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OPERATING INSTRUCTIONS
EN
Translation of the original instructions
HIPACE 400
Turbopump
Table of contents
2
Table of contents
1.1.1 Applicable documents . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4
5.2.1 Earthquake safety . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14
5.2.2 Use of a splinter shield or protection screen . . . . . . . . . . . . . . . . . 14
5.2.3 Vibration damper. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14
5.4 Connecting the high vacuum side. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16
5.4.1 Installation of ISO-K flange with ISO-K flange . . . . . . . . . . . . . . . 16
5.4.2 Installation of ISO-K flange with ISO-F flange. . . . . . . . . . . . . . . . 17
5.4.3 Installation of ISO-F with ISO-F flange . . . . . . . . . . . . . . . . . . . . . 18
5.4.4 Installation of CF- flanges . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 19
5.5 Connecting the fore-vacuum side . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 20
5.6.3 Power and electrical supply . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 21
5.7.3 Sealing gas connection . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 24
Table of contents
6.3.1 Operation without operating unit . . . . . . . . . . . . . . . . . . . . . . . . . . 28
6.3.2 Operation via "remote" connection . . . . . . . . . . . . . . . . . . . . . . . . 28
6.3.3 Operation with DCU or HPU . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 28
6.3.4 Operation via fieldbus . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 28
6.4 Monitoring of the operation conditions . . . . . . . . . . . . . . . . . . . . . . . . . . . 28
6.4.1 Temperature monitoring . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 28
6.4.2 Operation display via LED. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29
7.1 Maintenance intervals and responsibilities . . . . . . . . . . . . . . . . . . . . . . . . 30
7.2 Replacing the operating fluid reservoir . . . . . . . . . . . . . . . . . . . . . . . . . . . 30
7.3.1 Rotation speed set value. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 32
12.2 Differences at HiPace 400, 24 V DC. . . . . . . . . . . . . . . . . . . . . . . . . . . . . 38
13.3 Differences at HiPace 400, 24 V DC. . . . . . . . . . . . . . . . . . . . . . . . . . . . . 40
3
4
About this manual
1 About this manual
1.1
Validity
This operating manual is for customers of Pfeiffer Vacuum. It describes the functioning of the designated product and provides the most important information for safe use of the unit. The description follows applicable EU guidelines. All information provided in this operating manual refers to the current state of the product's development. The documentation remains valid as long as the customer does not make any changes to the product.
Up-to-date operating instructions can also be downloaded from www.pfeiffer-vacuum.com.
1.1.1
Applicable documents
HiPace 400, depending on the model
Operating instructions "Electronic drive unit TC 400", standard
Operating instructions "Electronic drive unit TC 400 PB", Profibus
Operating instructions "Electronic drive unit TC 400 E74", acc. Semi E74
Operating instructions "Electronic drive unit TC 400 DN", DeviceNet
Operating instructions "Electronic drive unit TC 400 EC", EtherCAT
Declaration of conformity
*also available via www.pfeiffer-vacuum.com
Operating instructions
PT 0203 BN*
PT 0244 BN*
PT 0302 BN*
PT 0352 BN*
PT 0452 BN*
Part of this document
1.2
Conventions
1.2.1
Safety instructions
The safety instructions in Pfeiffer Vacuum operating instructions are the result of risk evaluations and hazard analyses and are oriented on international certification standards as specified by UL, CSA, ANSI Z-535, SEMI S1, ISO 3864 and DIN 4844. In this document, the following hazard levels and information are considered:
DANGER
Imminent danger
Indicates an imminent hazardous situation that will result in death or serious injury.
WARNING
Possibly imminent danger
Indicates an imminent hazardous situation that can result in death or serious injury.
CAUTION
Possibly imminent danger
Indicates an imminent hazardous situation that can result in minor or moderate injury.
NOTICE
Command or note
Command to perform an action or information about properties, the disregarding of which may result in damage to the product.
1.2.2
Pictographs
About this manual
Prohibition of an action to avoid any risk of accidents, the disregarding of which may result in serious accidents
Warning of a displayed source of danger in connection with operation of the unit or equipment
Command to perform an action or task associated with a source of danger, the disregarding of which may result in serious accidents
Important information about the product or this document
1.2.3
Instructions in the text
Work instruction: here you have to do something.
1.2.4
Abbreviations
DCU: Display
HPU:
Handheld Programming Unit
TC:
Electronic drive unit for turbopump
TPS: pack
1.2.5
Symbols used
The following symbols are used consistently throughout the diagrams:
High vacuum flange
V
Fore-vacuum flange
Vacuum flange of the backing pump
Exhaust flange of the backing pump
Electrical connection
Sealing gas connection
Venting connection
Cooling water connection
5
6
Safety
2 Safety
2.1
Safety precautions
Duty to inform
Each person involved in the installation, operation or maintenance of the vacuum pump must read and observe the safety-related parts of these operating instructions.
The operator is obligated to make operating personnel aware of dangers originating from the vacuum pump, the pumped medium and the entire system.
Installation and operation of accessories
Pfeiffer Vacuum pumps can be equipped with a series of adapted accessories. The installation, operation and maintenance of connected devices are described in detail in the operating instructions of the individual components.
For information on order numbers of components, see "Accessories".
Use original accessory parts only.
NOTICE
Checking the safety system against excess rotation speed
To provide the functioning of the integrated safety system for avoiding excess rotation speed, the pump must run-up from the standstill at least once a year.
Switch off the pump and await the complete standstill (rotation speed = 0 Hz).
Run-up the pump according to this operating instructions.
WARNING
Danger of unsafe electrical installation
Safe operation after installation is the responsibility of the operator.
Do not independently modify or change the pump and electrical equipment.
Make sure that the system is integrated in an emergency off safety circuit.
Consult Pfeiffer Vacuum for special requirements.
WARNING
Danger due to lack of power disconnection device
Pump and electronic drive unit are not equipped with a power disconnection device. Installation of a user-supplied power disconnection device in accordance with SEMI-S2.
Fit a circuit breaker with an interruption rating of min. 10,000 A.
WARNING
Danger of electric shock
In case of defect, the parts connected to the mains supply are under voltage.
Always keep the mains connection freely accessible so you can disconnect it at any time.
● Do not expose any body parts to the vacuum.
● Observe all safety and accident prevention regulations.
● Regularly check the proper observance of all safety measures.
●
Power supply:
The turbopump power supply must apply to the requirements of double insulation between mains input voltage and operating voltage according to the regulations of IEC 61010 and IEC 60950. Therefore Pfeiffer Vacuum recommends to use exclusively original-power packs and -accessories. Only in this case Pfeiffer Vacuum is able to guarantee the compliance of the European and North American guidelines.
● A safe connection to the protective earthing conductor (PE) is recommended (protection class III).
Safety
● Do not loosen any plug connection during operations.
● Wait for the rotor to reach standstill before peforming work on the high vacuum flange.
● Keep leads and cables well away from hot surfaces (> 70 °C).
● Never fill or operate turbopump with cleaning agent.
● Do not operate the turbopump with open high vacuum flange.
● Do not carry out any unauthorized modifications or conversions to the pump.
● When returning the turbopump observe the shipping instructions.
2.2
Protective equipment
Determined situations concerning the handling of vacuum pumps require wearing of personal protective equipment. The owner, respectively the employer are obligated to provide an adequate equipment to any operating persons.
DANGER
Danger to health by hazardous substances during maintenance or installation
Depending on the process vacuum pumps, components or operating fluids can be contaminated by toxic, reactive or radioactive substances.
Wear adequate protective equipment during maintenance and repairs or in case of reinstallation.
kg
WARNING
Risk of injury through falling objects
When transporting vacuum pumps by hand, there is a danger through loads slipping and falling down.
Carry small and mid-size vacuum pumps two-handed.
Carry vacuum pumps > 20 kg by a suitable lifting device.
Wear safety shoes with steel toe cap according to directive EN 347.
CAUTION
Risk of injury through hot surfaces
Vacuum pumps can become hot during operation.
Allow the pump to cool before maintenance and repairs.
If necessary wear protective gloves according to EN 420.
CAUTION
Risk of injury through sharp edges
Rotor and stator disks of turbopumps have very sharp edges.
Before any working wait for the complete standstill of the pump.
Do not reach in the high vacuum flange.
If necessary wear protective gloves according to EN 420.
2.3
Proper use
NOTICE
EC conformity
The manufacturer's declaration of conformity becomes invalid if the operator modifies the original product or installs additional components.
Following installation into a plant and before commissioning, the operator must check the entire system for compliance with the valid EU directives and reassess it accordingly.
7
8
Safety
● The vacuum pump may only be used to generate a vacuum.
● Only operate the turbopump with an approved backing pump.
2.4
Improper use
Improper use will cause all claims for liability and warranties to be forfeited. Improper use is defined as usage for purposes deviating from those mentioned above, especially:
● installation of the pump with unspecified mounting material
● pumping of corrosive or explosive media
● pumping of condensing vapors
● pumping of liquids
● pumping of dusts
● operation with improper high gas throughput
● operation with improper high fore-vacuum pressures
● operation with improper gas mode
● operation with improper high levels of insulated heat input
● operation in improper high magnetic fields
● venting with improper high venting rates
● use of the vacuum pump to generate pressure
● operation of the devices in areas with ionizing radiation
● operation in potentially explosive areas
● use of the devices in systems in which impact-like stress and vibrations or periodic forces affect the devices
● use of accessories or spare parts, which are not named in this manual warranty seal
Closure seal
The product is sealed at the factory. Damaging or removal of a closure seal leads to the loss of liability and warranty entitlements.
