This operating manual is part of the product.
BOWA-electronic GmbH & Co. KG, referred to in the following simply as
BOWA, assume no liability nor provide any warranty whatsoever for any
damage or consequential damages arising from non-compliance with
the operating manual.
Read the operating manual carefully and thoroughly before using
this device.
Store the operating manual in a safe place throughout the service
life of the device.
Keep the operating manual accessible to operating theatre
personnel.
Give the operating manual to each successive owner and/or user
of this device.
Always update the operating manual whenever you receive
BOWA requires that the HF device is operated under the supervision of
qualified and authorized personnel. The surgeon and medical staff must
be trained in the fundamental principles, rules for use and risks of HF
surgery and must be familiar with these in order to safely and reliably
prevent putting patients, staff and equipment at risk.
Any other use is neither intended nor proper and must be effectively
prevented.
2. Safety
2.1. Intended use
The HF device is intended exclusively for the generation of electrical
power for monopolar cutting or monopolar and bipolar coagulation in
surgical operations.
It is used in the following areas:
General surgery
Paediatric surgery
Gynaecology
Hand surgery
Neurosurgery (not on the central nervous system)
Dermatology
Plastic surgery
Oral and maxillofacial surgery
Dentistry
ENT
Do not use the HF device if, in the opinion of an experienced physician
or according to current professional literature, such use would endanger
the patient, due for example to the general condition of the patient, or if
other contraindications are present.
To protect personnel, BOWA recommends the use of a smoke evacuator
to extract electrosurgical smoke, e.g. BOWA SHE SHA.
2.2. General safety instructions
Ensure that no electronic devices that are subject to interference
from electromagnetic fields are set up in the vicinity of the HF
device.
Please comply with the instructions on electromagnetic
compatibility (EMC); see Section EMC, page 47.
Always connect the HF device to a mains power system with a
protective earth lead in order to prevent electric shock.
Additional devices that are connected to electrical medical devices must
demonstrably satisfy the relevant IEC or ISO standards (e.g. IEC 60950
for data processing devices). Furthermore, all configurations must
comply with the standardised requirements for medical systems (see
IEC 60601-1-1 or Section 16 of the 3rd edition of IEC 60601-1, as
relevant). Anyone who connects additional devices to medical electrical
devices is perforce a system configurator and therefore responsible for
meeting standardised system requirements. Please note that local laws
prevail over the aforementioned standard requirements. For further
advice, please contact your local specialist retailer or our technical
service; see Section Technical service, page 38.
Excessive leakage currents may create a risk of burns to the patient.
Do not operate the HF device in the immediate vicinity of the
patient. Observe the minimum distances recommended by BOWA,
as shown in the following figure.
2.3.2. Patients with pacemakers
Malfunction or destruction of the pacemaker can endanger the life of the
patient or result in irreversible injuries to the patient.
In cases of patients with pacemakers, consult the cardiologist
before carrying out HF surgery.
Use bipolar HF methods when possible.
Move the HF neutral electrode close to the operating field.
Set the demand pacemaker to a fixed frequency.
Ensure that the pacemaker does not come into contact with the HF
electrode.
Keep a fully operational defibrillator within reach.
Carry out a postoperative pacemaker check.
Position the patient so that the patient is not touching any metal
parts that are grounded or have considerable capacitance relative
to ground (e.g. operating table brackets). If necessary, place antistatic towels between the patient and the bedding.
Ensure that the patient does not touch any wet towels or bedding.
Place anti-static towels between areas of heavy sweating and skin-
to-skin contact on the patient's trunk.
Ensure a suitable support surface in order to prevent pressure
necrosis.
Drain urine via the catheter.
2.3.4. Correct connection of the HF device
Always ground the HF device via the equipotential bonding.
Also observe the requirements in Section 8 of ISO 60601-1
regarding medical electrical systems.
Do not use any needle electrodes for monitoring.
Attach electrodes of physiological monitoring devices without
protective resistors or HF regulators as far as possible from the HF
electrodes.
Attach lines from monitoring devices so that they do not lie on the
patient's skin.
