLK_P_EMIT 13

A-12V

14

A+12V

43

GND

44

GND

15

A-12V 16

A+12V 45

HSSB_TX0RN 46

HSSB_TX0TFC KN

17

A-5V1 18

A+5V1 47

HSSB_TX0RP 48

HSSB_TX0TFC KP

19

A+2V8

20

A+1V5

49

GND

50

GND

21

A+2V8 22

A+1V5 51

HSSB_TX1RN 52

HSSB_TX0TBC KN

23

RATE_P_EMIT 24

RESET_EMIT 53

HSSB_TX1RP 54

HSSB_TX0TBC KP

25

RATE_N_EMIT 26

CLOCKEN_N_E MIT

55

GND 56

GND

27

TMS 28

TDI_EMIT_TDO_ BF

57

HSSB_TX0TN 58

HSSB_TX1TN 29

TDO_EMIT

30

TCK

59

HSSB_TX0TP

60

HSSB_TX1TP

4.2.4 4D Driving Board

The principle diagram of 4D driving board is shown in figure below. The interface signals of 4D driving board and main board consist of power, SPI interface signals of ADC and DAC, and the enabling signal of power module. The interface signals of 4D driving board and transducer connecting board are: two driving signals A and B, HALL signal and its 5V power supply, and temperature and angle signals of TEE transducer. 4D driving board mainly implements the following two functions:

 Amplifies the command-driven current and generates signals of appropriate power to drive

the transducer to the desired position.

 As a reserved design, it amplifies the temperature and angle signals of the TEE transducer

and provides data collection channel.

4-42

Transducer

board

Error

amplification

Signal

amplification

DAC

Power

amplification

Load (4D transducer and electrical motor)

Setting current of phase A

Current feedback

Driving voltage

Current detection

resistor

Driving current

SPI Interface

Driving of phase A

Current amplification of phase B (same as phase A)

Setting current of

phase B

Driving of phase B

ADC

SPI Interface

VCC

Load (TEE Transducer)

Amplification

circuit of

temperature signal

Amplification

circuit of angle

signal

TEE circuit

Adjustable Power Module

POWER_EN

PLV_DAC

PAVPP

PNAVPP

Main Board

4D&TEE Driving Board

4D Driving Circuit

Signal name

Direction

Signal name

Direction

1

12V

Input

2

12V

Input

3

12V

Input

4

12V

Input

5

12V

Input

6

12V

Input

7

12V

Input

8

12V

Input

9

GND

/

10

GND

/

11

GND

/

12

GND

/

13

GND

/

14

GND

/

15

GND

/

16

GND

/

17

-12V

Input

18

-12V

Input

19

-12V

Input

20

-12V

Input

21

-12V

Input

22

-12V

Input

23

GND

/

24

GND

/

25

GND

/

26

GND

/

27

GND

/

28

GND

/

Fig 4-15 Block diagram of 4D driving board

4.2.4.1 Definition of the Interface between the 4D Driving Board and Main

Board

Signals of the socket are defined as follows:

Table 4-35 Definition of Socket between 4D Driving Board and Main Board

4-43

Signal name

Direction

Signal name

Direction

29

VDD

Input

30

VDD

Input

31

GND

/

32

GND

/

33

VCC

Input

34

VCC

Input

35

GND

/

36

GND

/

37

NC / 38

NC

/

39

NC / 40

NC

/

41

NC / 42

NC / 43

NC / 44

NC / 45

NC / 46

NC

/

47

NC / 48

NC / 49

GND

/

50

GND

/

51

PWR_EN

Input

52

GND

/

53

HALL

Output

54

GND

/

55

NC / 56

GND

/

57

SPI_CLK

Input

58

GND

/

59

SPI_DAT

Bidirectional

60

GND

/

61

SPI_SYNC

Input

62

GND

/

63

FD_ID

Bidirectional

64

GND

/

65

AD_SCLK

Input

66

GND

/

67

AD_DIN

Input

68

GND

/

69

AD_DOUT

Output

70

AD_NCS

Input

NOTE: wherein the direction of signal is defined as: the signal from main board to 4D driving board

Signal name

Direction

1

AGND

/ 2 5V

Output

3

HALL

Input

4

ANGLE

Input

5

AGND

/ 6 T+

Input

7

T-

Input

is input signal, the signal from 4D driving board to main board is output signal.