Do not open the product within its warranty period!
For process-related shorter maintenance intervals please contact the Pfeiffer Vacuum Service.
Transport and storage
3 Transport and storage
3.1
Transport
Reuse the transport container of the vacuum pump.
– Transport or ship vacuum pumps in the original packing preferably.
Only remove the protective covers from the high vacuum and the fore-vacuum side immediately before connection.
Keep the original protective covers.
Always transport the turbopump in its upright position.
3.2
Storage
Close the flange openings by using the original protective covers.
Close further connection ports by using the corresponding protective covers.
Store the pump only indoors at temperatures between -25 °C and +55 °C.
In rooms with moist or aggressive atmospheres, the pump must be airproof shrinkwrapped in a plastic bag together with a bag of desiccant.
9
Product description
4 Product description
4.1
Product identification
4.1.1
Pump types
HiPace
(1)
400
(2) (3)
The product designation consists of a family designation (1), the size (2), which is oriented on the pumping speed, and if applicable the additional properties (3) of the pump.
1. Family designation 2. Model designation
HiPace 400 = Model designation of the pump related to its pumping speed class
3. Property designation none = Standard version
U = Upside-down installation orientation
C = Corrosive gas version
P = Process
M
= Active magnetic bearing
T = Temperature management system
E = High Efficiency
H = High Compression
I
= Ion implantation
4.1.2
Pump features
This product has been tested to the requirements of CAN/CSA-C22.2 No. 61010-1, second edition, including Amendment 1, or a later version of the same standard incorporating the same level of testing requirements.
For information about other certifications, if applicable, please see the signet on the product or:
● www.tuvdotcom.com
● TUVdotCOM-ID 0000021320
Characteristics
HV flange DN 160 ISO-K
HiPace 400
DN 160 ISO-F DN 160 CF-F
Flange material Aluminium Aluminium Stainless steel
To correctly identify the product when communicating with Pfeiffer Vacuum, always have the information from the rating plate available.
D-35614 Asslar
Mod.:
HiPace 300
DN 100 ISO-K, 3P
M.-No.:
Ser. -No.:
PM P03 900
Oil:
S(N
2
): n,f:
---
260 l/s
60000 1/min, 1000 Hz
Weight: 6.7 kg
Made in Germany
Fig. 1: Example for a rating plate
4.1.3
Variants
● HiPace 400 with TC 400 and 24 V DC ± 5 %
● HiPace 400 with TC 400 and 48 V DC ± 5 %
4.1.4
Scope of delivery
● Turbopump with electronic drive unit
● Mating plug for the connection " remote
" on the TC 400 (type dependent)
● Mating plug for the connection "
E74
" on the TC 400 (type dependent)
● Protective cover for the high vacuum flange and the fore-vacuum flange
● Operating instructions
10
Product description
4.2
Function
The turbopump HiPace 400 forms a complete unit together with the electronic drive unit
TC 400. For the voltage supply only Pfeiffer Vacuum power supplies may be used
(e.g.TPS or DCU).
8 4
17 remote 3 20 14 16
Fig. 2: View of HiPace 400 with TC 400
3
8
Pump lower part casing
Electronic drive unit TC 400
14 Cooling water connection
16 Sealing gas connection tion connection connec-
4.2.1
Cooling
● Water cooling
● Air cooling (optional)
In the case of excess temperature the electronic drive unit reduces the drive power automatically. Depending on the application and the HiPace different cooling variants are selectable.
4.2.2
Rotor bearing
Hybrid bearing TurboDrag pump
● High vacuum side: maintenance-free permanent magnetic bearing
● Fore-vacuum side: ceramic ball bearing
4.2.3
Drive
Electronic drive unit TC 400
11
Product description
4.3
Range of application
The pump HiPace 400 must be installed and operated under the following ambient conditions:
Installation location
Protection category
Protection class
Temperature
Relative humidity
Atmospheric pressure
Installation altitude
Degree of pollution
Permissible surr. magnetic field
Overvoltage category
Connection voltage TC, depending on the variants weather protected (indoors)
IP 54
III
+5 °C to +35 °C with air cooling
+5 °C to +40 °C with water cooling max. 80 %, at T 31 °C, up to max. 50% at T 40 °C
750 hPa - 1060 hPa
2000 m max.
2
6 mT
II
24 V DC ±5%
48 V DC ±5%
Remarks to ambient conditions
The specified permissible ambient temperatures apply to operation of the turbopump at maximum permissible fore-vacuum pressure or at maximum gas throughput depending on the cooling method. The turbopump is intrinsically safe by a redundant temperature monitoring.
● By reducing the fore-vacuum pressure or gas throughput, the turbopump can be operated at higher ambient temperatures.
● If the maximum permissible operating temperature of the turbopump is exceeded, the electronic drive unit reduces drive power first and switches off then, if necessary.
12
Installation
5 Installation
WARNING
Danger from the turbopump being ripped off
If the rotor is suddenly blocked, torques of up to 4200 Nm could occur, which could cause the turbopump to be ripped off if it is not properly affixed. The energy that this would release could throw the entire pump or pieces from its interior through the room.
That would cause severe, possibly fatal, injuries as well as serious property damage.
Carefully follow the installation instructions in this handbook.
Only use approved original parts from Pfeiffer Vacuum (Accessories) for the installation.
Installation and operation of accessories
Pfeiffer Vacuum pumps can be equipped with a series of adapted accessories. The installation, operation and maintenance of connected devices are described in detail in the operating instructions of the individual components.
For information on order numbers of components, see "Accessories".
Use original accessory parts only.
5.1
Preparatory work
When installing the pump, observe the following conditions:
● the ambient conditions specified for the range of application
● When using a casing heating and a water cooling unit the temperature of the connected flange of the vacuum chamber must not exceed 120 °C.
● The pump may be fastened to the floor only after consultation with Pfeiffer Vacuum.
● It is not allowed to operate the device in systems where impact-like stresses and vibrations or periodically forces occur.
Ensure sufficient cooling for the turbopump.
Where magnetic fields > 6 mT are involved, a suitable shielding must be used. Check installation location and consult Pfeiffer Vacuum if needed!
The maximum permissible rotor temperature for the turbopump is 90 °C. If high temperatures arise for process reasons, the radiated heat input must not exceed 4.2 W.
Install suitable screening sheets, if necessary (design information on request).
5.2
Set-up
● Ensure the greatest possible cleanliness when installing any high vacuum parts. Unclean components prolong the pump-down time.
● All flange components must be grease-free, dust-free and dry at installation.
● The operating fluid reservoir is already installed and filled for the turbopump HiPace
400.
13
Installation
5.2.1
Earthquake safety
An earthquake can result in contact with the safety bearings. All forces occuring hereby are safely absorbed by the properly installed flange connections.
Secure the vacuum chamber against shifting and tipping on customers side.
VACUUM CHAMBER
Fig. 3: Example: How to secure against shifting and tipping by external tremors
= Safety connection, implementation each by the customer
5.2.2
Use of a splinter shield or protection screen
Pfeiffer Vacuum centering rings with splinter shield or protection screen in the high vacuum flange protect the turbopump against foreign bodies coming from the chamber.
Thus, the pumping speed of the pump is reduced.
Splinter shield DN 100
Protection screen DN 100
Reduced volume flow rate in %
H
2
4
2
He
7
1
N
2
19
5
Ar
22
5
5.2.3
Vibration damper
WARNING
Danger from the turbopump and vibration damper being torn-off
In case of sudden blocking of the rotor, an applied vibration damper cannot compensate any of the occurring forces. There is a danger of the turbopump being torn-off and thereby resulting severest injuries and property damages. Applicable safeguards must be taken to compensate possible occurring torques.
Definitely consult with Pfeiffer Vacuum.
Do not exceed the max. permissible temperature at the vibration damper (100 °C).
14
Installation
5.3
Mounting orientation
When using dry backing pumps, Pfeiffer Vacuum HiPace pumps are designed for installation in any orientation.
Support pipes in front of the vacuum pump or remove them. No force from the pipe system may be exerted on the fixed pump.
To avoid contamination via the fore-vacuum line when using oil-sealed backing pumps the fore-vacuum flange should always point vertically downward (± 25°).
VV
VV
25° max
Fig. 4: Recommended orientation of the fore-vacuum flange
The maximum axial loading capacity of the high vacuum flange is 1000 N (equals
100 kg). A one-sided load on the high vacuum flange is not permitted.
15
Installation
5.4
Connecting the high vacuum side
If the rotor is suddenly blocked, the torques arising from the system and the high vacuum flange must be absorbed. Only the components listed in the following can be used to fasten the turbopumps to the high vacuum flange. The installation elements for turbopumps are special designs by Pfeiffer Vacuum. In all operating conditions, the tensile strength of the flange material must be at least 170 N/mm
2
.
Secure the vacuum chamber against shifting and tipping on customers side.
DANGER
Danger to life - impermissible fastening
Twisting or tearing-off is possible in case the rotor is suddenly blocked due to the fastening of pumps on a vacuum chamber with different flange variants.
Use only the correct mounting kit from Pfeiffer Vacuum.
Pfeiffer Vacuum will not accept any liability for all damages resulting from impermissible fastening.
NOTICE
Observe shape tolerances for the counter flange
Unevennesses of the customer supplied counter flange can lead to warping of the pump casing despite proper fastening. Leakiness and negative running characteristics can be the result.
