No part of this publication may be
reproduced without the expressed written
permission of Roche Diagnostics GmbH.
Disclaimer
Roche Diagnostics GmbH makes no representation or warranties with respect to
the contents of this documentation and
specifically disclaims any implied warranties,
including the implied warranties of
merchantability and fitness for a particular
purpose.
In no case shall
Roche Diagnostics GmbH be liable for
incidental or consequential damages.
FINAL 2.1 - February 2000
Elecsys 1010Service Manual
How to Use this ManualHow to Use this Manual
How to Use this Manual
How to Use this ManualHow to Use this Manual
It may occur that identical components occur several times in Elecsys 1010 and perform different functions. Every component
has an ID number in the figures.
In Chapter 4 Mechanics the part name is used. In addition, the information is contained whether the part can be ordered as a spare
part ,or if it consists of several components.
In Chapter 8.3 Spare Parts, components that cannot be ordered individually do not have an ID. The part name is followed by a
cross reference to the spare part, in which the component is contained.
419Photo Coupler Holder, Part of 326
327Photo Coupler Holder, Part of 326
FINAL 2.1 - February 2000
Photo Coupler Assy, preadjusted, Part of 326Photo Coupler Assy, preadjusted, Part of 326
Photo Coupler Assy, preadjusted, Part of 326
Photo Coupler Assy, preadjusted, Part of 326Photo Coupler Assy, preadjusted, Part of 326
Photo Coupler Assy, preadjusted, Part of 326Photo Coupler Assy, preadjusted, Part of 326
Photo Coupler Assy, preadjusted, Part of 326
Photo Coupler Assy, preadjusted, Part of 326Photo Coupler Assy, preadjusted, Part of 326
The sequence of operation of Elecsys 1010 is as follows:
Pick-up of sample and
reagents
Incubation
Pick-up of incubate and
addition of wash and buffer
solutions
Measurement of
luminescence, data
evaluation and output
S/R rotor
MFA s/r
S/R dilutor
Clot detection
Incubation rotor
Temperature (incubator)
Bottle temperature
MFA assy (sipper)
Sipper dilutor
Measuring cell
Potentiostat
PMT
Temperature
FINAL 2.1 - February 2000
Chapter 1Page 1
Elecsys 1010Service Manual
IntroductionIntroduction
Introduction
IntroductionIntroduction
When the instrument cover top is closed, loading of two
This System Description explains functions and their
interrelationship.
Short Description of the InstrumentShort Description of the Instrument
Short Description of the Instrument
Short Description of the InstrumentShort Description of the Instrument
The Elecsys 1010 is a Multi-Batch-Analyzer which analyzes
immunological tests according to the principle of electrochemical luminescence (ECL). This measuring system is
also called ORIGEN® technology. The emitted photons are
measured with a photomultiplier (photon counts).
STAT (short-turn-around-time) samples is possible outside
of the direct range of action of the MFA arms and rotors. Pull
out the control panel like a drawer, behind which the holder
for the above mentioned STAT samples is located. By
pushing the control panel back in, the STAT samples are
within the direct range of the pipette needle under the closed
instrument cover without mechanically or logically
interrupting an ongoing process.
Elecsys 1010 has two driving blocks for the sample/
reagent rotor and the incubation rotor.
Elecsys 1010 has all the modules and components
necessary for executing the entire analysis including the
measurements and evaluation. When operating the
instrument (e.g. for test selection and sample placement),
the user is guided by menus on the keyboard. Softkeys and
function keys can be used for interacting with the
instrument. Samples (both in primary tubes and in secondary
cups), reagents and calibrators are to be positioned on the
sample/ reagent (s/r) rotor. A special reagent bottle
combination (RackPack) contains the reagents needed for
a test. Each RackPack has a 2-dimensional bar code with
all data specific of the test. Positive user identification
(PSID) is possible with samples in primary tubes. With
samples in secondary cups, patients are identified manually
by using the keyboard. After reading the bar code, the RUN
is started and performed automatically.
CalibrationCalibration
Calibration
CalibrationCalibration
At the beginning of a RUN a calibration can be performed.
The system imposes a full calibration
-if a new reagent (with a new batch number) is put in.
-at regular time intervals (specific of the reagent)
This is done by calibrators specific of the test (normally 2
levels).
Quality ControlQuality Control
Quality Control
Quality ControlQuality Control
The instrument software contains all programs necessary
for the quality control. Data input, management and security
is done by using the keyboard.
Instrument AssemblyInstrument Assembly
Instrument Assembly
Instrument AssemblyInstrument Assembly
ELECSYS 1010 is a desk top model and is suitable for a
standard laboratory bench. The instrument can be loaded
from the front. The instrument cover top must be closed
during the RUN.
The sample/reagent rotor is divided into 6 segments. The
two outer trays can hold samples in so-called primary tubes
of various diameters and heights. Control and calibrator
liquids are normally also positioned in these trays. A
maximum of 6 RackPacks with 2 reagents and one bead
container each are arranged radially between the sample
segments. The two inner trays are provided for secondary
cups. The labels on the primary tubes on the two outer trays
and the RackPacks can be read by a bar-code reader
(BCR).
