NEXTorr Z 100 HIGHLIGHTS

Similar documents
NEXTorr HV 100 HIGHLIGHTS

CapaciTorr HV 200 HIGHLIGHTS

CapaciTorr HV Pumps. making innovation happen,together

CapaciTorr B MK5


Charging of the test masses past, present and future. R. Weiss LIGO Systems Mee=ng September 23, 2014

Ultra-High Vacuum Technology. Sputter Ion Pumps l/s

ION Pumps for UHV Systems, Synchrotrons & Particle Accelerators. Mauro Audi, Academic, Government & Research Marketing Manager

Sputter Ion Pump (Ion Pump) By Biswajit

Non-Evaporable Getters

Ion Pump Applications

ARGUS VI. Static Vacuum Mass Spectrometer. Static Vacuum ARGUS VI. Multicollection Low Volume Precision

HELIX SFT. Static Vacuum ARGUS VI HELIX SFT. Static Vacuum Mass Spectrometer Static Vacuum Mass Spectrometer

Page Films. we support your innovation

The vacuum insulated transfer lines for CMS CO 2 cooling: performances and lessons learnt

Vacuum. Kai Schwarzwälder, Institut für Physik Universität Basel October 6 th 2006

SORB-AC Getter Wafer Modules and Panels. We support your innovation

Vacuum for Accelerators

Vacuum gas dynamics investigation and experimental results on the TRASCO-ADS Windowless Interface

AND LIMITATIONS K. BALOGH

The Vacuum Case for KATRIN

HELIX MC Plus. Static Vacuum. ARGUS VI Thermo Scientific HELIX MC Plus Static Vacuum Mass Spectrometer Static Vacuum Mass Spectrometer

HiPace 1200, with TC 1200, DN 200 CF-F

Repetition: Physical Deposition Processes

Generation of vacuum (pumps): Vacuum (pressure) measurements:

Lecture 4. Ultrahigh Vacuum Science and Technology

A Vacuum point of view

HiPace 300 with TC 110 and power supply pack OPS 100, DN 100 CF-F

Vacuum Pumps. Two general classes exist: Gas transfer physical removal of matter. Mechanical, diffusion, turbomolecular

- A spark is passed through the Argon in the presence of the RF field of the coil to initiate the plasma

Ion Getter and Titanium Sublimation Pumps. Ion Getter Pumps (IGP)

ELEMENT2 High Resolution- ICP-MS INSTRUMENT OVERVIEW

BALKAN PHYSICS LETTERS Bogazici University Press 15 November 2016 BPL, 24, , pp , (2016)

( KS A ) (1) , vapour, vapor (USA) , saturation vapour pressure. , standard reference conditions for gases. , degree of saturation

Some Getter Numbers. There are 2 SAES getters we are considering: ST707 [1] and ST122 [2, 3].

PRODUCT SPECIFICATIONS

of mass spectrometry

λ = 5 10 p (i.e. 5 cm at 10 3 Torr, or ( )

HiPace 300 with TC 400, DN 100 CF-F

Hydrogen Sorption in Zirconium and Relevant Surface Phenomena

HiPace 300 with TC 110, DN 100 CF-F

Generation of vacuum (pumps) and measurements

Chapter 13: Partial Pressure Analysis

AGILENT SPUTTER ION PUMPS A 60 YEAR HISTORY

Vacuum. Residual pressure can thwart the best cryogenic design. Each gas molecule collision carries ~kt from the hot exterior to the cold interior.