Do not exceed an evenness of max. 0.05 mm for the whole surface.
Mounting of ISO flanges
If the rotor suddenly blocks the connection of high vacuum flanges of types ISO-KF or
ISO-K can lead to twisting despite proper installation.
● The tightness of the high vacuum flange is not at risk thereby.
5.4.1
Installation of ISO-K flange with ISO-K flange
For the installation the following components are exclusively authorized:
● the valid mounting kit of the Pfeiffer Vacuum accessories programme
● mounting materials including protection screen or splinter shield are optionally available
Mind that the sealing surfaces are not damaged.
1) Connect the flanges according to the drawing and with the component parts of the mounting kit.
2) Use the required number of
16
claw clamps.
3) Tighten the claw clamps crosswise in three steps.
4) Tightening torque: 5, 15, 25 ±2 Nm
16
Installation
5.4.2
Installation of ISO-K flange with ISO-F flange
The connection types for installation of ISO-K to ISO-F flange are "hex screw and threaded hole," "stud screw and threaded hole," and "stud screw and through hole".
For the installation the following components are exclusively authorized:
● the valid mounting kit of the Pfeiffer Vacuum accessories programme
● mounting materials including protection screen or splinter shield are optionally available
Hexagon screw and threaded hole
Mind that the sealing surfaces are not damaged.
1) Put the collar flange over the high vacuum flange of the turbopump.
2) Insert the retaining ring into the groove of the high vacuum flange.
3) Fasten the turbo pump with collar flange and centering ring to the counter flange as shown in the graphic.
4) Use the required number of 8 hex screws with washer.
5) Screw hex screws 1.5 x d into the threaded holes.
– The tensile strength of the flange material must be at least 270 N/mm ating conditions.
2
in all oper-
6) Tighten the hex screws crosswise in three steps.
7) Tightening torque DN 160: 5, 10, 16 ± 1 Nm
Stud screw and threaded hole
Mind that the sealing surfaces are not damaged.
1) Use the required number of 8 stud screws and nuts.
2) Screw in the stud screws with the shorter threaded end 2.5 x d in the bore holes on the counter flange.
3) Put the collar flange over the high vacuum flange of the turbopump.
4) Insert the retaining ring into the groove of the high vacuum flange.
5) Fasten the turbo pump with collar flange and centering ring to the counter flange as shown in the graphic.
6) Tighten the nuts crosswise in three steps.
7) Tightening torque DN 160: 5, 10, 16 ± 1 Nm
Stud screw and through hole
Mind that the sealing surfaces are not damaged.
1) Put the collar flange over the high vacuum flange of the turbopump.
2) Insert the retaining ring into the groove of the high vacuum flange.
3) Fasten the turbo pump with collar flange and centering ring to the counter flange as shown in the graphic.
4) Use the required number of 8 stud screws and nuts.
5) Tighten the nuts crosswise in three steps.
6) Tightening torque DN 160: 5, 10, 16 ± 1 Nm
17
Installation
5.4.3
Installation of ISO-F with ISO-F flange
The connection types for installation of ISO-F to ISO-F flange are "hex screw and threaded hole," "stud screw and threaded hole," and "stud screw and through hole".
For the installation the following components are exclusively authorized:
● the valid mounting kit of the Pfeiffer Vacuum accessories programme
● mounting materials including protection screen or splinter shield are optionally available
Hexagon screw and threaded hole
Mind that the sealing surfaces are not damaged.
1) Connect the flanges according to the drawing and with the component parts of the mounting kit.
2) Use the required number of
8
hex screws with washer.
3) Screw hex screws 1.5 x d into the threaded holes.
– The tensile strength of the flange material must be at least 270 N/mm ating conditions.
2
in all oper-
4) Tighten the hex screws crosswise in three steps.
5) Tightening torque DN 160: 10, 20, 38 ± 3 Nm
Stud screw and threaded hole
Mind that the sealing surfaces are not damaged.
1) Use the required number of
8
stud screws and nuts.
2) Screw in the stud screws with the shorter threaded end 2.5 x d in the bore holes on the counter flange.
3) Connect the flanges according to the drawing and with the component parts of the mounting kit.
4) Tighten the nuts crosswise in three steps.
5) Tightening torque DN 160: 10, 20, 38 ± 3 Nm
Stud screw and through hole
Mind that the sealing surfaces are not damaged.
1) Connect the flanges according to the drawing and with the component parts of the mounting kit.
2) Use the required number of
8
stud screws and nuts.
3) Tighten the nuts crosswise in three steps.
4) Tightening torque DN 160: 10, 20, 38 ± 3 Nm
18
Installation
5.4.4
Installation of CF- flanges
NOTICE
Assembly of CF flanges!
Loss of sealing capability due to a lack of cleanliness when handling the sealing and CF flange.
Assemble the sealing dry and oil-free.
Always wear gloves when handling the components.
Do not damage the surfaces and cutting edges.
The connection types for installation of CF to CF flange are "hexagon screw and through hole", "stud screw and threaded hole" as well as "stud screw and through hole".
● the valid mounting kit of the Pfeiffer Vacuum accessories programme
● A copper seal
● protection screen or splinter shield are optionally
Hexagon screw and through hole
1) If used: Insert protective screen or splinter shield with the clamping lugs downward into the high vacuum flange of the turbopump.
2) Place the seal exactly in the hollow.
3) Connect the flanges using 16 hexagon-head screws (M8) with washers and bolts.
4) Tighten the screw connections circularly.
5) Tightening torque: 22 ± 2 Nm
6) After this, check the torque, since flowing of the sealing material may make it necessary to tighten the screws again.
Stud screw and threaded hole
1) Screw in the stud screws (
16
pieces, M8) with the shorter threaded end into the threaded holes of the counter flange.
2) If used: Insert protective screen or splinter shield with the clamping lugs downward into the high vacuum flange of the turbopump.
3) Place the seal exactly in the hollow.
4) Connect the flanges using washers and nuts.
5) Tighten the screw connections circularly.
6) Tightening torque: 22 ± 2 Nm
7) After this, check the torque, since flowing of the sealing material may make it necessary to tighten the screws again.
Stud screw and through hole
1) If used: Insert protective screen or splinter shield with the clamping lugs downward into the high vacuum flange of the turbopump.
2) Place the seal exactly in the hollow.
3) Connect the flanges using
16
hexagon-head screws (M8) with washers and bolts.
4) Tighten the screw connections circularly.
5) Tightening torque: 22 ± 2 Nm
6) After this, check the torque, since flowing of the sealing material may make it necessary to tighten the screws again.
19
Installation
5.5
Connecting the fore-vacuum side
Recommendation: As backing pump, use a suitable vacuum pump from the Pfeiffer
Vacuum programme.
WARNING
Damage to health due to poisonous gases
Process gases can damage health and contaminate the environment.
Safely lead away the gas emission from the backing pump!
Observe all safety recommendations of the gas producer.
20 20.1 20.2
20.3
20a
Fig. 5: Connecting the backing pump
20 Fore-vacuum
20a Backing pump
20.1
Centering ring
20.2
Clamping ring
20.3
Vacuum components
NOTICE
Design of the fore-vacuum connection regarding sudden twisting of the pump
If the rotor suddenly blocks the connection of high vacuum flanges of types ISO-KF or
ISO-K can lead to twisting despite proper installation.
Keep masses small, which can be installed directly to the pump.
Connect flexible line elements directly to the turbopump, if necessary.
With rigid pipe connections: Install bellows for attenuation of vibrations in the connection line.
Connect the fore-vacuum line with small-flange components or threaded hose couplings. Do not narrow the free cross section of the fore-vacuum flange!
The backing pump is connected electrically via a relay box.
For connection and operation of the backing pump see its operating instructions.
Backing pump control
Backing pump control via electronic drive unit of the turbopump is possible using a relay box or respective connection cables of the accessory programme.
Refer to the operating instructions of the respective accessory.
20
Installation
5.6
Connections to the turbopump
5.6.1
Electronic drive unit
Turbopumps with integrated electronic drive unit are designed for various applications.
Therefore different connection panels are available.
● TC 400 in standard version
● TC 400 PB for Profibus linking
● TC 400 E74 in dependence on specification SEMI E74
● TC 400 DN for DeviceNet linking
● TC 400 EC for EtherCAT linking
Detailed description for function, configuration and operation with the respective connection panel are given in the specific operating instructions for the electronic drive unit.
5.6.2
Earthing
Pfeiffer Vacuum recommends to connect an appropriate earthing wire to derive applicative interferences.
M4
Fig. 6: Installing the earthing connection
5.6.3
Power and electrical supply
For voltage supply of the electronic drive unit TC 400, only use original power supplies
(e.g. TPS 400 or DCU 400). Use of other power supplies only after consultation with Pfeiffer Vacuum. Connecting cables are available from the Pfeiffer Vacuum accessories.
WARNING
Danger of electric shock
In case of defect, the parts connected to the mains supply are under voltage.
Always keep the mains connection freely accessible so you can disconnect it at any time.
Make sure that the voltage of the turbopump is valid.
HiPace V DC Drive unit
HiPace 400 24
HiPace 400 48
TC 400
TC 400
Power supply
TPS 310/311
TPS 400/401
Power supply with DCU
DCU 310
DCU 400
21
Installation
S1
TPS / DCU Electronicdrive unit
DC out
PM 061 352 -T DC in
Switch off switch
S1
on the power pack (position "0").