Keep the leads to the HF electrodes as short as possible and
position them so that they do not touch the patient or other leads.
Do not place any objects on the HF device.
2.3.5. Correct use of the HF device
Inadvertent activation in the non-visible area of the HF device can injure
the patient.
Activate the HF device only when the electrode is in your field of
vision and you can quickly deactivate the HF device at all times.
After inadvertent activation of the HF device, switch off the device
immediately using the on/off switch.
Pay particular attention whenever you use the foot switch or the
manual switch.
Lack of preparation, errors in usage or faults in the HF device can cause
damage to the HF device.
Use the automatic monitoring functions to ensure that the HF
device works properly without errors. For information on the
automatic test functions, see Section Monitoring functions,
page 22.
Ensure that no conductive fluids (e.g. blood, amniotic fluid) have
penetrated the foot switch or the manual switch.
Ensure that the cables for the foot switch and manual switch are
2.3.6. Adjusting the settings of the HF device and use of the
accessories
Setting the output power too high can injure the patient. Therefore,
before you increase the output power, ensure that:
the neutral electrode is correctly positioned,
the working electrodes are clean,
and the plug connections are all correct.
Setting the HF device correctly
To prevent inadvertent (thermal) tissue damage during operations
on body parts with small cross sections and in areas with high
resistance (bones or joints), use the bipolar method in these areas.
Set the acoustic signal that sounds when the electrode is activated
so that it is always clearly audible.
Nerve and muscle stimulation by low-frequency currents.
In HF surgical applications (especially applications in which an arc is
formed) part of the HF current is converted into a low-frequency current.
This current can trigger muscle contractions in patients.
To minimise the risk of patient injury, set the power and effect as
low as possible.
Correct usage of the accessories
Use only insulated accessories.
Check all electrodes for sharp edges and projecting parts before
use.
Use only electrodes that are free of defects and in good working
order.
Never place active electrodes on or near the patient.
Do not remove hot electrodes from the patient's body directly after
cutting or coagulation.
Ensure that there is sufficient distance between the patient cables
Devices manufactured by BOWA are developed in accordance with the
current state of technology and generally accepted safety rules. Despite
this, risks to the life and health of the user or other parties and/or
damage to the device and other objects can occur.
Use only accessories that are approved by BOWA; see
Section Accessories and replacement parts, page 47.
Use the device only if it is free from technical defects and in good
working order and only for the intended purpose, always remaining
aware of safety requirements and risks while complying with this
operating manual.
Have malfunctions that can adversely affect safety (e.g. deviations
from the permissible operating conditions) repaired without delay.
Wipe down the HF device only with cleaning agents and
disinfectants that are nationally approved for surface cleaning. See
Section Disinfection and cleaning, page 35.
Never immerse the device in water or cleaning agents.
Never boil the device and never disinfect it mechanically.
Immediately drain any fluid that may have penetrated the device.
If the device is damaged, a malfunction may cause an undesirable
increase in output power.
2.5. Safe handling (general instructions)
Before each use of the device, check to ensure that it is functioning
properly and is in good working order and connected properly.
Comply with the instructions for use as specified by the standard;
see Section Error list, page 33.
Pay attention to and comply with the acoustic signals and error
indicators of the HF device during use; see Section Error list,
page 33.
The device and accessories may be operated and used only by
persons who have the necessary training, knowledge and
experience.
Regularly inspect the accessories, especially electrode cables,
endoscopic accessories and neutral electrodes, for proper
operation, damage to the insulation, and expiration date.
Do not place any instruments on the patients or on the devices.
Wear suitable gloves during surgery.
Observe the instructions for use of the neutral electrode in the operating
instructions and the instructions on the packaging of the neutral
electrode.
2.5.1. Surgical environment: Prevention of explosions and
ignition
Sparks fly during proper use of the HF device.
Do not use the HF device in areas where there is a risk of
explosion.
Do not use any flammable or explosive liquids.
If display components fail, do not use the HF device any longer.
