The Rad-87™ Pulse CO-Oximeter™ is designed to minimize the possibility of hazards from errors in the
software program by following sound engineering design processes, Risk Analysis and Software Validation.
■ Explosion hazard. Do not use the Rad-87 in the presence of fl ammable anesthetics or other fl ammable
substance in combination with air, oxygen-enriched environments, or nitrous oxide.
■ High intensity extreme lights
CO-Oximeter to obtain readings.
■ Excessive ambient noise may affect the accuracy of the
Sensor.
■ SpO2 monitoring is required when monitoring RRa (Acoustic Respiration).
■ The Rad-87 is NOT intended for use as an apnea monitor.
■ The Pulse CO-Oximeter should be considered an early warning device. As a trend towards patient hypoxemia is
indicated, blood samples should be analyzed by laboratory instruments to completely understand the patient’s
condition.
■ Pulse rate measurement is based on the optical detection of a peripheral flow pulse and therefore may not
detect certain arrhythmias. The pulse
based arrhythmia analysis.
■ The Rad-87 is to be operated by qualifi ed personnel only. This manual, accessory directions for use, all
precautionary information, and specifi cations should be read before use.
■ Electric shock hazard. Do not open the Rad-87 instrument. Only a qualifi ed operator may perform maintenance
procedures specifi cally described in this manual. Refer servicing to Masimo for repair of this equipment.
■ Ensure that the HF surgical neutral electrode is properly connected to help prevent unintended
current return paths when using high frequency (HF) surgical equipment.
■ As with all medical equipment, carefully route patient cabling to reduce the possibility of patient entanglement
or strangulation.
■ Use cables only from the instrument manufacturer to provide protection against the effects of
discharge from a cardiac defibrillator and burns.
■ Do not place the Rad-87 or accessories in any position that might cause it to fall on the patient. Do not lift the
Rad-87 by the power cord or any other cable.
■ Interfering Substances: Dyes, or any substance containing dyes, that change usual blood pigmentation may
cause erroneous readings.
■ SpO2 is empirically calibrated to functional arterial oxygen saturation in healthy adult volunteers with normal
levels of carboxyhemoglobin (COHb) and methemoglobin (MetHb). A pulse
elevated levels of COHb or MetHb. Increases in either COHb or MetHb will affect the accuracy of the SpO
measurement.
■ For increased COHb: COHb levels above normal tend to increase the level of SpO2. The level of increase is
approximately equal to the amount of COHb that is present.
NOTE: High levels of COHb may occur with a seemingly normal SpO2. When elevated levels of COHb are
suspected, laboratory analysis (CO-Oximetry) of a blood sample should be performed.
■ For increased MetHb: the SpO2 may be decreased by levels of MetHb of up to approximately 10% to 15%.
At higher levels of MetHb, the SpO2 may tend to read in the low to mid 80s. When elevated levels of MetHb
are suspected, laboratory analysis (CO-Oximetry) of a blood sample should be performed.
■ Elevated levels of Methemoglobin (MetHb) will lead to inaccurate SpO2 and SpCO® measurements.
(including pulsating strobe lights) directed on the sensor, may not allow the Pulse
respiration rate reading from the Acoustic Respiration
oximeter should not be used as a replacement or substitute for ECG
oximeter can not measure
2
ii
Rad-87 Pulse CO-Oximeter Operator’s Manual
Safety Information, Warnings, Cautions and Notes, continued
■ Elevated levels of Carboxyhemoglobin (COHb) will lead to inaccurate SpO2 measurements.
■ Elevated levels of Total Bilirubin may lead to inaccurate SpO2, SpMet®, SpCO, SpHb® and SpOC™
measurements.
■ Motion artifact may lead to inaccurate SpMet, SpCO, SpHb and SpOC m
■ Very low arterial Oxygen Saturation (SpO2) levels may cause inaccurate SpCO and SpMet measurements.
■ Severe anemia may cause erroneous SpO
■
Hemoglobin synthesis disorders may cause erroneous SpHb readings.
■ Do not use the Rad-87 or sensors during magnetic resonance imaging (MRI) scanning. Induced current
could potentially cause burns. The Rad-87 may affect the MRI image and the MRI device may affect the
accuracy of the Pulse CO-Oximetry parameters and measurements.
■ If using Rad-87 during full body radiation, keep the sensor out of the radiation fi eld. If the sensor is exposed
to the radiation, the reading might be inaccurate or the
active irradiation period.
■ For home use, ensure that the Rad-87’s alarm can be heard from other rooms in the house especially when noisy
appliances such as vacuum cleaners, dishwashers, clothes dryers, televisions, or radios are operating.
■ Always remove the sensor from the patient and completely disconnect the patient from the Rad-87 before
bathing the patient.
■ Additional information specific to Masimo sensors including information about parameter/measurement
performance during motion and low perfusion, may be found in the sensor's Directions For Use (DFU).
■ Do not place the Rad-87 where the controls can be changed by the patient.
■ Do not place the Rad-87's face against a surface. This will cause the alarm to be muffl ed.
■ Do not place the Rad-87 on electrical equipment that may affect the Pulse CO-Oximeter, preventing it from
working properly.
■ Do not expose the Rad-87 to excessive moisture such as direct exposure to rain. Excessive moisture can
cause the
■ Do not place containers with liquids on or near the Rad-87. Liquids spilled on the
perform inaccurately or fail.
■ If the Rad-87 fails any part of the setup procedures or leakage tests, remove the
until qualifi ed service personnel have corrected the situation.