The rotor assy is equipped with toothed disks and LEDs for
controlling and checking the rotor functions. The sample/
reagent rotor is removable.
The incubation rotor is an aluminum block heated to 37°C.
It can hold 4 identical segments with 32 incubation vessels
each. These incubation vessels are small conical plastic
tubes that hold the incubation material. When preparing the
RUN, the user loads the incubation rotor with the 4 segments.
The incubation rotor is not removable.
Detection ModuleDetection Module
Detection Module
Detection ModuleDetection Module
The ECL measuring cell is located in the detection module.
The photomultiplier (PMT), which is shielded from
electromagnetic radiation by a special housing, as well as
the holder for the pre-amplifier and the high-voltage module
are located above the measuring cell. The magnet with the
drive for the bead capturing is under the measuring cell. The
magnet is moved vertically from below to the bottom of the
measuring cell by a motor/spindle unit. This internal
assembly is incorporated in a housing, which serves as an
optical, electrical and thermal shield. The optimum
temperature for the process of ORIGEN
®
technology is
28°C. Therefore, the temperature of the entire detection
module is set at 28°C.
MFA AssysMFA Assys
MFA Assys
MFA AssysMFA Assys
The instrument is designed to be serviced exclusively from
the front, i.e. all components can be taken out and exchanged
from the front.
The functional elements (dilutors, rotors, wash stations,
bottle temperature assys) have covers that can be easily
removed for service. The keyboard is located outside of
the closed instrument cover top.
FINAL 2.1 - February 2000
The MFA assys transport the
a) sample/reagent from the sample/reagent rotor to
the incubation vessels and
b) incubation material as well as ProCell and CleanCell
to the measuring cell.
The ProCell is a liquid required for generating the ECL
signal. CleanCell is an auxiliary liquid used for cleaning the
measuring cell and preparing it for the next measurement.
Page 2
Chapter 1
Elecsys 1010Service Manual
All components involved in the sample/reagent processes
are cleaned with system water.
Arms are mounted on the MFAs. The sample arm holds the
sample needle and the bead mixer. The sipper arm holds
the sipper needle. The LLD electronic system and the
contact sensory system (crash detection) are also located
in the arms. The assembly of both MFAs is identical except
for the arm adapters.
The contact sensory system consists of mechanical and
electronic hardware components. It records the contact of
the needle and the bead mixer with a solid surface, e.g. the
bottom of the container or a closed RackPack.
Rotation and lifting are controlled by toothed disks / vanes
and photo couplers. Horizontal and vertical movements are
normally performed in succession.
Bottle TemperatureBottle Temperature
Bottle Temperature
Bottle TemperatureBottle Temperature
Elecsys 1010 has 2 bottle temperature systems, one for
ProCell bottle and one for CleanCell bottle. Bottles are
refrigerated to approx. 8°C and will reach the desired
temperature of 28°C after approx. 1hr. The actual
temperature is controlled by NTC resistors in the housing
walls.
by two membrane pumps.
Another membrane pump is located on the back of the
s/r dilutor. This pump has the following functions:
1. Fill the s/r system with system water.
2. Rinse s/r tubing and needle after pipetting.
ValvesValves
Valves
ValvesValves
The flow of system water to the wash stations for bead
mixer, s/r needle and sipper needle is controlled by four
valves (2-way).
The water discharge from the wash stations is controlled by
four valves (3-way).
Various liquid levels in the wash stations are possible by
setting the 3-way valves at different positions.
Another valve controls the flow of the measuring material
to the measuring cell.
Wash StationsWash Stations
Wash Stations
Wash StationsWash Stations
Elecsys 1010 has four wash stations. There are two wash
stations for the s/r needle and one wash station each for the
sipper needle and the bead mixer. The wash stations use
system water.
LLDLLD
LLD
LLDLLD
DilutorsDilutors
Dilutors
DilutorsDilutors
Elecsys 1010 has 2 dilutors. These are glass cylinders in
which pistons are precisely moved at a defined number of
increments. When going down, liquids are aspirated. When
going up, an exact amount of liquid is discharged by
displacement. The direction of the liquid flow can be
controlled by reversing valves at the entrance of the dilutors.
The dilutors are moved by stepping motors.
The two dilutors have different functions:
The needle of the s/r dilutor aspirates the sample, reagents
and microparticles in a defined sequence. The media are
separated from the system liquid (H
The aspirated material is discharged into the incubation
O) by an air bubble.
2
vessels through the sample needle. After the sample/
reagent process, the needle is internally cleaned with
system water by means of the rinsing pump.
The sipper dilutor is located behind the measuring cell and
pulls the incubate, ProCell and CleanCell in a defined
sequence through the measuring cell. Then the
measurement is performed. After that the needle is internally
rinsed with CleanCell. The needle is externally cleaned with
system water.
PumpsPumps
Pumps
PumpsPumps
The s/r and the sipper needle have one liquid level detection
unit (LLD) each. The s/r-LLD detects samples, reagents,
incubate and wash water. The sipper LLD detects incubate,
ProCell, CleanCell and wash water.