During surgery in regions such as the head or thorax, avoid using
ignitable anaesthetics and gases which support combustion (e.g.
nitrous oxide or oxygen) or suck them away.
Wear suitable gloves during surgery.
Use only non-flammable cleaning agents, disinfectants and
solvents (for adhesives). If you use flammable cleaning agents,
disinfectants or solvents, ensure that they have fully evaporated
before using the HF surgical equipment.
Ensure that no flammable liquids collect beneath the patient or in
body cavities (e.g. the vagina). Suction and/or flush body cavities
before activating the device.
Wipe off all liquids before using the HF device.
Ensure that no endogenous gases are present that could ignite.
Ensure that all materials saturated with oxygen (e.g. cotton or
gauze) are kept far enough away from the HF environment that
they cannot ignite.
2.5.2. Application of the neutral electrode
In the monopolar HF method, the neutral electrode feeds the current
introduced into the patient's body at the surgical site back to the HF
device.
To prevent a rise in temperature at the current emergence point,
the following conditions must be ensured:
sufficiently large contact surface between the neutral
electrode and the patient's body
high electrical conductivity between the neutral electrode
To prevent the patient being burned by the neutral electrode, you
must comply with the following conditions:
Select the application point for the neutral electrode so
that the current paths between the active and neutral
electrodes are as short as possible and run longitudinally
or diagonally to the patient's body (because muscles are
more conductive in the direction of the fibrils).
Figure 2-1:Application site for the neutral electrode
During surgery in the thoracic region, do not run the
current path transversely across the patient's body and
ensure that the patient's heart is never in the path of the
current.
Depending on the surgical site, apply the neutral
electrode to the nearest upper arm or thigh if possible,
but never closer than 20 cm.
In the case of self-adhesive disposable electrodes,
comply with any further manufacturer specifications
regarding the point of application.
Ensure that the application point is free of scar tissue,
bony protuberances, surface hair and ECG electrodes.
Ensure that there are no implants (e.g. bone nails, bone
plates, endoprostheses) in the current path.
Ensure that no short circuits can occur at the neutral
For monitoring of the neutral electrode, see Section EASY neutral
electrode monitoring (EASY monitoring), page 23.
Before applying the neutral electrode
Shave the area where the neutral electrode will be applied.
Clean the application site, and do not use alcohol, as this dries out
the skin and increases contact resistance.
In case of poor circulation, massage or brush the application site.
Apply the neutral electrode using the entire contact surface. Secure
reusable neutral electrodes with rubber bands or elastic ties so that
they do not loosen or fall off when the patient moves. Ensure that
the patient's circulation is not impaired (risk of necrosis).
Never use wet towels or electropastes.
Ensure that no liquids (e.g. cleaning fluids, disinfectants, blood,
urine) get between the patient and the neutral electrode.
Do not place the neutral electrode under the patient's buttocks or
back.
Ensure that there are no ECG electrodes in the current path of the
HF device.
Example application using a disposable electrode
Remove the protective film and attach the self-adhesive disposable
electrode to the patient. Ensure that the long side of the disposable
electrode faces the operation site and the electrode is fully in
contact with the skin. This prevents the current density from
becoming excessive at the short edge.
Using both hands, press the self-adhesive disposable electrode
firmly against the patient’s skin.
Clamp the electrode tab to the neutral electrode cable.
After the operation, remove the disposable electrode carefully to
avoid skin damage.
Use of a one-piece neutral electrode
Check the one-piece neutral electrode during the surgery.
Use of a split neutral electrode
Apply the split neutral electrode correctly and without any additional
objects, as the HF device does not recognize the bridging of the
section surfaces by other objects.
Special instruments are necessary in order to achieve optimal results
using the bipolar method (particularly with minimally invasive surgery).
3. Functionality
The HF device is controlled by a microprocessor and converts the mains
voltage into a high-frequency alternating current for monopolar or
bipolar applications.
For descriptions of the individual modes and their areas of application
as well as appropriate instruments, see Section Mode descriptions,
page 31.