Vacuum Solutions for Ion Thruster Testing

VARIAN SPUTTER ION PUMPS A 50 YEAR HISTORY

Ultrasonic Gas Flow Meter

To move a particle in a (straight) line over a large distance

Information from Every Angle

TURBOPUMPS. For perfect vacuum solutions to challenging applications

Anomalous production of gaseous 4 He at the inside of DScathode during D 2 O-electrolysis

Autoresonant Ion Trap Mass Spectrometer The RGA Alternative

PHI 5000 Versaprobe-II Focus X-ray Photo-electron Spectroscopy

MICROCHIP MANUFACTURING by S. Wolf

Ionization Detectors

Urchin-like Ni-P microstructures: A facile synthesis, properties. and application in the fast removal of heavy-metal ions

UHV - Technology. Oswald Gröbner

New Multi-Collector Mass Spectrometry Data for Noble Gases Analysis

Turbine Meter TRZ 03 PRODUCT INFORMATION. Reliable Measurement of Gas

Thermo Scientific ELEMENT GD PLUS Glow Discharge Mass Spectrometer. Defining quality standards for the analysis of solid samples

Vacuum Technology for Particle Accelerators

Extrel Application Note

Thermo Scientific ICP-MS solutions for the semiconductor industry. Maximize wafer yields with ultralow elemental detection in chemicals and materials

Department of Radiation Protection, Nuclear Science Research Institute, Japan Atomic Energy Agency

UNIVERSITY OF CAMBRIDGE INTERNATIONAL EXAMINATIONS International General Certificate of Secondary Education

THIN FLEXIBLE POLYMER SUBSTRATES COATED BY THICK FILMS IN ROLL-TO-ROLL VACUUM

Extrel is widely respected for the quality of mass spectrometer systems that are

Direct-operated 2/2-way compact solenoid valves Type EV210A

Virtually Particle-Free Rt -Silica BOND Columns

Direct Neutrino Mass Measurement with KATRIN. Sanshiro Enomoto (University of Washington) for the KATRIN Collaboration

Vacuum techniques (down to 1 K)

PRODUCT SPECIFICATIONS

IBV Series Z Alloy Steel Inverted Bucket Vertical Steam Trap

DM70 Hand-Held Dewpoint Meter for Spot-Checking Applications

DEPOSITION OF THIN TiO 2 FILMS BY DC MAGNETRON SPUTTERING METHOD

Determination of Minimum Detectable Partial Pressure (MDPP) of QMS and its Uncertainty

Physics PH1FP. (Jun14PH1FP01) General Certificate of Secondary Education Foundation Tier June Unit Physics P1. Unit Physics P1 TOTAL

Earlier Lecture. In the earlier lecture, we have seen non metallic sensors like Silicon diode, Cernox and Ruthenium Oxide.

The Ultimate Innovators

The Periodic Table 1 of 37 Boardworks Ltd 2016

arxiv: v1 [physics.acc-ph] 1 Apr 2015

Stoichiometry. Lab. FCJJ 16 - Solar Hydrogen Science Kit. Goals. Background. Procedure + 2 O 2 CH 4 CO H2O

IBV Series C Carbon Steel Inverted Bucket Vertical Steam Trap

TPDRO 1100 Advanced Catalyst Characterization. For Temperature Programmed Desorption, Reduction, Oxidation and Chemisorption

STANDARD: SPECIFICATION FOR PROTECTIVE ENCLOSURE AND CARRIER SYSTEMS USED TO TRANSPORT AND STORE ( INCH EUV RETICLES

Previous Lecture. Electron beam lithoghraphy e - Electrons are generated in vacuum. Electron beams propagate in vacuum

Solenoid valves 2/2-way direct-operated type EV210A

Hiden SIMS Secondary Ion Mass Spectrometers. Analysers for surface, elemental and molecular analysis

Reporting Category 1: Matter and Energy

Temperature and Pressure Sensor Interfaces for the ATTA Experiment. Ashleigh Lonis Columbia University REU 2012

ENVG FALL ICP-MS (Inductively Coupled Plasma Mass Spectrometry) Analytical Techniques

PARTS MANUAL 2 INCH CHIPPER/SHREDDER. SC cc SUBARU

UNIVERSITY OF CAMBRIDGE INTERNATIONAL EXAMINATIONS General Certificate of Education Advanced Level