■ Patient Safety - If a sensor is damaged in any way, discontinue use immediately.
■
Do not monitor more than a single patient at a time on the Rad-87.
■ Disposal of product - Comply with local laws in the disposal of the instrument and/or its accessories.
■ The Rad-87 can be used during defi brillation, but the readings may be inaccurate for up to 20 seconds.
■
■
■This equipment generates, uses and can radiate radio frequency energy and, if not installed and
used in accordance with the instructions, may cause harmful interference to other devices in the
vicinity. However, there is no guarantee that interference will not occur in a particular installation. If this
Rad-87 Pulse CO-Oximeter Operator’s Manual
instrument to perform inaccurately or fail.
This equipment has been tested and found to comply with the limits for medical devices to the EN
60601-1-2, Medical Device Directive 93/42/EEC and Part 15, FCC Rules/USA.
This
device
(1) This
received, including interference that may cause undesired operation.
complies with part 15 of the FCC Rules. Operation is subject to the following two conditions:
device
may not cause harmful interference, and (2) this
and SpOC readings.
2
instrument might read zero for the duration of the
easurements.
instrument may cause it to
instrument from operation
device
must accept any interference
iii
Safety Information, Warnings, Cautions and Notes, continued
equipment does cause harmful interference to other devices, which can be determined by turning the
equipment off and on, the user is encouraged to try to correct the interference by one or more of the
following measures:
■ Reorient or relocate the receiving device.
■ Increase the separation between the equipment.
■ Connect the equipment into an outlet on a circuit different from that to which the other device(s) are
connected.
■ Consult the manufacturer for help.
■ In order to connect wirelessly to a compatible interface system like Patient SafetyNet™, the Rad-87
should be placed in an environment free from RF shielding, which could hinder wireless reception.
■ To minimize radio interference, other electrical equipment that emits RF transmissions should not be
in close proximity to the Rad-87.
■ Changes or modifications to the wireless radio feature whether intentional or unintentional are
prohibited without written approval from Masimo Corporation.
■ The Rad-87 (instrument with optional radio) wirelessly transmits real-time sensor connectivity status,
indicating a connect and/or disconnect state. If the instrument is in a failure mode then the radio power
is disabled and an error message is indicated on the instrument display. The instrument does not have a
powered state where no information is transmitted.
■ In accordance with FCC requirements, the Rad-87 (instrument with optional radio) must be placed
greater than 20 cm from the patient or nearby persons.
■ In accordance with FCC requirements, radio accessories on the Rad-87 (instrument with optional radio)
cannot be attached directly to the patient using any accessory containing metal components.
■ In accordance with international telecommunication requirements, the frequency band of 5,150 MHz
to 5,250 MHz is only for indoor usage to reduce potential for harmful interference to co-channel mobile
satellite systems.
■ The battery should be adequately charged to ensure backup power in case of AC power disruption.
■ A functional tester cannot be utilized to assess the accuracy of the Pulse CO-Oximeter or any sensors.
■ To ensure safety, avoid stacking multiple devices or placing anything on the instrument during operation.
■ Ensure the speaker is not covered or the instrument is placed face-down on bedding or other sound
absorbing surface.
■ To protect against injury from electric shock, follow the directions below:
■ Avoid placing the instrument on surfaces with visible liquid spills.
■ Do not soak or immerse the instrument in liquids.
■ Always turn off and disconnect the power cord from the AC power supply before cleaning the
device.
■ Use cleaning solutions sparingly.
■ Cleared Use Only: The device and related accessories are cleared by the Food and Drug Administration
(FDA) for noninvasive patient monitoring and may not be used for any processes, procedures, experiments
or any other use for which the device is not intended or cleared by the FDA, or in any manner inconsistent
with the instructions for use or labeling. The device and related accessories are not intended for use in
combination with other medical devices or in high-risk applications.
This manual explains how to set up and use the Rad-87 Pulse CO-Oximeter containing Masimo
Rainbow SET technology. Important safety information relating to general use of the Rad-87
appears before this introduction. Other important safety information is located throughout the
manual where appropriate.
Read the entire safety information section before you operate the monitor.
In addition to the safety section, this manual includes the following sections:
SECTION 1 Overview gives a general description of Rad-87 Pulse CO-Oximeter.
SECTION 2 System Description describes the Rad-87 Pulse CO-Oximeter system
and its functions and features.
SECTION 3 Setup describes how to setup the Rad-87 Pulse CO-Oximeter for use.
SECTION 4 Operation describes the operation of the Rad-87 Pulse CO-Oximeter
system.
SECTION 5 Alarms and Messages describes the alarm system messages.
SECTION 7 Specifications gives the detailed specifi cations of the Rad-87 Pulse
CO-Oximeter.
1
SECTION 8Sensors
Masimo sensors and cables.
SECTION 9 Service & Maintenance describes how to maintain, service and obtain
SECTION 10
Rad-87 Pulse CO-Oximeter Operator’s Manual
repair for the Rad-87 instrument. The Sales and End User License
Agreement, including Warranty, is also in this section.
Part Numberslists the part numbers of the different language Operator's
Manuals that are available for the Rad-87 Pulse CO-Oximeter.
& Patient Cables outlines how to use and care for compatible
1-1
1
Overview
Warnings, Cautions and Notes
Please read and follow any warnings, cautions and notes presented throughout this
manual. An explanation of these labels are as follows:
A WARNING is provided when actions may result in a serious outcome (i.e., injury,
serious adverse affect, death) to the patient or user. Look for text in a gray shaded box.