3.1. Monopolar modes
In monopolar operation, the HF device has the following operating
modes:
"Pure" for cutting in low-resistance tissue
"Dry" for cutting with strong haemostasis
"Moderate" for contact coagulation
"Forced" for coagulation with light contact
Instruments can be connected to the multifunction socket 1.
3.2. Bipolar mode
Advantages of the bipolar method:
The required high-frequency output is only one-fourth of the
output required for the monopolar method.
It is not necessary to apply a neutral electrode to the patient,
which eliminates the associated risks to the patient.
Instruments can be connected to the multifunction socket 1.
The volume of the activation signal should be increased as necessary by
turning the knob 28 for use in relatively noisy surroundings. The alarm
sound and the startup melody cannot be changed.
Mode
Frequency (Hz)
Signal type
Monopolar Cut
635
Continuous sound
Monopolar Coag
475
Continuous sound
Bipolar Coag
505
Continuous sound
Alarm
-
Beep sound
a
c
b
3.3. Monopolar/bipolar multifunction socket
a BOWA multifunction (monopolar and bipolar)
3-Pin US type (monopolar)
b Martin (bipolar)
c 4 mm (monopolar, foot switched)
The multifunction socket 1 allows the connection of a monopolar
instrument with hand or foot switching, or a bipolar instrument with foot
switching.
The BOWA multifunction cable REF 220-345 for ARC 100 combines a
monopolar handpiece and the connecting cable for bipolar forceps in
one connection.
3.4. Connection socket for neutral electrode
US-type neutral
Applied part of Type F according to IEC 60601-1
The neutral electrode connector socket is suitable for neutral electrode
plugs with two sockets.
3.5. Activation and alarm signals in monopolar and
bipolar mode
Always use the largest possible electrode when attaching a neutral
electrode.
BOWA recommends using split neutral electrodes, since only this type of
electrode allows the HF device to detect detachment of the neutral
electrode if this occurs.
3.6. Emergency stop
The HF device can be switched off at any time by using the on/off switch
25 as an emergency stop.
3.7. Monitoring functions
3.7.1. Self-test
When the HF device is switched on, it runs a self-test that checks the
operating elements, acoustic signal, microprocessor and hardware for
proper operation. If errors occur, see Section Detecting and correcting
faults, page 33.
3.7.2. Cyclical test during operation
During operation, safety-relevant functions and signals are tested
cyclically. If errors are detected, the HF generator will shut itself off. An
error code will be indicated using the power display. For further
information, see Section Detecting and correcting faults, page 33.
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3.8. Neutral electrode monitoring
3.8.1. General information
Monitoring of the neutral electrode minimizes the risk of burns at the site
where the neutral electrode is attached.
The split neutral electrodes are shown on indicator 15, and the onepiece neutral electrodes are shown on indicator 14; see Section Fault
indications for EASY monitoring, page 34.
The EASY monitoring system measures changes in resistance between
the patient and the high-frequency surgery device both before and
during HF activation. If required, it requests personnel to intervene via
an optical and acoustic alarm. For this purpose, a split neutral electrode
with corresponding contact surfaces and suitable transition resistances
which is attached to the patient according to the manufacturer's
instructions is required. The EASY system does not monitor the currents
in the individual sections of split neutral electrodes.
3.9. Foot switches
In addition to the manual switch, the foot switch can be used to activate
various operating modes.
The foot switches are connected to socket connector 30.
The following foot switch can be connected to the HF device:
Temperature: +10 °C to +40 °C
Relative humidity: 30% to 75%, non-condensing
Atmospheric pressure: 700 hPa to 1060 hPa
Maximum operating altitude: 3600 m AMSL
Electromagnetic fields are generated during normal use of the HF
device. This can adversely affect other devices.
Ensure that no electronic devices are placed in the vicinity of the
HF device.
WARNING
Shock hazard
Always connect the HF device to a grounded power distribution
system in order to prevent electric shock.
DANGER
Risk of burns to patients due to excessive leakage current
Locate the HF device outside the immediate vicinity of the patient;
see Section Ambient conditions, page 13.
HF devices may be used only in rooms used for medical purposes that
meet the requirements of DIN VDE 0100-710.