Vacuum System of Synchrotron radiation sources

Prima PRO Process Mass Spectrometer

Vacuum II. G. Franchetti CAS - Bilbao. 30/5/2011 G. Franchetti 1

Height Master Page 343. Check Master Page 347. Calibration Tools Page 352

Reporting Category 1: Matter and Energy

Transcription:

NEXTorr Z 00 HIGHLIGHTS General Features High pumping speed for all active gases Pumping speed for noble gases and methane Constant pumping speed for active gases in UHV-XHV No intrinsic pressure limitations Minimal power requirement during operations Extremely compact and light pump Reduced magnetic interference Able to measure pressure lower than 0-9 mbar Applications The NEXTorr Z 00 is an extremely compact pump able to sorb gases very effectively and with large capacity down to the XHV level. The getter cartridge is made of the new ZAO sintered getter disks stacked in a highly efficient gas trapping structure featuring pumping speed in excess of 50 l/s (H2). The cartridge is integrated into a CF 35 flange containing a heating element for the getter activation. After the activation is carried out (500 C x h), the pump removes gases at room temperature without any need for electric power to operate. On the other side of the same flange, a diode ion pump featuring 6 l/s (Ar) is connected. Gas flows from the vacuum system to the ion pump through an optimized conductance. The optimized conductance and the special internal design of the ion pump allow the maximum exploitation of the ion pump sorption performance. The configuration of the ion pump with respect of the getter cartridge provides additional pumping synergies. Gases released by the ion pump during the operation, are intercepted and removed by the getter element, with a substantial reduction of backstreaming effects. For the same reasons, increased pumping efficiency for H2 and CH4 are obtained. Fine titanium particles which are known to be continuously emitted by ion pumps during operation are also effectively trapped by the getter element, reducing potential contamination of the vacuum system. 75 06,5 64,5 Improvement of the ultimate vacuum in UHV-XHV systems Reduction of the footprint and weight of vacuum systems Scanning /transmission electron microscopes 8 Surface science equipments Portable analysers vacuum instrumentations General purpose UHV systems Particle accelerators, synchrotron radiation sources and related equipments O35 Total pump weight (magnets included) 78 2.2 kg Dimensions in mm Total pump volume 0.5 litre Type of ion pump Diode Operation Voltage Ion Element 5.0 kvdc Operation Voltage NEG Element 9.0 Vdc making innovation happen, together