4.2.4.2 Definition of the Interface between the 4D Driving Board and

Transducer Connecting Board

The wire-to-board socket (WTB) of 4D driving board signals are defined as follows:

Table 4-36 Definition of Socket between 4D Driving Board and Transducer Connecting Board

4-44

8

PHASE_B_NEG

Output

9

PHASE_B_NEG

Output

10

PHASE_B_POS

Output

11

PHASE_B_POS

Output

12

PHASE_A_NEG

Output

13

PHASE_A_NEG

Output

14

PHASE_A_POS

Output

15

PHASE_A_POS

Output

NOTE: wherein the direction of signal is defined as: the signal from transducer connecting board to 4D driving board is input signal, the signal from 4D driving board to transducer connecting board is output signal.

4-45

4.2.4.3 Testing Points of 4D Driving Board

No.

Label of the Testing Point

Signal definition of testing points 1

TP3

Command current bias voltage from DAC (DAC_BIAS)

2

TP4

Output of command current error amplification circuit of phase B

3

TP5

Positive output of driving current of phase B (PHASE_B_POS)

4

TP6

Command current of phase B from DAC (DAC_B_SET)

5

TP7

Output of command current signal amplification circuit of phase B

6

TP8

Command current of phase A from DAC (DAC_A_SET)

7

TP9

Output of command current signal amplification circuit of phase A

8

TP10

Output of command current error amplification circuit of phase A

9

TP11

Positive output of driving current of phase A (PHASE_A_POS)

The testing points of 4D driving board are listed in the following table:

Table 4-37 List of Testing Points of 4D Driving Board

4.2.5 Principle of Keyboard Board

4.2.5.1 General Description

 The control panel implements the following functions:

Input from buttons: input by general button, combination button, repeat button and encoder are supported;

Backlight LED of buttons, control of status indicating LEDs

Control of beeps of buttons; larger adjustable range of volume; more than 3 grades are provided;

TGC input, full-scale and 0 available

Input from encoder

Input from optical trackball; control of backlight of optical trackball

4.2.5.2 Block Diagram of Structure

The block diagram of control panel is shown in below:

4-46

NIOS

CPU

NIOS software

NIOS system

FPGA

SDRA

M

USB

IC

Key scanning

LED drive

Encoder &

trackball interface

TGC IN

Audio OUT

To the port of

main board

TGC board

New/old trackball

Main board

Control panel

GND

L0

L1

L2

R0

R1

R2

R

74LS0

7

74HC14

F P

G

A

Fig 4-16 Block Diagram of the Control Panel

4.2.5.3 Scanning Circuit of Buttons

The keyboard array is controlled by row-and-column controlling method. FPGA outputs tests signals line-by-line. When a key is pressed, the corresponding row and line signals shall be consistent. According to the numbers of the row and line, the position of the key pressed can be defined.

Fig 4-17 Principle Diagram of Key Scanning

4.2.5.4 Driving of LED

Constant-current source driving dedicated chip is adopted to drive the LEDs.

4-47

Fig 4-18 Connection of LED Driving Circuit

There are 16 constant-current sources for each TLC5922, and the brightness can be adjusted respectively. SPI interface control is adopted for TLC5922, and plural chips can be connected in series for control. The power supply voltage is 5V.

4.2.5.5 Processing of Signals from Trackball

A newly designed optical trackball and a mechanical trackball are supported by M6. The advantages of the new trackball are:

 Higher resolution and performance;  Full color backlight;  Optical device, no need for daily clean;  Larger in size;  Digital interface, more flexible in control;

The data returned from the trackball interface is square waveform data. There are a pair of signal cables in X and Y directions respectively, and four signal cables in all. The trackball is powered by 5V, supplied by the control panel.

The basic scheme of the optical trackball is shown below. It consists of trackball IC and backlight LED.

