Blood Parameter Monitoring System 550

Similar documents
CDI System 500. Blood Parameter Monitoring System. Continuous blood parameter monitoring for improved blood gas management

CDI Blood Parameter Monitoring System 500 A New Tool for the Clinical Perfusionist

CAPIOX SX Family of Oxygenators

CAPIOX SX Family of Oxygenators

CAPIOX FX Advance. Oxygenator with Integrated Arterial Filter and Hardshell Reservoir

CAPIOX SX Family of Oxygenators

Specifications...Easy CLIA Classification: Sample Type: Blood gas analyzer operation has never been simpler Sample Size: Measured Parameters PCO2

Prescriptive Oxygenation

Patients come in a range of sizes. Now your oxygenator does, too.

Point-of-Care Testing: A Cardiovascular Perfusionist s Perspective

New Generation System M, leading the World in the Non-Invasive Measurement of Critical Real-Time Parameters.

1.060 Set-Up and Priming of the Bypass Circuit. Perfusion Technology Department. Perfusionists

Overview. Front Panel: Keypad and Display

A complete family of Pediatric Perfusion Systems

Optical Dissolved Oxygen Meter

SPECIFICATIONS PARTICLE SENSOR KS-18F Higashimotomachi, Kokubunji, Tokyo , Japan

D-Opto Dissolved Oxygen Sensor Operation Manual for the D-Opto 4-20mA

SPECIFICATIONS PARTICLE SENSOR KS-19F Higashimotomachi, Kokubunji, Tokyo , Japan

Optimized Perfusion Management and Patient Outcome

Optical Dissolved Oxygen Meter

Columbus Instruments

- Repeat calibration until desired results are reached otherwise set SW2 and SW1-8 open.

The HumiSys. RH Generator. Operation. Applications. Designed, built, and supported by InstruQuest Inc.

Rad-57 Pulse CO-Oximeter

Indications for Use: Caution: Note:

D-Opto. Dissolved Oxygen Sensor. Operation Manual (Software Version 1.0)

UNDERSTANDING, ACCELERATED

INSPIRE Min.I. Redefining minimally invasive approach to perfusion. Expand your choices with INSPIRE Min.I.

TECHNICAL BULLETIN. TriControls. Control Materials for Liquid QC and Calibration Verification

GA-300 Gas Analyzer. Technical Note. Overview. Front Panel. iworx Systems, Inc. GA-300

GasSense NDIR User Manual

Mass Flowmeters. Mass Flowmeters for Gases

D-Opto Dissolved Oxygen Sensor Operation Manual

Used with Dissolution Tester for Fraction and Flow Measurements

D-OptoLogger Dissolved Oxygen Logger Operation Manual

Recommendations for Standards. Monitoring. Cardiopulmonary Bypass

The HumiPyc ( Model 2) - Gas Pycnometer; Density, Moisture, Permeation Analyzer; Filter Integrity Tester; RH sensor Calibrator

* Analysis of TCG ( Total Combustible Gas ) and 6 kinds of Gases * High Sensitivity for C 2

INSPIRE TM C The integrated closed system oxygenator for gentle perfusion

Aespire 7100 Essential performance Compact design

HumiSys HF High Flow RH Generator

Stat Profile Prime Critical Care Analyser

The HumiPyc - Model 1 - Gas Pycnometer; Density, Moisture, Permeation Analyzer; RH sensor Calibrator

ila ACTIVVE SYSTEM PLATFORM

BUYER S GUIDE AQUAlogger 530WTD

CRRT with Prismaflex LEADS TO More Flexibility, Ease of Use and Safety

LUMAZOTE T ECHNICAL BRO CHU RE

SCIENTIFIC DATA SYSTEMS, INC. Depth Tension Line Speed Panel. DTLS Manual

Contacts. Quick Start Guide

MEGAS 2.0. Gas analysis with direct C-Level Calculation and Bus-Connection. Data sheet

Narkomed MRI-2. A perfect fit for the MRI environment. Because you care. Emergency Care Perioperative Care Critical Care Perinatal Care Home Care

Pegas 4000 MF Gas Mixer InstructionManual Columbus Instruments

Pool and Spa. Water Testing

AQUADEX FLEXFLOW SYSTEM QUICK REFERENCE GUIDE

2008T Hemodialysis Machine with CLiC Device Training Guide

AIR FLOW CALIBRATORS Single Sensor Designs

VT900. Gas Flow Analyzer. Technical data. Key benefits and features:

FLUORESCENCE DETERMINATION OF OXYGEN

VT650. Gas Flow Analyzer. Technical data. Key benefits and features:

Considerations in Circuit Miniaturization

Using Modbus Protocol with the ALTUS Net Oil Computer. Instruction Manual

INSPIRE Oxygenator Family

Hot extractive multi-channel gas analyser for continuous process and emissions monitoring.

