bispectral index (BIS), respiration mechanics (RM), continuous cardiac output (PiCCO),
central venous oxygen saturation (ScvO
transmission (NMT).
), oxygen (O2), anesthetic gas (AG), impedance cardiograph (ICG),
2
), electroencephalograph (EEG), and neuromuscular
2
, pulse rate (PR),
2
The patient monitor also:
Provides audible and visual alarm indications in case of patient or equipment problems.
Enables displaying, reviewing, storing and transferring of real-time data.
Incorporates multiple input devices such as buttons, knob, touchscreen, keyboard and
mouse.
Interfaces a clinical information system or central monitoring system.
Enables program upgrade over the network.
Integrates the information of other devices, which include but are not restricted to
anesthesia machine and ventilator.
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2.2 System Connections
2.2.1 Mounting the Patient Monitor
The patient monitor can be mounted on a wall bracket or on a trolley support. The wall
bracket or trolley support can be ordered optionally. Each type of mounting bracket is
delivered with a complete set of mounting hardware and instructions. Refer to the
documentation delivered with the mounting hardware for instructions on assembling mounts.
CAUTION
z Use mounting brackets we supply or approve. If other compatible mounting
bracket is used, be sure it can be safely used on the patient monitor.
z The mounting bracket should be installed by our qualified service personnel, or
engineers who have adequate knowledge on it.
z If other mounting solution is used, the installation personnel and the customer
should verify if it can be safely used on the patient monitor, and the customer
assume the responsibility for any risk resulting from that.
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2.2.2 Connectors for Peripheral Devices
On the back of the patient monitor you will find all connectors for peripheral devices.
1. AC Power Connector: used to connect an AC power source (100 to 240 VAC, 50/60Hz).
2. Equipotential Terminal: used to connect the equipotential terminal of other equipment,
eliminating potential difference between different pieces of equipment.
3. SMR Connector: It outputs a 12V DC, used to connect the SMR.
4. Video Output: It is a DVI-D connector used to connect a secondary display.
5. iView Network Connector: It is a RJ45 connector that connects iView system to external
network.
6. Network Connector: It is a RJ45 connector used to connect an ethernet network or a PC.
7. Analog Output and Defibrillator Connector: It is a Micro-D connector used to output
analog signals and defibrillator synchronization signals.
8. Auxi Output Connector: It is a BNC connector used to output nurse call signals.
9. Secondary USB Connector: used to connect the mouse and keyboard of the secondary
display.
10. Special USB Connectors: used for iView maintenance and data transfer.
11. General USB Connector: used to connect any USB-compatible peripheral device.
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2.3 Main Unit
The patient monitor consists of:
Input system: button board, knob, touchscreen, power switch and LED board
Output system: LCD panel, alarm LED board, recorder, speaker
Processing and communications system: main board, iView assembly, integral module
rack
Power management system: battery, battery interface board, power module
Equipment interface system: USB interface board, DVI interface board, CF card
assembly and internal wireless network card.
Additionally, the patient monitor can also connect satellite module rack (SMR), parameter
modules, BeneLink module, mouse, keyboard, etc.
The following diagram illustrates the structure of the patient monitor.
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2.3.1 Input System
Button board
The button board, located at the lower part of the monitor’s front panel, contains 6 keys and
provides connections for the following components to the main board:
Knob
Power switch & LED board
Touchscreen control board
Backlight board/Inverter
Alarm LED board
The following diagram shows the button board connections.
Knob
The knob can be pressed, or rotated both clockwise and counter-clockwise. It is connected
with the button board.
Touchscreen
The touchscreen enables touch operations and can be calibrated. It is connected with the
touchscreen control board and main board.
Power switch & LED Board
The power switch & LED board controls the power supply for the main unit. It has three
LEDs, which respectively indicate the AC power status, battery status and monitor power
on/off status. It is connected with the button board.
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2.3.2 Output System
LCD
The patient monitor adopts a high-resolution LCD. The LCD is connected with the main
board. Signals and power supply of the backlight board are transferred by the button board.
Alarm Lamp
The patient monitor has two alarm lamps: alarm lamp and technical alarm lamp. Alarm lamp
lights either red or yellow whereas technical alarm lamp lights blue only. The signals from
the alarm lamps are transferred by the button board and are controlled directly by the main
board.
Recorder
The recorder receives data coming form the main board and then sends them to the thermal
printhead for printing. The recorder has a hardkey (starting/stopping recordings) and a green
LED on its front. It is connected with the main board.
The following diagram shows its operating principle.
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Module Description
Power interface Introduces a DC from the main board.
Power module
CPU Control the communications between modules.
Signal interface
Motor drive circuit
Button & LED
board
Converts the input power into voltages that fit each module and then
forwards them to each module.
Control the communications between the main board and the
recorder CPU.
Receives the control signals from the CPU and then forwards them to
the step engines.
Includes one button and one LED which are directly controlled by
the CPU.
Speaker
The speaker provides sound for alarms, key strokes, heart beats and pulse, and allows PITCH
TONE and multi-level tone modulation. It is connected with the main board and is directly
driven by the main board.
2.3.3 Processing and Communications System
Main Board
The main board is the heart of the patient monitor. It implements a series of tasks including
input & output control, data storage and processing, display processing, system control,
communication management, printing management and alarming, etc.
The main board comprises the CPU board and mother board. The following diagram shows
interfaces to other components.
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The CPU board is an essential CPU system containing the CPU, FLASH, memory, realtime
clock, EEPROM, etc. It interfaces to the mother board only, which then provides interfaces to
all other external devices.
The mother board is in charge of connections and communications with other components
and provides the following interfaces:
LCD port: connects a built-in display.
Video output+network+IO+IIC: connects the digital video interface board.
USB×2+UART: connects the USB interface board.
Button board port: connects the button board.
Integral module rack port: connects integral module rack communication board.
Fan port: connects the fan.
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Speaker port: connects the speaker.
Power module port: connects the power module.
iView port: located at the back of the mother board for connecting the iView
components.
CF port: connects the CF card assembly.
Recorder port: connects the recorder.
Internal wireless network card port: connects the internal wireless network card
iView System
iView sytem includes iView mother board, computer board, hard disk and so on. iView
system connects to main control board, DVI interface board and USB interface board. The
iView system transmits the network signal to host network interface through DVI interface
board.
Integral Module Rack
The patient monitor has two kinds of integral module rack: 2-slot and 5-slot. The control
board includes a NIOS II FPGA. It implements protocol conversion and infrared
communication between the main unit and the parameter modules.
The module rack communication board can be a 2-slot type or a 3-slot type. The 3-slot
communication board communicates the main board directly. The 2-slot communication
board is connected with and is controlled by the 3-slot communication board. The 3-slot
communication board has the function of communication control. The 2-slot communication
board consists of the infrared circuit and module power circuit. The RS422 drive circuit is
located on the 3-slot communication board.
2.3.4 Power Management System
Battery
The patient monitor uses two chargeable lithium-ion batteries (11.1 V, 4500 mAh). The
battery compartment door is located at the bottom of the patient monitor. The battery power
is introduced to the power module via the battery interface board, and then processed and
distributed to each component by the power module.
NOTE
z Two batteries must be used simultaneously when the patient monitor operates on
battery power. Otherwise, it may cause power supply protection.
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Battery Interface Board
The battery interface board connects batteries to the power module, enabling charging and
discharging between the batteries and the power board.