Insert the connection cable with the socket in the connection " DC in " on the electronic drive unit and close the bayonet lock.
Insert the connection cable with the plug in the connection "
DC out
" on the power supply and close the bayonet lock.
5.6.4
Remote plug
The shipment includes a mating plug for the 26-pin connection with the designation
" remote
" on the TC 400. The mating plug bridges the following connections with the supply voltage (Pin 1), allowing the turbopump to operate without an additional operating unit or remote control:
● Pin 2, Enable venting "on"
● Pin 3, Motor pump "on"
● Pin 4, Pumping station "on"
● Pin 14, Remote access request
Place and fix the mating plug on the connection " remote
" on the TC 400.
CAUTION
Automatic start
After bridging the contacts Pin 1, 3, 4, 14 on the connection " remote
" or using the mating plug supplied and
setting up the supply voltage, the turbopump will run up immediately.
Switch on the mains supply on the turbopump immediately before operation.
5.7
Accessory connection
Up to 4 accessories can be connected to the electronic drive unit TC 400. M12 sockets with the designation " accessory
" are available for this purpose. The accessory connections have been preconfigured at the factory. If the units listed below are connected with the preconfigured connection, they are immediately ready for operation according to the factory settings. It is possible to connect other accessories; to do so, settings must be made on the electronic drive unit.
1 1
Y-Connector for Accessories
2 2
To connect two units to one accessory connection, use the appropriate Y-Connector from the Pfeiffer Vacuum range of accessories.
Connect the adapter to the appropriate red-coded connection on the TC 400.
Settings can be made via the interfaces of the TC 400 ( remote
,
RS-485
,
Profibus
or
DeviceNet
).
Accessory connection Connection with Y-connector Preset accessory
Accessory A
Accessory A
Accessory B
Acc. A to Y-1
Acc. A to Y-2
Acc. B to Y-1
Air cooling unit
Backing pump
Venting valve
Accessory B Acc. B to Y-2 Casing heating unit
Table 1: Overview of factory preset accessory connections on the TC 400
22
Installation
5.7.1
Air cooling
As an option, turbopumps with the electronic drive unit TC 400 may be operated with air cooling up to an ambient temperature of +35 °C.
3a
3b
3c
3
Fig. 7: Connecting the air cooling
3 Pump lower part
3a Air cooling unit
3b Allen head screw
3c Counter-sunk screw
Fix the air cooling unit to the holes of the turbopump using two screws.
Plug in and fix the accessory’s control lead to the corresponding accessory connection port on the electronic drive unit.
Default for air cooling is " accessory A1
".
5.7.2
Venting valve
The Pfeiffer Vacuum venting valve is used for automatic venting in case of shut-down or power failure.
The permissible connection pressure is max. 1500 hPa absolute.
18
17a
17
Fig. 8: Connecting the venting valve
18 Seal ring 17 Venting screw 17a Venting valve
Unscrew the venting screw with seal ring from the venting connection.
Screw in the venting valve with seal ring.
Plug in and fix the accessory’s control lead to the corresponding accessory connection port on the electronic drive unit.
Default for the venting valve is " accessory B1
".
If neccessary install a venting gas supply (e.g. inert gas) to the intake (G 1/8") of the solenoid valve.
23
Installation
5.7.3
Sealing gas connection
The turbopump must be operated with sealing gas to protect it, such as in the case of unclean processes or high gas throughput. The supply is made via a sealing gas valve or alternatively via a sealing gas throttle without control. The activation of the control valve for the sealing gas connection is not pre-installed in the electronic drive unit and has to be configured via their interfaces.
The permissible connection pressure is max. 1500 hPa absolute.
● When operating the pump with more than 50 % of the maximum gas throughput, sealing gas must be used to ensure rotor cooling.
● The sealing gas flow rate amounts 12-15 sccm for the HiPace 400.
Sealing gas supply with control valve
16a
18 16
Fig. 9: Connecting the sealing gas valve
18 Seal ring 16 Locking screw 16a Sealing gas valve
Unscrew the locking screw with seal ring out of the sealing gas connection.
Screw the sealing gas valve with seal ring into the sealing gas connection.
Insert the control cable of the accessory into a free accessory connector on the TC
400 and tighten.
Make the settings and control via the interfaces of the electronic drive unit.
Install the sealing gas supply (e.g. inert gas) via a connection adapter or on the inlet side (G 1/8") of the control valve.
Sealing gas supply without control valve
Unscrew the locking screw with seal ring out of the sealing gas connection.
Screw the sealing gas throttle with sealing ring into the sealing gas connection.
5.7.4
Heating jacket
The turbopump and vacuum chamber can be heated to reach the ultimate pressure more quickly. Use of a heating jacket is only permissible for pumps with the high vacuum flange in stainless steel design. The heating duration depends on the degree of contamination as well as the ultimate pressure to be reached and should be at least 4 hours.
NOTICE
Dangerous excess temperatures
Process-related high temperatures can result in impermissible excess temperatures and thus damage to the turbopump.
Water cooling must be used when employing a casing heating or during operation with heated vacuum chambers.
Do not introduce any additional energy into the pump (see p. 27, chap. 6.1) .
24
Installation
CAUTION
Risk of burns
High temperatures arise when the turbopump or vacuum chamber are baked out. As a result, there is a danger of burns from touching hot parts, even after the casing heating is switched off!
Thermally insulate heating jacket, pump housing and vacuum chamber, if possible during installation.
Do not touch heating jacket, pump casing and vacuum chamber during bake out.
● When using a casing heating and a water cooling unit the temperature of the connected flange of the vacuum chamber must not exceed 120 °C.
● The maximum permissible rotor temperature for the turbopump is 90 °C. If high temperatures arise for process reasons, the radiated heat input must not exceed 4.2 W.
Install suitable screening sheets, if necessary (design information on request).
2x 4d
4
H
4b
4a
4c
Fig. 10: Connecting the heating jacket
4a Heating jacket
4b Fixing screw
4c Heating relay box
4d Warning sticker
Bend open the outer heating jacket on the tensioning strap and place it sidewards on to the cylindrical segment of the pump casing.
– Do not bend the heating straps!
– The heating jacket must seat completely on the casing segment.
Fix the heating jacket with the fixing screw on the casing.
– Observe the tightening torque for the fixing screw!
Fixing screw
M5
M6
Tightening torque in cold condition
6 Nm
11 Nm
Tightening torque during the heating-up
7 Nm
12 Nm
Table 2: Tightening torques for fixing screws of heating jackets
Singular retightening after the cooling down
7 Nm
12 Nm
Plug in and fix the accessory’s control lead to the corresponding accessory connection port on the electronic drive unit.
Default for the casing heating is " accessory B2
".
Establish the mains supply for the relay box according to the accessory operating instructions.
25
Installation
5.7.5
Water cooling
The turbopumps HiPace 400 with TC 400 have water cooling as standard equipment.
● In case of increased backing pressure (> 0.1 hPa) and/or operation with high gas throughputs, either air or water cooling may be used.
● Generally use water cooling if the ambient temperature is > +35 °C.
Cooling water requirements
Cooling water connection
Hose lines
Cooling water quality
Oxygen content max.
Chloride content max.
Water hardness max.
Socket connection
External diameter 8 mm
Internal diameter 6 mm
Consumption of potassium permanganate max.
Carbon dioxide content max.
Ammonia content max.
pH-value
Fore-line overpressure max.
Cooling water temperature
Cooling water consumption at max. gas throughput filtrated, mechanically clean, optically clear, no turbidity, no sediments, chemically neutral
4 mg/kg
100 mg/kg
10 °dH
12.53 °e
17.8 °fH
178 ppm CaC0
3
10 mg/kg undetectable undetectable
7 - 9
6000 hPa refer to "Technical Data" refer to "Technical Data"
Connecting to a cooling water system
14a
14c
14 14b
Fig. 11: Connecting the cooling water
14 Cooling water connection
14a Fore-line
14b Return line
14c Dirt trap
Insert hoses for the water cooling fore- and return-line as far as they will go in one cooling water connection each.
Recommendation:
install dirt trap in the fore-line.
26
Operation
6 Operation
6.1
Commissioning
The following important settings are programmed in the electronic drive unit ex factory.
● Parameter [P:027] Gas mode: 0 = heavy gases
● Parameter
[P:700]
Set value max. run-up time monitoring: 8 min
● Parameter
[P:701]
Rotation speed switchpoint: 80% of the nominal roation speed
● Parameter [P:707] Set value in rotation speed setting mode: 65 % of the nominal rotation speed
● Parameter
[P:708]
Set value power consumption: 100 %
● Parameter
[P:720]
Venting rotation speed at delayed venting: 50 % of the nominal rotation speed
● Parameter [P:721] Venting time: 3600 s
When water cooling is used: Open cooling water supply and check the flow.
When sealing gas is used: Open the sealing gas supply and check the flow.
Establish the mains for the power supply.
NOTICE
Risk of destroying the pump by inputting too much energy
Simultaneous loading by means of high drive power (gas flow rate, fore-vacuum pressure), high heat radiation, or strong magnetic fields results in uncontrolled heating of the rotor and may destroy the pump.
Reduced limit values apply when combining these loads.
If necessary consult with Pfeiffer Vacuum.
NOTICE
Danger of the pump being destroyed
Pumping of gases with a higher molecular mass in the wrong gas mode can lead to destruction of the pump.
Ensure the gas mode is correctly set.
Contact Pfeiffer Vacuum before using gases with a greater molecular mass (> 80).