Clot DetectionClot Detection
Clot Detection
Clot DetectionClot Detection
On the sample/reagent side, there is a risk of (blood) clot
formation in the samples. This can be caused by pollution
and/or belated clotting of the samples. Changes in the
vacuum profile when picking up the samples are identified
as clots by means of a differential pressure converter. The
appropriate cleaning steps will be taken.
PMTPMT
PMT
PMTPMT
The photomultiplier tube (PMT) receives and amplifies the
luminescence signal and converts it to an equivalent voltage.
The PMT window is located at a defined distance vertically
above the cell work electrode. High-voltage power supply
is required for amplification.
High-VoltageHigh-Voltage
High-Voltage
High-VoltageHigh-Voltage
High-voltage is used for amplifying the luminescence signal
generated in the measuring cell. The control range spans
from 500 V to1100 V.
The instrument has 4 built-in pumps. The waste pump, a
peristaltic pump, pumps the measuring material and system
liquids into the waste container. The wash stations are fed
FINAL 2.1 - February 2000
PotentiostatPotentiostat
Potentiostat
PotentiostatPotentiostat
The potentiostat controls the electrochemical redox process
in the cell.
Chapter 1Page 3
Elecsys 1010Service Manual
Measuring CellMeasuring Cell
Measuring Cell
Measuring CellMeasuring Cell
Power Supply AssyPower Supply Assy
Power Supply Assy
Power Supply AssyPower Supply Assy
The cell has three electrodes: the work electrode (on which
the microparticles are deposited), the counter electrode
and the reference electrode. For the measurement, a
constant voltage is applied between work electrode and
counter electrode.
It is equipped with an input for input voltages of approx. 80
- 260 volts and 50-60 Hz. The fuses are not accessible to
the customer and can only be exchanged by service
personnel.
Rotor / Dilutor / MFA DrivesRotor / Dilutor / MFA Drives
The rotors, dilutor pistons and the MFAs are moved by
stepping motors. In order to avoid the loss of steps, the
motions are controlled by photo couplers and toothed
disks. Moreover, forward/backward motions can be
recognized by two photo couplers placed at an angle of 90°.
TemperaturesTemperatures
Temperatures
TemperaturesTemperatures
Elecsys 1010 has 4 systems for setting the temperatures
of liquids.
The luminescence liquid is measured at a temperature of
28°C. The temperatures of the incubate picked up by the
incubator and the liquids used for the measurements
(CleanCell and ProCell) are preset inside the detection
module. The immunological reaction occurs at 37°C
(incubator temperature).
PCPC
PC
PCPC
The PC is a standard PC assembly (CPU 486 DX 2,
66MHz, 8MB RAM) with Roche-owned functions. An 1.44
MB floppy disk drive serves as drive a. The system can be
started and reloaded from disk drive a:. A flash-E
2
PROM
serves as a hard disk replacement. The general program
and changeable parameters are filed here. The LC display
is controlled by the VGA controller.
Barcode Reader / BCRBarcode Reader / BCR
Barcode Reader / BCR
Barcode Reader / BCRBarcode Reader / BCR
A bar-code reader (BCR) is attached to the sample/reagent
rotor. It reads and decodes primary sample tubes (on the
1st and 2nd tray on the rotor) and reagent RackPacks
whenever the rotor passes the reader and transfers the
data to the PC by a built-in RS 232 interface. The reader
decodes 2-dimensional (PDF 417) and all standard bar
codes.
Software Distribution /ProcessorsSoftware Distribution /Processors
Software Distribution /Processors
Software Distribution /ProcessorsSoftware Distribution /Processors
The entire Elecsys 1010 software is distributed over a total
of 8 processors. The master board has a 486 processor.
The measuring, sipper, temperature, rotor and s/r modules
have an 80196 processor. The incubation module and the
clot detection are controlled by an 8051derivative. The
keyboard assy and the printer have one CPU each.
Keyboard AssyKeyboard Assy
Keyboard Assy
Keyboard AssyKeyboard Assy
The keyboard assy consists of the keyboard, the keyboard
controller, an acoustic signal transmitter, the LC display
and some LEDs. The keys are short-stroke touch contact
keys. An additional keyboard can be connected to the
bottom side of the keyboard assy by using a 5-pin plug
(standard keyboard plug). One non-standard function is a
signal transmitter (piezo) that can be activated on several
frequencies. The display is a 640 x 480 dot LC display. In
order to prevent reflections when reading the display in the
keyboard assy drawer, it is possible to incline it.
PrinterPrinter
Printer
PrinterPrinter
Elecsys 1010 has a thermoprinter with a printing width of
640 pixels. This corresponds to the display resolution. An
immediate hard copy output is possible.
FINAL 2.1 - February 2000
Page 4
Chapter 1
Elecsys 1010Service Manual
1.1.21.1.2
1.1.2
1.1.21.1.2
Principles of the AnalysisPrinciples of the Analysis
Principles of the Analysis
Principles of the AnalysisPrinciples of the Analysis
See Chapter 5 of the Operator's Manual for
details of the test principles used on Elecsys
1010.