Power Module
The power module is located at the back of the patient monitor. The main part of the power
module is the power board, which contains 4 PCBs: charging & power management board,
voltage drop DC inverter, voltage rise and drop DC inverter, and voltage drop 5 V CIS power
board.
The power module transforms the input power into DC and then forwards them to each
component of the patient monitor. The input power comes from either the batteries or an AC
source. The patient monitor will run power from the AC source whenever an AC source is
available. If the AC source becomes unavailable, the patient monitor will automatically
switch to the battery power. This does not affect the monitor’s operating status.
Power module has an AC input socket at its backside, and a socket at its front provides 4
connections to the batteries, main board, iView components and USB interface board
respectively. The power module protects itself and the patient monitor by switching off AC
input or DC output in case of overcurrent, short circuit and overvoltage.The power module
provides 4 DC outputs:
Outputs Description
+3.3 V
+5.0 V
+5.0 V CIS Goes to the iView assembly.
+12 V
The systematic principle diagram of the power module is as follows:
Goes to the LCD, mother board, CPU board, DVI interface board and
integral module rack.
Goes to the DVI interface board, recorder, CF storage card board and
USB interface board.
Goes to the recorder, LCD inverter, integral module rack, parameter
modules and USB interface board.
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The following diagram shows the pins of the power module socket (excluding the pins of the
battery power socket. On power board, pin 1 has a triangle symbol):
Pin ID Marking Description Cable
color
2, 4, 6, 7,
13, 15, 17
8 RXD Receives serial communications (the main board sends). Purple
9 TXD Sends serial communications (the main board receives). Brown
10 PCON
11 LCD-EN
GND The output grounding terminal of the power board. Black
Power on/off control signal. It is a TTL pulse signal
inputted from the back board. Every time when the power
on/off switch is pressed (pulse of falling edge), a switch
between power “on” and “off” happens. The pulse
duration is no less than 0.1 s for power-on and no less
than 2 s for power off.
Backlight on/off control signal. The main board sends a
backlight on/off control signal to the power board through
the serial interface. The power board processes the
received signal and then outputs a high or low level
depending on the received signal.
Blue
Green
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Pin ID Marking Description Cable
color
12, 1 12 V
14, 3 5 V CIS
16, 5 5 V
18, 19 3.3 V
20 LED- AC AC power status indication signal White
21 LED- BAT Battery status indication signal. Grey
22 LCD-BR Backlight brightness control voltage. Brown
The positive end of the 12 V DC coming from the power
board.
The positive end of the 5 V CIS coming from the power
board.
The positive end of the 5 V DC coming from the power
board.
The positive end of the 3.3 V DC coming from the power
board.
Yellow
Purple
Red
Orange
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2.3.5 Equipment Interface System
USB Interface Board
The USB interface board is compatible with such USB interfaces as USB2.0, USB1.1 and
USB1.0. It is connected with the main board and the power module. It receives USB
differential signals coming from the main board and then distributes them to maximumly six
USB interfaces via two ISP1521 chips. The USB interface board of iView system directly
connects to two USB interfaces (on USB board) of host. The UART signal output by the
main board is converted into RS422 signal by the USB interface board. The USB interface
board receives 5 VDC and 12 VDC inputs from the power module, of which the 5 VDC goes
to the USB interface board and the 12 VDC outputted to the SMR connector through a fuse.
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DVI Interface Board
The DVI interface board is connected with the mother board and the iView mother board.
The following diagram shows its interfaces to other components.
Interface Description
iView Connector Connects the iView mother board.
BNC connector Outputs nurse call signals.
Micro-D connector Outputs analog signals and defibrillator synchronization signals.
RJ 45 connector
(network)
RJ 45 connector
(iView)
DVI-D connector Connects a secondary display.
It is a standard RJ45 connector, providing 10/100 BASE-TX Ethernet
communications channels. It connects an Ethernet network or a PC.
It is a standard RJ45 connector for connecting a iView network.
CF Card assembly
The CF assembly serves the non-volatile CF storage card which is used for data storage and
transfer. It is connected with the mother board.
Internal wireless network card
The internal wireless network card connects with the mother board. User can set network
type as LAN or WLAN through user interface and can set the internal wireless network card
through PC.
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2.4 Parameter Module
Each parameter module consists of the module infrared communication board, module power
board, module button board, parameter board, etc.
2.4.1 Module Infrared Communication Board
The module infrared communication board allows a short delay when powering up the
module and adopts FPGA to enable infrared communications between the module and the
module rack. An ID is integrated into the module infrared communication board. When a
module is inserted in the module rack, the ID is automatically sent to the module rack.
2.4.2 Module Power Board
Some modules have no power board. There are two kinds of module power board:
1. Isolated power board: converts the 12 V DC into a 12 V isolated DC and a 5 V isolated
DC.
2. Non-isolated power board: converts the 12 V DC into a 5 V DC.
2.4.3 Parameter Board
The parameter board is a parameter measurement component, which is the most important
component of the parameter module.
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2.5 Satellite Module Rack
The satellite module rack (SMR) is independent of the patient monitor, provides 8 slots for
mounting parameter modules. It has the following features:
It allows a parameter module to be plugged and unplugged with the patient monitor on.
This allows function extension and patient transfer.
It does not have its own power. It introduces 12 V DC from the patient monitor and then
supplies power to each parameter module via the contact screw.
It accomplishes communications protocol conversions between the patient monitor and
each parameter module, provides infrared communications for parameter modules, and
is responsible for detecting infrared communications malfunction for each parameter
module.
The following diagram shows the structure of the SMR.
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2.6 BeneLink Module
BeneLink module allows the information (patient data, alarms, etc.) from the external device
to be displayed, saved, recorded, printed, or calculated through a BeneView patient monitor.
If the patient monitor is connected with the CMS or gateway, information from the external
device can also be transmitted to the CMS or gateway. BeneLink module connects with the
external device through an ID module, which enables the information transmission between
the BeneLink module and the external device. BeneLink module can be connected to many
external devices such as anesthesia machine and ventilator.
The following diagram shows the structure of the BeneLink module:
BeneLink module interface
board for debugging
BeneView
patient monitor
External device
Infrared ray
232 Serial port
Infrared
commun
-ication
board
Isolation
circuit
I2S
BeneLink module interface board
Serial port ID interface board
Serial port of external
device
Connector
MCU
Debugging
AM1808
module
CPU
MCU serial
port
serial port
Multiplex switch
VCC
Serial port
ID_READ
ID_STATUS
Up serial port
ID_READ
ID_STATUS
Connector 4
Connector 1
232 Serial port
Connector
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FOR YOUR NOTES
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3 Testing and Maintenance
3.1 Introduction
To ensure the patient monitor always functions normally, qualified service personnel should
perform regular inspection, maintenance and test. This chapter provides a checklist of the
testing procedures for the patient monitor with recommended test equipment and frequency.
The service personnel should perform the testing and maintenance procedures as required and
use appropriate test equipment.
The testing procedures provided in this chapter are intended to verify that the patient monitor
meets the performance specifications. If the patient monitor or a module fails to perform as
specified in any test, repairs or replacement must be done to correct the problem. If the
problem persists, contact our Customer Service Department.
CAUTION
z All tests should be performed by qualified service personnel only.
z Care should be taken to change the settings in [User Maintenance>>] and [Factory
Maintenance>>] menus to avoid loss of data.
z Service personnel should acquaint themselves with the test tools and make sure
that test tools and cables are applicable.