Fig 4-19 Basic Scheme of the Optical Trackball

4.2.5.6 Buzzer

The speaker is piezoelectric ceramic. It is driven by 74LS07. The basic drive circuit is shown below:

4-48

74LS07

Control

logic

Piezoelectric

ceramic

piece

+5V

LM358

Potenti ometer

AD7908

ZR431

S

Fig 4-20 Speaker Control Circuit

The piezoelectric ceramic has no positive / negative pole. As long as driving voltage with appropriate frequency is put to its two ends, it will make a sound with the same frequency as that of the driving voltage.

Whether it sounds or not, this is under the control of control logic. To generate sounds of different frequencies, just change the frequency of the driving circuit.

4.2.5.7 Encoder Circuit

There are two encoders on the control panel, and each encoder has two signal cables. The output signal is in the form of square waveform and the electrical level is 5V.

4.2.5.8 TGC Interface Circuit

TGC is actually a group of sliding rheostats, the output voltage of which is in linear relationship with its slider displacement. The output analog voltage is converted to digital signal by AD converter and sent to FPGA, thus obtaining the slider position.AD is powered by 3.3V, externally connected to

2.5V reference level. To keep good precision of the AD converter, the output of the sliding potentiometer is applied with LM358 for follow-up. The principle of the interface is shown in figure below.

Fig 4-21 TGC Interface Circuit

4.2.5.9 FPGA and Peripheral Circuits

FPGA is the core of boards and cards, externally connected to SPI flash and SDRAM. Its logic and software codes are stored in SPI Flash, and they are loaded to FPGA and initiate the software when powered on.

NiosII soft core is a 32bit CPU. It can read and write SPI Flash on line and support on-line code

upgrading.

4-49

FPGA, Flash and SDRAM are all 3.3V devices. The core voltage of FPGA is 1.2V.

USB chip

U4

VBUS

DP

GND

DM

L8

U5

F P G A

4.2.5.10 USB Communication Interfaces

FPGA is externally connected with a USB interface chip U4 (3.3V device), supporting USB communication protocol 1.1. The frequency of external crystal oscillator X1 is 6MHz.USB interface is shown in figure below. In the figure, L8 is common mode suppression inductor, and U5 is anti-static chip.

Fig 4-22 Schematic of USB Port

4.2.5.11 Socket Definition

The components and sockets positions of the control panel are shown in the following figures. The socket definition is shown in Table 4-38.

4-50

Fig 4-23 Components Layout of the Control Panel Board (Frontal)

Display switch

Encoder

4-51

Fig 4-24 Components Layout of the Control Panel Board (Bottom)

Socket number on PCB

Name

Definition of Pin

Notes

Pin No

Definition of Pin

Description of PIN

J1

JTAG debugging socket

1

TCK

TCK signal, pull-down

2

TDO

3

TMS

TMS signal, pull up

3.3V

4 TDI

TDI signal, pull up

3.3V

5

VDD

3.3V power

6 GND

System ground

J2

TGC socket

1

TGC VDD

3.3V power

2

GND

System ground

3

ATGC0

Slide bar 0 output

4 ATGC1

Slide bar 1 output

5 ATGC2

Slide bar 2 output

Table 4-38 Definition Table of Keyboard Board Socket

4-52

6

ATGC3

Slide bar 3 output

7

ATGC4

Slide bar 4 output

8 ATGC5

Slide bar 5 output

9

ATGC6

Slide bar 6 output

10

ATGC7

Slide bar 7 output

J3

Main board connecting socket

3

DP

USB-DP

4

POWER_STB

Power status

Power connecting switch K93

5

DN

USB-DN

6

LCD_SW

Display position status

Connect display position switch S3

8

EDC_STATU S_G

EDC status

Connectio n indicator light D4

9

BATTERY_ST ATUS_O

Power status O

Connectio n indicator light D5

10

BATTERY_ST ATUS_G

Power status G

Connectio n indicator light D5

11

WORK_STAT US_O

Working status O

Connectio n indicator light D6-7

12

WORK_STAT US_G

Working status G

Connectio n indicator light D6-7

1,2,7,1 3~15,1

7~18， 23~26

GND

System ground 16

Audio Out

Keyboard board audio power amplification output

Reserved

19~22

+5

External input 5V

27~30

+3V3

External input 3.3V

J5

Mechanical trackball socket

1

GND

System ground

2 VCC

5V

3

TRACK_HBA LL2

Trackball signal 2

Signal 0 and 1 is a match; signal 2

4

TRACK_HBA LL3

Trackball signal 3

4-53

5

TRACK_HBA LL0

Trackball signal 0

and 3 is a match

6

TRACK_HBA LL1

Trackball signal 1

J4

Mechanical trackball socket

1，9， 11，13， 15

GND

System ground

2

VDD

3

MISO

Serial Data Output (Master In/Slave Out)