FINAL 2.1 - February 2000
Chapter 1Page 5
Elecsys 1010Service Manual
1.1.31.1.3
1.1.3
1.1.31.1.3
Run
This chapter describes processes going on in different
tests, e g. the placement of STAT samples during the run,
the automatic rerun and the system preparation after
start, as well as system evaluation at the end of a run.
Assay Protocols
There are 24 independent assay protocols used for
determining the pipetting scheme of tests. Further
protocols (no. 24 to no. 26) are used for checking the
instrument.
The assay protocols are stored in the system (max. 64)
and can only be modified and/or extended by a software
update.
In each test a minimum of four liquids, the sample itself,
reagent 1, reagent 2 and the microparticles, are processed.
The following abbreviations will be used for the liquids:
MP:Microparticles
B:Microparticles (test RackPack, assay RackPack)
R0:Diluent ("all-purpose diluent", special RackPack)
RM:Pretreatment solution for IgM or IgG tests
PS:Prereaction solution (pretreatment solution in
RI:Reagent 1 (assay RackPack )
R2:Reagent 2 (assay RackPack )
S:Undiluted sample/ calibrator/ check
DL:Diluted sample/ calibrator/ check
D:Aspiration into the measuring cell and optical
i:Incubation time
Pipetting SchemePipetting Scheme
Pipetting Scheme
Pipetting SchemePipetting Scheme
(in special RackPack)
special RackPack)
detection
5. Aspirate R2 --> discharge R2 into the third incubation
vessel.
6. Wait until incubation time i2 is over.
7. Measurement.
One step is taken after the other, allowing for the incubation
time. The last step is always the measurement.
The processing of these liquids is determined by the four basic
protocols 0 through 3. They define which liquids are processed
in which pipetting step. On the basis of the basic protocols, the
processing with pretreatment liquids (RO, RM or PS) is
defined in the protocols 4 through 23. Read the sequence of
pipetting steps within one protocol from left to right. The
example
shows the following sequence:
1. Aspirate R0 and sample S --> discharge both liquids
2. Aspirate R0 and the diluted sample DL from the first
3. Aspirate microparticles, R1 and the diluted sample
4. Wait until the incubation time i1 is over.
FINAL 2.1 - February 2000
Protocol 9 (dilution with 2 different assays)Protocol 9 (dilution with 2 different assays)
Protocol 9 (dilution with 2 different assays)
Protocol 9 (dilution with 2 different assays)Protocol 9 (dilution with 2 different assays)
into the first incubation container.
incubation vessel --> discharge both liquids into the
second incubation vessel.
DL from the second incubation vessel --> discharge
all three liquids into the third incubation vessel.
Page 6
Chapter 1
Elecsys 1010Service Manual
Assay ProtocolsAssay Protocols
Assay Protocols
Assay ProtocolsAssay Protocols
TableTable
Table
TableTable
No.Pipetting Step 0Inc 0
Pipetting Step
1
Inc 1
Pipetting Step
2
Inc 2 Det.
0B R1 R2 Si1DX
1B R1 Si1R2i2DX
2R1 R2 Si1Bi2DX
3R1 Si1B R2i2DX
4R0 SB R1 R2 DLi1D
5R0 SB R1 DLi1R2i2D
6R0 SR1 R2 DLi1Bi2D
7R0 SR1 DLi1B R2i2D
8R0-> DL1 R0B R1 R2 DLi1D
9R0 S-> DL1 R0B R1 DLi1R2i2D
10R0 S-> DL1 R0R1 R2 DLi1Bi2D
11R0 S-> DL1 R0R1 DLi1B R2i2D
12PS Si0B R1 R2i1D
13PS Si0B R1i1R2i2D
14PS Si0R1 R2i1Bi2D
Main assayRemarks
15PS Si0R1i1B R2i2D
16RM Si0B R1 R2 DLi1D
17RM Si0B R1 DLi1R2i2D
18RM Si0R1 R2 DLi1Bi2D
19RM Si0R1 DLi1B R2i2D
20RM S-> DL1 RMi0B R1 R2 DLi1D
21RM S-> DL1 RMi0B R1 DLi1R2i2D
22RM S-> DL1 RMi0R1 R2 DLi1Bi2D
23RM S-> DL1 RMi0R1 DLi1B R2i2D
24R1 R1DX
25R1 R2DX
26R2 R2DX
27R1 Bi1DX
28
29...
...Reserve
only needed
for instrument
checks,
not part of
the RUN
...63
E-Tab1: Assay Protocols
FINAL 2.1 - February 2000
Chapter 1Page 7
Elecsys 1010Service Manual
Pipetting StepsPipetting Steps
Pipetting Steps
Pipetting StepsPipetting Steps
The processing of the assay protocols is divided into four
pipetting steps: pipetting step 0, the so-called pretreatment
step, pipetting steps1 and 2, and the measuring step. The
pipetting steps are divided into partial steps (e.g. pipette R1).
The sequence of the partial steps is (regarding the liquid pickup by the s/r needle): R1, R2, B, S.
The pipetting steps / partial steps according to the assay
protocols are described below. The pick-up sequence
during pretreatment is always: reagent before sample (in
both steps).