Sample of Warning:
WARNING: THIS IS A SAMPLE OF A WARNING STATEMENT.
A CAUTION is given when any special care is to be exercised by the patient or user to avoid
injury to the patient, damage to this instrument or damage to other property.
Sample of Caution:
CAUTION:
• This is a sample of a caution statement.
A NOTE is provided when extra general information is applicable.
Sample of Note:
NOTE: This is a sample of a note.
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Rad-87 Pulse CO-Oximeter Operator’s Manual
Overview
Product Description
The Rad-87 Pulse CO-Oximeter Monitor is a noninvasive, arterial oxygen, carboxyhemoglobin,
methemoglobin saturation, total hemoglobin concentration, total arterial oxygen content, pulse
rate and respiration rate monitor. The Rad-87 features an LED display screen that continuously
displays numeric values for SpO2, SpCO*, SpMet*, SpHb*, total arterial oxygen content (SpOC*),
perfusion index (PI), pleth variability index* (PVI), pulse rate and respiratory/respiration rate
(RRa*). It also provides bar graph displays for quick visual identification of Signal I.Q.® (SIQ™),
perfusion index (PI), acoustic Signal Identification Quality (SIQa*) and Respiration Indicator (RI*).
The Rad-87 is available in four models: vertical Rad-87, horizontal Rad-87, vertical Rad-87 with
radio and horizontal Rad-87 with radio.
Features
These features are common to Rad-87 monitors:
■ Masimo SET is clinically proven to be the highest sensitivity and specificity pulse CO-Oximeter
technology in the world.
■ Rainbow technology continuously and noninvasively measures arterial oxygen saturation (SpO2) and
pulse rate (BPM), as well as providing a reliable probe-off detection.
■ Perfusion Index (PI) with trending capability indicates arterial pulse signal strength during low
perfusion.
■ Accurate on cyanotic infants with congenital heart disease when used with an LNOP Blue Sensor.
■ Signal I.Q. provides signal identification and quality indication during excessive motion and low signal
to noise situations.
■ FastSat® tracks rapid changes in arterial O2 saturation with high fidelity.
■ Variable pitch provides tonal variance for every 1% change in saturation.
■ Remote alarming interface.
■ Up to 72 hours of trending. (See Section 4, Trend Setup and Use.)
■ Allows user to customize the default settings and set the instrument to retain these settings through
a power off/on cycle.
■ The LCD Display allows the user to view a scrolling marque of (installed) parameter/measurement
alarm limits, system information, and wireless radio communication (wireless radio model only).
Optional Features
■ Rainbow technology uses 7+ wavelengths of light to continuously and noninvasively measure
carboxyhemoglobin (SpCO), methemoglobin (SpMet) and total hemoglobin (SpHb), as well as
providing a reliable probe-off detection.
■ Rainbow Acoustic Monitoring uses acoustic monitoring technology to measure and display
respiration rate (RRa) while providing the Respiration Indicator (RI) at the sensor site.
■ Pleth Variability Index (PVI)† may show changes that reflect physiologic factors such as vascular
tone, circulating blood volume, and intrathoracic pressure excursions.
■ Total arterial oxygen content (SpOC) provides a calculated measurement of the amount of oxygen
in arterial blood which may provide useful information for both oxygen dissolved in plasma and
combined with hemoglobin.
■ Provides an 802.11a/b/g wireless radio interface with compatible systems (wireless radio model only).
■ Ability to connect to Masimo Patient SafetyNet through a wireless network (wireless radio model only).
The utility of PVI is unknown at this time and requires further clinical studies. Technical factors that may affect PVI
include probe malposition and patient motion.
1
Rad-87 Pulse CO-Oximeter Operator’s Manual
1-3
1
Overview
Indications for Use
The Masimo Rainbow SET® Rad-87 Pulse CO-Oximeter and accessories are indicated for
the continuous, non-invasive monitoring of functional oxygen saturation of arterial hemoglobin
(SpO2), pulse rate, carboxyhemoglobin saturation (SpCO), methemoglobin saturation (SpMet),
total hemoglobin concentration and/or respiratory rate (RRa).The Masimo Rainbow SET Rad-87
Pulse CO-Oximeter and accessories are indicated for use with adult, pediatric and neonatal
patients during both motion and no motion conditions, and for patients who are well or poorly
perfused in hospitals, hospital-type facilities, mobile and home environments.
Note: Please refer to the sensor Directions for Use (DFU) for specific indications.
Pulse CO-Oximetry
SpO2 General Description
Pulse CO-Oximetry is a continuous and noninvasive method of measuring the level of arterial
oxygen saturation in blood. The measurement is taken by placing a sensor on a patient, usually
on the fingertip for adults and the hand or foot for neonates. The sensor is connected to the Pulse
CO-Oximetry instrument with a patient cable. The sensor collects signal data from the patient and
sends it to the instrument.
The following figure shows the general monitoring setup.
1
NORM
APOD
MAX
97
SENSITIVITYMODE
76
SIQa
12
RI
RRa
2
3
rbc monitor
1. Instrument
2. Patient Cable
3. Sensor
SpCO General Description
Pulse CO-Oximetry is a continuous and noninvasive method of measuring the levels of
carboxyhemoglobin concentration (SpCO) in arterial blood. It relies on the same basic principles
of pulse oximetry (spectrophotometry) to make its SpCO measurement. The measurement is
obtained by placing a sensor on a patient, usually on the fingertip for adults and the hand or foot
for infants. The sensor connects either directly to the Pulse CO-Oximetry instrument or through
an instrument patient cable. The sensor collects signal data from the patient and sends it to the
instrument. The instrument displays the calculated data as percentage value for the SpCO, which
reflect blood levels of carbon monoxide bound to hemoglobin
.