3.1.1 Test Equipment
See the following sections.
3.1.2 Test Report
Upon completion of the tests, the table of preventative maintenance test reports and the table
of maintenance test reports in this chapter should be kept properly.
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3.1.3 Preventative Maintenance
Below are preventative maintenance tests which need to be performed on the monitor. See the
following sections for detailed maintenance procedures.
Visual inspection
NIBP test and calibration
Microsteam and Sidestram CO
test and calibration
2
AG test and calibration
3.1.4 Recommended Frequency
Check/Maintenance Item Frequency
Preventative Maintenance Tests
Visual inspection 1. When first installed or reinstalled.
NIBP test
Sidestream and
Microstream
tests
CO
2
AG tests
Performance Tests
Pressure check
Leakage test
Calibration
Leakage test
Performance test
Calibration
Performance test
Calibration
1. If the user suspects that the measurement is
incorrect.
2. Following any repairs or replacement of relevant
module.
3.At least once a year.
4. AG leakage test should be performed before AG
measurement.
Performance test
ECG test
Calibration
Resp performance test
SpO2 test
Pressure check
NIBP test
Leakage test
Calibration
Temp test
IBP test
Performance test
1. If the user suspects that the measurement is
incorrect.
2. Following any repairs or replacement of relevant
module.
3. At least once every two years. At least once a year
is recommended for NIBP, CO
NMT and AG.
2,
4. AG leakage test should be performed before AG
measurement.
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C.O. test
Mainstream CO2 test
Pressure calibration
Sidestream and
Leakage test
Microstream
tests
CO
2
Performance test
Calibration
Leakage test
AG tests
Performance test
Calibration
ICG test
BIS test
RM test
Interconnecting
CCO/SvO2 test
function
Output calibration
NMT test
Performance test
Sensor check
EEG test
PiCCO test
ScvO2 test
Nurse call relay performance test
Analog output performance test
If the user suspects that the nurse call or analog
output does not work well.
Electrical Safety Tests
Electrical safety tests Refer to A Electrical Safety Inspection.
Other Tests
1. When first installed or reinstalled.
Power on test
2. Following any maintenance or the replacement of
any main unit parts.
Touchscreen calibration
1. When the touchscreen appears abnormal.
2. After the touchscreen is replaced.
Recorder check Following any repair or replacement of the recorder.
Network print test
1. When first installed.
2. Whenever the printer is serviced or replaced.
1. When first installed.
Device integration check
2. Following any repair or replacement of the
external device.
Battery check Functionality test
1. When first installed.
2. Whenever a battery is replaced.
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3.2 Preventative Maintenance Procedures
3.2.1 Visual Inspection
Inspect the equipment for obvious signs of damage. The test is passed if the equipment has no
obvious signs of damage. Follow these guidelines when inspecting the equipment:
Carefully inspect the case, display screen, buttons and knob for obvious signs of
damage.
Inspect the SMR and parameter modules for obvious signs of damage.
Inspect the power cord, wall-mount bracket and module accessories for obvious signs of
damage.
Inspect all external connections for loose connectors, bent pins or frayed cables.
Inspect all connectors on the equipment for loose connectors or bent pins.
Make sure that safety labels and data plates on the equipment are clearly legible.
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r
3.2.2 NIBP Tests
NIBP Accuracy Test
Tools required:
T-shape connector
Appropriate tubing
Balloon pump
Rigid Vessel with volume 500 ± 25 ml
Reference manometer (calibrated with accuracy equal to or greater than 1 mmHg)
Follow this procedure to perform the test:
1. Connect the equipment as shown below.
Monito
Connector for NIBP cuff
Balloon
2. Before inflation, the reading of the manometer should be 0. If not, turn off the balloon
pump to let the whole airway open to the atmosphere. Turn on the balloon pump after
1. Connect the 3-way stopcock, the sphygmomanometer and the balloon pump through a
T-shape connector, as shown below.
2. Zero the transducer. Then open the stopcock to the sphygmomanometer.
3. Press the Main menu button on the equipment’s front panel. Select [Maintenance>>]→
[User Maintenance >>]→ enter the required password→[Cal. IBP Press. >>]. Then
configure IBP calibration value.
4. Inflate using the balloon pump until the reading of sphygmomanometer approximates
the preset calibration value.
Pressure transducer
3-way stopcoc
T-shape connector
Sphygmomanometer
Pressure adapter cable
IBP Module
5. Adjust the calibration value in the [Cal. IBP Press.] menu until it is equal to the reading
of sphygmomanometer
6. Select the [Calibrate] button to start a calibration
7. The message [Calibration Completed!] is displayed after a successful calibration. If
the calibration failed, the prompt [Calibration Failed!] will be displayed.
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3.4.7 C.O. Test
Tools required:
Medsim300B Patient simulator
C.O. adapter box
Follow this procedure to perform the test:
1. Connect the patient simulator to the C.O. module using a C.O. main cable.
2. Set the blood temperature (BT) to 37ºC on the patient simulator and check the
temperature value is 37 ± 0.1ºC.
3. Set [Auto IT] to [Off] and adjust [IT] to 24ºC. Select [C.O. Measure] to enter the C.O.
measurement window and set [Comp. Const.] to 0.595.
4. Set the injectate temperature to 24ºC and the C.O. to 5L/min on the C.O. simulator.
Select [Start] in the C.O. measurement window to start C.O. measurements and after
3-10 seconds press the run key on the simulator.
5. Check the C.O. value is 5±0.25L/min.
3.4.8 Mainstream CO2 Tests
NOTE
z Make sure that the barometric pressure set in [Maintain CO
Maintenance>>] accords with the local barometric pressure before performing
mainstream CO
Tools required:
A steel gas cylinder with 6±0.05% CO
A steel gas cylinder with compressed air or N
Two 3-way valves (power supply controlled)
Flowmeter
Power supply
tests.
2
2
(with standard concentration)
2
>>] of [User
2
Tube
Follow this procedure to perform the test:
1. Wait until CO
warmup is finished and then select [Start Zero Cal.] from [CO2 Setup]
2
menu to start a zero calibration. If the zero calibration fails, the prompt message [CO
Zero Failed] is displayed. Otherwise, the baseline of waveform recovers to zero.
2 Set [Apnea Time] to 10 s in the [Adjust CO
Limits] menu.
2
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3 Blow to the CO2 sensor to generate a CO2 waveform and then place the sensor in the air.
Check if the alarm message [CO
Apnea] is displayed on the screen.
2
4 Connect the test system as follows
Indication of numbers in the figure above
1 A steel gas cylinder with 6±0.05% CO
2
2 Flowmeter
3 3-way valve (power supply controlled)
4 Open to air
5 Power supply (controlling two 3-way valves)
6 Compressed air or N2 with standard concentration
7 Mainstream CO2 sensor
8 Patient monitor
9 Tube (preventing back flow)
5 Adjust the power supply and turn on/off 3-way valves to ensure that that only one
cylinder is connected to Mainstream CO
sensor via 3-way valves at one time and the
2
flowmeter reading is stable and within 2-5L/min.
6 Switch between the two cylinders to connect Mainstream CO
-10s and check if the displayed CO
value is within 6±0.05%.
2
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sensor at intervals of 6
2
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3.4.9 Sidestream and Microstream CO2 Module Tests
See section 3.2.3 Sidestream and Microstream CO2 Module Tests.