000 Pumping speed curves for various gases NEXTorr Z 00 sorption test (according to ASTM FT98-97) NEXTorr Z 00 H 2 2 3 4 Pumping Speed [l/s] 00 0 Activation : 550 C x 60' Sorption pressure: 3e-6 torr Sorption temperature : 25 C 0,000 0,00 0,0 0, 0 00 Initial pumping speed (l/s) Sorption capacity (Torr l) Gas NEG activated NEG saturated O 2 75 4 H 2 50 6 CO 65 5 N 2 40 4 H 2 O 00 4 5 5 Argon 6 (0.3) 6 (0.3) Gas Single run capacity 2 Total capacity 3 O 2 3 >00 H 2 600 N/A 4 CO 0.45 >260 N 2 0.28 >50 H 2 O 5.5 >2000 50,000 hours at 0-6 NEG section Getter alloy type ZAO Alloy composition Zr V Ti Al Getter mass (g) 30 Getter surface (cm 2 ) 56 ION section Voltage applied DC+5kV Number of Penning cells 4 Standard bake-out temperature 50 C Measured at 3x0-6 Torr. Unsaturated pump (saturated pump). Capacity values with the NEG element at room temperature, corresponding to a drop of the pumping speed to 0% of its initial value. A drop to 5% has been considered in the case of N 2. Total capacity values for each single gas obtained after many reactivations (getter fully consumed). Capacity values for the various gases are not additive (a getter fully reacted with one gas specie will not sorb another gas). After the getter element has reached its H 2 capacity it can be regenerated. Through the regeneration process it is possible to extract the hydrogen stored in the getter. After a full regeneration process, the pump can start pumping hydrogen again. Sorbed Quantity [Torr l] CO N 2 O 2 Product Product description Code NEXTorr PUMP NEXTorr Z 00 5H02 Pump power supply NEXTorr PS NIOPS-03 3B0408 Power supply cables NEXTorr KIT OF CABLES-03 3B0409 NEG element power supply* NEG POWER LP C** 3B052 ION element power supply SIP POWER 3B0506 Output cable NEG element NEG POWER-NEXTorr D00/D200 Output Cable - 3MT*** 3B0495 Output cable ION element NIOPS-03 - OUTPUT CABLE ION - 3 MT*** 3B040 NEG element power supply CapaciTorr CF 35 D 00 Power Supply 3B0385 Input Cable Cable Mains Input CF 35 3 MT 3B0338 Output Cable Cable Supply Output CF 35 D50/D00/D200 3 MT 3B0386 * The power supply includes the input cable ** Other models, able to simultaneously drive up to four pumps, are available *** Longer output cables are available on request The NEXTorr product line incorporates and exploits the patented concept of a combined pumping system comprising a geter pump and an ion pump, and have global Intellectual Property Rights coverage with patents already granted in the US (8,287,247), Europe (2,409,034), Japan (5,372,239), China (02356236). H 2 O SAES Group. Printed in Italy. All rights reserved. SAES and NEXTorr are registered trademarks of SAES Group. SAES Group reserves the right to change or modify product specifications at any timewithout notice. The SAES Group manufacturing companies are ISO900 certified and the Italian companies are also ISO400 certified. Full information about our certifications for each company of the Group are available on our website at: D.VS.6..8 SAES Group neg_technology@saes-.com

NEXTorr Z 200_Layout 5/09/207 0:24 Pagina NEXTorr Z 200 HIGHLIGHTS General Features High pumping speed for all active gases Pumping speed for noble gases and methane Constant pumping speed for active gases in UHV-XHV No intrinsic pressure limitations Minimal power requirement during operations Extremely compact and light pump Reduced magnetic interference Able to measure pressure lower than 0-9 mbar The NEXTorr Z 200 is an extremely compact pump able to sorb gases very effectively and with large capacity down to the XHV level. The getter cartridge is made of the new ZAO sintered getter disks stacked in a highly efficient gas trapping structure featuring pumping speed in excess of 300 l/s (H2). The cartridge is integrated into a CF 35 flange containing a heating element for the getter activation. After the activation is carried out (500 C x h), the pump removes gases at room temperature without any need for electric power to operate. On the other side of the same flange, a diode ion pump featuring 6 l/s (Ar) is connected. Gas flows from the vacuum system to the ion pump through an optimized conductance. The optimized conductance and the special internal design of the ion pump allow the maximum exploitation of the ion pump sorption performance. The configuration of the ion pump with respect of the getter cartridge provides additional pumping synergies. Gases released by the ion pump during the operation, are intercepted and removed by the getter element, with a substantial reduction of backstreaming effects. For the same reasons, increased pumping efficiency for H2 and CH4 are obtained. Fine titanium particles which are known to be continuously emitted by ion pumps during operation are also effectively trapped by the getter element, reducing potential contamination of the vacuum system. Applications Improvement of the ultimate vacuum in UHV-XHV systems Reduction of the footprint and weight of vacuum systems Scanning /transmission electron microscopes Surface science equipments Portable analysers vacuum instrumentations Dimensions in mm General purpose UHV systems Particle accelerators, synchrotron radiation sources and related equipments g r ou p m a k i n g i n n ovat i o n h a p p e n, to g et h e r Total pump weight (magnets included) 2.2 kg Total pump volume 0.5 litre Type of ion pump Diode Operation Voltage Ion Element 5.0 kvdc Operation Voltage NEG Element 2 Vdc