SpMet General Description
Pulse CO-Oximetry is a continuous and noninvasive method of measuring the levels of
methemoglobin concentration (SpMet) in arterial blood. It relies on the same basic principles
of pulse oximetry (spectrophotometry) to make its SpMet measurement. The measurement is
obtained by placing a sensor on a patient, usually on the fingertip for adults and the hand or foot
for infants. The sensor connects either directly to the Pulse CO-Oximetry instrument or through
an instrument patient cable. The sensor collects signal data from the patient and sends it to the
1-4
Rad-87 Pulse CO-Oximeter Operator’s Manual
Overview
instrument. The instrument displays the calculated data as percentage value for the SpMet.
SpHb (Total Hemoglobin) General Description
Pulse CO-Oximetry is a continuous and noninvasive method of measuring the levels of total
hemoglobin (SpHb) in arterial blood. It relies on the same principles of pulse oximetry to make
the SpHb measurement. The measurement is taken by a sensor capable of measuring SpHb,
usually on the fingertip for adults and pediatric patients. The sensor connects directly to the
Pulse CO-Oximeter or with a patient cable. The sensor collects signal data from the patient and
sends it to the instrument. The instrument displays the calculated data as measurement of total
hemoglobin concentration. The Rad-87 can be configured to be a combined SpO2 monitor with
other available parameters/measurements.
CaO2 (Total Arterial Oxygen Content) General Description
Oxygen (O2) is carried in the blood in two forms, either dissolved in plasma or combined with
hemoglobin. The amount of oxygen in the arterial blood is termed the oxygen content (CaO2)
and is measured in units of ml O2/dl blood. One gram of hemoglobin (Hb) can carry 1.34 ml of
oxygen, whereas 100 ml of blood plasma may carry approximately 0.3 ml of oxygen. The oxygen
content is determined mathematically as:
CaO
= 1.34 (ml O2/g Hb) x Hb (g/dL) x HbO2 + PaO2 (mm Hg) x (0.3 ml O2/ 100 mm Hg/dL)
2
Where HbO
arterial oxygen.
For typical PaO
Hg/dL] is approximately 0.3 ml/dl. Furthermore, for typical carboxyhemoglobin and methemoglobin
levels, the functional saturation (SpO
* Martin, Laurence. All You Really Need to Know to Interpret Arterial Blood Gases, Second Edition. New York: Lippincott
Williams & Wilkins, 1999.
is the fractional arterial oxygen saturation and PaO2 is the partial pressure of
2
values, the second part of the above equation [PaO2 (mm Hg) x (0.3 ml O2/ 100 mm
2
) as measured by a pulse oximeter is given by:
2
SpO
= 1.02 x HbO2
2
*
1
SpOC (Pulse CO-Oximetry) General Description
The above approximations result in the following reduced equation for oxygen content via the
Pulse CO-Oximeter:
SpOC (ml/dl†) = 1.31 (ml O
†
When ml O2/g Hb is multiplied by g/dL of Hb, the gram unit in the denominator of ml/g cancels the gram unit in the
numerator of g/dL resulting in ml/dl (ml of oxygen in one dl of blood) as the unit of measure for SpOC.
/g Hb) x SpHb (g/dL) x SpO2 + 0.3 ml/dl
2
Rainbow Acoustic Monitoring General Description
Rainbow Acoustic Monitoring continuously measures a patient's respiration rate based on airflow
sounds generated in the upper airway. The Acoustic Respiration Sensor translates airflow
sounds generated in the upper airway to an electrical signal that can be processed to produce a
respiration rate, measured as breaths per minute.
Rad-87 Pulse CO-Oximeter Operator’s Manual
1-5
1
Overview
Principle of Operation
Pulse CO-Oximetry is governed by the following principles:
1. Oxyhemoglobin (oxygenated blood), deoxyhemoglobin (non-oxygenated blood),
carboxyhemoglobin (blood with carbon monoxide content), methemoglobin (blood with
oxidized hemoglobin) and blood plasma constituents differ in their absorption of visible and
infrared light (using spectrophotometry, see figure below).
Absorption Spectra
4.0
3.5
3.0
2.5
2.0
1.5
Absorption (1/mm)
1.0
0.5
0
600800
Carboxyhemoglobin
Oxyhemoglobin
Methemoglobin
Deoxyhemoglobin
Plasma
1000120014001600
Wavelength (nm)
2. The amount of arterial blood in tissue changes with your pulse (photoplethysography).
Therefore, the amount of light absorbed by the varying quantities of arterial blood changes
as well.
The Rad-87 Pulse CO-Oximeter uses a multi-wavelength sensor to distinguish between
oxygenated blood, deoxygenated blood, blood with carbon monoxide, oxidized blood and blood
plasma. The Rad-87 utilizes a sensor with various light-emitting diodes (LEDs) that pass light
through the site to a photodiode (detector). See figure below. Signal data is obtained by passing
various visible and infrared lights (LED’s, 500 to 1400nm) through a capillary bed (for example,
a fingertip, a hand, a foot) and measuring changes in light absorption during the blood pulsatile
cycle. This information may be useful to clinicians. The maximum radiant power of the strongest
light is rated at ≤ 25mW. The detector receives the light, converts it into an electronic signal and
sends it to the Rad-87 for calculation.