3.4.10 AG Tests
See section 3.2.4 AG Tests.
3.4.11 ICG Test
Tool required:
ICG simulator (BZ-4575)
1. Connect the ICG simulator and the patient monitor using standard ICG cable and sensor.
2. Select [ICG setup]→ [Patient Demographics >>] and then input parameter values as
follows:
Height 180 cm CVP 6 mmHg
Weight 75 kg PAmean 8 mmHg
PAWP 10 mmHg
3. Switch on the simulator and set as follows: HR=60±1 bpm, VI=61±4/1000s,
TFC=32±2/kOhms. Then, start ICG monitoring.
4. After the measurement becomes stable and check that the measured results are as
1. Connect the 3-way stopcock, the sphygmomanometer and the balloon pump through a
T-shape connector, as shown below.
2. Vent the transducer to the atmospheric pressure by turning on the 3-way stopcock to the
air. Zero the transducer, and then open the stopcock to the sphygmomanometer.
3. Select [Main Menu]→[Maintenance >>]→ [User Maintenance >>]→enter the
required password→ [Cal. IBP Press. >>]. In the [Cal. IBP Press.] menu, set the
calibration pressure to 200 mmHg.
4. Inflate using the balloon pump until the reading of sphygmomanometer approximates
the preset calibration value.
Pressure transducer
3-way stopcock
T-shape connector
Sphygmomanometer
Pressure adapter cable
IBP Module
5. Adjust the calibration value in the [Maintain IBP] menu until it is equal to the reading
of sphygmomanometer
6. In the [Cal. IBP Press.] menu, select the [Calibrate] button next to the desired IBP
channel to start a calibration
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The message [Calibration Completed!] is displayed after a successful calibration. If the
calibration failed, the prompt [Calibration Failed!] will be displayed.
C.O. Test
Tools required:
Medsim300B Patient simulator, or equivalent equipment
C.O. adapter box (for 300B)
PiCCO test cable (PN: 040-001301-00)
Follow this procedure to perform the test:
1. Connect the patient simulator and the C.O. module using a C.O. trunk cable and a C.O.
adapter box.
2. Set the blood temperature (BT) to 37ºC on the patient simulator and check the
temperature value displayed on the monitor is 37 ± 0.1ºC.
3. In the [CCO Setup] menu, select [PiCCO Guide>>], and check if the value for
[Cat.Type] is [PV2015L20].
4. Turn the injectate temperature (TI) knob on the C.O. adapter box to set the TI to 20 ±
1ºC for the patient simulator and C.O. to 5L/min.
5. In the PiCCO screen, select [Start] to start C.O. measurement. As soon as the prompt
[Inject XXml] is displayed, adjust TI to 4 ± 1ºC, and then quickly back to 20 ± 1ºC.
Simutaneously press the button on the simulator that corresponds to 5L/min. The whole
procedure shall be finished in 10 s.
6. Verify that the C.O. value displayed on the monitor is correct.
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3.4.16 ScvO2 Tests
You can perform ScvO2 test by either of the following two methods:
Method 1:
Tools required:
PC (installed OM_Simulation software, G-6800-S15)
ScvO
test cable (6800-J68)
2
1. Connect the ScvO
test cable to the ScvO2 module and the serial port on the PC
2
respectively;
2. Open ScvO
test software to select the corresponding serial port from [COM port]
2
menu (default serial port: COM1);
3. Select [Start] from the [Replay] menu. Then the ScvO
measurement area is displayed
2
on the patient monitor;
4. Enter [ScvO
Setup] menu and set [Hb/Hct] to [Hct];
2
5. Set [LED660], [LED800], [LED880] to ‘1250,40000’ (inching with the direction key
on the keyboard if needed). Select [Start] from the [Replay] menu;
6. Enter [ScvO
Calibration] menu and select [Sample drawn] when SQI occupies four
2
grids (80%). In the popup menu, set [ScvO2] and [Hct] to 67% and 40% respectively,
then select [Calibrate]. Close [ScvO
Calibration] menu to check that the ScvO2 value
2
is displayed as 67% in the monitoring screen.
7. Set the value of [LED660] to ‘1250, 33600’ and keep other LCD values unchanged.
Check that the ScvO2 measurement is within (50±3)%.
8. Set the value of [LED660] to ‘1250, 46400’ and keep other LCD values unchanged.
Check that the ScvO
measurement is within (80±3)%.
2
Method 2:
Tools required:
None.
1. Connect the ScvO
sensor to the patient monitor. Check that the front end of the ScvO2
2
sensor illuminates normally.
2. Nip the front end of the ScvO
3. Check that the patient monitor displays the ScvO
sensor with two fingers to perform a ScvO2 calibration.
2
measurement normally.
2
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3.4.17 NMT Tests
NMT Performance Test
Tool required:
Resistance box
Oscillograph (Agilent DSO6052A)
1. Set up the resistance box:
a. Set the resistance value to 1kOhm.
b. Connect the stimulation electrodes to the two wiring terminals.
2. Connect the oscillograph sensors to the NMT stimulation electrodes, making sure that
each sensor and electrode connected have the same polarity.
3. Set up the monitor:
a. Insert the NMT module into the module rack of the monitor.
b. Set the [Stimulation Current] to [Supra(60mA)]. c. Set the [Pulse Width] to 300μs.
d. Perform an ST measurement.
4. Proceed as follows to capture the pulse signals and measure the [PK-P K] and [+Width].
The following procedures take the oscillograph of Agilent DSO6052A as an example.
a. Power on the oscillograph by pressing the [POWER] button. Select the button [1] and
verify the button light is on.
b. Press the [Mode/Coupling] button, and select [Normal], [Noise REJ] and [HF
Reject] at the lower part of the screen.
c. Press the [Acquire] button, and select [High Resolution] from the dropdown list of
[Acq Mode].
d. Press the [Quick Meas] button. Select [PK-PK] from the dropdown list of [Select]
and select [Measure] to confirm; select [+Width] from the dropdown list of [Select]
and then select [Measure] to confirm.
e. In the [Horizontal] area, adjust [Delay] to 0.0s by using the [◀▶] knob, and adjust the
numeric value to 100ms by using the big knob.
f. In the [Analog] area, adjust the numeric value to 20.0V by using the big knob and
adjust the [Ch(1)] to 40.0V by using the [
g. Press the [Edge] button. Select [1] from the dropdown list of [Source]; select [Rising]
from the dropdown list of [Slope].
h. In the [Trigger] area, adjust the numeric value to 40.0V by using the [Level] knob.
Press [Single] to perform a measurement.
] knob.
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The test passes when the measurements are within the following ranges:
Test items Measurements
【PK-PK】 54V - 66V
【+Width】 270μs - 330μs
Checking NMT Sensor
Tools required:
None
1. Connect the patient monitor, NMT module, and NMT accessories.
2. Select [Main Menu]→ [Maintenance >>]→ [User Maintenance >>]→ enter the
required password→ [NMT Sensor Check >>] from the patient monitor.
3. Follow the on-screen instructions to check the NMT sensor in four ways.
If sensor check completes successfully, the message “Test passed. The function of NMT
sensor is OK” is presented. If any of the four steps fails, check if the sensor is placed
correctly as instructed, and perform the sensor check again. Replace the sensor if you cannot
pass the sensor check..
NOTE
z Stop NMT measurement or calibration before starting NMT sensor check.
z Take care to handle the the NMT sensor. Avoid forcefully striking the sensor.