Application Note 268 Metabolic Analysis Systems and Propane-based Verification

VT900A + VAPOR. Technical data. One Solution. Auto-detection to Ensure Patient Safety. Key benefits and features

D Quality and Precision you can Trust in Oxygen Administration CONVENTIONAL FLOWMETER DIGITAL FLOWMETER COMPACT FLOWMETER

SomnoSuite FAQ. Setup. Calibration 4. What are the calibration requirements for the SomnoSuite? Settings

Clinical Engineering. Equipment (Heart-lung machines)

Pneumatic high-pressure controller Model CPC7000

Adult All Integrated Mini Bypass System

Oxicom 2100 INSTRUCTION MANUAL

DM01. Battery Powered Precision Digital Gauge. Stainless Steel Sensor. class 0.05

Sensor. Directions For Use

BUBBLER CONTROL SYSTEM

DM01. Please visit our website: Battery Powered Precision Digital Gauge. Stainless Steel Sensor. class 0.05

Oxicom 3000 INSTRUCTION MANUAL

Hot extractive multi-channel gas analyser for continuous process and emissions monitoring.

Datasheet: K-30 ASCII Sensor

Independent Health Facilities

STANDARD OPERATING PROCEDURES DIVISION OF COMPARATIVE MEDICINE UNIVERSITY OF SOUTH FLORIDA

Instruction Manual. Biogas Analyzer InCa Bio 04

HUMOR 20. High-precision Humidity Calibrator HUMOR 20. Operation

ETd 04. Battery Powered Precision Digital Gauge. Stainless Steel Sensor. Type: ETd 04. class 0.05

TH-1800-T TRX-700-CNG Converter

Preclinical Evaluation of a New Hollow Fiber Silicone Membrane Oxygenator for Pediatric Cardiopulmonary Bypass: Ex-vivo Study

In Vitro Comparison of the New In-Line Monitor BMU 40 versus a Conventional Laboratory Analyzer

Application Note 183. Page 1 of Aero Camino, Goleta, CA Tel (805) Fax (805)

Resuscitaire Neonatal Open Care

IV IV Training Guide

User s Guide. Pressure Controller for liquid delivery systems

OxyScan Graphic. Operating Instructions. UMS Micro-oxygen sensor 501. Microprocessor instrument

bespoke In general health and rehabilitation Breath-by-breath multi-functional respiratory gas analyser In human performance

Optical Time Domain Reflectometer. Operating System 2 Windows XPe Windows XP Pro with desktop option 256 MB

What is optimal flow?

Test Plans & Test Results

Pressure Sensor 150 to 1150 mbar Product Number: ENPRS015

F&J SPECIALTY PRODUCTS The nucleus of quality air monitoring programs

HUMOR 20. High Accuracy Humidity Calibrator. Water T, p1 HUMOR 20 V1.0

Dräger RZ 7000 Test Equipment

Features. Main Voltage: Vdc. Input Control Signal: 0-5 Vdc or 4-20 madc (Sourcing) Monitor Output Voltage: 0-5 Vdc or 4-20 madc (Sourcing)

Transcription:

Technical Compendium CDI Blood Parameter Monitoring System 550 An overview of the CDI System 550 and its industry leading technology.