6.2
Operation modes
The following operation modes are available:
● Operation without operating unit
● Operation via " remote
" connection
● Operation via RS-485 and Pfeiffer Vacuum display and control units or PC
● Operation via field bus
6.3
Function description
WARNING
Danger due to open high vacuum flange
The rotor of the turbopump turns at high speed. If the high vacuum flange is open, there is a danger of cut injuries and that the pump can be destroyed by objects falling into it.
Never operate the pump with an open high vacuum flange.
27
Operation
6.3.1
Operation without operating unit
CAUTION
Automatic start
After bridging the contacts Pin 1, 3, 4, 14 on the connection " remote
" or using the mating plug supplied and
setting up the supply voltage, the turbopump will run up immediately.
Switch on the mains supply on the turbopump immediately before operation.
For operation without the control unit, the 26-pole D-Sub plug must be in the " remote
" connection on the TC 400.
Switch on the supply voltage with switch S1 on the power supply.
After operating voltage is applied, the TC 400 performs a self-test to check the supply voltage. Once the self-test has been successfully completed on the TC 400, the turbopump and the backing pump - if connected - begin to operate.
6.3.2
Operation via "remote" connection
Remote control is possible via the 26-pin D-sub connector labelled " remote
" on the electronic drive unit. The accessible individual functions are mapped to "PLC levels".
Consider the following manuals for the operation via remote control:
● Operating instructions "Electronic drive unit TC 400"
6.3.3
Operation with DCU or HPU
Consider the following manuals for the operation via Pfeiffer Vacuum display and control units:
● Operating instructions "DCU"
● Operating instructions "HPU"
● Operating instructions "Electronic drive unit TC 400"
Switch on the supply voltage with switch S1 on the power supply or on the DCU 400.
Settings are possible via interface RS-485 by using DCU, HPU or PC.
6.3.4
Operation via fieldbus
Integrating and operating Pfeiffer Vacuum turbopumps in the customer's field bus system is possible for electronic drive units with a corresponding field bus panel.
Consider the following manuals for the operation via field bus:
● Operating instructions for the electronic drive unit with the respective connection panel
6.4
Monitoring of the operation conditions
6.4.1
Temperature monitoring
The drive power is reduced in case of impermissible motor temperature or impermissibly high housing temperature. This can cause falling below the rotation speed switchpoint and so result in turning off the turbopump.
28
Operation
6.4.2
Operation display via LED
LEDs in the front panel of the electronic drive unit show basic operating conditions of the turbopump. A differentiated malfunction and warning display is possible only for operation with DCU or HPU.
LED Symbol LED status
Green Off
On, flashing
On, invers flashing
Display
Yellow
On, constantly
On, blinking
Off
On, constantly
Meaning currentless
"Pumping Station OFF", rotation speed ≤ 60 min
-1
"Pumping Station ON", set rotation speed not attained
"Pumping Station ON", set rotation speed attained
"Pumping Station OFF", rotation speed > 60 min
-1 no warning
Warning
Red Off
On, constantly no malfunction
Malfunction
Fig. 12: Behaviour and meaning of LEDs on the electronic drive unit
6.5
Switching off and venting
6.5.1
Switching off
After the turbopump is switched off, it must be vented to avoid contamination due to particles streaming back from the fore-vacuum area.
Close the fore-vacuum: Switch off the backing pump or close a fore-vacuum valve.
Switch off the turbopump on the control unit or via remote control.
Venting (possibilities see below)
For water cooling: Shut off the water supply.
6.5.2
Venting
Manually venting
Open the venting screw (included) in the venting connection of the turbopump about one turn.
Venting with Pfeiffer Vacuum Venting Valve
Enable venting via the functions of the electronic drive unit.
Settings are possible via interface RS-485 by using DCU, HPU or PC.
Venting rotation speed Switch off the pumping station Mains power failure
1)
50 % of the nominal rotation Venting valve opens for 3600 s (1 h, speed works setting)
1) When mains power is restored the venting procedure is aborted.
Venting valve opens for
3600 s (1 h, works setting)
Basic information for the rapid venting
Venting of the vacuum chamber in two steps. Ask for details on individual solutions from
Pfeiffer Vacuum.
Vent for 20 seconds at a rate of pressure rise of max. 15 hPa/s.
– The valve cross section for the venting rate of 15 hPa/s must be adapted to the size of the vacuum chamber.
– For small vacuum chambers, use the Pfeiffer Vacuum venting valve.
Then vent with an additional venting valve of any desired size.
29
Maintenance / replacement
7 Maintenance / replacement
WARNING
Contamination of parts and operating fluid by pumped media is possible.
Poisoning hazard through contact with materials that damage health.
In the case of contamination, carry out appropriate safety precautions in order to prevent danger to health through dangerous substances.
Decontaminate affected parts before carrying out maintenance work.
NOTICE
Disclaimer of liability
Pfeiffer Vacuum accepts no liability for personal injury or material damage, losses or operating malfunctions due to improperly performed maintenance. The liability and warranty entitlement expires.
7.1
Maintenance intervals and responsibilities
● Clean the turbopump externally with a lint-free cloth and little industrial alcohol.
● Replace the operating fluid reservoir and electronic drive unit yourself.
● Change the operating fluid reservoir at least every 4 years.
● Change the turbopump bearing at least every 4 years.
– Contact Pfeiffer Vacuum Service.
● Clarify shorter maintenance intervals for extreme loads or impure processes with Pfeiffer Vacuum Service.
● For all other cleaning, maintenance or repair work, please contact your Pfeiffer Vacuum service location.
7.2
Replacing the operating fluid reservoir
WARNING
Poisoning hazard through contact with materials that damage health.
The operating fluid reservoir and parts of the pump may contain toxic substances from the pumped media.
Dispose of operating fluid reservoir in accordance with the applicable regulations.
Safety data sheet on request or under www.pfeiffer-vacuum.com
Prevent health hazards or environmental damage due to contamination by means of appropriate safety precautions.
Decontaminate affected parts before carrying out maintenance work.
Operating fluid filling
The operating fluid reservoir is sufficiently filled with operating fluid.
Do not add additional operating fluid.
Turn off the vacuum pump, vent to atmospheric pressure and allow to cool.
Remove the vacuum pump from the system, if necessary.
Close the flange openings by using the original protective covers.
Turn the turbopump over onto the closed high vacuum flange.
30
6
55
7
Maintenance / replacement
6
6 End cover
55 Allen head screw
7 Operating fluid reservoir
Screw out the Allen head screws (3x) from the end cover at the bottom of the turbopump.
Remove the end cover. Pay attention to the O-ring.
7
15
7b
7a
7 Operating fluid reservoir
7a Porex rod
7b Felt washer
15 Splash nut
Remove the operating fluid reservoir out of the bearing cartridge.
Using tweezers, pull out the Poroplast rods (9x).
Remove impurities from the turbopump and the end cover with a clean, lint-free cloth.
Do not use any cleaning fluids!
Using tweezers, insert the new Poroplast rods (9x).
Install the new operating fluid reservoir in the bearing mounting of the turbopump with the felt side oriented toward the nozzle tip.
For the HiPace turbopumps the operating fluid reservoir can be inserted completely into the bearing cartridge.
Screw in the end cover with the new O-ring.
– Tightening torque:
2.5 Nm
.
31
Maintenance / replacement
7.3
Replacing the electronic drive unit
NOTICE
Damages to the pump and drive
Even after the mains power is switched off, the subsequently running pump delivers electric power to the electronic drive unit. There is a danger of electric body contact by premature separating the pump from the electronic drive unit.
Never separate the electronic drive unit from the pump when the mains power is connected or the rotor is running.
Operating parameters of the electronic drive unit
The factory operating parameters are always preset with replacement shipments.
The use of a HPU enables the storing and the reuse of an existing parameter record.
Reset any individually changed application parameters.
Refer to the manual "Electronic drive unit".
57 8
Fig. 13: Assembly / disassembly of the TC 400
8 Electronic drive unit 57 Allen head screw
Do not exercise any mechanical load on the electronic drive unit.
Turn off the vacuum pump, vent to atmospheric pressure and allow to cool.
Only separate the pump and the electronic drive unit from each other after disconnecting the supply voltage and the complete standstill of the pump.
Remove the vacuum pump from the system, if necessary.
Unscrew Allen head screws (3x) from the electronic drive unit.
Pull the electronic drive unit off the pump.
Screw on and connect new electronic drive unit to the turbopump.
– Tightening torque:
2.5 Nm
.
7.3.1
Rotation speed set value
The typical nominal rotation speed of a turbopump is factory-set in the electronic drive unit. If the electronic drive unit is replaced or a different pump type is used, the reference set value of the nominal rotation speed must be confirmed. This procedure is part of a redundant safety system for avoiding excess rotation speeds.
HiPace
300
400 / 700 / 800
Nominal rotation speed confirmation [P:777]
1000 Hz
820 Hz
Adjust the parameter
[P:777]
according to the pump type.
Alternatively
: If no display and control unit is available, please use the "SpeedConfigurator" of the spare parts delivery.
32
Decommissioning
8 Decommissioning
8.1
Shutting down for longer periods
WARNING
Contamination of parts and operating fluid by pumped media is possible.
Poisoning hazard through contact with materials that damage health.
In the case of contamination, carry out appropriate safety precautions in order to prevent danger to health through dangerous substances.
Decontaminate affected parts before carrying out maintenance work.
If the turbopump should be shut down for longer than a year:
Remove the vacuum pump from the system, if necessary.