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3.4.18 EEG tests
Method 1
Tools required:
EEG simulator (Nannini 169/1)
1. Insert the EEG module into the module slot of the monitor.
2. Connect the EEG module to the EEG simulator through the EEG patient cable.
3. Select [EEG Setup]→ [Sensor Check] to perform a sensor check.
4. Check that the result for each electrode is pass.
5. Check that the EEG wave and numeric are displayed on the screen.
Method 2
Tools required:
None
1. Insert the EEG module into the module slot of the monitor.
2. Connect the EEG cable and EEG electrodes to the EEG module, and short all the
electrodes.
3. Select [EEG Setup]→ [Sensor Check] to perform a sensor check.
4. Check that the result for each electrode is pass.
5. Check that the EEG wave and numeric are displayed on the screen.
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3.5 Nurse Call Relay Performance Test
Tools required:
Multimeter
1. Connect the nurse call cable to the Nurse Call Connector of the patient monitor.
and then select [Print]. The network printer shall print out the report correctly.
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3.11 BeneLink Module Check
3.11.1 Device Connection and Setup
Tools required:
External device (anesthesia machine, ventilator)
ID adapter that maches the external device
RJ45 connecting cable
Serial port adapting cable that maching the external device
Please refer to the following procedure to connect an external device:
BeneLink Module
Label
1. Insert the BeneLink module into the module slot on the BeneView patient monitor.
2. Connect the ID adapter that matches the external device to the BeneLink module with a
RJ45 connecting cable.
RJ45 Connecting
Cable
ID Adapter
Serial Port Adapting
Cable (Optional)
External Device
3. Plug the ID adapter into the RS232 port on the external device. Some external devices
may have ports incompatible with the ID adapter. In this case, a serial port adapting
cable is required. Please be sure that you have selected the proper cable before
connection.
4. Stick a label indicating device name to the RJ45 connecting cable at the end nearby the
BeneLink module. When the BeneLink module is connected to several external devices,
you can tell the devices apart easily with these labels.
5. Switch the external device on.
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NOTE
z Devices of the same category can not be connected to the BeneLink module
simultaneously.
z Use the serial port adapting cable only with its matching extermal device. Please see
the following table to select the correct adapting cable.
z Use the ID adapter only with the matching external device. Please see the following
table for correct ID setup in [Factory Maintenance] menu.
External Device ID for ID adapter
Mindray Wato 20/30/55/65 4D52B2AE
Newport E360 4E50B1B0 Type B
SNDF:5042AFBE
(recommended)
Puritan Bennett 840
Maquet Flow-i 4D46B2BA Type B
Maquet Servo-i/Servo-s 4D53B2AD Type B
Draeger Evita 2 / Evita 2 dura
/ Evita 4/ Evita XL
Hamilton G5 (protocol
Polling)
SNDA:5031AFCF(support
less parameters than protocol
SNDF)
4434BBCC Type B
3550CAB0 Type B
Type of Serial Port Adapting
Cable
No need to use the adapting
cable: the ID adapter can be
plugged into the serial port of
the external device directly.
No need to use the adapting
cable: the ID adapter can be
plugged into the serial port of
the external device directly.
Hamilton C2 (protocol
Polling)
Hamilton Galileo (protocol
Polling)
Hamilton G5 (protocol Block) 3542CABE Type B
Ohmeda Avance/Aisys 4F41B0BF Type D
Ohmeda Aestiva 7100/7900 4F37B0C9 Type D
3270CD90 Type B
4750B8B0 Type B
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External Device ID for ID adapter
Drager Fabius GS/Plus/Trio 4446BBBA
Drager Primus 4450BBB0 Type C
TCM CombiM/TCM TOSCA 5443ABBD Type C
TOF-Watch SX 5457ABA9 Type C
Expand Model / Type A
Type of Serial Port Adapting
Cable
GS: no need to use the
adapting cable: the ID adapter
can be plugged into the serial
port of the external device
directly.
Plus: type C
Trio: type C
3.11.2 Device Integration Function Test
3.11.2.1 Preparation
Prepare the tools needed for function test according to the type of the external device you
install. Please see the Instructions for Use of the corresponding external device for guidance.
For the function test of ventilator and anesthesia machine, at least the following tools are
needed:
BeneView patient monitor with BeneLink module properly installed
External device (anesthesia machine or ventilator) under test
Gas source(tube or gas cylindar), including air or O
anesthesia gases are optional
Tube that connects the patient(or test lung)
Test lung and a matching Y-pipe, or other accessories
at least, and N2O or other
2
3.11.2.2 Procedure and Items to Be Checked
Follow the steps below:
1. Connect the BeneLink module to the ventilatior or the anesthesia machine. Plaese see
Device Connection and Setup for more details.
2. Connect the gas supply and test lungs to the ventilator or anesthesia machine, turn on the
device, and configure as follows:
Setup up the serial port of the external device by refering to Serial Port
Configuraion List.
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Setup up the pressure control mode and check if the ventilator or anesthesia
machine works normally.
3. Check the ID adapter is correctly configured, and the green indicator of corresponding
port on the BeneLink module illuminates constantly.
4. Access [Devices Integrated] screen on the patient monitor. Check that the device type
(ventilator or anesthesia machine) and ventilation mode are correctly displayed.
5. Select parameters PEEP, Pmean, VTe, MV, I:E, and f(RR) respectively on the patient
monitor and check if the parameter values displayed on the patient monitor are
consistent with those displayed on the ventilator or anesthesia machine.
6. Re-configure the above parameters on the ventilatior or the anesthesia machine and
check if the parameter values displayed on the patient monitor change accordingly.
7. Trigger alarms [MV Too Low], [Airway Pressure Too High], [PAW Too High],
[Peak Too High], and [No Gas Supply] (no Air or O2) on the ventilatior or the
anesthesia machine. Check that these alarm messages are correctly recorded in the alarm
list of the patient monitor.
8. Switch the ventilator or anesthesia machine to volume control ventilation mode. Check
if the ventilation mode displayed on the patient monitor changes accordingly, and if the
parameter values of PEEP, Pmean, VTe, MV, I:E, and f(RR) are correctly displayed.
Serial Port Configuration List
External Device Setup Remark
If you need to view the parameters
of CO2、AG、BIS module in the
anesthesia machine, select
Mindray Wato 20/30/55/65 Not required.
[Factory Mainenance>>] →
[Function Configuration>>] →
[Select Module] in standby mode
and tick the corresponding module.
The following information is for
further reference:
Maquet Servo-i
Not required.
Maquet Servo-s
Baud Rate: 9600 bps
Word Length: 8 bits
Parity: even
Draeger Evita 2
Stop Bits: 1
Channel A: Not required;
Channel B:
Protocol: Medibus
/
Baud rate: 19200
Parity: even
Stop Bits: 1
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External Device Setup Remark
Protocol: Medibus
Draeger Evita 2 dura/ Evita
4/ Evita XL
Newport E360 Protocol: Newport
Puritan Bennett 840
Hamilton G5(protocol
Polling)
Baud Rate: 19200
Parity: even
Stop Bits: 1
Interval: ---( Evita 2 dura)
Baud Rate: 38400
Word Length: 8 bits
Parity: NONE
Protocol: Polling.