If the HF device was previously stored or transported at temperatures
below +10 °C or at a relative humidity above 75%, non-condensing, it will
take approximately three hours to adjust to room temperature.
5. Preparation
5.1. Setting up the HF device
1. Observe the specified operating conditions; see Section Operating
conditions, page 25.
2. Place the HF device on one of the following platforms:
a table,
an equipment trolley;
a console suspended from a ceiling support or wall-
mounted brackets.
Do not place any device on the HF device.
3. Place the HF device a sufficient distance away from other
electronic equipment; see Section EMC, page 47.
4. Position the HF device with the front of the device facing the patient
and surgeon.
5. Do not place any other objects on or above the HF device.
6. Do not place the HF device on top of other devices.
Do not use the HF device if the display components are not working. See
Section Detecting and correcting faults, page 33 for troubleshooting
instructions.
7. Connect the power cord.
5.2. Switching on the HF device
1. Switch the HF device on using the on/off switch 25.
The HF device carries out a self-test: all indicator lamps light up.
2. Check that all LEDs (3, 4, 5, 10, 11, 12, 13, 14, 15, 16,18, 19, 20,
23, 24) on the front panel light up.
The HF device is ready for operation.
The parameters for the most recently selected program appear on
the front panel.
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5.3. Connecting instruments
Before connecting instruments, ensure that the following conditions
are met:
Combinations of accessories not mentioned in the
operating manual may be used only if they are explicitly
designed for the intended use. Performance features as
well as safety requirements must always be taken into
account.
The insulation of the accessories (e.g. HF cables,
instruments) must be sufficient for the maximum output
peak voltage (see IEC 60601-2-2 and IEC 60601-2-18).
Do not use accessories with defective insulation.
5.3.1. Instruments for monopolar applications
1. Plug the neutral electrode cable into the socket for the neutral
electrode 2.
2. Check monitoring for a non-split neutral electrode 14 or EASY
monitoring for a split neutral electrode 15 to ensure that it
corresponds to the type of neutral electrode connected.
3. Connect the electrode handpiece to the active connector socket 1.
– or –
For accessories without finger sensors: Connect the foot switch to
the connector socket 30. Connect the monopolar connection cable
with a 3-pin or 4 mm plug to connector socket 1.
5.3.2. Instruments for bipolar applications
1. Connect the bipolar cable with the instrument, e.g. the forceps.
2. Connect the bipolar cable to the active connector socket 1.
3. For bipolar use, connect the foot switch to the connector socket 30.
The neutral electrode used for this test may not later be used for an
operation.
5.3.3. Connecting the foot switch
Connect the desired foot switch to the foot switch connector socket
30.
5.3.4. Assigning a foot switch output
1. Press the button for "Foot switch" 17 repeatedly in order to assign
the foot switch to the desired current type.
When indicator 18 lights up, the foot switch is assigned to bipolar
coagulation; indicator lamp 19 is for monopolar cutting and
indicator 20 is for monopolar coagulation.
5.4. Functional test
5.4.1. Autotest function
The HF device automatically carries out a self-test after being switched
on and a cyclical test during operation. If errors occur, see
Section Detecting and correcting faults, page 33.
5.4.2. Functional test execution
Perform the following functional test before putting the device into
service:
1. Connect a split single-use neutral electrode and attach it to the
patient’s arm.
The EASY neutral electrode indicator 15 changes to green.
2. Remove the neutral electrode.
The indicator 16 changes to red, and the EASY neutral electrode
monitoring indicator 15 goes dark.
3. Press the surfaces of the neutral electrode against each other.
The EASY neutral electrode monitoring indicator 15 changes back
to green.
4. Connect a monopolar HF handpiece to the multifunction socket 1
and use the hand and foot switches to individually activate “Cut”
and “Coag”.
5. Check the settings on the display.
6. Connect a bipolar forceps to the multifunction socket 1 and activate
coagulation on a piece of wet gauze using the foot switch.