Replace the operating fluid reservoir if necessary.
Close the high vacuum flange of the turbopump.
Evacuate turbopump via the fore-vacuum flange.
Vent turbopump via the venting connection with oil-free, dry air or inert gas.
Close the flange openings by using the original protective covers.
Close further connection ports by using the corresponding protective covers.
Place pump upright on rubber feet.
Store the pump only indoors at temperatures between -25 °C and +55 °C.
In rooms with moist or aggressive atmospheres, the pump must be airproof shrinkwrapped in a plastic bag together with a bag of desiccant.
8.2
Re-starting
NOTICE
Risk of damage to the pump following recommissioning
The operating fluid in the turbo pump has a limited shelf life. The length of its shelf life is as follows:
● max. 2 years without operation or
● a total of max. 4 years following periods of operation and nonoperation.
Follow the maintenance instructions and inform Pfeiffer Vacuum.
Check turbopump for contamination and moisture.
Clean the turbopump externally with a lint-free cloth and little industrial alcohol.
If necessary, have Pfeiffer Vacuum Service clean the turbopump completely.
Replace the operating fluid reservoir if necessary.
If necessary, have the bearings replaced. Take into account the total running time.
Installation and commissioning in accordance with the operating instructions.
8.3
Disposal
Products or parts thereof (mechanical and electrical components, operating fluids, etc.) may cause environmental burden.
Safely dispose of the materials according to the locally applicable regulations.
33
Malfunctions
9 Malfunctions
If malfunctions on the pump occur, you will find possible causes and instructions for repair in the following table.
9.1
Rectifying malfunctions
Problem
Pump does not start; none of the built-in
LEDs on the TC 400 lights up
Pump does not start; green LED on the TC
400 is flashing
Pump does not attain the final rotational speed within the specified run-up time
Pump does not attain the ultimate pressure
Unusual noises during operation
Red LED on the TC 400 is on
Possible causes
● Electrical supply interrupted
● Operating voltage incorrect
● No operating voltage applied
● TC 400 defective
● At operation without control panel:
Pins 1-3, 1-4 or 1-14 are not connected on the "remote" connection
● At operation via RS-485: Bridge at Pin 1-
14 prevents control commands
● At operation via RS-485 (without mating plug): Parameters of the electronic drive unit not set
● Voltage drop in the cable too high
● Fore-vacuum pressure too high
● Leak
● Gas throughput too high
● Rotor runs hard, bearing defective
● Setpoint for run-up time to low
● Thermal overload:
– Lack of air ventilation
– Water flow too low
– Fore-vacuum pressure too high
– Ambient temperature too high
● Pump is dirty
● Vacuum chamber, pipes or pump are leaky
● Bearing damage
● Rotor damage
● Splinter shield or protective screen are loose
● Collective fault
Remedy
Check plug contacts on the power supply
Check supply lines on the power supply
Check the output voltage (24 / 48 V DC) on the connection "DC out" of the power supply
Check the plug contacts on the TC
Apply correct operating voltage
Observe the rating plate
Apply operating voltage
Exchange the TC 400
Contact the Pfeiffer Vacuum Service
Connect the pins 1-3, 1-4 or 1-14 on the "remote" connection
Install the mating plug (scope of delivery) to the
"remote" connection.
Remove the bridge betwenn pins 1 and 14 from the "remote" connection
Remove the mating plug from the "remote" connection.
Set parameters
[P: 010]
and
[P: 023]
"ON" via interface RS-485.
Please refer to operating instructions of the electronic drive unit.
Use a suitable cable
Ensure function and suitability of the backing pump
Perform leak detection
Check sealings and flange fastenings
Eliminate leaks
Reduce process gas supply
Check the bearing for noises
Contact the Pfeiffer Vacuum Service
Extend the run-up time via DCU, HPU or PC
Reduce thermal loads
– Ensure adequate cooling
– Ensure the cooling water flow
– Lower the fore-vacuum pressure
– Adjust ambient conditions
Bake out the pump
Cleaning in case of heavy contamination
– Contact the Pfeiffer Vacuum Service
Leak detection starting from the vacuum chamber
Eliminate leaks
Contact the Pfeiffer Vacuum Service
Contact the Pfeiffer Vacuum Service
Correct the seat of the splinter shield or the protective screen
Observe the installation notes
Reset by switching the mains OFF/ON
Reset via pin 13 on the "REMOTE" connection
Differentiated malfunction display is possible via
RS-485
1)
Contact the Pfeiffer Vacuum Service
1)
If no Pfeiffer Vacuum display and control unit is available, please contact the Pfeiffer Vacuum Service.
34
Service
10 Service
Pfeiffer Vacuum offers first-class service!
● Operating fluid and bearing change on the spot by Pfeiffer Vacuum FieldService
● Maintenance / repair in the nearby ServiceCenter or ServicePoint
● Fast replacement with exchange products in mint condition
● Advice on the most cost-efficient and quickest solution
Detailed information, addresses and forms at: www.pfeiffer-vacuum.com (Service ).
Maintenance and repair in the Pfeiffer Vacuum ServiceCenter
The following steps are necessary to ensure a fast, smooth servicing process:
Download the forms "Service Request" and "Declaration on Contamination".
1)
Fill out the "Service Request" form and send it by fax or e-mail to your Pfeiffer Vacuum service address.
Include the confirmation on the service request from Pfeiffer Vacuum with your shipment.
Fill out the declaration on contamination and include it in the shipment (required!).
Dismantle all accessories.
Drain the operating fluid (applies for turbopumps with pumping speed > 800 l/s).
Leave electronic drive on the pump.
Close the flange openings by using the original protective covers.
If possible, send pump or unit in the original packaging.
Sending of contaminated pumps or devices
No units will be accepted if they are contaminated with micro-biological, explosive or radioactive substances. “Hazardous substances” are substances and compounds in accordance with the hazardous goods directive (current version). If pumps are contaminated or the declaration on contamination is missing, Pfeiffer Vacuum performs decontamination at the shipper's expense.
Neutralise the pump by flushing it with nitrogen or dry air.
Close all openings airtight.
Seal the pump or unit in suitable protective film.
Return the pump/unit only in a suitable and sturdy transport container and send it in while following applicable transport conditions.
Exchange unit
The factory operating parameters are always preset with exchange units. If you use changed parameters for your application, you have to set these again.
Service orders
All service orders are carried out exclusively according to our repair conditions for vacuum units and components.
1)
Forms under www.pfeiffer-vacuum.com
35
Spare parts HiPace 400
11 Spare parts HiPace 400
Item
7
8
93
Designation
Operating fluid reservoir
Electronic drive unit TC 400
Mating plug "remote"
Order number Notes
PM 143 452 -T incl. Poroplast rods according to the rating plate depends on the connection panel
PM 061 378 -X with bridges
Pieces Order qty
1
1
1
7
8
Please also specify model number of the the rating plate when ordering accessories or spare parts.