/
The following information is for
further reference:
Baud Rate: 38400 bps
Word Length: 8 bits
Parity: NONE
Stop Bits: 1
/
The following information is for
further reference:
Baud Rate: 9600 bps
Word Length: 7 bits
Hamilton C2(protocol
Polling)
Hamilton Galileo(protocol
Polling)
Hamilton G5(protocol
Block)
Protocol: Polling.
Not required.
Protocol: Block.
Parity: even
Stop Bits: 2
The following information is for
further reference:
Baud Rate: 9600 bps
Word Length: 7 bits
Parity: even
Stop Bits: 2
The following information is for
further reference:
Baud Rate: 9600 bps
Word Length: 7 bits
Parity: even
Stop Bits: 2
The following information is for
further reference:
Baud Rate: 38400 bps
Word Length: 8 bits
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Parity: none
Stop Bits: 1
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External Device Setup Remark
The following information is for
further reference:
Ohmeda Avance/Aisys Not required.
Ohmeda Aestiva 7100
/7900
Drager Fabius GS/Plus/Tiro
Not required.
Protocol: Medibus
Baud Rate: 9600
Word Length: 7 bits
Parity: even
Stop Bits: 1
Protocol: Medibus
Baud Rate::9600
Baud Rate: 19200 bps
Word Length: 7 bits
Parity: odd
Stop Bits: 1
The following information is for
further reference:
Baud Rate: 19200 bps
Word Length: 7 bits
Parity: odd
Stop Bits: 1
/
Drager Primus
TCM CombiM/TCM
TOSCA
TOF-Watch SX Not required.
Word Length: 8 bits
Parity: even
Stop Bits: 1
Protocol: Monlink.
/
The following information is for
further reference:
Baud Rate: 9600 bps
Word Length: 8 bits
Parity: even
Stop Bits: 1
The following information is for
further reference:
Baud Rate: 19200 bps
Word Length: 8 bits
Parity: none
Stop Bits: 1
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3.11.3 Installation and Test Report
Basic Information
Hospital Department
Serial number of ID
adapter
ID of the external device
Software version and other information of
the external device
Checking the connection
Can the patient monitor and the external device be assembled together using
designated accessories?
Does the green indicator of corresponding port on the BeneLink module illuminate
while the other indicators are not?
Are there numerics or characters displayed on the [Devices Integrated] screen of the
patient monitor?
Are the device type and parameter values displayed correctly on the [Devices
Integrated] screen of the patient monitor when the external device just enters working
mode?
Name of the external device
Type of serial port adapting
cable
Test Result
(Ye s /N o )
Is the ventilation mode correctly displayed on the patient monitor? Does it change
correctly when the ventilation mode on the external device is changed?
Checking the parameters
Parameters on the external
device
PEEP PEEP
Pmean Pmean
VTe VTe
f ( RR ) f ( RR)
Ppeak Ppeak
Checking the alarms
Alarm
RR Too High
Apnea
Va lu e
Alarm messages displayed
on the external device
Parameters on the patient
monitor
Alarm messages displayed in the
alarm list of the patient monitor
Va lu e
Patient Disconnected
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Other information
3.12 Battery Check
Tools required:
None.
Function Test
1. If the patient monitor is installed with batteries, remove the batteries first.
2. Verify that the patient monitor works correctly when running powered form an AC
source.
3. Insert two batteries per the procedures provided in the Operator’s Manual.
4. Remove the AC power cord and verify that the patient monitor still works correctly.
5. For T5 only: Remove one battery and verify that the patient monitor continues to work
correctly. Verify that the patient monitor can also work independently from another
battery.
Performance Test
Perform the test by referring to the Battery chapter in the Operator’s Manual and verify the
operating time of the battery meets the product specification.
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3.13 iView System Maintenance(for T8 and T9 monitors
only)
3.13.1 Making USB Startup Disk
Tools required:
MakeUSB (PN: 110-002149-00)
USB drive with capacity greater than 4G
1. Insert the USB drive into PC.
2. Run “prepareUSB.hta” file in the folder of MakeUSB.
3. Select [Prepare Windows PE USB Flash Drive] in the drop-down list, and select
[Next>].
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4. Select the drive label of the USB drive in the drop-down list, and configure [Format
USB-drive?]. [Select Ghost Image file to use] is unselected by default. Then select
[Next>].
5. Select [Prepare USB>] to start making the startup disk. The system selects [Full mode]
and [Manual mode] by default.
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6. Select [Close] to finish.
3.13.2 Restoring the System
Connecting the External USB Cable
Connect the iView maintenance USB disk which stores the system image files and keyboard
to the USB connectors special for iView maintenance.
Setting BIOS Screen
1. Start up the patient monitor and press [F2] key repeatedly on the keyboard.
2. Select [Main Menu] → [Maintenance>>] → [User Maintenance>>] → enter the
required password → [iView Maintenance>>] → [iView Maintenance], and when
the system switches to BIOS setup screen, stop press [F2] key.
3. Move the cursor to [Boot] by pressing [←] or [→] keys on the keyboard. Then press
[Enter] on the keyboard.
4. Move the cursor to [1st Boot], and press [Enter] on the keyboard.
5. Select [USB] and press [Enter] on the keyboard.
6. Move the cursor to [Save&Exit], and press [Enter] on the keyboard. Move the cursor to
[Yes] and press [Enter] on the keyboard to save the setup.
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Restoring the system
To recover the iView system, operate according to the following steps:
1. Start iView system, and press [F2] to enter BIOS. Select [Maintanence>>] → [User
Maitanence >>] → enter the required password → [iView Maitanence>>]→ [iView
Setup], and enter the following screen.
2. Select [Boot] in the menu bar, and then select option of [1st Boot] in the submenu. Press
enter key, and select [USB] in the popup window.
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3. Select [Save&Exit] in the menu bar. Then select the option of [Save Changes and Exit]
in the submenu and press [Enter] key. After that, select [Yes] to exit.
4. Insert the USB disk for iView maintanence (P/N: 115-017183-00) into the special USB
connector for iView system on the back housing of BeneView T8. The following screen
displays. Click the arrow, and the drop-down list will show. Select [Ghost image to
disk] from the list. Click [Next].
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5. Click [File] as shown in the below figure, and then choose the image file path of the
system. Click [OK]. Then select [Next].
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6. Select [Run>], and start to recover the system with image files.
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7. The system recovery finishes.
Click [OK], and then click [Reboot]. When the monitoring screen of BeneView T8 displays,
remove iView maitanence USB disk. The system will restart and enter Windows 7 system. A
prompt to actiavate WIN7 will display.
8. Start the activation of Windows 7 system and enter the following screen.
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9. Input the key number.
3.13.3 Setting Automatic Login
iView system is set to be automatically logged in by default. However, if the registry is
modified, which leads to a manual login required, you can restore to the automatic login by
doing followings:
1. Select [Run] in the [Srart] menu of Windows system.
2. Input ‘regedit’ command, and then click [OK]. The [Registry Editor] window will pop
up.
3. In the [Registry Editor] window, find out the following three value entries by the path
of HKEY_LOCAL_MACHINE\SOFTWARE\Microsoft\Windows
NT\CurrentVersion\Winlogon. Check and change (if necessary) the value according to
what is shown below (the value is case sensitive).
"AutoAdminLogon" = "1"
"DefaultUserName" =“CIS"
"DefaultPassword" =“MINDRAY"
If some value entry does not exist of the above listed three items, you have to create a
corresponding one: click the right button of mouse, select [New] → [String Value], and
input the string as the name of the new value entry, also input the correct value.