Risk of incorrect application of the neutral electrode
Ensure compliance with the specifications for correct application of
the neutral electrode with regard to size, adhesive properties and
full-surface contact of the complete electrode.
Actual status
Output
Measure
Cable for one-piece or split neutral
electrode not connected
Indicators for monitoring of non-split
neutral electrode 14 or EASY
monitoring of split neutral electrode
15 do not light up
Plug in the cable for the one-
piece or split neutral electrode.
Only the cable for the one-piece or
split neutral electrode is connected
Indicators for monitoring of non-split
neutral electrode 14 or EASY
monitoring of split neutral electrode
15 light up
Check the cable for a short
circuit.
Cable with split neutral electrode
plugged in but not attached to
patient.
Indicators for monitoring of non-split
neutral electrode 14 or EASY
monitoring of split neutral electrode
15 light up
Check whether the electrode is
correctly attached to the cable
connection.
The cable for the split or one-piece
neutral electrode is plugged in and
attached to the patient.
The indicators for monitoring of the
non-split neutral electrode 14 or
EASY monitoring of the split neutral
electrode 15 light up green, but the
type of neutral electrode is not
correctly detected.
Based on the assessment of
benefit and harm, decide
whether you should activate the
HF device.
5.4.3. Actions in case of problems
Proceed as follows in case of functional problems:
1. Immediately disconnect the patient from the HF device.
2. Inspect the HF device and perform a functional test.
3. Report incidents and near-accidents to the German Federal
Institute for Medications and Medical Products in accordance with
Section 3 of the German Ordinance on the Installation, Operation
and Use of Medical Products (MPBetreibV). Observe the provisions
of the in-house reporting system in this regard.
4. Contact our technical service; see Section Technical service,
The data about points of application and the use of instruments is based on
clinical practice. However, these are only basic guidelines which must be
tested and approved for suitability by the operator. Depending on the
individual conditions, it may be necessary to deviate from the specified data.
Medicine is continuously evolving and growing due to R&D and clinical
practice. These developments may also make deviations from the specified
data necessary.
Please contact the medical product consultants authorized by BOWA
regarding recommendations for settings.
6. Operation
6.1. Mode overview
An overview of the modes that can be employed with the HF device is
shown below.
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6.3.3. Monopolar coagulation, "Moderate"
This mode is used in contact coagulation for stopping haemorrhagic
oozing, haemostasis of larger tissue areas, and coagulation over
smaller surfaces. Carbonisation of the tissue is prevented and adhesion
of the electrode to the tissue is greatly reduced. A greater coagulation
depth is achieved in comparison to the other coagulation modes.
Application areas
Coagulation with high penetration, little adhesion of the electrode to the
tissue.
Suitable instruments
Electrodes with large contact area, e.g. ball-type electrodes
6.3.4. Monopolar coagulation, "Forced"
This mode is used for contact coagulation extending only over a small
area of the tissue, preferably with small surfaces and fine electrodes. A
high degree of coagulation with moderate cutting tendency is achieved.
Application areas
Rapid coagulation with low penetration and moderate cutting tendency.
Check the neutral electrode and the neutral
electrode cable.
2
The YELLOW button on the
finger switch is in an actuated
state when switching on the
unit.
Switch on the device using the on/off switch
25 and do not actuate any other operating
elements at the same time.
If the problem persists, replace the
connected instrument and/or the foot switch.
3
The GREEN button on the
finger switch or the pedal on
the foot switch is in an
actuated state when switching
on the unit.
Switch on the device using the on/off switch
25 and do not actuate any other operating
elements at the same time.
If the problem persists, replace the
connected instrument and/or the foot switch.
4
Key on the front panel
pressed when switching on
the unit
Switch on the device using the on/off switch
25 and do not actuate any other operating
elements at the same time.
5-10
Internal fault
Restart the device.
If the error should recur, please contact our
technical service.
7. Detecting and correcting faults
Two types of faults can occur:
System errors
EASY monitoring faults
7.1. System errors
If a system error should occur, the fault status indicator 24 will light up
red. The combination with the lit display 23 indicates the corresponding
error.