For each pipetting step and/or measuring step, a generally
applicable step can be described. Figures 1 to 3 give an
overview of these pipetting steps.
Pipetting Step 0Pipetting Step 0
Pipetting Step 0
Pipetting Step 0Pipetting Step 0
In pipetting step 0 the sample is pretreated. It has one or two
increments. In the figure, these increments are called "Block
1 and 2".
-Block 1 is passed through for protocols 4 through 23.
-Block 2 is passed through for protocols 8 through 11
and 20 through 23.
Each block consists of
-aspiration of the separation air bubble
-aspiration of the pretreatment liquid from the sample
rotor
-washing in wash station 1
-aspiration of the sample
-washing and rinsing in wash station 1 or
rinsing in wash station 2, rehomogenizing of the
microparticles and washing
Rinsing and washing in wash station 2 with simultaneous
rehomogenizing of the microparticles can only be
performed one time, always at the end of a pipetting step.
The difference between block 1 and block 2 is the
aspiration of the diluted sample from the incubation rotor.
-In block 1, the sample is aspirated from the sample
rotor, and the samples are discharged into the first
incubation vessel.
-In block 2, the sample is aspirated from the first
incubation vessel, and the liquids are discharged into
the second incubation vessel.
FINAL 2.1 - February 2000
Page 8
Chapter 1
Elecsys 1010Service Manual
Pipetting Step 0Pipetting Step 0
Pipetting Step 0
Pipetting Step 0Pipetting Step 0
Sample rotorIncubation rotor
Block 1Block 1
Block 1
Block 1Block 1
Aspirate
Aspirate
Block 2Block 2
Block 2
Block 2Block 2
Aspirate
Wash and rinse in
wash station 1
Aspirate separation air bubble
R0 or PS or RM
Aspirate sample by using
LLD
Wash in wash station 1
S
Aspirate sample by using
LLD
Discharge
Aspirate separation air bubble
R0 or RM
Aspirate pretreatment
liquid by using LLD
Discharge
Wash and rinse in
wash station 2 and
rehomogenize microparticles
Wash and rinse
in wash station 1
Figure 1: Pipetting step 0
FINAL 2.1 - February 2000
Wash in wash station 1
DL
Aspirate pretreated sample
by using LLD
Discharge
Aspirate
Discharge
Wash and rinse in
wash station 2 and
rehomogenize microparticles
Chapter 1Page 9
Elecsys 1010Service Manual
Pipetting Step 1Pipetting Step 1
Pipetting Step 1
Pipetting Step 1Pipetting Step 1
Pipetting step 1 is also divided into blocks and always
starts with block 1.
-Aspirate the separation air bubble.
In blocks 2, 3 and 4, reagents are aspirated. All three
blocks are passed through in the following sequence:
-Aspiration of R1, R2 or microparticles.
-Discharging of fluids after the last reagent has been
picked up and the sample pretreated with PS. The
sample pretreated with PS will be further processed in
block 6.
-Washing in wash station 1.
The assay protocols determine which and how many of the
blocks will be passed through in pipetting step 1.
In block 5, the sample is aspirated. The pretreated sample DL
is
-aspirated from the first incubation vessel and is
discharged into a second incubation vessel in block 6,
if it has been pretreated with R0 or RM in one
increment (see pipetting step 0).
-aspirated from the second incubation vessel and is
discharged into a third incubation vessel in block 6, if
it has been pretreated with R0 or RM in two increments
(see pipetting step 0).
If sample S has not been pretreated, it will be aspirated from
the sample rotor and discharged into the first incubation vessel
in block 6.
In block 6, the liquids are discharged into the incubation rotor,
and the s/r needle is washed and rinsed. If the sample has been
pretreated with PS, the aspirated liquids will be added to the
first incubation vessel (see pipetting step 0).
The rehomogenizing of the microparticles and the washing /rinsing in wash station 2 will be performed if in the
next cycle microparticles are pipetted in one pipetting
step 1.
FINAL 2.1 - February 2000
Page 10
Chapter 1
Elecsys 1010Service Manual
Pipetting Step 1Pipetting Step 1
Pipetting Step 1
Pipetting Step 1Pipetting Step 1
Sample rotorIncubation rotor
Block 1Block 1
Block 1
Aspirate
Aspirate
Block 1Block 1
Block 2Block 2
Block 2
Block 2Block 2
Block 3Block 3
Block 3
Block 3Block 3
Aspirate separation air bubble
R1
Aspirate reagent 1
by using LLD
Wash in wash station 1
R2
Aspirate reagent 2
by using LLD
Aspirate
Block 5Block 5
Block 5
Block 5Block 5
Aspirate
Block 6Block 6
Block 6
Block 6Block 6
Block 4Block 4
Block 4
Block 4Block 4
Aspirate sample by
using LLD (clot and
foam detection)
Wash and rinse
in wash station 1
Wash in wash station 1
Microparticles
Aspirate microparticles
by using LLD
Wash in wash station 1
Discharge
Wash and rinse in wash
station 2 and rehomogenize
DLS
Aspirate pretreated
sample by using LLD
microparticles
Aspirate
Discharge sample
pretreated with PS
Figure 2: Pipetting step 1
FINAL 2.1 - February 2000
Chapter 1Page 11
Elecsys 1010Service Manual
Pipetting Step 2Pipetting Step 2
Pipetting Step 2
Pipetting Step 2Pipetting Step 2
Pipetting step 2 is divided into 4 blocks. Like pipetting
step 1, it always starts with block 1:
-Aspirate the separation air bubble.