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3.14 Factory Maintenance
3.14.1 Accessing Factory Maintenance Menu
To access the factory maintenance menu, select [Main Menu]→ [Maintenance >>] →
[Factory Maintenance]and then enter the required password.
The [Factory Maintenance] menu is shown below.
3.14.2 Drawing Waves
There are two methods to draw waves: Color and Mono.
Color: selecting Color will have smoother waveforms.
Mono: selecting Mono will have a wider viewing angle.
3.14.3 Recorder
To enable/disable the recorder, select [Recorder] and toggle between [On] and [Off].
CAUTION
z The recorder is disabled if [Recorder] is switched off in the [Factory
Maintenance>>] menu.
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3.14.4 Software Version
Selecting [Software Version] will show software version information. The [Software
Version] menu is as follows:
3.14.5 Monitor Information
Selecting [Monitor Information] will show the status of the patient monitor. Monitor
information is displayed as follows:
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Maintenance and Test Report
(See the above sections for detailed test procedures and contents)
Customer name
Customer address
Servicing person
Servicing company
Equipment under test
(EUT)
Model of EUT
SN of EUT
Hardware version
Software version
Test equipment Model/No. Effective date of calibration
Test items Test records
Test
results(Pass/Fail)
Visual inspection
The case, display screen, buttons, knob, SMR, modules, power
cord, wall-mount bracket and accessories have no obvious
signs of damage.
The external connecting cables are not frayed and the
connector pins are not loose and bent.
The external connectors are not loose or their pins are not
bent.
The safety labels and data plate are clearly legible.
Power-on test
The power-on test is passed. The power indicator and alarm
system work correctly and the monitor start up properly.
Performance test
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ECG performance test
ECG waves are displayed correctly without noise and the HR
value is within 80±1 bpm.
ECG Lead Off alarm behaves correctly.
Paced signals are detected and pace pulse marks are displayed
when [Paced] is set to [Ye s ]
The difference between the amplitude of the ECG calibration
square wave and that of the wave scale is not greater than 5%.
Resp test
The Resp wave is not distorted and the Resp value is within
40±2 rpm.
SpO2 test
Measure SpO2 on a healthy person’s finger and a Pleth wave
and PR value are displayed. The displayed SpO2 value is
within 95%-100%
NIBP test
The difference is within ±3 mm when 0, 50 or 200 mmHg is
set for NIBP accuracy test.
There is no leakage with NIBP, or the manual leakage test
result does not exceed 6mmHg/min.
Temp test
The value displayed for each Temp channel of the monitor is
within 37±0.1ºC.
IBP test
The static pressure value displayed for each IBP channel is
within 200±2 mmHg.
The ART and LV waves for each IBP channel are displayed
correctly.
C.O. test
The TB value displayed on the monitor is within 37±0.1ºC.
The displayed C.O. value is within 5±0.25L/min.
Mainstream CO2 test
The mainstream CO2 is zeroed successfully and the waveform
baseline recovers to zero.
CO2 Apnea alarm behaves correctly.
The displayed CO2 value is within 6±0.05%.
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Sidestream CO2 test
Block the gas inlet of the module or watertrap. The sidestream
flowrate is slower than 10ml/min and an alarm of CO2
CO
2
Filterline Err is given. It indicates that there is no leakage.
The displayed CO2 value is within 6±0.05%.
Miscrostream CO2 test
Block the gas inlet of the module or watertrap. An alarm of
CO2 Filterline Err is given. It indicates that there is no leakage.
The displayed CO2 value is within 6±0.05%
AG test
When AG flowrate is slower than 10ml/min, an alarm of AG
Airway Occluded is given. It indicates that there is no leakage.
The fan inside the AG module works properly.
The measurement accuracy of CO2, N2O, O2 and AA (AA
represents an anaesthetic agent) meets the product
specifications in the Operator’s Manual.
ICG test
The measured results are as follows: HR=60±2 bpm,
VI=61±4/1000s, TFC=32±2/kOhms.
The measured results are as follows: HR=70±2 bpm, VI=48±4
/1000s, TFC=32±2 / kOhms.
BIS test (you can select either method to perform the test)
Method 1: The BIS value measured on healthy, wide-awake
adult is within 80-100.
Method 2: Connect to the BIS simulator to perform a cyclic
impedance check. The EEG wave and BIS numeric are
displayed on the monitor.
RM test
The displayed TV is within 500±50ml and RR is within
20±1rpm.
CCO/SvO2 test
The CCO/SvO2 numerics displayed on the patient monitor and
Vigilance monitor are consistent.
The waves (at the ECG signal output port) displayed on the
oscillograph are consistent with the ECG calibration waves
displayed on the monitor screen.
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The amplitude of electrical level at the signal output port of
MAP, CVP and SpO
are 5±0.25V, 5±0.25V and 10±0.5V
2
respectively.
PiCCO test
The detected catheter type accords with the setting of the
Pulsion Calbox, and the measurement errors of TB and TI are
within ±0.1℃.
The displayed static pressure values of pArt and pCVP are no
more than (200±2) mmHg.
The waveforms of pArt and pCVP are displayed correctly.
ScvO2 test
The accuracy of ScvO2 measurements is (50±3)% and (80±
3)%.
NMT test
The measurement of [PK-PK] is between 54V and 66V. The
The measurement of [+Width] is between 270us to 330us.
The message “Test passed. The function of NMT sensor is
OK” is presented if sensor check completes successfully.
EEG test
The result of sensor check is pass, and EEG measurements are
displayed on the monitor.
Nurse call relay performance test
The relay contacts are close when an alarm occurs.
Analog output performance test
The waves displayed on the oscillograph are identical with
those displayed on the monitor.
Electrical safety tests
Refer to A Electrical Safety Inspection. All the electrical
safety tests should be passed.
Touchscreen calibration
The touchscreen is calibrated successfully.
Recorder check
The recorder can print ECG waves correctly and the printout is
clear.
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Set the recorder to some problems such as out of paper, paper
jam, etc. the monitor gives corresponding prompt messages.
After the problem is removed, the recorder is able to work
correctly.
Automatic alarm recording for each parameter functions
correctly when parameter alarms occur.
Network print test
The network printer can print out ECG reports correctly.
Device integration check
[Devices Integrated] window can display the type of the
external device, ventilation mode, and corresponding
parameters normally.
Battery check
The monitor can operates correctly from battery power when
an AC power failure accidentally occurs.
T5 patient monitor can operate independently on a single
battery.
The operating time of the battery meets the product
specification.
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4 Troubleshooting
4.1 Introduction
In this chapter, patient monitor problems are listed along with possible causes and
recommended corrective actions. Refer to the tables to check the patient monitor, identify and
eliminate the troubles.
The troubles we list here are frequently arisen difficulties and the actions we recommend can
correct most problems, but not all of them. For more information on troubleshooting, contact
our Customer Service Department.
4.2 Part Replacement
Printed circuit boards (PCBs), major parts and components in the patient monitor are
replaceable. Once you isolate a PCB you suspect defective, follow the instructions in 5 Repair and Disassembly to replace the PCB with a known good one and check that the
trouble disappears or the patient monitor passes all performance tests. If the trouble remains,
exchange the replacement PCB with the original suspicious PCB and continue
troubleshooting as directed in this chapter. Defective PCB can be sent to us for repair.
To obtain information on replacement parts or order them, refer to 6 Parts.