Once the Rad-87 receives the signal from the sensor, it utilizes Masimo Rainbow SET signal
extraction technology to calculate the patient’s functional
arterial oxygen saturation, blood levels
of carboxyhemoglobin (SpCO), methemoglobin (SpMet) and pulse rate. The SpCO and SpMet
measurements rely on a multiwavelength calibration equation to quantify the percentage of
carbon monoxide and methemoglobin in arterial blood. In an ambient temperature of 35º C the
maximum skin surface temperature has been measured at less than 106º F (41º C), verified by
Masimo sensor skin temperature test procedure.
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Rad-87 Pulse CO-Oximeter Operator’s Manual
Overview
Functional Saturation
The Rad-87 is calibrated to measure and display functional saturation (SpO2): the amount of
oxyhemoglobin expressed as a percentage of the hemoglobin that is available to transport oxygen.
Rad-87 vs. Drawn Whole Blood Measurements
When SpO2, SpCO, SpMet and SpHb measurements obtained from the Rad-87 (noninvasive)
are compared to drawn whole blood (invasive) measurements by blood gas and/or laboratory
CO-Oximetry methods, caution should be taken when evaluating and interpreting the results.
The blood gas and/or laboratory CO-Oximetry measurements may differ from the SpO2, SpCO,
SpMet and SpHb measurements of the Rad-87 Pulse CO-Oximeter. In the case of SpO2, different
results are usually obtained from the arterial blood gas sample if the calculated measurement
is not appropriately corrected for the effects of variables that shift the relationship between the
partial pressure of oxygen (PO2) and saturation, such as: pH, temperature, the partial pressure
of carbon dioxide (PCO2), 2,3-DPG, and fetal hemoglobin. In the case of SpCO, different results
are also expected if concentration of methemoglobin in the blood gas sample is elevated. High
levels of bilirubin may cause erroneous SpO2, SpMet, SpCO and SpHb readings. As blood
samples are usually taken over a period of 20 seconds (the time it takes to draw the blood)
a meaningful comparison can only be achieved if the oxygen saturation, carboxyhemoglobin
and methemoglobin concentration of the patient are stable and not changing over the period of
time that the blood gas sample is taken. Subsequently, blood gas and laboratory CO-Oximetry
measurements of SpO2, SpCO, SpMet and SpHb may vary with the rapid administration of fluids
and in procedures such as dialysis. Additionally, drawn, whole-blood testing can be affected by
sample handling methods and time elapsed between blood draw and sample testing.
1
Masimo SET Signal Extraction Technology for SpO2 Measurements
Masimo Signal Extraction Technology’s signal processing differs from conventional pulse
oximeters. Conventional pulse oximeters assume that arterial blood is the only blood moving
(pulsating) in the measurement site. During patient motion, however, the venous blood also
moves, causing conventional pulse oximeters to read low values, because they cannot distinguish
between the arterial and venous blood movement (sometimes referred to as noise). Masimo SET
pulse oximetry utilizes parallel engines and adaptive digital filtering. Adaptive filters are powerful
because they are able to adapt to the varying physiologic signals and/or noise and separate them
by looking at the whole signal and breaking it down to its fundamental components. The Masimo
SET signal processing algorithm, Discrete Saturation Transform® (DST®) reliably identifies the
noise, isolates it and, using adaptive filters, cancels it. It then reports the true arterial oxygen
saturation for display on the monitor.
SpMet, SpCO, and SpHb Measurements During Patient Motion
The Rad-87 displays measurements of SpCO, SpMet and SpHb during patient motion. However,
because of the changes in the physiological parameters such as blood volume, arterial-venous
coupling, etc. that occur during patient motion, the accuracy of such measurements may not be
reliable during excessive motion. When the Rad-87 does not have confidence in the value of a
parameter due to poor signal quality caused by excessive motion or other signal interference, the
measurement for the parameter will alternate with "---".
Rad-87 Pulse CO-Oximeter Operator’s Manual
1-7
1
Overview
Rainbow Acoustic Monitoring
Rainbow Acoustic Monitoring is a real time, continuous, non-invasive method for measuring
respiration rate based on respiratory sounds. Respiratory sounds include sounds related to
respiration such as breath sounds (during inspiration and expiration), adventitious sounds, cough
sounds, snoring sounds, sneezing sounds, and sounds from the respiratory muscles [1]. These
respiratory sounds often have different characteristics depending on the location of recording [2]
and they originate in the large airways where air velocity and air turbulence induce vibration in the
airway wall. These vibrations are transmitted, for example, through the lung tissue, thoracic wall
and trachea to the surface where they may be heard with the aid of a stethoscope, a microphone
or more sophisticated devices.
Rainbow Acoustic Monitoring Architecture
The following figure illustrates how a respiratory sound produced by a patient can be turned into
a numerical measurement that corresponds to a respiratory parameter.
PatientSensor
Respiratory
Airflow to
Sound
Sound to
Electrical
Signal
Envelope
Detection
Acquisiton
System
Electrical
Signal to
Digital Signal
RRa
Estimation
Signal
Processing
Digital Signal
to Respiratory
Measurement
Patient
The generation of respiratory sounds is primarily related to turbulent respiratory airflow in upper
airways. Sound pressure waves within the airway gas and airway wall motion contribute to the
vibrations that reach the body surface and are recorded as respiratory sounds. Although the
spectral shape of respiratory sounds varies widely from person to person, it is often reproducible
within the same person, likely reflecting the strong influence of individual airway anatomy [2-6].