CDI System 550 Measures or Calculates 12 Critical Blood Parameters The CDI Blood Parameter Monitoring System 550 (CDI System 550) was designed and developed to enable continuous monitoring of in-line blood parameters ph,, PO 2, K +, temperature, SO 2, hematocrit, hemoglobin, base excess, bicarbonate, oxygen consumption and oxygen delivery during cardiopulmonary bypass (CPB). Using optical fluorescence and reflectance technologies and disposable sensors placed in the extracorporeal circuit, the CDI System 550 monitors and displays real-time changes in blood parameters. The system provides continuous results and also reduces the need to consume or dispose of blood samples, as is required in laboratory analyzers. Figure 2: The CDI System 550 shunt sensors and cuvette are placed in the extracorporeal circuit allowing real-time response to changes in blood parameters. System Accuracy Limits The CDI System 550 has been subjected to rigorous bench tests to simulate the clinical use of the device and assessed for accuracy and precision over the system operating ranges of the measured parameters. Blood samples taken from the test circuit were analyzed in conventional analyzers, and these results were compared (on a sample-by-sample basis) to analyses provided by the CDI System 550. Accuracy values were generated by using the results from the CDI System 550 minus conventional analyzer results. Table 2 shows the mean difference between the two measurement techniques, and the standard deviation of the distribution differences found. Mean Table 2: Mean measurement error and standard deviation differences found. Standard ph Sensor 0.007 0.014 Sensor 0.0 2.9 Sensor Arterial (>80 mm Hg) -0.5 5.5 Sensor Venous (<80 mm Hg) -0.4 0.8 Oxygen Saturation Value -0.5 1.6 Total Hemoglobin Value -0.17 0.54 Potassium Sensor 0.05 0.18 Hematocrit Value -0.5 1.7

CDI Blood Parameter Monitoring System 550 System Overview The CDI System 550 consists of a monitor to process and display data in a user-selected combination of blood parameter modules (BPMs) and a hematocrit/oxygen saturation probe (H/S probe), disposable sterile sensors and H/S cuvette, and a calibrator. The disposable sensors and H/S cuvette are installed in the corresponding cable heads at a point in the circuit which will allow adequate exposure to blood (see Figure 1). Users select the combination of BPMs and H/S probe depending on the parameters to be monitored (see Table 1). BPMs, which measure arterial or venous ph, pco2, po2, and K+, use optical fluorescence technology in conjunction with the disposable shunt sensor. The CDI System 550 calculates the following important parameters: arterial oxygen saturation, base excess, bicarbonate, venous oxygen consumption, and oxygen delivery. The H/S probe, which measures hematocrit, hemoglobin and oxygen saturation, uses optical reflectance technology in conjunction with the disposable H/S cuvette. Figure 1: Components of the CDI System 550. Parameters Measured Components Technology Utilized Arterial, ph, pco2, po2, and K+ Arterial BPM with shunt sensor Optical fluorescence Venous, ph, pco2, po2, and K Venous BPM with shunt sensor Optical fluorescence Hct, Hgb, O2 saturation H/S probe with H/S cuvette Optical reflectance + Table 1: Component configurations of the CDI System 550. System calculates the following important blood parameters: Arterial SO2, BE, HCO3, VO2, DO2

Optical Fluorescence with the CDI Shunt Sensor The CDI System 550 uses optical fluorescence technology with the shunt sensor to measure ph,,, and K + in blood. The shunt sensor contains four microsensors one each for ph,,, and K + and a thermistor to measure temperature. Temperature is measured at the shunt sensor site and does not represent the patient s actual temperature. The microsensors are in direct contact with the blood, enabling rapid response time. The CDI System 550 shunt sensor can be placed in any arterial or venous shunt or purge line with continuous flow (see Figure 2). A minimum blood flow requirement of 35 ml/min is necessary for proper measurement. During normal operation of the CDI System 550, light emitting diodes (LEDs) in the cable heads direct light pulses toward the microsensors, which contain fluorescent dyes (see Figure 3). As these pulses strike the microsensors, fluorescent light is emitted. The intensity of the fluorescent light will vary depending on the ph,,, and K + in the blood. A photo detector in the cable head measures the intensity of the fluorescent light and converts it to numerical data which is displayed on the monitor screen. Optical Reflectance with the CDI H/S Cuvette The CDI System 550 uses optical reflectance technology with the H/S probe to measure total hemoglobin and percent oxyhemoglobin, which exhibit different absorbance and reflectance characteristics at different wavelengths. The flow-through H/S cuvette is installed directly in the tubing circuit. A window in the cuvette allows optical measurement without blood contact (see Figure 1). LEDs in the H/S probe direct light pulses of specific wavelength at the blood through the optical window in the H/S cuvette (see Figure 4). The absorbance characteristics of hemoglobin and oxyhemoglobin can be measured by the photodetector in the H/S probe. Hemoglobin and oxyhemoglobin measurements are taken every 18 milliseconds. The output of the detector is converted to numerical data which is displayed on the monitor s screen. The ph,, and measurements are taken every second. The K + measurement is taken every six seconds. Figure 4: Optical reflectance: CDI H/S cuvette and probe. Cuvette Blood Flow Rates The CDI System 550 should only be used where there is blood flow through the extracorporeal circuit. To perform accurately, the H/S cuvette requires blood flow rates shown in Table 3. Figure 3: Optical fluorescence: CDl System 550 shunt sensor and BPM cable head. H/S Cuvette Connector Size Minimum Flow 1/2 1.0 LPM 7.0 LPM 3/8 0.5 LPM 4.0 LPM Maximum Flow 1/4 0.2 LPM 1.5 LPM Table 3: Restoration of blood flow above the minimum through the H/S cuvette will restore performance of the system.