4.3 Patient Monitor Status Check
Some troubleshooting tasks may require you to identify the hardware version and status of
your patient monitor.
1. To view the information on system start time, self check, etc., select [Main Menu]→
[Maintenance >>]→[Monitor Information>>].
2. You can also view the information on the monitor’s current status by selecting [Main
Menu]→[Maintenance>>]→[Factory Maintenance>>]→enter the required password
→[Monitor Information>>].
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4.4 Software Version Check
Some troubleshooting tasks may require you to identify the configuration and software
version of your patient monitor.
1. To view information on the system configuration and system software version, Select
[Main Menu]→[Maintenance>>]→[Software Version>>].
2. You can also view the information on system software version and module software
version by selecting [Main Menu]→[Maintenance>>]→[Factory Maintenance>>]→
enter the required password →[Software Version>>].
4.5 Technical Alarm Check
Before troubleshooting the patient monitor, check for technical alarm message. If an alarm
message is presented, eliminate the technical alarm first. For detailed information on
technical alarm message, possible cause and corrective action, refer to the patient monitor’s
Operation Manual.
4.6 Troubleshooting Guide
4.6.1 Power On/Off Failures
Symptoms Possible Cause Corrective Action
The patient
monitor fails to
start. AC LED
or battery LED
does not light
AC mains not connected
or battery too low
Power supply protectionRefer to 4.6.9 Power Supply Failures .
Cables defective or
poorly connected
Power switch & LED
board defective
Power module defective Replace the power module.
Mother board Defective Replace the mother board.
Check that AC mains is properly connected or
battery capacity is sufficient.
1. Check that the cables from power switch & LED
board to button board, button board to main board,
and power module to main board are correctly
connected.
2. Check that cables and connectors are not
damaged.
Replace the power switch & LED board.
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4.6.2 Display Failures
Symptoms Possible Cause Corrective Action
Integrated display
is blank but the
patient monitor
still works
correctly.
Secondary display
does not function.
Secondary display
displays snows or
flashing specks
Cables defective or
poorly connected.
Backlight board
defective
Power module defective Replace the power module.
Display defective Replace the display.
Cables defective or
poorly connected.
DVI interface board
defective
Cables defective or
poorly connected.
1. Check that cables from the display to the mother
board and from the backlight board to the button
board/display are correctly connected.
2. Check that the cables and connectors are not
damaged.
Replace the backlight board.
1. Check that the cable between the display and the
patient monitor is correctly connected.
2. Check that the cables and connectors are not
damaged.
Replace the DVI interface board.
1. Check that the cable between the display and the
patient monitor is correctly connected.
2. Check that the cables and connectors are not
damaged.
overlapped or
distorted
Touchscreen does
not response
DVI interface board
defective
The mother board is
damaged.
FPGA error. Update or upgrade FPGA. Images
Cables defective or
poorly connected.
Touchscreen disabled
Replace the DVI interface board.
Replace the mother board.
1. Check that the cable between the display and
mother board is correctly connected.
2. Check that the cables and connectors are not
damaged.
Check if there is a symbol
[Main Menu] QuickKey. If yes, press the [Main
Menu] QuickKey for more than 3s to enable the
touchscreen.
shown above the
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Page 98
Cables defective or
poorly connected.
Touchscreen control
board defective
Button board defective. Replace the button board.
Touchscreen defective. Replace the touchscreen
Mother board defective Replace the mother board
Touch position
invalid
Touchscreen not
calibrated
4.6.3 Module Rack Failures
1. Check that the cables from the touchscreen to the
touchscreen control board, the touchscreen control
board to the button board, and the button board to
the mother board are correctly connected.
2. Check that the cables and connectors are properly
connected
Replace the touchscreen control board
Calibrate the touchscreen
Symptoms Possible Cause Corrective Action
SMR
SMR cannot
identify
parameter
modules
Extension Cable
defective or poorly
connected
Defective parameter
module
Wrong communication
board software revision
Module (in some slots)
unrecognized
1. Check that the cable between SMR and main unit
is properly connected
2. Check that the connecting cables and connectors
are not damaged.
3. Check that contact screws on SMR are tightly
screwed and properly contact the SMR.
Replace the suspicious parameter module with a
known good module. Check if the patient monitor
identifies the replacement module. If yes, it means
that the original one is defective.
Upgrade the program of the module or SMR.
1. Replace the Nios II module.
2. Replace the 8-slot module rack communication
board.
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Power supply failure 1. Check if the voltage between two contact screws
in any slot reaches 12V DC. If yes and the
parameter module functions, the PCB assembly in
SRM might fail.
2. If there is no 12 V sent to the SMR, check that
the power module output voltage to the USB
interface board reaches 12V. If yes, the fuse on the
USB interface board might blow. Replace the USB
interface board.
Cable defective or
poorly connected
Nios II module loose or
failure
SMR interface board
failure
SMR communication
board failure
USB interface board
failure
Mother board failure Replace the mother board.
Integral module rack
Integral module
rack cannot
identify
parameter
modules
Module failure Replace parameter module. If a new module is
Cable defective or
poorly connected
1. Check that the cable between SMR interface
board and communication board is properly
connected.
2. Check that connecting cables and connectors are
not damaged.
1. Check that Nios II module is correctly plug ed
2. If the symptom persists, replace the Nios II
module.
Replace the SMR interface board.
Replace the SMR communication board.
Replace the USB interface board.
identified, the original one is defective.
1. Check that the cables from 3-slot module rack
communication board to MPM module rack
communication board, module rack to mother board
are properly connected.
Wrong communication
board software revision
Module (in some slots)
unrecognized
2. Check that connecting cables and connectors are
not damaged.
Upgrade the program of the module or Integral
module rack.
Replace the corresponding module rack
communication board.
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Page 100
Power supply to integral
module rack abnormal
3-slot or MPM module
rack communication
board failure
Nios II module failure Replace the Nios II module.
Mother board failure Replace the mother board.
1. Check if voltage between two contact screws in
any slot reaches 12VDC. If yes and the parameter
module functions, PCB assembly in the SMR might
fail.
2. If there is no 12V sent to the integrated module
rack, check that power module output voltage to
mother board reaches 12V DC. If yes, mother board
might fail.
Replace the 3-slot or MPM module rack
communication board.
4.6.4 Alarm Problems
Symptoms Possible Cause Corrective Action
The alarm lamp
is not light or
extinguished
but alarm
sound is issued
Cable defective or
poorly connected
1. Check that cables from alarm LED board to
button board and button board to mother board are
properly connected.
2. Check that connecting cables and connectors are
not damaged.
No alarm
sound is issued
but alarm lamp
is light
Alarm LED board
failure
Button board failure Replace the button board.
Mother board failure Replace the mother board.
Audio alarm disabled
Cable defective or
poorly connected
FPGA audio logic error Upgrade the audio logic part of the FPGA program.
Speaker failure Replace the speaker.
Replace the alarm LED board.
Select [Main Menu]→[Maintenance >>]→[User Maintenance >>]→enter the required password→
[Alarm Setup >>], and then in the popup menu, set
[Minimum Alarm Volume] to appropriate setting.
In the [Others] window of the [Alarm Setup]
menu, set [Alm Volume] to appropriate setting.
1. Check that cable between speaker and mother
board is properly connected.
2. Check that connecting cables and connectors are
not damaged.
Mother board failure Replace the mother board.
4-6
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