Pumping speed curves for various gases NEXTorr Z 200 000 NEXTorr Z 200 sorption test (according to ASTM FT98-97) H 2 2 3 4 Pumping Speed [l/s] 00 0 Activation : 550 C x 60' Sorption pressure: 3e-6 torr Sorption temperature : 25 C 0,000 0,00 0,0 0, 0 00 Initial pumping speed (l/s) Sorption capacity (Torr l) Gas NEG activated NEG saturated O 2 40 4 H 2 290 6 CO 20 5 N 2 70 4 H 2 O 90 4 3 5 Argon 6 (0.3) 6 (0.3) Gas Single run capacity 2 Total capacity 3 O 2 2,8 >2000 H 2 20 N/A 4 CO 0,7 >480 H 2 O 5,5 >4000 N 2 0.3 >00 55 50,000 hours at 0-6 Torr NEG section Getter alloy type ZAO Alloy composition Zr V Ti Al Getter mass (g) 56 g Getter surface (cm 2 ) 295 ION section Voltage applied DC+5kV Sorbed Quantity [Torr l] Number of Penning cells 4 Standard bake-out temperature 50 C Measured at 3x0-6 Torr. Unsaturated pump (saturated pump). Capacity values with the NEG element at room temperature, corresponding to a drop of the pumping speed to 0% of its initial value. A drop to 50% has been considered in the case of. Total capacity values for each single gas obtained after many reactivations (getter fully consumed). Capacity values for the various gases are not additive (a getter fully reacted with one gas specie will not sorb another gas). After the getter element has reached its room temperature H 2 capacity it can be regenerated. The regeneration process extracts the H 2 stored in the getter. After being regenerated, the pump can start pumping H 2 again. Product Product description Code NEXTorr PUMP NEXTorr Z 200 5H099 Pump power supply NEXTorr PS NIOPS-03 3B0408 Power supply cables NEXTorr KIT OF CABLES-03 3B0409 Power supply input cable NIOPS INPUT CABLE 3B0398 Output cable ION element NIOPS03-OUTPUT CABLE ION-3MT 3B040 Output cable NEG element NIOPS03-OUTPUT CABLE NEG-3MT 3B04 N 2 CO H 2 O O2 The SAES Group manufacturing companies are ISO900 certified and the Italian companies are also ISO400 certified. Full information about our certifications for each company of the Group are available on our website at: D.VS.52.3.7 The NEXTorr product line incorporates and exploits the patented concept of a combined pumping system comprising a geter pump and an ion pump, and have global Intellectual Property Rights coverage with patents already granted in the US (8,287,247), Europe (2,409,034), Japan (5,372,239), China (02356236). SAES Group. Printed in Italy. All rights reserved. SAES and NEXTorr are registered trademarks of SAES Group. SAES Group reserves the right to change or modify product specifications at any timewithout notice. SAES Group neg_technology@saes-.com