36
Accessories
12 Accessories
12.1 HiPace 400, 48 V DC
Designation
Mounting kit for HiPace 400, DN 100 ISO-K, including coated centering ring
Mounting kit for HiPace 400, DN 100 ISO-K, including coated centering ring, protection screen, bracket screws
Mounting kit for HiPace 400, DN 100 ISO-K, including coated centering ring, splinter shield, bracket screws
Mounting kit for DN 100 ISO-K to ISO-F, with collar flange, coated centering ring, hexagon bolts
Mounting kit for DN 100 ISO-K to ISO-F, with collar flange, coated centering ring with splinter shield, hexagon bolts
Mounting kit for DN 100 ISO-K to ISO-F, with collar flange, coated centering ring with protection screen, hexagon bolts
Mounting kit for DN 100 ISO-K to ISO-F, with collar flange, coated centering ring, stud screws
Mounting kit for DN 100 ISo-K to ISO-F, with collar flange, coated centering ring with splinter shield, stud screws
Mounting kit for DN 100 ISO-K to ISO-F, with collar flange, coated centering ring with protection screen, stud screws
Set of hexagon screws for through hole, DN 100 CF-F
Set of stud screws for tapped hole, DN 100 CF-F
Set of stud screws for through hole, DN 100 CF-F
Mounting kit for DN 100 ISO-F, including coated centering ring, hexagon screws
Mounting kit for DN 100 ISO-F, including coated centering ring, protective screen, hexagon screws
Mounting kit for DN 100 ISO-F, including coated centering ring, splinter shield, hexagon screws
Mounting kit for DN 100 ISO-F, including coated centering ring, stud screws
Mounting kit for DN 100 ISO-F, including coated centering ring, protection screen, stud screws
Mounting kit for DN 100 ISO-F, including coated centering ring, splinter shield, stud screws
Centering ring with multifunction coating, DN 100 ISO-K/-F
Centering ring with multifunction coating and integrated protection screen, DN 100 ISO-K/-F
Centering ring with multifunction coating and integrated splinter shield, DN 100 ISO-K/-F
Vibration damper for HiPace 300/400, DN 100 ISO-K/F
Protection screen for DN 100 CF-F
Splinter shield for turbopumps, DN 100 CF-F
Vibration damper for HiPace 300/400, DN 100 CF-F
DN 100 ISO-K
PM 016 380 -T
PM 016 382 -T
PM 016 381 -T
PM 016 940 -T
PM 016 941 -T
PM 016 942 -T
PM 016 945 -T
PM 016 946 -T
PM 016 947 -T
PM 016 210 -U
PM 016 212 -U
PM 016 211 -U
PM 006 459 -X
TPS 400, power supply 48 V DC, for wall/standard rail fitting
TPS 401, power supply 48 V DC, 19" partial plug-in 3HU
DCU 400, Display control unit incl. power supply
Mains cable 230 V AC, CEE 7/7 to C13, 3 m
Mains cable 115 V AC, NEMA 5-15 to C13, 3 m
Mains cable 208 V AC, NEMA 6-15 to C13, 3 m
DCU 002, Display Control Unit
HPU 001, Handheld Programming Unit
Accessories package for HPU 001/PC
Connection cable for HiPace with TC 400/TM 700 to power supply
TPS/DCU 310/311/400/401
Backing pump relay box, single phase 20 A, for TC 400 and TCP 350,
M12 plug
Relay box, shielded, for backing pumps, 1-phase 7 A for TC 400/1200,
TM 700 and TCP 350, M12
PM 061 343 -T
PM 061 347 -T
PM C01 823
P 4564 309 ZA
P 4564 309 ZE
P 4564 309 ZF
PM 061 348 -T
PM 051 510 -T
PM 061 005 -T
PM 061 352 -T
PM 061 375 -T
PM 071 284 -X
DN 100 CF-F
PM 016 690 -T
PM 016 866 -T
PM 016 734 -T
PM 016 336
PM 016 315
PM 006 488 -X
PM 061 343 -T
PM 061 347 -T
PM C01 823
P 4564 309 ZA
P 4564 309 ZE
P 4564 309 ZF
PM 061 348 -T
PM 051 510 -T
PM 061 005 -T
PM 061 352 -T
PM 061 375 -T
PM 071 284 -X
DN 100 ISO-F
PM 016 450 -T
PM 016 452 -T
PM 016 451 -T
PM 016 455 -T
PM 016 457 -T
PM 016 456 -T
PM 016 210 -U
PM 016 212 -U
PM 016 211 -U
PM 006 459 -X
PM 061 343 -T
PM 061 347 -T
PM C01 823
P 4564 309 ZA
P 4564 309 ZE
P 4564 309 ZF
PM 061 348 -T
PM 051 510 -T
PM 061 005 -T
PM 061 352 -T
PM 061 375 -T
PM 071 284 -X
37
Accessories
Designation
TVV 001 fore-vacuum safety valve, 230 V AC
TVV 001 fore-vacuum safety valve, 115 V AC
Heating jacket for HiPace 400/700/800 with TC 400, 230 V AC, safety plug
Heating jacket for HiPace 400/700/800 with TC 400, 208 V AC, UL plug
Heating jacket for HiPace 400/700/800 with TC 400, 115 V AC, UL plug
Venting valve, shielded, 24 V DC, G 1/8", for connection to TC 400/
1200 and TM 700
TTV 001, dryer for venting turbopumps
Sealing gas valve, shielded for HiPace 300 with TC 400 and TM 700,
TCP 350
Sealing gas throttle for HiPace 300
Air cooling for HiPace 400/700 and 800 with TC 400
USB converter to RS-485 interface
Interface cable, M12 m straight/M12 m straight, 3 m
HiPace - ACP connection cable
Control cable for pumping stations 0.7 m
Y-Connector M12 to RS-485
Y-connector, shielded, M12 for accessories
RJ 45 interface cable on M12 for HiPace
Termination resistor for RS-485
Wall rail fitting for TPS 110/180/310/400
Front panel kit for TPS 401
Power separator for RS-485
TIC 010, Adapter for two sensors
RPT 010, Digital Piezo/Pirani Sensor
IKT 010, Digital Cold Cathode Sensor, low current
IKT 011, Digital Cold Cathode Sensor, high current
DN 100 ISO-K
PM Z01 205
PM Z01 206
PM Z01 291
PM Z00 121
PM Z01 312
PM Z01 317
PM Z01 303
PM 061 207 -T
PM 061 283 -T
PM 071 142 -X
PM 061 675 AT
P 4723 010
P 4723 013
PM 051 726 -T
PT 348 105 -T
PM 061 392 -T
PM 061 396 -T
PT 348 132 -T
PT R70 000
PT R71 100
PTR 72 100
PT R73 100
DN 100 CF-F
PM Z01 205
PM Z01 206
PM 061 369 -T
PM 061 370 -T
PM 061 371 -T
PM Z01 291
PM Z00 121
PM Z01 312
PM Z01 317
PM Z01 303
PM 061 207 -T
PM 061 283 -T
PM 071 142 -X
PM 061 675 AT
P 4723 010
P 4723 013
PM 051 726 -T
PT 348 105 -T
PM 061 392 -T
PM 061 396 -T
PT 348 132 -T
PT R70 000
PT R71 100
PTR 72 100
PT R73 100
DN 100 ISO-F
PM Z01 205
PM Z01 206
PM Z01 291
PM Z00 121
PM Z01 312
PM Z01 317
PM Z01 303
PM 061 207 -T
PM 061 283 -T
PM 071 142 -X
PM 061 675 AT
P 4723 010
P 4723 013
PM 051 726 -T
PT 348 105 -T
PM 061 392 -T
PM 061 396 -T
PT 348 132 -T
PT R70 000
PT R71 100
PTR 72 100
PT R73 100
12.2 Differences at HiPace 400, 24 V DC
Designation
TPS 310, mains pack for wall/standard rail fitting
TPS 311, mains pack 19" rack module 3HU
Front panel kit for TPS 311
DCU 310, Display control unit incl. power supply
DN 100 ISO-K
PM 061 342 -T
PM 061 346 -T
PM 061 395 -T
PM C01 822
DN 100 CF-F
PM 061 342 -T
PM 061 346 -T
PM 061 395 -T
PM C01 822
DN 100 ISO-F
PM 061 342 -T
PM 061 346 -T
PM 061 395 -T
PM C01 822
38
Technical data and dimensions
13 Technical data and dimensions
13.1 General
Basic principles for the Technical Data of Pfeiffer Vacuum Turbopumps:
Maximum values refer exclusively to the input as a single load.
● Recommendations of PNEUROP committee PN5
● ISO 21360; 2007: "Vacuum technology - Standard methods for measuring vacuumpump performance - General description"
● ISO 5302; 2003: "Vacuum technology - Turbomolecular pumps - Measurement of performance characteristics"
● Ultimate pressure: using a test dome and a 48 hrs. period of baking out
● Gas throughput: water cooling; backing pump = rotary vane pump (10 m
3
/h)
● Cooling water consumption: at max. gas throughput, cooling water temp. 25 °C
● Integral leak rate: using a Helium concentration of 100 %, period 10 s
● Sound pressure level: Distance 1 m to the pump
Conversion table: pressure units mbar bar
mbar
bar
Pa
hPa
kPa
Torr
mm Hg
1
1000
0.01
1
10
1.33
Pa
1 · 10
-3
1
1 · 10
-5
1 · 10
-3
0.01
1.33 · 10 -3
100
1 · 10 5
1
100
1000
133.32
1 Pa = 1 N/m
2
Conversion table: gas throughput units
mbar·l/s
Pa·m
3
/s
sccm
Torr·l/s
atm·cm
3
/s mbar·l/s
1
10
1.69 · 10
-2
1.33
1.01
Pa·m
3
/s
0.1
1
1.69 · 10
-3
0.133
0.101
sccm
59.2
592
1
78.9
59.8
hPa
1
1000
0.01
1
10
1.33
Torr·l/s
0.75
7.5
1.27 · 10
-2
1
0.76
kPa
0.1
100
1 · 10
-3
0.1
1
0.133
Torr mm Hg
0.75
750
7.5 · 10
-3
0.75
7.5
1 atm·cm
3
/s
0.987
9.87
1.67 · 10
-2
1.32
1
13.2 HiPace 400, 48 V DC
Parameter
Flange (in)
Flange (out)
Pumping speed for Ar
Pumping speed for H
2
Pumping speed for He
Pumping speed for N
2
Compression ratio for Ar
Compression ratio for H
2
Compression ratio for He
Compression ratio for N
2
Gas throughput at full rotational speed for Ar
Gas throughput at full rotational speed for He
Gas throughput at full rotational speed for H
2
Gas throughput at full rotational speed for N
2
Fore-vacuum max. for Ar
Fore-vacuum max. for H
2
HiPace
®
400
DN 100 ISO-K
DN 25 ISO-KF / G 1/4"
320 l/s
445 l/s
470 l/s
355 l/s
> 1 · 10 11
4 · 10
5
3 · 10
7
> 1 · 10 11
3.5 hPa l/s
20 hPa l/s
> 14 hPa l/s
6.5 hPa l/s
11 hPa
6 hPa
HiPace
®
400
DN 100 CF-F
DN 25 ISO-KF / G 1/4"
320 l/s
445 l/s
470 l/s
355 l/s
> 1 · 10 11
4 · 10
5
3 · 10
7
> 1 · 10 11
3.5 hPa l/s
20 hPa l/s
> 14 hPa l/s
6.5 hPa l/s
11 hPa
6 hPa
HiPace
®
400
DN 100 ISO-F
DN 25 ISO-KF / G 1/4"
320 l/s
445 l/s
470 l/s
355 l/s
> 1 · 10 11
4 · 10
5
3 · 10
7
> 1 · 10 11
3.5 hPa l/s
20 hPa l/s
> 14 hPa l/s
6.5 hPa l/s
11 hPa
6 hPa
39
Technical data and dimensions
Parameter
Fore-vacuum max. for He
Fore-vacuum max. for N
2
Run-up time
Ultimate pressure according to PNEUROP
Rotation speed ± 2 %
Rotation speed variable
Power characteristic line in gas mode 1, vertex A
Power characteristic line in gas mode 1, vertex B
Power characteristic line in gas mode 0, vertex C
Power characteristic line in gas mode 0, vertex D
Power characteristic line in gas mode 2, vertex E
Power characteristic line in gas mode 2, vertex F
Sound pressure level
Relative humidity of air
Protection category
HiPace
®
400
13 hPa
11 hPa
2 min
< 1 · 10
-7 hPa
49200 min
-1
60-100 %
214/49200 W/min -1
240/42000 W/min -1
200/49200 W/min
-1
200/42000 W/min
-1
340/49200 W/min -1
350/46800 W/min
-1
50 dB (A)
IP54
Connection pressure max. for venting/sealing gas valve 1500 hPa
Drive power max.