7.1.1. Error list
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Errors not listed
Please contact the service centre in the event of errors that do not
appear in the error list; see Section Technical service, page 38.
If the expected change in the tissue does not occur and no error
message appears, check the parameters and the accessory
connections.
Visual and acoustic fault indications
The error messages are accompanied by visual and acoustic signals.
Furthermore, the generator cancels activation if certain errors occur and
the system is reset.
Please contact the service centre if the suggested corrective
measure does not eliminate the error; see Section Technical
service, page 38.
Errors are signalled with a lit Error LED 24 and Power LED 23:
Contact the following service centre for maintenance and repair work:
BOWA-electronic GmbH & Co. KG
Heinrich-Hertz-Strasse 4-10
72810 Gomaringen, Germany
Phone +49 (0) 7072-6002-0
Fax +49 (0) 7072-6002-33
E-mail: [email protected]
or visit our website:
www.bowa-medical.com
The ARC 100 is intended for operation in an electromagnetic environment as described below. The customer or
user of the ARC 100 should ensure that it is operated in such an environment.
Interference measurements
Conformity
Electromagnetic environment
guideline
HF emissions as specified in CISPR 11
Group 1
The ARC 100 must emit
electromagnetic energy in order to
perform its intended functions.
Nearby electronic devices may be
affected.
HF emissions as specified in CISPR 11
Class B
The ARC 100 is suitable for use in
facilities other than living areas and
those connected directly to the public
power supply network, which also
supplies buildings used for residential
purposes.
Emission of harmonics as specified in
IEC 61000-3-2
Class B
Emission of voltage fluctuations or flicker
as specified in IEC 61000-3-3
The BOWA multifunction cable REF 220-345 is optimally suited to the
operation of a monopolar handpiece and bipolar forceps on the ARC
100 because both connectors are combined in one plug.
Original BOWA accessories are suitable for use with devices in the ARC
and ARC PLUS families. When using accessories made by other
manufacturers, the user must ensure that they are designed for and
compatible with the maximum HF peak voltage of the HF device.
For the use and correct preparation of the autoclavable devices,
compliance with the relevant instruction manuals accompanying these
devices is required.
Detailed information on accessories and replacement parts is available
in the current accessories catalogue.
13. EMC
13.1. Guidelines and manufacturer's declaration in
accordance with DIN EN 60601-1-2, para.
The ARC 100 is intended for operation in the electromagnetic environment described below. The customer or user
of the ARC 100 should ensure that it is operated in such an environment.
Tests for resistance to
interference
IEC 60601 test level
Conformity level
Electromagnetic
environment guidelines
Electrostatic discharge
(ESD) according to
IEC 61000-4-2
± 6 KV contact discharge
± 6 KV contact discharge
Floors should be made of
wood or cement or covered
with ceramic tiles. If the
floor is covered with
synthetic material, the
relative humidity must be at
least 30%.
± 8 KV air discharge
± 8 KV air discharge
Fast transient electrical
interference (bursts as per
IEC 61000-4-4
± 2 kV for power supply
lines
± 2 kV for power supply
lines
The quality of the mains
power should correspond to
that of a typical business or
hospital environment.
± 1 kV for input and output
lines
± 1 kV for input and output
lines
Surges as per
IEC 61000-4-5
± 1 kV voltage outer
conductor-outer conductor
± 1 kV voltage outer
conductor-outer conductor
The quality of the mains
power should correspond to
that of a typical business or
hospital environment.
± 2 kV voltage outer
conductor to ground
± 2 kV voltage outer
conductor to ground
Voltage collapses, brief
interruptions and
fluctuations in the power
supply as per IEC 610004-11
< 5% UT for ½ period
(> 95% dropout)
40 % UT for 5 periods
(60 % dropout)
70% UT for 25 periods
(30% dropout)
< 5% UT for 5 s
(> 95% dropout)
< 5% UT for ½ period
(> 95% dropout)
40 % UT for 5 periods
(60 % dropout)
70% UT for 25 periods
(30% dropout)
< 5% UT for 5 s
(> 95% dropout)
The quality of the mains
power should correspond to
that of a typical business or
hospital environment. If the
user of the ARC 100
requires it to continue
operating even in the
presence of power
interruptions, it is
recommended that the ARC
100 be supplied from an
uninterruptible power
supply or a battery.