Sensor
The sensor captures and transmits respiratory sounds (and other biological sounds) much like
a microphone does. When subjected to a mechanical strain, (e.g., surface vibrations generated
during breathing), the sensor becomes electrically polarized. The degree of polarization is
proportional to the applied strain. This is known as the ‘Piezoelectric effect’ in this manual. The
output of the sensor is an electric signal that includes a sound signal that is modulated by
inspiratory and expiratory phases of the respiratory cycle.
Acquisition System
The acquisition system converts the electrical signal provided by the sensor into a digital signal.
This format allows the signal to be processed by a computing device.
1-8
Rad-87 Pulse CO-Oximeter Operator’s Manual
Overview
Signal Processing
The digital signal produced by the acquisition system is converted into a measurement that
corresponds to the respiratory parameter of interest. As shown in the figure on the previous page,
this can be performed by, for example, determining the digital signal envelope or outline which in
turn may be utilized to determine the respiratory rate. In this way, a real-time, continuous breath
rate parameter can be obtained and displayed on a monitor which, in many cases, may be realtime and continuous.
The respiratory cycle envelope signal processing principle is similar to methods that sample
airway gases and subsequently determine a respiratory rate.
[1] A.R.A. Sovijärvi, F. Dalmasso, J. Vanderschool, L.P. Malmberg, G. Righini, S.A.T. Stoneman. Definition of terms for
applications of respiratory sounds. Eur Respir Rev 2000; 10:77, 597-610.
[2] Z. Moussavi. Fundamentals of respiratory sounds analysis. Synthesis lectures on biomedical engineering #8. Morgan
& Claypool Publishers, 2006.
[3] Olsen, et al. Mechanisms of lung sound generation. Semin Respir Med 1985; 6: 171-179.
[4] Pastercamp H, Kraman SS, Wodicka GR. Respiratory sounds – Advances beyond the stethoscope. Am J Respir Crit
Care Med 1977; 156: 974-987.
[5] Gavriely N, Cugell DW. Airflow effects on amplitude and spectral content of normal breath sounds. J Appl Physiol
1996; 80: 5-13.
[6] Gavrieli N, Palti Y, Alroy G. Spectral characteristics of normal breath sounds. J Appl Physiol 1981; 50: 307-314.
FastSat
FastSat enables rapid tracking of arterial oxygen saturation changes. Arterial oxygen saturation
data is averaged using pulse oximeter averaging algorithms to smooth the trend. When the Rad87 is set to FastSat “On”, the averaging algorithm evaluates all the saturation values providing
an averaged saturation value that is a better representation of the patient’s current oxygenation
status. With FastSat, the averaging time is dependent on the input signal.
1
Rad-87 Pulse CO-Oximeter Operator’s Manual
1-9
1
Masimo Rainbow SET Parallel Engines
This fi gure is for conceptual purposes only.
12
FST
MST
Overview
SpOC
Masimo SET DST®
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Rad-87 Pulse CO-Oximeter Operator’s Manual
System Description
Introduction
The Rad-87 Pulse CO-Oximeters are full featured devices designed for ease of operation. All
pulse CO-Oximetry mea
the front panel of the device. All user input is handled by control buttons on the front panel. The
sensor cable connections are located on the left side of the front panel for the Rad-87 horizontal
instrument and the bottom of the front panel for the Rad-87 vertical device.
■ Rad-87 offers full Masimo SET technology in a small compact device.
■ Rad-87 supports the full line of Masimo sensors and patient cables (see Section 8,
Sensors and Patient Cables).
■ Rad-87 supports standardization of sensors, and pulse CO-Oximetry technology
throughout the hospital.
■ The LCD Display identifies system settings, monitoring modes, alarm limits and
information from Patient SafetyNet or Philips VueLink (when connected). The LCD is located on
top of the instrument (Horizontal) or on the left of the instrument (Vertical).
surement information, as well as instrument status data, is displayed on
2
Rad-87 Pulse CO-Oximeter Operator’s Manual
2-1
2
1234567890123456
APOD
MAX
NORM
APOD
MAX
NORM
System Description
Rad-87 Pulse CO-Oximeter - Horizontal
13
20
21
2
NORM
NORM
NORM
NORM
APOD
APOD
APOD
APOD
SENSITIVITY
SENSITIVITY
MODE
MODE
SENSITIVITY
SENSITIVITY
19
4
MAX
MAX
MAX
MAX
12
SIQa
17
1618
RRa
CONTROL / INDICATORDESCRIPTION
The Device (instrument) Profile LED illuminates when the instrument has been set to user configured "default" settings. Upon
power up, the user configured default settings are retained and
Device Profile
1
LED
the Device Profile LED remain lit.
When user configured default settings are active, any changes
to the default settings cause the Device Profile LED to turn off
until the instrument is returned to the user configured default
settings or powered off.
5
15
RI
678
DISPLAY
DISPLAY
14
1110
9
ENTER
ENTER
Rad-87
Rad-87
rbc monitor
rbc monitor
12
13
2-2
Sensitivity
2
Button/Indicator
3
LCD Display
4
Signal I.Q. Index
5
Perfusion Index
Used to set the instrument into Maximum Sensitivity, Normal
Sensitivity, or APOD Mode.