350 W
Operating voltage
Operating voltage power supply
Integral leak rate
48 (± 5 %) V DC
90-265 V AC
< 1 · 10 -8 Pa m 3 /s
HiPace
®
400
13 hPa
11 hPa
2 min
< 5 · 10
-10 hPa
49200 min
-1
60-100 %
214/49200 W/min -1
240/42000 W/min -1
200/49200 W/min
-1
200/4200 W/min
-1
340/49200 W/min -1
350/46800 W/min
-1
50 dB (A)
5-85, non-condensing % 5-85, non-condensing % 5-85, non-condensing %
IP54
1500 hPa
350 W
48 (± 5 %) V DC
90-265 V AC
< 1 · 10 -8 Pa m 3 /s
HiPace
®
400
13 hPa
11 hPa
2 min
< 1 · 10
-7 hPa
49200 min
-1
60-100 %
214/49200 W/min -1
240/42000 W/min -1
200/49200 W/min
-1
200/42000 W/min
-1
340/49200 W/min -1
350/46800 W/min
-1
50 dB (A)
IP54
1500 hPa
350 W
48 (± 5 %) V DC
90-265 V AC
< 1 · 10 -8 Pa m 3 /s
Power consumption max.
Current consumption max.
Shipping and storage temperature
Mounting orientation
Venting connection
Weight
Cooling method, standard
Cooling method, optional
Cooling water temperature
Cooling water consumption
Permissible irradiated thermal power max.
Permissible magnetic field max.
Interfaces
420 W
8.75 A
-25-+55 °C in any orientation
G 1/8"
11.6 kg
Water
Air
15-35 °C
100 l/h
4.2 W
6 mT
RS-485, Remote
420 W
8.75 A
-25-+55 °C in any orientation
G 1/8"
17.5 kg
Water
Air
15-35 °C
100 l/h
4.2 W
6 mT
RS-485, Remote
420 W
8.75 A
-25–+55 °C in any orientation
G 1/8"
12 kg
Water
Air
15-35 °C
100 l/h
4.2 W
6 mT
RS-485, Remote
13.3 Differences at HiPace 400, 24 V DC
Parameter
Flange (in)
Run-up time
Operating voltage
Power consumption max.
Current consumption max.
HiPace
®
400
DN 100 ISO-K
4 min
24 (± 5 %) V DC
300 W
12.5 A
HiPace
®
400
DN 100 CF-F
4 min
24 (± 5 %) V DC
300 W
12.5 A
HiPace
®
400
DN 100 ISO-F
4 min
24 (± 5 %) V DC
300 W
12.5 A
40
13.4 Dimensions
VV
DN 25 ISO-KF / G 1/4“
59
16.7° 30°
ø 8
117
VV
DN 25 ISO-KF / G 1/4“
ø 150
M8 (6x)
M8 (6x)
45°
45°
59
16.7°
Fig. 14: HiPace 400, DN 100 ISO-K
30°
ø 8
11
7
VV
DN 25 ISO-KF / G1/4"
ø 150
M8 (6x)
45°
45°
59
16.7°
Fig. 15: HiPace 400, DN 100 CF-F
30°
ø 8
116.9
ø 150
M8 (6x)
45°
45°
Fig. 16: HiPace 400, DN 100 ISO-F
145.5
145.5
145.5
Technical data and dimensions
HV
DN 100 ISO-K
HV
DN 100 CF-F
HV
DN 100 ISO-F
41
Declaration of conformity
We hereby declare that the product cited below satisfies all relevant provisions according to the following
EC directives
:
● Machinery 2006/42/EC (Annex II, no. 1 A)
● Electromagnetic Compatibility 2014/30/EU
The agent responsible for compiling the technical documentation is Mr. Helmut Bernhardt, Pfeiffer Vacuum GmbH, Berliner Straße 43, 35614 Aßlar.
HiPace 400
Harmonised standards and national standards and specifications which have been applied:
DIN EN ISO 12100 : 2011-03
DIN EN 1012-2 : 1996
DIN EN 61000-3-2 : 2010
DIN EN 61000-3-3 : 2009
DIN EN 61010-1 : 2010
DIN EN 61326-1 : 2013
DIN EN 62061 : 2013
Signature:
Pfeiffer Vacuum GmbH
Berliner Straße 43
35614 Asslar
Germany
2016-04-25 (Dr. Ulrich von Hülsen)
Managing Director
VACUUM SOLUTIONS FROM A SINGLE SOURCE
Pfeiffer Vacuum stands for innovative and custom vacuum solutions worldwide, technological perfection, competent advice and reliable service.
COMPLETE RANGE OF PRODUCTS
From a single component to complex systems:
We are the only supplier of vacuum technology that provides a complete product portfolio.
COMPETENCE IN THEORY AND PRACTICE
Benefit from our know-how and our portfolio of training opportunities!
We support you with your plant layout and provide first-class on-site service worldwide.
Are you looking for a perfect vacuum solution?
Please contact us:
Pfeiffer Vacuum GmbH
Headquarters • Germany
T +49 6441 802-0 [email protected]
www.pfeiffer-vacuum.com
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Table of contents
- 4 About this manual
- 4 1.1 Validity
- 4 1.1.1 Applicable documents
- 4 1.2 Conventions
- 4 1.2.1 Safety instructions
- 5 1.2.2 Pictographs
- 5 1.2.3 Instructions in the text
- 5 1.2.4 Abbreviations
- 5 1.2.5 Symbols used
- 6 Safety
- 6 2.1 Safety precautions
- 7 2.2 Protective equipment
- 7 2.3 Proper use
- 8 2.4 Improper use
- 9 Transport and storage
- 9 3.1 Transport
- 9 3.2 Storage
- 10 Product description
- 10 4.1 Product identification
- 10 4.1.1 Pump types
- 10 4.1.2 Pump features
- 10 4.1.3 Variants
- 10 4.1.4 Scope of delivery
- 11 4.2 Function
- 11 4.2.1 Cooling
- 11 4.2.2 Rotor bearing
- 11 4.2.3 Drive
- 12 4.3 Range of application
- 13 Installation
- 13 5.1 Preparatory work
- 13 5.2 Set-up
- 14 5.2.1 Earthquake safety
- 14 5.2.2 Use of a splinter shield or protection screen
- 14 5.2.3 Vibration damper
- 15 5.3 Mounting orientation
- 16 5.4 Connecting the high vacuum side
- 16 5.4.1 Installation of ISO-K flange with ISO-K flange
- 17 5.4.2 Installation of ISO-K flange with ISO-F flange
- 18 5.4.3 Installation of ISO-F with ISO-F flange
- 19 5.4.4 Installation of CF- flanges
- 20 5.5 Connecting the fore-vacuum side
- 21 5.6 Connections to the turbopump
- 21 5.6.1 Electronic drive unit
- 21 5.6.2 Earthing
- 21 5.6.3 Power and electrical supply
- 22 5.6.4 Remote plug
- 22 5.7 Accessory connection
- 23 5.7.1 Air cooling
- 23 5.7.2 Venting valve
- 24 5.7.3 Sealing gas connection
- 24 5.7.4 Heating jacket
- 26 5.7.5 Water cooling
- 27 Operation
- 27 6.1 Commissioning
- 27 6.2 Operation modes
- 27 6.3 Function description
- 28 6.3.1 Operation without operating unit
- 28 6.3.2 Operation via "remote" connection
- 28 6.3.3 Operation with DCU or HPU
- 28 6.3.4 Operation via fieldbus
- 28 6.4 Monitoring of the operation conditions
- 28 6.4.1 Temperature monitoring
- 29 6.4.2 Operation display via LED
- 29 6.5 Switching off and venting
- 29 6.5.1 Switching off
- 29 6.5.2 Venting
- 30 Maintenance / replacement
- 30 7.1 Maintenance intervals and responsibilities
- 30 7.2 Replacing the operating fluid reservoir
- 32 7.3 Replacing the electronic drive unit
- 32 7.3.1 Rotation speed set value
- 33 Decommissioning
- 33 8.1 Shutting down for longer periods
- 33 8.2 Re-starting
- 33 8.3 Disposal
- 34 Malfunctions
- 34 9.1 Rectifying malfunctions
- 35 Service
- 36 Spare parts HiPace
- 37 Accessories
- 37 12.1 HiPace 400, 48 V DC
- 38 12.2 Differences at HiPace 400, 24 V DC
- 39 Technical data and dimensions
- 39 13.1 General
- 39 13.2 HiPace 400, 48 V DC
- 40 13.3 Differences at HiPace 400, 24 V DC
- 41 13.4 Dimensions
- 42 Declaration of conformity