CDI Blood Parameter Monitoring System 550 Calibration of the Microsensors To perform the calibration, the system measures the fluorescent intensities emitted by a microsensor as it is exposed to Gas A and then Gas B. It then plots these two fluorescent measurements as a function of the predefined values of the calibration gases (see example for in Figure 5). The system uses the two points to create a slope and a y-intercept for that parameter. During bypass, as the system measures the fluorescent intensity of the blood in the extracorporeal circuit, it uses the slope and intercept to extrapolate corresponding blood parameter values. Y-intercept ph,, Sensors Sensors for ph,, and are calibrated using a two-point tonometered calibration system, similar to the system used to calibrate the electrodes in laboratory analyzers. Measured Flourescent Intensity Gas B Value (25.7) Slope Gas A Value (176.4) The calibration process uses the CDI Calibrator 540 and two canisters of calibration gases, Gas A and Gas B. The calibration gases contain precise, defined levels of and gases (see Table 4). During calibration, the shunt sensors (attached to the BPM cable heads) are placed in the calibrator, allowing the calibration gases to flow through the buffer solution contained in each shunt sensor. This exposes the microsensors to the gases with known and values. A predefined ph value for each calibration gas is determined by the interaction of the known level in the calibration gas with the buffer solution. Gas A (Model CDI506) Gas B (Model CDI507) ph 7.171 ph units 7.599 ph units 7.5% ±0.1% (55.6 mm Hg) 27.5% ±0.1% (203.9 mm Hg) 2.8% ±0.1% (20.8 mm Hg) 4.0% ±0.1% (29.7 mm Hg) Table 4: Calibrating gas values for the CDI System 550. Balance of gas mixture is nitrogen (N2). Gases measured at 1 atm and 21 C. Figure 5: Example of a 2-point calibration for sensor. K + Sensor Calibration of the K + microsensor also relies on a twopoint slope and intercept calibration process. The slope is defined using the factory-measured value encoded in the calibration code entered from the sensor pouch during the initial calibration sequence (as described in the Operator s Manual). The intercept point is obtained after the initiation of bypass using the K + level in a patient blood sample: the sample is drawn; the CDI System 550 K + reading is stored in the system; the sample is processed using the laboratory analyzer; the analyzer s value is then entered into the CDI System 550 to recalibrate the stored reading. H/S Probe Blood Parameter Value (mmhg) Each H/S probe is precalibrated at the factory for oxygen saturation, hematocrit, and hemoglobin values; and further calibration is not required before going on bypass. To meet system accuracy limits, perform an in vivo calibration as outlined in the Instructions For Use.