The LCD display identifies system settings, monitoring modes,
alarm limits, and information from Patient SafetyNet or Philips
VueLink (when connected).
The Signal I.Q. provides an indication of the quality of the
acquired signal as well as the timing of the pulse. A green vertical LED bar rises and falls with the pulse, where the height of
the bar indicates the quality of the signal.
The Perfusion Index provides an indication of the percentage of
pulsatile signal to non pulsatile signal.
Rad-87 Pulse CO-Oximeter Operator’s Manual
System Description
CONTROL / INDICATORDESCRIPTION
Off: No connection to Masimo Patient SafetyNet or other compatible interface system.
Wireless
6
Indicator
Alarm Limits
7
Button
8
Display Button
DISPLAY
DISPLAY
Flashing Green: Rad-87 attempts to connect to Patient
SafetyNet or other compatible interface system.
Solid Green: Rad-87 is connected to the Patient SafetyNet or
other compatible interface system.
Used to enter the alarm menu to adjust Hi/Low SpO2, SpCO,
SpMet, SpHb, PI, PVI, RRa and pulse rate alarm limits.
The LED indicator (located above the Alarm Limits Button) will
illuminate when one or more of the factory default alarm settings is
changed to alert the user to verify alarm settings.
Allows movement through the 3 different display screens to view
sets of parameters and measurements.
Also used to exit setup menu screens and return the display to
screen 1.
Press and hold the button down for 5 seconds to scroll through
instrument settings on the LCD Display.
2
9
Alarm Bell
The Alarm Bell flashes red to indicate a high priority alarm.
Press the Alarm Silence Button to temporarily silence patient
and low battery alarms. Press the Alarm Silence Button
when the “SEN OFF” message is flashing (i.e. the sensor is
Alarm Silence
10
Button
removed from the patient) to acknowledge the end of monitoring. In this state, all further alarms are silenced until the Pulse
CO-Oximeter starts measuring patient parameters/measurements again.
NOTE: The alarm silence time can be set for 120, 90, 60 and
30 seconds.
Solid Green: Collecting data, no alarms.
Solid Yellow:
1. low priority alarms.
2. Not monitoring and no alarms.
System Status
11
Light
3. Sleep Mode.
4. Interface Alarms "Alarm Tones Off".
5. RRa mode only, no alarms.
Flashing Yellow:
1. Low parameter/measurement confidence.
2. Medium priority alarms.
Flashing Red: High priority alarms.
Rad-87 Pulse CO-Oximeter Operator’s Manual
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2
System Description
CONTROL / INDICATORDESCRIPTION
12
Enter Button
Brightness
13
Button
Up Button
14
Down Button
Respiration
15
Indicator
Rainbow
Acoustic
16
Monitoring
Signal Quality
Battery Charge
Level Indicator
17
SIQa
Used to enter the setup menus and to select/activate certain
entries within the menu/setup system.
Controls the level of the brightness for the LED display by providing 4 levels of brightness. Each press of the button increases
the brightness one level. Once level 4 is accessed, an additional
press of the button returns the brightness to level 1. Press the
Enter Button to save the desired choice.
Use these buttons to adjust the volume of the pulse beep tone.
Within the menu/setup system, these buttons are used to select
values within each menu option or the numeric value for the
parameter/measurement alarm feature.
Pressing and holding down these buttons allow for the rapid
scrolling of alarm limits.
The Respiration Indicator (RI) displays the level of sound that is
detected by the Acoustic Respiration Sensor. A tall vertical line
indicates a high sound level, while a short vertical line indicates
a low sound level. During SpO2 only or combined SpO2 and
Rainbow Acoustic Monitoring, the bar will be green. During
Rainbow Acoustic Monitoring only, the bar will be orange.
RI
The Rainbow Acoustic Monitoring Signal Quality (SIQa) displays
the confidence in the RRa value displayed on the monitor. A tall
vertical line indicates high confidence, while a short vertical line
indicates low confidence. During SpO2 only or combined SpO2
and Rainbow Acoustic Monitoring, the bar will be green. During
Rainbow Acoustic Monitoring only, the bar will be orange.
Provides a visual representation of the battery charge status.
When plugged into an AC outlet, only the first bar is illuminated.
When unplugged, bars illuminate to indicate battery charge. As
the battery discharges power, bar illumination decreases from
right to left.
A low battery status is indicated by a low audible beep and the
first battery bar to the left flashing green.
2-4
18
19
20
21
AC Power
Indicator
Power Button
Pulse
CO-Oximeter
Patient Cable
Connector
Speaker
The AC Power Indicator is illuminated when the Rad-87 is connected to AC power and during battery charging.
Used to turn the instrument on and off. Press the button once
to power on the device. Press the button for 2 seconds to power
off the device.
Connects to a Masimo Pulse CO-Oximeter sensor or Masimo
Pulse CO-Oximeter Patient Cable with a sensor.
Provides audible indication of alarm conditions, pulse tone and
feedback for key-presses.
Rad-87 Pulse CO-Oximeter Operator’s Manual
MAX
NORM
System Description
Rad-87 Pulse CO-Oximeter - Vertical
2
11
8
4
888
888
888
16
2
19
3
18
17
888
888
888
888
888
SIQa
NORM
MAX
8
97
76
12
RRa
RI
9
10
5
15
7
13
12
6
14
11
21
Rad-87 Pulse CO-Oximeter Operator’s Manual
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2-5
2
Rad-87 Rear Panel
System Description
1
2
3
Nurse Call
Connector
Serial Output
Connector
Equipotential
Ground
Connector
1
2
3
4
Use the 1/4” round Connector to interface with a nurse call system.