Output

4

MOSI

Serial Data Input( Master Out/Slave In)

Input

5

SCLK

Serial Clock Input

Input

6

NCS

Chip Select(Active Low Input)

Input

7

MOTION

Motion Detect （Active Low Output）

Input 8

SHTDWN

Shutdown（Active High Input）

Input

10

LED_DRIVER 1

LED driver 1

Input

12

LED_DRIVER 2

LED driver 2

Input

14

LED_DRIVER 3

LED driver 3

Input

J8

Buzzer socket 1

BUZ0

Buzzer signal 0

2

BUZ1

Buzzer signal 1

Definition

1

VDD

2

VDD

3

GND

4

GND

5

RXE0-

6

RXE1-

4.2.6 Display Unit

The LCD interface consists of LVDS digital signal input interface and backlight interface; wherein

LVDS signals are low-voltage difference digital signals, and VDD is 3.3V; the definition of its socket

connecting to main board is shown as follows:

Table 4-39 Interfaces of Main Board and Speakers

4-54

Mindray M6 Series Diagnostic Ultrasound System Service Manual Axiom Type C1 Biosafety Cabinets User's Manual

Specifications and Main Features

Frequently Asked Questions

User Manual

Contents

Revision History

Intellectual Property Statement

Responsibility on the Manufacturer Party

Warranty

Important Information

1 Safety Precautions

1.1 Meaning of Signal Words

1.2 Symbols

1.2.1 Meaning of Safety Symbols

1.2.2 Warning Labels

1.2.3 General Symbols

1.3 Safety Precautions

1.3.1 Electric Safety

1.3.2 Mechanical Safety

1.3.3 Personnel Safety

1.3.4 Others

2 Specifications

2.1 Overview

2.1.1 Intended Use

2.1.2 Introduction of Each Unit

2.1.2.1 Main Unit

2.1.2.2 Mobile trolley

UMT-200

UMT-300

2.1.3 Extend Modules

2.1.3.1 Probe Extend Module

2.1.3.2 I/O extend module

2.1.3.3 V/A Extend Module

2.1.3.4 ECG module

2.1.4 Control Panel

2.2 Peripherals Supported

2.3 Specifications

2.3.1 External Dimensions and Weight

2.3.2 Power supply

2.3.3 Environmental Conditions

3 System Installation

3.1 Preparations for Installation

3.1.1 Electrical Requirements

3.1.1.1 Requirement of Regulated Power Supply

3.1.1.2 Grounding Requirements

3.1.1.3 EMI Limitation

3.1.2 Installation Conditions

3.1.2.1 Space Requirements

3.1.2.2 Networking Pre-installation Requirements

3.1.3 Confirmation before Installation

3.2 Unpacking

3.2.1 Checking

3.3 Installation of Whole Device

3.3.1 Connecting Power Cable

3.3.2 Connecting ECG

3.3.3 Connecting a Ultrasound Probe

3.4 Installing Peripherals

3.4.1 Connecting the Footswitch

3.4.2 Connecting/ Removing a USB Memory Device

3.4.3 Graph /Text printer

3.4.4 Video Printer

3.4.5 Installing Barcode Reader

3.5 System Configuration

3.5.1 Power-on Running

3.5.2 Enter Doppler

3.5.3 System Preset

3.5.4 Peripheral Preset

3.5.5 Network Preset

3.5.6 DICOM Preset

3.5.7 System Information Verification

4 Product Principle

4.1 General Structure of Hardware System

4.2 Principle of Boards

4.2.1 Power System

4.2.1.1 Basic Functions of Power System

4.2.1.2 Basic Principle of Power System

4.2.1.3 3V3STB Circuit Unit

4.2.1.4 5VSTB_CPU Circuit Unit

4.2.1.5 +12V Circuit Unit

4.2.1.6 PHV Circuit Unit