NEXTorr Z 300 HIGHLIGHTS General Features High pumping speed for all active gases Pumping speed for noble gases and methane Constant pumping speed for active gases in UHV-XHV No intrinsic pressure limitations Minimal power requirement during operations Extremely compact and light pump Reduced magnetic interference Able to measure pressure lower than 0-9 mbar The NEXTorr Z 300 is an extremely compact pump able to sorb gases very effectively and with large capacity down to the XHV level. The getter cartridge is made of the new ZAO sintered getter disks stacked in a highly efficient gas trapping structure featuring pumping speed in excess of 400 l/s (H2). The cartridge is integrated into a CF 63 flange containing a heating element for the getter activation. After the activation is carried out (500 C x h), the pump removes gases at room temperature without any need for electric power to operate. On the other side of the same flange, a diode ion pump featuring 6 l/s (Ar) is connected. Gas flows from the vacuum system to the ion pump through an optimized conductance. The optimized conductance and the special internal design of the ion pump allow the maximum exploitation of the ion pump sorption performance. The configuration of the ion pump with respect of the getter cartridge provides additional pumping synergies. Gases released by the ion pump during the operation, are intercepted and removed by the getter element, with a substantial reduction of backstreaming effects. For the same reasons, increased pumping efficiency for H2 and CH4 are obtained. Fine titanium particles which are known to be continuously emitted by ion pumps during operation are also effectively trapped by the getter element, reducing potential contamination of the vacuum system. 20 8 Applications Improvement of the ultimate vacuum in UHV-XHV systems Reduction of the footprint and weight of vacuum systems Scanning /transmission electron microscopes Surface science equipments Portable analysers vacuum instrumentations General purpose UHV systems Particle accelerators, synchrotron radiation sources and related equipments g r ou p m a k i n g i n n ovat i o n h a p p e n, to g et h e r O 59 O 3,5 Dimensions in mm Total pump weight (magnets included) 3. kg Total pump volume 0.6 litre Type of ion pump Diode Operation Voltage Ion Element 5.0 kvdc Operation Voltage NEG Element 20 Vdc PROVISIONAL

Pumping speed curves for various gases NEXTorr Z 300 NEXTorr Z 300 sorption test (according to ASTM FT98-97) 000 H 2 2 3 4 Pumping Speed [l/s] 00 0 Activation : 550 C x 60' Sorption pressure: 3e-6 torr Sorption temperature : 25 C 0,000 0,00 0,0 0, 0 00 000 Initial pumping speed (l/s) Sorption capacity (Torr l) Measured at 3x0-6 Torr. Unsaturated pump (saturated pump). Capacity values with the NEG element at room temperature, corresponding to a drop of the pumping speed to 0% of its initial value. Total capacity values for each single gas obtained after many reactivations (getter fully consumed). Capacity values for the various gases are not additive (a getter fully reacted with one gas specie will not sorb another gas). After the getter element has reached its room temperature H 2 capacity it can be regenerated. The regeneration process extracts the H 2 stored in the getter. After being regenerated, the pump can start pumping H 2 again. Sorbed Quantity [Torr l] Gas NEG activated NEG saturated O 2 220 4 H 2 400 6 CO 200 5 N 2 20 4 H 2 O 280 4 5 8 Argon 6 (0.3) 6 (0.3) Gas Product Product description Code NEXTorr PUMP NEXTorr Z 300 5H020 Pump power supply NEXTorr PS NIOPS-04 3B045 Power supply cables NEXTorr KIT OF CABLES-04-06 3B046 Power supply input cable NIOPS INPUT CABLE 3B0398 Output cable ION element NIOPS04-06 - OUTPUT CABLE ION-3MT 3B048 Output cable NEG element NIOPS04-06 - OUTPUT CABLE NEG-3MT 3B049 PROVISIONAL Single run capacity 2 Total capacity 3 O 2 5 >3500 H 2 920 N/A CO 0.8 >850 N 2 0.6 >70 H 2 O 0 >7000 50,000 hours at 0-6 Torr NEG section Getter alloy type ZAO Alloy composition Zr V Ti Al Getter mass (g) 96 Getter surface (cm 2 ) 500 ION section Voltage applied DC+5kV The NEXTorr product line incorporates and exploits the patented concept of a combined pumping system comprising a geter pump and an ion pump, and have global Intellectual Property Rights coverage with patents already granted in the US (8,287,247), Europe (2,409,034), Japan (5,372,239), China (02356236). N 2 SAES Group. Printed in Italy. All rights reserved. SAES and NEXTorr are registered trademarks of SAES Group. SAES Group reserves the right to change or modify product specifications at any timewithout notice. CO O 2 H 2 O Number of Penning cells 4 Standard bake-out temperature 50 C The SAES Group manufacturing companies are ISO900 certified and the Italian companies are also ISO400 certified. Full information about our certifications for each company of the Group are available on our website at: D.VS.63..7 SAES Group neg_technology@saes-.com