In blocks 2 and 3, reagents are aspirated. Both blocks are
passed through in the following sequence:
-Aspirate R2 or microparticles.
-Discharge liquid into the incubation rotor after the last
reagent has been picked up.
-Wash in wash station 1.
The assay protocols determine which and how many of the
blocks will be passed through in pipetting step 2.
In block 4, the liquids are discharged into the incubation rotor,
and the s/r needle is washed and rinsed. The liquids will be
-added to the first incubation vessel, if the sample has
not been pretreated or pretreated with PS.
-added to the second incubation vessel, if the sample
has been pretreated with R0 or RM in one increment.
-added to the third incubation vessel, if the sample
has been pretreated with R0 or RM in two increments.
The rehomogenizing of the microparticles and the washing /rinsing in wash station 2 will be performed if in the
next cycle microparticles are pipetted in one pipetting
step 1.
FINAL 2.1 - February 2000
Page 12
Chapter 1
Elecsys 1010Service Manual
Pipetting Step 2Pipetting Step 2
Pipetting Step 2
Pipetting Step 2Pipetting Step 2
Sample rotorIncubation rotor
Block 1Block 1
Block 1
Aspirate
Block 1Block 1
Block 2Block 2
Block 2
Block 2Block 2
Aspirate separation air bubble
R2
Aspirate reagent 2
by using LLD
Wash in wash station 1
Aspirate
Block 4Block 4
Block 4
Block 4Block 4
Block 3Block 3
Block 3
Block 3Block 3
Wash and rinsei n
wash station 1
Microparticles
Aspirate microparticles by
using LLD
Wash in wash station 1
Discharge
wachen und spülen in
Wash and rinse in
wash station 2 and
rehomogenize microparticles
Figure 3: Pipetting step 2
FINAL 2.1 - February 2000
Chapter 1Page 13
Elecsys 1010Service Manual
Measuring StepMeasuring Step
Measuring Step
Measuring StepMeasuring Step
Measuring step actions take place around the measuring
cell, e.g. in the incubator, sipper needle, measuring cell
or in the sipper system dilutor. The measuring step has
the following increments:
-Pick-up of the incubate ( - sampling, pick -up ) (preconditioning with ProCell included).
-Transport of the incubate with ProCell (preconditioning with ProCell included).
-Capturing with ProCell
-Washing with ProCell
-Measuring -> optical measurement
-Pick-up of CleanCell solution for cleaning 1
-Pick-up of air and CleanCell alternately
-Solution for cleaning 2
-Pick-up of ProCell for cleaning 3
-Pick-up of ProCell for post -conditioning
FINAL 2.1 - February 2000
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1.1.3.11.1.3.1
1.1.3.1
1.1.3.11.1.3.1
Timing DiagramTiming Diagram
Timing Diagram
Timing DiagramTiming Diagram
FINAL 2.1 - February 2000
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diag3.tif
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1.21.2
1.2
1.21.2
Analyzer dimensionsHeight:620 (mm)
ElectricalSupply voltage100 - 240 (V) AC at 50/60 (Hz)
Environmental conditionsTemperature18 (°C) to 32 (°C)
System SpecificationSystem Specification
System Specification
System SpecificationSystem Specification
Depth:780 (mm)
Width:960 (mm)
Weightapprox. 110 (kg)
Power consumptionmax 0.61 (kVA)
Fuse circuit16 (A) time-lag at 230 (V) AC
Heat generation
Ambient temperature note change during
one batch run
approx. 2000 (kJ/h) resp. 481 (kcal/h)
resp. 1912 (BTU/h)
max. ± 3 (°C)
rel. humidity20 (%) to 85 (%) without condensation
Noise level according to DIN
43635
Water supplyWater tankapprox. 4,2 (l)
Waste water connection
ThroughputECL measurementsapprox. 50 (tests/h)
SamplesSample volume per test10 (µl) to 50 (µl)
Continuous operationmax. 60 (dBA)
Peak levelmax. 65 (dBA)
Water quality (conductivity)sub-micron filtered <10 µS/cm
Water consumptionapprox. 3 (l) for 128 test
Waste container for measuring material,
system water, ProCell, CleanCell
Sample detection
Sample rotor for routine samples,
calibrators and controls
Usable sample bar codes
approx. 5 (l)
by Liquid Level Sensor and Clot
Detector of the sample / reagent needle
42 positions for primary tubes, 18
positions for secondary cups
2 positions for STAT samples
NW7 (Codabar), Code 39, Code 128,
Interleave 2 of 5
ReagentReagent capacity6 reagent channels
by Liquid Level Sensor of the sample/
reagent needle
E-Tab2
FINAL 2.1 - February 2000
Reagent detection
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Elecsys 1010Service Manual
Bottle volume for CleanCell and ProCell380 (ml)
Reagent IDby 2-dim. bar code (PDF 417)
IncubatorIncubator capacity 128 plastic assay cups (4 x 32)
Volume of assay cups200 (µl)
ambient temperature 18°C to 20°C
Incubation temperature
Incubation time9 / 18 (min)
37°C + 0.3°C - 0.8°C
ambient temperature 20°C to 32°C
37°C + 0.3°C - 0.3°C
Measuring systemMeasuring method
Calibration method2 point calibration
PCDisk driveFloppy disk 3,5" / 1.44 MB
Interfaces
LCD
ThermoprinterPaper width 110 (mm)
E-Tab3
Integral measurement of luminescence
signal
1 Centronics for printer, 1 RS 232 for
laboratory EDP
Black-and-white VGA LCD with 640 x
480 pixels
FINAL 2.1 - February 2000
Chapter 1Page 19
Elecsys 1010Service Manual
1.3.3 Precautions and Hazards1.3.3 Precautions and Hazards
1.3.3 Precautions and Hazards
1.31.3
1.3
1.31.3
The data and information provided in this manual correspond
to the state of knowledge existing at the time of introducing
the Elecsys 1010 onto the market. Any important changes
will be taken into account in the next edition of this manual.