This is a stereo output and should be utilized with a stereo cable. All
external device connections to the Nurse Call Connector must be IEC60950 compliant.
Use the Serial Output Connector to connect a serial device, including a
serial printer, RadNet Interface Module, or PC, to the Rad-87. See Section
7, Output Interface Specifications. All external device connections to the
Serial Output Connector must be IEC-60950 compliant.
Use the Equipotential Ground Connector for grounding.
2-6
4
AC Power
Receptacle
For continuous operation and/or battery recharging, plug the AC power
cord into an AC power receptacle.
Rad-87 Pulse CO-Oximeter Operator’s Manual
System Description
7
Symbols
The following symbols may be found on the Rad-87 or packaging and are defined below:
RS-232
Equipotential Ground Terminal
Consult accompanying documents
Nurse Call Interface
WEEE compliant
Mark of Conformity to European Medical Device Directive 93/42/EEC
2
Rx Only
5%-95% RH
+70 C
-40 C
+1060 hPa - +500 hPa
95 mmHg - 375 mmHg
EC REP
Federal law restricts this instrument to sale by or on the order of a
physician (USA audiences only)
Year of manufacture
Storage humidity range: 10% to 95%
Storage temperature range: -40˚C to +70˚C
Storage altitude range: 500 mbar to 1060 mbar
Keep dry
Fragile/breakable, handle with care
Indicates wireless Radio signal (wireless radio model only)
EU authorized representative
Defi brillation Proof Type BF
Caution
Manufacturer
Electrical Testing Laboratory cer tification
Rad-87 Pulse CO-Oximeter Operator’s Manual
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2
LCD Display
The LCD Display shows radio communication information when radio communication is active
(wireless radio model only). It also shows system information. All Rad-87 models are equipped
with an LCD display which is located on the top panel of a horizontal model, or on the left side
panel of a vertical model.
The LCD Display illuminates upon start up and displays the installed parameter/measurement's
low and high alarm limits. Once the Rad-87 completes system initiation, the display light turns off.
As the front panel buttons are pressed, each menu selection is shown on the LCD Display.
When Rad-87 actively communicates with another system using the radio feature, the LCD
Display shows the following:
■ Patient SafetyNet: The LCD Display shows the information sent from the Patient
SafetyNet to the Rad-87.
■ Philips VueLink: The LCD Display shows "VueLink Conn" and "Alarm Tones On" or
"Alarm Tones Off".
NOTE: When the Rad-87 is interfaced to the Philips VueLink and the LCD Display shows
"Alarm Tones On", audible alarms are active at the instrument. When the LCD Display
shows "Alarm Tones Off", audible alarms are inactive at the instrument.
If the Display Button is pressed down for 5 seconds, the LCD Display shows the following settings
three times and then returns to the default screen. The display cycle can be interrupted by
pressing any button except for the Sensitivity or the Alarm Silence Buttons.
■ System Settings
■ Monitoring Mode: Normal, Sleep or Home
■ Installed parameter/measurement's low and high alarm limits
■ Sensor Time (if applicable)
■ Audible Alarm
■ Alarm Volume
■ Alarm Silence
■ Alarm Delay
■ Rapid Desat
■ Sensitivity
■ Averaging Time
System Description
2-8
Rad-87 Pulse CO-Oximeter Operator’s Manual
Setup
Rad-87 Setup
Introduction
Before the Rad-87 Pulse CO-Oximeter can be used in a clinical setting, it needs to be inspected,
properly setup and the batteries need to be fully charged.
Unpacking and Inspection
Remove the instrument from the shipping carton and examine it for signs of shipping damage.
Check all materials against the packing list. Save all packing materials, invoice and bill of lading.
These may be required to process a claim with the carrier.
If anything is missing or damaged, contact the Technical Service Department. The contact
address and phone numbers are listed in Section 9, Service and Repair.
Preparation for Monitoring
The following sections of the manual describe the preparation, set-up and initial installation of
the Rad-87 Pulse CO-Oximeter.
Rad-87 Power Requirements
Always use a hospital grade, AC power cable to connect the Rad-87 to an AC power source.
Verify the AC power voltage and frequency before use. Verify the power source can provide
adequate power rating as indicated on the rear panel of the Rad-87. The Rad-87 is designed to
operate on 100 to 240VAC, 47-63 Hz. The instrument is rated at 20 VA max.
Connect a hospital grade power cable to the power entry module of the Rad-87 device(IEC-320
connector type at the device). Connect the power cable to an AC power source. Ensure the
instrument is adequately powered by verifying that the AC power indicator on the Rad-87 is
illuminated.
CAUTION:
• Connect the Rad-87 only to a hospital-grade receptacle (for hospital use).
• Do not under any circumstances remove the grounding conductor from the power
plug.
• Do not use extension cords or adapters of any type. The power cord and plug must
be intact and undamaged.
• Use the power cord as the means to disconnect the instrument from the main power
supply.
• If there is any doubt about the integrity of the protective earth conductor
arrangement, operate the Rad-87 on internal battery power until the AC power
supply protective conductor is fully functional.
• To ensure patient electrical isolation, connect only to other equipment with
electrically isolated circuits.
• Do not connect to an electrical outlet controlled by a wall switch or dimmer.
3
Rad-87 Pulse CO-Oximeter Operator’s Manual
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