Product Specifications Displayed Parameters System Operating Ranges Monitor Power Requirements and Specifications 100-240 VAC, 50/60 Hz 12 volt backup battery Data Output Port: RS-232 serial interface Pumping Systems Input Port: RS-232/RS-485 serial interface Model CDI510H Shunt Sensor Sterile, heparin-treated Priming volume 1.2 ml System Display Ranges ph 6.8 to 7.8 ph units 6.5 to 8.5 ph units 10 to 80 mmhg (1.3 to 10.7 kpa) 20 to 500 mmhg (2.7 to 66.7 kpa) 10 to 200 mmhg (1.3 to 26.7 kpa) 10 to 700 mmhg (1.3 to 93.3 kpa) K + 3.0 to 8.0 mmol/l 1.0 to 9.9 mmol/l Temperature (T) 15 to 40 C 1 to 45 C Oxygen saturation (SO 2 ) 60 to 100% 35 to 100% Hematocrit (Hct) 15 to 45% 12 to 45% Total hemoglobin (Hgb) 5.0 to 15.0 g/dl 4.0 to 15.0 g/dl Oxygen Consumption (VO 2 ) Oxygen Consumption (Indexed) Oxygen Delivery (DO 2 ) Oxygen Delivery (Indexed) 10 to 400 ml/min 10 to 400 ml/min 1 to 999 ml/min/m 2 10 to 2000 ml/min 10 to 2000 ml/min 1 to 20000 ml/min/m 2 Base Excess (BE) -25 to 25 meq/l -25 to 25 meq/l Bicarbonate (HCO 3 ) 0 to 50 meq/l 0 to 50 meq/l Blood flow (Q) 0.0 to 9.9 L/min Product Specification Size (H x W x D) Weight Monitor 28 cm x 38 cm x 17 cm 7.9 kg Calibrator 32 cm x 21 cm x 26 cm 3.81 kg Serial Data Output The CDI System 550 has a serial data output port, which allows use with an external serial printer, computer, or data acquisition system. When the CDI System 550 is attached to an external device, users can send patient data (blood parameter values over the course of an operation) from the CDI System to this device. Output Type Data Bits Parity Serial Data Pump Flow A second serial interface port, called the pump interface, allows the CDI System 550 to receive flow (Q) data from selected pumps. These are the Terumo Advanced Perfusion System 1, Sarns Perfusion System 9000, Sarns Modular Perfusion System 8000, Sarns Centrifugal Pump, Sorin/LivaNova S5/C5, Medtronic Bio-Console 550/560 Centrifugal Pump, HL20/Rotaflow Console (Getinge/Maquet/Jostra), and the Terumo NEO System. When using the pump interface port with the Terumo Advanced Perfusion System 1, data can also be sent from the CDI System 550, to display blood parameter values on the Central Control Monitor. System Display Update Every six seconds ASCII Output, Packet Mode or Terumo Systems 8 data/1 stop or 7 data/2 stop none, even, or odd Baud Rate 1200, 2400, 4800, 9600, 19200, or 38400 Output Interval 0, 0.1, 0.5 minutes, or 1-10 minutes ( 0 means the CDI System 550 will send data on demand only) System Measurement Cycle Time ph,, = one measurement per second K + = one measurement per six seconds SO 2, Hct, Hgb = one measurement per 18 milliseconds H/S Cuvette Sterile Priming volume for # 6914 (1/4 x 1/4 ) = 4 ml Priming volume for # 6913 (3/8 x 3/8 ) = 9 ml Priming volume for # 6912 (1/2 x 1/2 ) = 16 ml Terumo Cardiovascular Group 6200 Jackson Road, Ann Arbor, MI 48103-9300 USA Tel: +1.734.663.4145 Fax: +1.734.663.7981 Email: cardiovascular@terumomedical.com For a complete list of offices, please consult our website. www.terumo-cvgroup.com/offices Terumo Corporation 2-44-1 Hatagaya, Shibuya-Ku, Tokyo 151-0072 Japan Tel: +81.3.3374.8111 Fax: +81.3.3374.8399 Terumo Europe NV Authorized EC Representative Interleuvenlaan 40, 3001 Leuven, Belgium Tel: +32.16.38.12.11 Fax: +32.16.40.02.49 Terumo Asia Holdings Pte. Ltd. 300 Beach Road, #33-03, The Concourse Singapore 199555 Tel: +65.6.295.1792 Fax: +65.6.294.2329 Terumo Latin America Corporation 8750 NW 36th Street, Suite 600, Miami, FL 33178 USA Tel: +1.305.477.4822 Fax: +1.305.477.4872 2018 Terumo Cardiovascular Systems Corporation. October 2018. 891485 Terumo is a registered trademark of Terumo Corporation. Sarns is a trademark and CDI is a registered trademark of Terumo Cardiovascular Systems Corporation.