The respective packaging leaflet should be regarded as
authoritative.
Operator Precautions andOperator Precautions and
Operator Precautions and
Operator Precautions andOperator Precautions and
HazardsHazards
Hazards
HazardsHazards
1.3.3 Precautions and Hazards1.3.3 Precautions and Hazards
All electrical equipment is potentially hazardous. Never
remove covers without first ensuring that it is isolated from
the AC supply, unless specific maintenance instructions or
repairs are being carried out by authorized Roche
Diagnostics personnel.
The hard- and software is subject to a program of continuous
evaluation and improvement and, therefore, may be changed
in the future. This also concerns service requirements.
This service manual was created for the telephone and
technical service staff.
1.3.1 Contact Persons1.3.1 Contact Persons
1.3.1 Contact Persons
1.3.1 Contact Persons1.3.1 Contact Persons
Technical Product Management and Support
Department: LI-TT
Phone:0621 / 759 /3227
8802
Fax No:0621/ 759 /4591
Logistics Hotline (RA):
Phone:0621 / 759 /4389
Fax No.:0621 / 759 /4613
8093
When calling from abroad, drop the "0" and add the country
code (+ 49).
1.3.2 Proved Security1.3.2 Proved Security
1.3.2 Proved Security
1.3.2 Proved Security1.3.2 Proved Security
All samples and reagents should be treated with caution
accorded to those known to contain pathogenic organisms.
Similarly, the cleaning of component part of Elecsys 1010
should be done with respect to human health.
Warning:Warning:
Warning:
Warning:Warning:
All components used on Elecsys 1010 must be regarded
as potentially dangerously contaminated when doing repair
work. Use rubber gloves or double gloves whenever cleaning
or sterilizing components. the most frequently used
components (tubings, cuvette, measuring chamber flap,
sip. lever and waste container) should be cleaned and
treated with a suitable disinfecting solution (75% alcohol)
prior to doing any service work.
Disinfect and wash hands after work is completed.
This instrument has been constructed and checked in
accordance with Standards IEC 1010. When the instrument
leaves our factory it is in perfect order from the point of view
of work safety. To keep it that way and to ensure safe
operation the user must follow the instructions and warnings
given in the operation instruction manual.
The electrical protection of the apparatus to Class I (it has
a protective earth).
This instrument has been constructed according to the
regulations of DIN IEC 601, part: "Security of Electromedical
Instruments: General Guidelines" and left our factory in
perfect condition regarding work safety.
The instrument obtained the GS mark for proved security
from the TÜV.
In order to ensure safe operation the user must follow the
instructions and warnings given in the instruction manual.
This instruments meets protection 1 (earth conductor wire).
FINAL 2.1 - February 2000
The power plug must only be inserted into a socket that has
a protective contact. The protection must not be abolished
by using an extension lead that does not have a protective
earth wire.
Warning:Warning:
Warning:
Warning:Warning:
Any break in the earth wire inside or outside the apparatus
and any loose connection of the earth wire can make the
operation of the apparatus dangerous. A deliberate break
or interruption is not allowed.
When the housing is opened or components are being
removed (except when this can be done by hand), live parts
may be exposed. Connection may also be live.
Therefore, if the carrying out of an adjustment, service or
repair on the open apparatus in the live state is unavoidable,
this must be done by an expert who is familiar with the
dangers involved.
Page 20
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Elecsys 1010Service Manual
Make sure you only use fuses of the specified type and
rated amperage when replacing. Repaired fuses must not
be used and the fuse holder must not be bypassed.
If you have any reason to believe that the instrument can no
longer operate safely, take it out of use and make sure no
one can use it accidentally.
It must be assumed that safe operation is no longer possible
when the instrument:
-shows visible signs of damage
-fails to operate
-has been stored under unfavourable conditions for
a fairly long time
-has been transported under rough conditions
The Elecsys 1010 should be used by appropriately qualified
persons only.