Note: UT is the AC supply voltage prior to the application of the test level.
The ARC 100 is intended for operation in the electromagnetic environment described below. The customer or user
of the ARC 100 should ensure that it is operated in such an environment.
Tests for resistance to
interference
IEC 60601 test
level
Conformity level
Electromagnetic environment guidelines
Conducted HF interference
as per IEC 61000-4-6
3 V rms
150 kHz to
80 MHz
3 V
Portable and mobile wireless devices should
not be used within the recommended
protective working clearance from the ARC
100 and its cables, which is calculated using
the equation corresponding to the relevant
transmission frequency.
Recommended protective distance:
d = 0.35 × √P
d = 0.35 × √P for 80 MHz to 800 GHz
d = 0.7 × √P for 800 MHz to 2.5 GHz
where P is the nominal transmitter output in
watts (W) specified by the transmitter
manufacturer and d is the recommended
protective distance in meters (m).
The field strength of stationary transmitters
as determined by on-site measurementsa
should be lower than the compliance levelb at
all frequencies.
Interference is possible in the vicinity of
devices that bear the following symbol.
Radiated HF interference
as per IEC 61000-4-3
3 V/m
80 MHz to
2.5 GHz
3 V/m
Note 1
The higher frequency range applies in case of 80 MHz and 800 MHz.
Note 2
These guidelines may not be applicable in all cases. The propagation of electromagnetic waves
is influenced by their absorption and reflection by buildings, objects and people.
a
Field strengths from stationary transmitters such as base stations for wireless telephones and
land mobile radios, amateur radio, AM and FM radio broadcasting and TV broadcasting cannot
be predicted theoretically with accuracy. A study of the electromagnetic phenomena at the
location should be done to determine the electromagnetic environment resulting from stationary
transmitters. If the measured field strength at the location where the ARC 100 is being used
exceeds the aforementioned compliance level, the ARC 100 should be monitored to verify that it
is functioning properly. If unusual performance characteristics are observed, additional measures
may be necessary, such as repositioning or relocation of the ARC 100.
b
The field strength should be lower than 10 V/m over the frequency range of 150 kHz to 80 MHz.
Recommended protective working clearances between portable and mobile HF
telecommunications devices and the ARC 100 (IEC 60601-1-2, Table 206)
The ARC 100 is designed for operation in an electromagnetic environment in which HF interference is monitored.
The customer or user of the ARC 100 can help to prevent electromagnetic interference by complying with the
minimum clearance between portable and mobile HF telecommunication devices (transmitters) and the ARC 100.
These clearances may vary depending on the output power of the relevant communication device as specified
below.
Nominal transmitter
output (W)
Protective distance (m) depending on transmission frequency
150 kHz to 80 MHz
d = 0.35 × √P
80 MHz to 800 MHz
d = 0.35 × √P
800 MHz to 2.5 GHz
d = 0.7 × √P
0.01
0.035
0.035
0.07
0.1
0.11
0.11
0.22
1
0.35
0.35
0.70
10
1.1
1.1
2.2
100
3.5
3.5
7.0
For transmitters whose maximum nominal output is not specified in the table above, the recommended protective
distance d in meters (m) can be determined using the equation in the corresponding column, where P is the
maximum nominal output power of the transmitter in watts (W) as specified by the transmitter manufacturer.
Note 1
The higher frequency range applies in case of 80 MHz and 800 MHz.
Note 2
These guidelines may not be applicable in all cases. The propagation of
electromagnetic waves is influenced by their absorption and reflection by buildings,
objects and people.
Always comply with the national regulations of the relevant country when
disposing of or recycling the device or its components.
Symbol
Designation
A device marked with this symbol must be put into the separate
waste collection for electrical and electronic devices. Disposal
is carried out free of charge by the manufacturer within the
European Union.