Warning:Warning:
Warning:
Warning:Warning:
In order to avoid electrostatic charging when working on the
electronics, use a grounding strap and a grounding mat.
For more information, please refer to operator manual.
FINAL 2.1 - February 2000
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Elecsys 1010Service Manual
1.4 Service Concept1.4 Service Concept
1.4 Service Concept
1.4 Service Concept1.4 Service Concept
1.4.11.4.1
1.4.1
1.4.11.4.1
From the early stage of development, Elecsys 1010 was
designed for simple error detection and easy exchangeability
of modules. This gives the service workshops the possibility
of a fast and easy repair of the instrument on service level
A (module level). No big stock or expensive equipment is
necessary and service technicians are easier to train.
Also, a permanent technical improvement in layout and
components took and takes place for better productivity
and economic production.
On repairable modules the quality and function is always
provided by the manufacturer according to the latest
technology. This keeps Elecsys 1010 always on the highest
quality level.
The exchange price for modules will be kept on a low level
to guarantee repairs, on an economical basis.
1.4.21.4.2
1.4.2
1.4.21.4.2
Service LevelService Level
Service Level
Service LevelService Level
RA-Procedure (Replacement ofRA-Procedure (Replacement of
RA-Procedure (Replacement of
RA-Procedure (Replacement ofRA-Procedure (Replacement of
defective parts)defective parts)
defective parts)
defective parts)defective parts)
-All defective parts ( non-"R" and "A" parts ) should be
kept on stock for a period of 7 months. In case the
manufacturer needs the part for investigation it will be
requested from Mannheim.
-All parts returned to Mannheim and not requested by
Mannheim will be send back at the expense of the
countries.
-The RA claim for warranty has to be in Mannheim no
later than 8 weeks after the problem date.
Exclusion of warrantyExclusion of warranty
Exclusion of warranty
Exclusion of warrantyExclusion of warranty
The aforementioned warranties do not apply in case of
improper use, handling, transportation or storage, faulty
installation, repair or maintenance, chemical influence or
contamination as well as damages resulting from that,
failure to follow operating instructions, alterations or
modifications of instruments or parts thereof not authorized
or recommended by RD GmbH and resulting damages,
normal wear and tear and in case of other circumstances
beyond the control of RD GmbH.
Handling of repairsHandling of repairs
Handling of repairs
Handling of repairsHandling of repairs
As a general rule, all instrument repairs should be carried
out by authorized and trained personnel only.
Warranty period for instruments and spare partsWarranty period for instruments and spare parts
Warranty period for instruments and spare parts
Warranty period for instruments and spare partsWarranty period for instruments and spare parts
The warranty period for instruments is 16 months starting
with the date of shipment ex works Mannheim/Federal
Republic of Germany or 12 months starting with the date of
the first installation, whichever period is shorter.
The warranty period for spare parts is 6 months from
installation date of the part, however not longer than 24
months after having delivered ex works Mannheim/Federal
Republic of Germany. Note: In case the instrument has a
remaining warranty period of more than 6 months, the parts
remain under warranty until the warranty period of the
instrument expires.
Handling of warranty claimsHandling of warranty claims
Handling of warranty claims
Handling of warranty claimsHandling of warranty claims
The warranty claim has to be handled via Return
Authorization procedure or accepted equivalent. Please
answer all the questions on the RA form with the greatest
care.Especially a detailed fault description is needed or the
warranty claim will not be accepted by the manufacturer.
Complete instruments are not accepted unless this has
been agreed with the service department of the relevant
product group responsible at RD GmbH.
Repair of parts marked with "R"Repair of parts marked with "R"
Repair of parts marked with "R"
Repair of parts marked with "R"Repair of parts marked with "R"
Parts which are economically worth repairing are marked
with "R" in the spare parts price list. New and repaired parts
could be recognized by different material numbers (language
version).
(e.g. new part: 1234567-001, repaired part: 1234567-984)
Repaired parts should be ordered together with new parts
via the order processing department in Mannheim (OUVDG). Parallel to the ordering process of a repaired part,
the defective part should be returned together with the filled
RA form (giving full details of the defect and marked choice
box with repair) to Logistic Instruments (Goods Receipt) in
MA-Wohlgelegen (LI-GS). Repair of instrumentsComplete
instruments are not accepted for replacement or repair
unless this has been agreed with the product group
responsible at RD GmbH. Before replacement or repair
can take place, the validity of the request must be examined
and the question of costs must be settled in a written
agreement with RD GmbH.
Terms of deliveryTerms of delivery
Terms of delivery
Terms of deliveryTerms of delivery
Important informationImportant information
Important information
Important informationImportant information
-Only parts marked with "A" in the price list are generally
accepted under warranty.
-Only return those parts marked with "R" in the spare
parts price list.
-Warranty claim for „R“ parts will be accepted, if the
part was returned to Mannheim.
FINAL 2.1 - February 2000
Shipments to the countries with the routine truck are c.i.f./
shipments outside this procedure are ex works Mannheim.
Emergency shipments require additional costs to be
charged.
Page 22
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